Bindings updates

[ldk-java] / ts / bindings.c

#include <rust_types.h>
#include "js-wasm.h"
#include <stdatomic.h>
#include <lightning.h>

// These should be provided...somehow...
void *memset(void *s, int c, size_t n);
void *memcpy(void *dest, const void *src, size_t n);
int memcmp(const void *s1, const void *s2, size_t n);

void __attribute__((noreturn)) abort(void);
static inline void assert(bool expression) {
        if (!expression) { abort(); }
}

// Always run a, then assert it is true:
#define DO_ASSERT(a) do { bool _assert_val = (a); assert(_assert_val); } while(0)
// Assert a is true or do nothing
#define CHECK(a) DO_ASSERT(a)

// Running a leak check across all the allocations and frees of the JDK is a mess,
// so instead we implement our own naive leak checker here, relying on the -wrap
// linker option to wrap malloc/calloc/realloc/free, tracking everyhing allocated
// and free'd in Rust or C across the generated bindings shared library.

#define BT_MAX 128
typedef struct allocation {
        struct allocation* next;
        void* ptr;
        const char* struct_name;
} allocation;
static allocation* allocation_ll = NULL;

void* __real_malloc(size_t len);
void* __real_calloc(size_t nmemb, size_t len);
static void new_allocation(void* res, const char* struct_name) {
        allocation* new_alloc = __real_malloc(sizeof(allocation));
        new_alloc->ptr = res;
        new_alloc->struct_name = struct_name;
        new_alloc->next = allocation_ll;
        allocation_ll = new_alloc;
}
static void* MALLOC(size_t len, const char* struct_name) {
        void* res = __real_malloc(len);
        new_allocation(res, struct_name);
        return res;
}
void __real_free(void* ptr);
static void alloc_freed(void* ptr) {
        allocation* p = NULL;
        allocation* it = allocation_ll;
        while (it->ptr != ptr) {
                p = it; it = it->next;
                if (it == NULL) {
                        //XXX: fprintf(stderr, "Tried to free unknown pointer %p\n", ptr);
                        return; // addrsan should catch malloc-unknown and print more info than we have
                }
        }
        if (p) { p->next = it->next; } else { allocation_ll = it->next; }
        DO_ASSERT(it->ptr == ptr);
        __real_free(it);
}
static void FREE(void* ptr) {
        if ((long)ptr < 1024) return; // Rust loves to create pointers to the NULL page for dummys
        alloc_freed(ptr);
        __real_free(ptr);
}

void* __wrap_malloc(size_t len) {
        void* res = __real_malloc(len);
        new_allocation(res, "malloc call");
        return res;
}
void* __wrap_calloc(size_t nmemb, size_t len) {
        void* res = __real_calloc(nmemb, len);
        new_allocation(res, "calloc call");
        return res;
}
void __wrap_free(void* ptr) {
        if (ptr == NULL) return;
        alloc_freed(ptr);
        __real_free(ptr);
}

void* __real_realloc(void* ptr, size_t newlen);
void* __wrap_realloc(void* ptr, size_t len) {
        if (ptr != NULL) alloc_freed(ptr);
        void* res = __real_realloc(ptr, len);
        new_allocation(res, "realloc call");
        return res;
}
void __wrap_reallocarray(void* ptr, size_t new_sz) {
        // Rust doesn't seem to use reallocarray currently
        DO_ASSERT(false);
}

void __attribute__((destructor)) check_leaks() {
        for (allocation* a = allocation_ll; a != NULL; a = a->next) {
                //XXX: fprintf(stderr, "%s %p remains\n", a->struct_name, a->ptr);
        }
        DO_ASSERT(allocation_ll == NULL);
}

// We assume that CVec_u8Z and u8slice are the same size and layout (and thus pointers to the two can be mixed)
_Static_assert(sizeof(LDKCVec_u8Z) == sizeof(LDKu8slice), "Vec<u8> and [u8] need to have been mapped identically");
_Static_assert(offsetof(LDKCVec_u8Z, data) == offsetof(LDKu8slice, data), "Vec<u8> and [u8] need to have been mapped identically");
_Static_assert(offsetof(LDKCVec_u8Z, datalen) == offsetof(LDKu8slice, datalen), "Vec<u8> and [u8] need to have been mapped identically");

_Static_assert(sizeof(void*) == 4, "Pointers mut be 32 bits");

typedef uint32_t int64_tArray;
typedef uint32_t int8_tArray;
typedef uint32_t uint32_tArray;
typedef uint32_t ptrArray;
typedef uint32_t jstring;

static inline uint32_t init_arr(size_t arr_len, size_t elem_size, const char *type_desc) {
        uint32_t *elems = (uint32_t*)MALLOC(arr_len * elem_size + 4, type_desc);
        elems[0] = arr_len;
        return (uint32_t)elems;
}

jstring str_ref_to_ts(const char* chars, size_t len) {
        char* err_buf = MALLOC(len + 4, "str conv buf");
        *((uint32_t*)err_buf) = len;
        memcpy(err_buf + 4, chars, len);
        return (uint32_t) err_buf;
}

typedef bool jboolean;

uint32_t __attribute__((visibility("default"))) TS_malloc(uint32_t size) {
        return (uint32_t)MALLOC(size, "JS-Called malloc");
}
void __attribute__((visibility("default"))) TS_free(uint32_t ptr) {
        FREE((void*)ptr);
}
static inline struct LDKThirtyTwoBytes ThirtyTwoBytes_clone(const struct LDKThirtyTwoBytes *orig) { struct LDKThirtyTwoBytes ret; memcpy(ret.data, orig->data, 32); return ret; }
static inline LDKAccessError LDKAccessError_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKAccessError_UnknownChain;
                case 1: return LDKAccessError_UnknownTx;
        }
        abort();
}
static inline int32_t LDKAccessError_to_js(LDKAccessError val) {
        switch (val) {
                case LDKAccessError_UnknownChain: return 0;
                case LDKAccessError_UnknownTx: return 1;
                default: abort();
        }
}
static inline LDKChannelMonitorUpdateErr LDKChannelMonitorUpdateErr_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKChannelMonitorUpdateErr_TemporaryFailure;
                case 1: return LDKChannelMonitorUpdateErr_PermanentFailure;
        }
        abort();
}
static inline int32_t LDKChannelMonitorUpdateErr_to_js(LDKChannelMonitorUpdateErr val) {
        switch (val) {
                case LDKChannelMonitorUpdateErr_TemporaryFailure: return 0;
                case LDKChannelMonitorUpdateErr_PermanentFailure: return 1;
                default: abort();
        }
}
static inline LDKConfirmationTarget LDKConfirmationTarget_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKConfirmationTarget_Background;
                case 1: return LDKConfirmationTarget_Normal;
                case 2: return LDKConfirmationTarget_HighPriority;
        }
        abort();
}
static inline int32_t LDKConfirmationTarget_to_js(LDKConfirmationTarget val) {
        switch (val) {
                case LDKConfirmationTarget_Background: return 0;
                case LDKConfirmationTarget_Normal: return 1;
                case LDKConfirmationTarget_HighPriority: return 2;
                default: abort();
        }
}
static inline LDKLevel LDKLevel_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKLevel_Off;
                case 1: return LDKLevel_Error;
                case 2: return LDKLevel_Warn;
                case 3: return LDKLevel_Info;
                case 4: return LDKLevel_Debug;
                case 5: return LDKLevel_Trace;
        }
        abort();
}
static inline int32_t LDKLevel_to_js(LDKLevel val) {
        switch (val) {
                case LDKLevel_Off: return 0;
                case LDKLevel_Error: return 1;
                case LDKLevel_Warn: return 2;
                case LDKLevel_Info: return 3;
                case LDKLevel_Debug: return 4;
                case LDKLevel_Trace: return 5;
                default: abort();
        }
}
static inline LDKNetwork LDKNetwork_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKNetwork_Bitcoin;
                case 1: return LDKNetwork_Testnet;
                case 2: return LDKNetwork_Regtest;
        }
        abort();
}
static inline int32_t LDKNetwork_to_js(LDKNetwork val) {
        switch (val) {
                case LDKNetwork_Bitcoin: return 0;
                case LDKNetwork_Testnet: return 1;
                case LDKNetwork_Regtest: return 2;
                default: abort();
        }
}
static inline LDKSecp256k1Error LDKSecp256k1Error_from_js(int32_t ord) {
        switch (ord) {
                case 0: return LDKSecp256k1Error_IncorrectSignature;
                case 1: return LDKSecp256k1Error_InvalidMessage;
                case 2: return LDKSecp256k1Error_InvalidPublicKey;
                case 3: return LDKSecp256k1Error_InvalidSignature;
                case 4: return LDKSecp256k1Error_InvalidSecretKey;
                case 5: return LDKSecp256k1Error_InvalidRecoveryId;
                case 6: return LDKSecp256k1Error_InvalidTweak;
                case 7: return LDKSecp256k1Error_TweakCheckFailed;
                case 8: return LDKSecp256k1Error_NotEnoughMemory;
        }
        abort();
}
static inline int32_t LDKSecp256k1Error_to_js(LDKSecp256k1Error val) {
        switch (val) {
                case LDKSecp256k1Error_IncorrectSignature: return 0;
                case LDKSecp256k1Error_InvalidMessage: return 1;
                case LDKSecp256k1Error_InvalidPublicKey: return 2;
                case LDKSecp256k1Error_InvalidSignature: return 3;
                case LDKSecp256k1Error_InvalidSecretKey: return 4;
                case LDKSecp256k1Error_InvalidRecoveryId: return 5;
                case LDKSecp256k1Error_InvalidTweak: return 6;
                case LDKSecp256k1Error_TweakCheckFailed: return 7;
                case LDKSecp256k1Error_NotEnoughMemory: return 8;
                default: abort();
        }
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_u8Z_new(int8_tArray elems) {
        LDKCVec_u8Z *ret = MALLOC(sizeof(LDKCVec_u8Z), "LDKCVec_u8Z");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(uint8_t) * ret->datalen, "LDKCVec_u8Z Data");
                int8_t *java_elems = (int8_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        ret->data[i] = java_elems[i];
                }
        }
        return (long)ret;
}
static inline LDKCVec_u8Z CVec_u8Z_clone(const LDKCVec_u8Z *orig) {
        LDKCVec_u8Z ret = { .data = MALLOC(sizeof(int8_t) * orig->datalen, "LDKCVec_u8Z clone bytes"), .datalen = orig->datalen };
        memcpy(ret.data, orig->data, sizeof(int8_t) * ret.datalen);
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u64u64Z_new(int64_t a, int64_t b) {
        LDKC2Tuple_u64u64Z* ret = MALLOC(sizeof(LDKC2Tuple_u64u64Z), "LDKC2Tuple_u64u64Z");
        ret->a = a;
        ret->b = b;
        return (long)ret;
}
static inline LDKC2Tuple_u64u64Z C2Tuple_u64u64Z_clone(const LDKC2Tuple_u64u64Z *orig) {
        LDKC2Tuple_u64u64Z ret = {
                .a = orig->a,
                .b = orig->b,
        };
        return ret;
}
int64_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u64u64Z_get_a(uint32_t ptr) {
        LDKC2Tuple_u64u64Z *tuple = (LDKC2Tuple_u64u64Z*)ptr;
        return tuple->a;
}
int64_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u64u64Z_get_b(uint32_t ptr) {
        LDKC2Tuple_u64u64Z *tuple = (LDKC2Tuple_u64u64Z*)ptr;
        return tuple->b;
}
uint32_t __attribute__((visibility("default"))) TS_LDKSpendableOutputDescriptor_ref_from_ptr(uint32_t ptr) {
        LDKSpendableOutputDescriptor *obj = (LDKSpendableOutputDescriptor*)ptr;
        switch(obj->tag) {
                case LDKSpendableOutputDescriptor_StaticOutput: {
                        LDKOutPoint outpoint_var = obj->static_output.outpoint;
                        CHECK((((long)outpoint_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&outpoint_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long outpoint_ref = (long)outpoint_var.inner & ~1;
                        long output_ref = (long)&obj->static_output.output;
                        return 0 /* LDKSpendableOutputDescriptor - StaticOutput */; (void) outpoint_ref; (void) (long)output_ref;
                }
                case LDKSpendableOutputDescriptor_DynamicOutputP2WSH: {
                        LDKOutPoint outpoint_var = obj->dynamic_output_p2wsh.outpoint;
                        CHECK((((long)outpoint_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&outpoint_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long outpoint_ref = (long)outpoint_var.inner & ~1;
                        int8_tArray per_commitment_point_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(per_commitment_point_arr + 4), obj->dynamic_output_p2wsh.per_commitment_point.compressed_form, 33);
                        long output_ref = (long)&obj->dynamic_output_p2wsh.output;
                        long key_derivation_params_ref = (long)&obj->dynamic_output_p2wsh.key_derivation_params;
                        int8_tArray revocation_pubkey_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(revocation_pubkey_arr + 4), obj->dynamic_output_p2wsh.revocation_pubkey.compressed_form, 33);
                        return 0 /* LDKSpendableOutputDescriptor - DynamicOutputP2WSH */; (void) outpoint_ref; (void) per_commitment_point_arr; (void) obj->dynamic_output_p2wsh.to_self_delay; (void) (long)output_ref; (void) key_derivation_params_ref; (void) revocation_pubkey_arr;
                }
                case LDKSpendableOutputDescriptor_StaticOutputCounterpartyPayment: {
                        LDKOutPoint outpoint_var = obj->static_output_counterparty_payment.outpoint;
                        CHECK((((long)outpoint_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&outpoint_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long outpoint_ref = (long)outpoint_var.inner & ~1;
                        long output_ref = (long)&obj->static_output_counterparty_payment.output;
                        long key_derivation_params_ref = (long)&obj->static_output_counterparty_payment.key_derivation_params;
                        return 0 /* LDKSpendableOutputDescriptor - StaticOutputCounterpartyPayment */; (void) outpoint_ref; (void) (long)output_ref; (void) key_derivation_params_ref;
                }
                default: abort();
        }
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_SpendableOutputDescriptorZ_new(uint32_tArray elems) {
        LDKCVec_SpendableOutputDescriptorZ *ret = MALLOC(sizeof(LDKCVec_SpendableOutputDescriptorZ), "LDKCVec_SpendableOutputDescriptorZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKSpendableOutputDescriptor) * ret->datalen, "LDKCVec_SpendableOutputDescriptorZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKSpendableOutputDescriptor arr_elem_conv = *(LDKSpendableOutputDescriptor*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_SpendableOutputDescriptorZ CVec_SpendableOutputDescriptorZ_clone(const LDKCVec_SpendableOutputDescriptorZ *orig) {
        LDKCVec_SpendableOutputDescriptorZ ret = { .data = MALLOC(sizeof(LDKSpendableOutputDescriptor) * orig->datalen, "LDKCVec_SpendableOutputDescriptorZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = SpendableOutputDescriptor_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t __attribute__((visibility("default"))) TS_LDKErrorAction_ref_from_ptr(uint32_t ptr) {
        LDKErrorAction *obj = (LDKErrorAction*)ptr;
        switch(obj->tag) {
                case LDKErrorAction_DisconnectPeer: {
                        LDKErrorMessage msg_var = obj->disconnect_peer.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKErrorAction - DisconnectPeer */; (void) msg_ref;
                }
                case LDKErrorAction_IgnoreError: {
                        return 0 /* LDKErrorAction - IgnoreError */;
                }
                case LDKErrorAction_SendErrorMessage: {
                        LDKErrorMessage msg_var = obj->send_error_message.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKErrorAction - SendErrorMessage */; (void) msg_ref;
                }
                default: abort();
        }
}
uint32_t __attribute__((visibility("default"))) TS_LDKHTLCFailChannelUpdate_ref_from_ptr(uint32_t ptr) {
        LDKHTLCFailChannelUpdate *obj = (LDKHTLCFailChannelUpdate*)ptr;
        switch(obj->tag) {
                case LDKHTLCFailChannelUpdate_ChannelUpdateMessage: {
                        LDKChannelUpdate msg_var = obj->channel_update_message.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKHTLCFailChannelUpdate - ChannelUpdateMessage */; (void) msg_ref;
                }
                case LDKHTLCFailChannelUpdate_ChannelClosed: {
                        return 0 /* LDKHTLCFailChannelUpdate - ChannelClosed */; (void) obj->channel_closed.short_channel_id; (void) obj->channel_closed.is_permanent;
                }
                case LDKHTLCFailChannelUpdate_NodeFailure: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->node_failure.node_id.compressed_form, 33);
                        return 0 /* LDKHTLCFailChannelUpdate - NodeFailure */; (void) node_id_arr; (void) obj->node_failure.is_permanent;
                }
                default: abort();
        }
}
uint32_t __attribute__((visibility("default"))) TS_LDKMessageSendEvent_ref_from_ptr(uint32_t ptr) {
        LDKMessageSendEvent *obj = (LDKMessageSendEvent*)ptr;
        switch(obj->tag) {
                case LDKMessageSendEvent_SendAcceptChannel: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_accept_channel.node_id.compressed_form, 33);
                        LDKAcceptChannel msg_var = obj->send_accept_channel.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendAcceptChannel */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendOpenChannel: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_open_channel.node_id.compressed_form, 33);
                        LDKOpenChannel msg_var = obj->send_open_channel.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendOpenChannel */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendFundingCreated: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_funding_created.node_id.compressed_form, 33);
                        LDKFundingCreated msg_var = obj->send_funding_created.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendFundingCreated */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendFundingSigned: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_funding_signed.node_id.compressed_form, 33);
                        LDKFundingSigned msg_var = obj->send_funding_signed.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendFundingSigned */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendFundingLocked: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_funding_locked.node_id.compressed_form, 33);
                        LDKFundingLocked msg_var = obj->send_funding_locked.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendFundingLocked */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendAnnouncementSignatures: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_announcement_signatures.node_id.compressed_form, 33);
                        LDKAnnouncementSignatures msg_var = obj->send_announcement_signatures.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendAnnouncementSignatures */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_UpdateHTLCs: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->update_htl_cs.node_id.compressed_form, 33);
                        LDKCommitmentUpdate updates_var = obj->update_htl_cs.updates;
                        CHECK((((long)updates_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&updates_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long updates_ref = (long)updates_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - UpdateHTLCs */; (void) node_id_arr; (void) updates_ref;
                }
                case LDKMessageSendEvent_SendRevokeAndACK: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_revoke_and_ack.node_id.compressed_form, 33);
                        LDKRevokeAndACK msg_var = obj->send_revoke_and_ack.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendRevokeAndACK */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendClosingSigned: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_closing_signed.node_id.compressed_form, 33);
                        LDKClosingSigned msg_var = obj->send_closing_signed.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendClosingSigned */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendShutdown: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_shutdown.node_id.compressed_form, 33);
                        LDKShutdown msg_var = obj->send_shutdown.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendShutdown */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendChannelReestablish: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_channel_reestablish.node_id.compressed_form, 33);
                        LDKChannelReestablish msg_var = obj->send_channel_reestablish.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendChannelReestablish */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_BroadcastChannelAnnouncement: {
                        LDKChannelAnnouncement msg_var = obj->broadcast_channel_announcement.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        LDKChannelUpdate update_msg_var = obj->broadcast_channel_announcement.update_msg;
                        CHECK((((long)update_msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&update_msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long update_msg_ref = (long)update_msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - BroadcastChannelAnnouncement */; (void) msg_ref; (void) update_msg_ref;
                }
                case LDKMessageSendEvent_BroadcastNodeAnnouncement: {
                        LDKNodeAnnouncement msg_var = obj->broadcast_node_announcement.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - BroadcastNodeAnnouncement */; (void) msg_ref;
                }
                case LDKMessageSendEvent_BroadcastChannelUpdate: {
                        LDKChannelUpdate msg_var = obj->broadcast_channel_update.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - BroadcastChannelUpdate */; (void) msg_ref;
                }
                case LDKMessageSendEvent_HandleError: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->handle_error.node_id.compressed_form, 33);
                        long action_ref = (long)&obj->handle_error.action;
                        return 0 /* LDKMessageSendEvent - HandleError */; (void) node_id_arr; (void) action_ref;
                }
                case LDKMessageSendEvent_PaymentFailureNetworkUpdate: {
                        long update_ref = (long)&obj->payment_failure_network_update.update;
                        return 0 /* LDKMessageSendEvent - PaymentFailureNetworkUpdate */; (void) update_ref;
                }
                case LDKMessageSendEvent_SendChannelRangeQuery: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_channel_range_query.node_id.compressed_form, 33);
                        LDKQueryChannelRange msg_var = obj->send_channel_range_query.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendChannelRangeQuery */; (void) node_id_arr; (void) msg_ref;
                }
                case LDKMessageSendEvent_SendShortIdsQuery: {
                        int8_tArray node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(node_id_arr + 4), obj->send_short_ids_query.node_id.compressed_form, 33);
                        LDKQueryShortChannelIds msg_var = obj->send_short_ids_query.msg;
                        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long msg_ref = (long)msg_var.inner & ~1;
                        return 0 /* LDKMessageSendEvent - SendShortIdsQuery */; (void) node_id_arr; (void) msg_ref;
                }
                default: abort();
        }
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_MessageSendEventZ_new(uint32_tArray elems) {
        LDKCVec_MessageSendEventZ *ret = MALLOC(sizeof(LDKCVec_MessageSendEventZ), "LDKCVec_MessageSendEventZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKMessageSendEvent) * ret->datalen, "LDKCVec_MessageSendEventZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKMessageSendEvent arr_elem_conv = *(LDKMessageSendEvent*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_MessageSendEventZ CVec_MessageSendEventZ_clone(const LDKCVec_MessageSendEventZ *orig) {
        LDKCVec_MessageSendEventZ ret = { .data = MALLOC(sizeof(LDKMessageSendEvent) * orig->datalen, "LDKCVec_MessageSendEventZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = MessageSendEvent_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t __attribute__((visibility("default"))) TS_LDKEvent_ref_from_ptr(uint32_t ptr) {
        LDKEvent *obj = (LDKEvent*)ptr;
        switch(obj->tag) {
                case LDKEvent_FundingGenerationReady: {
                        int8_tArray temporary_channel_id_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(temporary_channel_id_arr + 4), obj->funding_generation_ready.temporary_channel_id.data, 32);
                        LDKCVec_u8Z output_script_var = obj->funding_generation_ready.output_script;
                        int8_tArray output_script_arr = init_arr(output_script_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(output_script_arr + 4), output_script_var.data, output_script_var.datalen);
                        return 0 /* LDKEvent - FundingGenerationReady */; (void) temporary_channel_id_arr; (void) obj->funding_generation_ready.channel_value_satoshis; (void) output_script_arr; (void) obj->funding_generation_ready.user_channel_id;
                }
                case LDKEvent_FundingBroadcastSafe: {
                        LDKOutPoint funding_txo_var = obj->funding_broadcast_safe.funding_txo;
                        CHECK((((long)funding_txo_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                        CHECK((((long)&funding_txo_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                        long funding_txo_ref = (long)funding_txo_var.inner & ~1;
                        return 0 /* LDKEvent - FundingBroadcastSafe */; (void) funding_txo_ref; (void) obj->funding_broadcast_safe.user_channel_id;
                }
                case LDKEvent_PaymentReceived: {
                        int8_tArray payment_hash_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(payment_hash_arr + 4), obj->payment_received.payment_hash.data, 32);
                        int8_tArray payment_secret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(payment_secret_arr + 4), obj->payment_received.payment_secret.data, 32);
                        return 0 /* LDKEvent - PaymentReceived */; (void) payment_hash_arr; (void) payment_secret_arr; (void) obj->payment_received.amt;
                }
                case LDKEvent_PaymentSent: {
                        int8_tArray payment_preimage_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(payment_preimage_arr + 4), obj->payment_sent.payment_preimage.data, 32);
                        return 0 /* LDKEvent - PaymentSent */; (void) payment_preimage_arr;
                }
                case LDKEvent_PaymentFailed: {
                        int8_tArray payment_hash_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(payment_hash_arr + 4), obj->payment_failed.payment_hash.data, 32);
                        return 0 /* LDKEvent - PaymentFailed */; (void) payment_hash_arr; (void) obj->payment_failed.rejected_by_dest;
                }
                case LDKEvent_PendingHTLCsForwardable: {
                        return 0 /* LDKEvent - PendingHTLCsForwardable */; (void) obj->pending_htl_cs_forwardable.time_forwardable;
                }
                case LDKEvent_SpendableOutputs: {
                        LDKCVec_SpendableOutputDescriptorZ outputs_var = obj->spendable_outputs.outputs;
                        uint32_tArray outputs_arr = init_arr(outputs_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
                        uint32_t *outputs_arr_ptr = (uint32_t*)(outputs_arr + 4);
                        for (size_t b = 0; b < outputs_var.datalen; b++) {
                                long arr_conv_27_ref = (long)&outputs_var.data[b];
                                outputs_arr_ptr[b] = arr_conv_27_ref;
                        }
                        return 0 /* LDKEvent - SpendableOutputs */; (void) outputs_arr;
                }
                default: abort();
        }
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_EventZ_new(uint32_tArray elems) {
        LDKCVec_EventZ *ret = MALLOC(sizeof(LDKCVec_EventZ), "LDKCVec_EventZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKEvent) * ret->datalen, "LDKCVec_EventZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKEvent arr_elem_conv = *(LDKEvent*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_EventZ CVec_EventZ_clone(const LDKCVec_EventZ *orig) {
        LDKCVec_EventZ ret = { .data = MALLOC(sizeof(LDKEvent) * orig->datalen, "LDKCVec_EventZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = Event_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_usizeTransactionZ_new(intptr_t a, int8_tArray b) {
        LDKC2Tuple_usizeTransactionZ* ret = MALLOC(sizeof(LDKC2Tuple_usizeTransactionZ), "LDKC2Tuple_usizeTransactionZ");
        ret->a = a;
        LDKTransaction b_ref;
        b_ref.datalen = *((uint32_t*)b);
        b_ref.data = MALLOC(b_ref.datalen, "LDKTransaction Bytes");
        memcpy(b_ref.data, (uint8_t*)(b + 4), b_ref.datalen);
        b_ref.data_is_owned = false;
        ret->b = b_ref;
        return (long)ret;
}
intptr_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_usizeTransactionZ_get_a(uint32_t ptr) {
        LDKC2Tuple_usizeTransactionZ *tuple = (LDKC2Tuple_usizeTransactionZ*)ptr;
        return tuple->a;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_usizeTransactionZ_get_b(uint32_t ptr) {
        LDKC2Tuple_usizeTransactionZ *tuple = (LDKC2Tuple_usizeTransactionZ*)ptr;
        LDKTransaction b_var = tuple->b;
        int8_tArray b_arr = init_arr(b_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(b_arr + 4), b_var.data, b_var.datalen);
        return b_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_C2Tuple_usizeTransactionZZ_new(uint32_tArray elems) {
        LDKCVec_C2Tuple_usizeTransactionZZ *ret = MALLOC(sizeof(LDKCVec_C2Tuple_usizeTransactionZZ), "LDKCVec_C2Tuple_usizeTransactionZZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKC2Tuple_usizeTransactionZ) * ret->datalen, "LDKCVec_C2Tuple_usizeTransactionZZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKC2Tuple_usizeTransactionZ arr_elem_conv = *(LDKC2Tuple_usizeTransactionZ*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NoneChannelMonitorUpdateErrZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NoneChannelMonitorUpdateErrZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NoneChannelMonitorUpdateErrZ_get_ok(uint32_t arg) {
        LDKCResult_NoneChannelMonitorUpdateErrZ *val = (LDKCResult_NoneChannelMonitorUpdateErrZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NoneChannelMonitorUpdateErrZ_get_err(uint32_t arg) {
        LDKCResult_NoneChannelMonitorUpdateErrZ *val = (LDKCResult_NoneChannelMonitorUpdateErrZ*)arg;
        CHECK(!val->result_ok);
        uint32_t err_conv = LDKChannelMonitorUpdateErr_to_js((*val->contents.err));
        return err_conv;
}
static inline LDKCResult_NoneChannelMonitorUpdateErrZ CResult_NoneChannelMonitorUpdateErrZ_clone(const LDKCResult_NoneChannelMonitorUpdateErrZ *orig) {
        LDKCResult_NoneChannelMonitorUpdateErrZ res = { .result_ok = orig->result_ok };
        if (orig->result_ok) {
                res.contents.result = NULL;
        } else {
                LDKChannelMonitorUpdateErr* contents = MALLOC(sizeof(LDKChannelMonitorUpdateErr), "LDKChannelMonitorUpdateErr result Err clone");
                *contents = ChannelMonitorUpdateErr_clone(orig->contents.err);
                res.contents.err = contents;
        }
        return res;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_MonitorEventZ_new(uint32_tArray elems) {
        LDKCVec_MonitorEventZ *ret = MALLOC(sizeof(LDKCVec_MonitorEventZ), "LDKCVec_MonitorEventZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKMonitorEvent) * ret->datalen, "LDKCVec_MonitorEventZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKMonitorEvent arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = MonitorEvent_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_MonitorEventZ CVec_MonitorEventZ_clone(const LDKCVec_MonitorEventZ *orig) {
        LDKCVec_MonitorEventZ ret = { .data = MALLOC(sizeof(LDKMonitorEvent) * orig->datalen, "LDKCVec_MonitorEventZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = MonitorEvent_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ChannelMonitorUpdateDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ChannelMonitorUpdateDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChannelMonitorUpdateDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ *val = (LDKCResult_ChannelMonitorUpdateDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKChannelMonitorUpdate res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChannelMonitorUpdateDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ *val = (LDKCResult_ChannelMonitorUpdateDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NoneMonitorUpdateErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NoneMonitorUpdateErrorZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NoneMonitorUpdateErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NoneMonitorUpdateErrorZ *val = (LDKCResult_NoneMonitorUpdateErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NoneMonitorUpdateErrorZ_get_err(uint32_t arg) {
        LDKCResult_NoneMonitorUpdateErrorZ *val = (LDKCResult_NoneMonitorUpdateErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKMonitorUpdateError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_OutPointScriptZ_new(uint32_t a, int8_tArray b) {
        LDKC2Tuple_OutPointScriptZ* ret = MALLOC(sizeof(LDKC2Tuple_OutPointScriptZ), "LDKC2Tuple_OutPointScriptZ");
        LDKOutPoint a_conv;
        a_conv.inner = (void*)(a & (~1));
        a_conv.is_owned = (a & 1) || (a == 0);
        if (a_conv.inner != NULL)
                a_conv = OutPoint_clone(&a_conv);
        ret->a = a_conv;
        LDKCVec_u8Z b_ref;
        b_ref.datalen = *((uint32_t*)b);
        b_ref.data = MALLOC(b_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(b_ref.data, (uint8_t*)(b + 4), b_ref.datalen);
        ret->b = b_ref;
        return (long)ret;
}
static inline LDKC2Tuple_OutPointScriptZ C2Tuple_OutPointScriptZ_clone(const LDKC2Tuple_OutPointScriptZ *orig) {
        LDKC2Tuple_OutPointScriptZ ret = {
                .a = OutPoint_clone(&orig->a),
                .b = CVec_u8Z_clone(&orig->b),
        };
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_OutPointScriptZ_get_a(uint32_t ptr) {
        LDKC2Tuple_OutPointScriptZ *tuple = (LDKC2Tuple_OutPointScriptZ*)ptr;
        LDKOutPoint a_var = tuple->a;
        CHECK((((long)a_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&a_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long a_ref = (long)a_var.inner & ~1;
        return a_ref;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_OutPointScriptZ_get_b(uint32_t ptr) {
        LDKC2Tuple_OutPointScriptZ *tuple = (LDKC2Tuple_OutPointScriptZ*)ptr;
        LDKCVec_u8Z b_var = tuple->b;
        int8_tArray b_arr = init_arr(b_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(b_arr + 4), b_var.data, b_var.datalen);
        return b_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u32TxOutZ_new(int32_t a, uint32_t b) {
        LDKC2Tuple_u32TxOutZ* ret = MALLOC(sizeof(LDKC2Tuple_u32TxOutZ), "LDKC2Tuple_u32TxOutZ");
        ret->a = a;
        LDKTxOut b_conv = *(LDKTxOut*)b;
        FREE((void*)b);
        ret->b = b_conv;
        return (long)ret;
}
static inline LDKC2Tuple_u32TxOutZ C2Tuple_u32TxOutZ_clone(const LDKC2Tuple_u32TxOutZ *orig) {
        LDKC2Tuple_u32TxOutZ ret = {
                .a = orig->a,
                .b = TxOut_clone(&orig->b),
        };
        return ret;
}
int32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u32TxOutZ_get_a(uint32_t ptr) {
        LDKC2Tuple_u32TxOutZ *tuple = (LDKC2Tuple_u32TxOutZ*)ptr;
        return tuple->a;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_u32TxOutZ_get_b(uint32_t ptr) {
        LDKC2Tuple_u32TxOutZ *tuple = (LDKC2Tuple_u32TxOutZ*)ptr;
        long b_ref = (long)&tuple->b;
        return (long)b_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_C2Tuple_u32TxOutZZ_new(uint32_tArray elems) {
        LDKCVec_C2Tuple_u32TxOutZZ *ret = MALLOC(sizeof(LDKCVec_C2Tuple_u32TxOutZZ), "LDKCVec_C2Tuple_u32TxOutZZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKC2Tuple_u32TxOutZ) * ret->datalen, "LDKCVec_C2Tuple_u32TxOutZZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKC2Tuple_u32TxOutZ arr_elem_conv = *(LDKC2Tuple_u32TxOutZ*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_C2Tuple_u32TxOutZZ CVec_C2Tuple_u32TxOutZZ_clone(const LDKCVec_C2Tuple_u32TxOutZZ *orig) {
        LDKCVec_C2Tuple_u32TxOutZZ ret = { .data = MALLOC(sizeof(LDKC2Tuple_u32TxOutZ) * orig->datalen, "LDKCVec_C2Tuple_u32TxOutZZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = C2Tuple_u32TxOutZ_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_new(int8_tArray a, uint32_tArray b) {
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ* ret = MALLOC(sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ), "LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ");
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        ret->a = a_ref;
        LDKCVec_C2Tuple_u32TxOutZZ b_constr;
        b_constr.datalen = *((uint32_t*)b);
        if (b_constr.datalen > 0)
                b_constr.data = MALLOC(b_constr.datalen * sizeof(LDKC2Tuple_u32TxOutZ), "LDKCVec_C2Tuple_u32TxOutZZ Elements");
        else
                b_constr.data = NULL;
        uint32_t* b_vals = (uint32_t*)(b + 4);
        for (size_t z = 0; z < b_constr.datalen; z++) {
                uint32_t arr_conv_25 = b_vals[z];
                LDKC2Tuple_u32TxOutZ arr_conv_25_conv = *(LDKC2Tuple_u32TxOutZ*)arr_conv_25;
                FREE((void*)arr_conv_25);
                b_constr.data[z] = arr_conv_25_conv;
        }
        ret->b = b_constr;
        return (long)ret;
}
static inline LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_clone(const LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ *orig) {
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ ret = {
                .a = ThirtyTwoBytes_clone(&orig->a),
                .b = CVec_C2Tuple_u32TxOutZZ_clone(&orig->b),
        };
        return ret;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_get_a(uint32_t ptr) {
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ *tuple = (LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ*)ptr;
        int8_tArray a_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(a_arr + 4), tuple->a.data, 32);
        return a_arr;
}
uint32_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_get_b(uint32_t ptr) {
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ *tuple = (LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ*)ptr;
        LDKCVec_C2Tuple_u32TxOutZZ b_var = tuple->b;
        uint32_tArray b_arr = init_arr(b_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *b_arr_ptr = (uint32_t*)(b_arr + 4);
        for (size_t z = 0; z < b_var.datalen; z++) {
                long arr_conv_25_ref = (long)&b_var.data[z];
                b_arr_ptr[z] = arr_conv_25_ref;
        }
        return b_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ_new(uint32_tArray elems) {
        LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ *ret = MALLOC(sizeof(LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ), "LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ) * ret->datalen, "LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ arr_elem_conv = *(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ CVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ_clone(const LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ *orig) {
        LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ ret = { .data = MALLOC(sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ) * orig->datalen, "LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_SignatureCVec_SignatureZZ_new(int8_tArray a, ptrArray b) {
        LDKC2Tuple_SignatureCVec_SignatureZZ* ret = MALLOC(sizeof(LDKC2Tuple_SignatureCVec_SignatureZZ), "LDKC2Tuple_SignatureCVec_SignatureZZ");
        LDKSignature a_ref;
        CHECK(*((uint32_t*)a) == 64);
        memcpy(a_ref.compact_form, (uint8_t*)(a + 4), 64);
        ret->a = a_ref;
        LDKCVec_SignatureZ b_constr;
        b_constr.datalen = *((uint32_t*)b);
        if (b_constr.datalen > 0)
                b_constr.data = MALLOC(b_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                b_constr.data = NULL;
        int8_tArray* b_vals = (int8_tArray*)(b + 4);
        for (size_t m = 0; m < b_constr.datalen; m++) {
                int8_tArray arr_conv_12 = b_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                b_constr.data[m] = arr_conv_12_ref;
        }
        ret->b = b_constr;
        return (long)ret;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_SignatureCVec_SignatureZZ_get_a(uint32_t ptr) {
        LDKC2Tuple_SignatureCVec_SignatureZZ *tuple = (LDKC2Tuple_SignatureCVec_SignatureZZ*)ptr;
        int8_tArray a_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(a_arr + 4), tuple->a.compact_form, 64);
        return a_arr;
}
ptrArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_SignatureCVec_SignatureZZ_get_b(uint32_t ptr) {
        LDKC2Tuple_SignatureCVec_SignatureZZ *tuple = (LDKC2Tuple_SignatureCVec_SignatureZZ*)ptr;
        LDKCVec_SignatureZ b_var = tuple->b;
        ptrArray b_arr = init_arr(b_var.datalen, sizeof(uint32_t), "Native ptrArray Bytes");
        int8_tArray *b_arr_ptr = (int8_tArray*)(b_arr + 4);
        for (size_t m = 0; m < b_var.datalen; m++) {
                int8_tArray arr_conv_12_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
                memcpy((uint8_t*)(arr_conv_12_arr + 4), b_var.data[m].compact_form, 64);
                b_arr_ptr[m] = arr_conv_12_arr;
        }
        return b_arr;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_result_ok(uint32_t arg) {
        return ((LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_get_ok(uint32_t arg) {
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ *val = (LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return res_ref;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_get_err(uint32_t arg) {
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ *val = (LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)arg;
        CHECK(!val->result_ok);
        return *val->contents.err;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_SignatureNoneZ_result_ok(uint32_t arg) {
        return ((LDKCResult_SignatureNoneZ*)arg)->result_ok;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKCResult_SignatureNoneZ_get_ok(uint32_t arg) {
        LDKCResult_SignatureNoneZ *val = (LDKCResult_SignatureNoneZ*)arg;
        CHECK(val->result_ok);
        int8_tArray res_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(res_arr + 4), (*val->contents.result).compact_form, 64);
        return res_arr;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_SignatureNoneZ_get_err(uint32_t arg) {
        LDKCResult_SignatureNoneZ *val = (LDKCResult_SignatureNoneZ*)arg;
        CHECK(!val->result_ok);
        return *val->contents.err;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_CVec_SignatureZNoneZ_result_ok(uint32_t arg) {
        return ((LDKCResult_CVec_SignatureZNoneZ*)arg)->result_ok;
}
ptrArray  __attribute__((visibility("default"))) TS_LDKCResult_CVec_SignatureZNoneZ_get_ok(uint32_t arg) {
        LDKCResult_CVec_SignatureZNoneZ *val = (LDKCResult_CVec_SignatureZNoneZ*)arg;
        CHECK(val->result_ok);
        LDKCVec_SignatureZ res_var = (*val->contents.result);
        ptrArray res_arr = init_arr(res_var.datalen, sizeof(uint32_t), "Native ptrArray Bytes");
        int8_tArray *res_arr_ptr = (int8_tArray*)(res_arr + 4);
        for (size_t m = 0; m < res_var.datalen; m++) {
                int8_tArray arr_conv_12_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
                memcpy((uint8_t*)(arr_conv_12_arr + 4), res_var.data[m].compact_form, 64);
                res_arr_ptr[m] = arr_conv_12_arr;
        }
        return res_arr;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_CVec_SignatureZNoneZ_get_err(uint32_t arg) {
        LDKCResult_CVec_SignatureZNoneZ *val = (LDKCResult_CVec_SignatureZNoneZ*)arg;
        CHECK(!val->result_ok);
        return *val->contents.err;
}
typedef struct LDKChannelKeys_JCalls {
        atomic_size_t refcnt;
        uint32_t get_per_commitment_point_meth;
        uint32_t release_commitment_secret_meth;
        uint32_t key_derivation_params_meth;
        uint32_t sign_counterparty_commitment_meth;
        uint32_t sign_holder_commitment_meth;
        uint32_t sign_holder_commitment_htlc_transactions_meth;
        uint32_t sign_justice_transaction_meth;
        uint32_t sign_counterparty_htlc_transaction_meth;
        uint32_t sign_closing_transaction_meth;
        uint32_t sign_channel_announcement_meth;
        uint32_t ready_channel_meth;
        uint32_t write_meth;
} LDKChannelKeys_JCalls;
static void LDKChannelKeys_JCalls_free(void* this_arg) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_per_commitment_point_meth);
                js_free(j_calls->release_commitment_secret_meth);
                js_free(j_calls->key_derivation_params_meth);
                js_free(j_calls->sign_counterparty_commitment_meth);
                js_free(j_calls->sign_holder_commitment_meth);
                js_free(j_calls->sign_holder_commitment_htlc_transactions_meth);
                js_free(j_calls->sign_justice_transaction_meth);
                js_free(j_calls->sign_counterparty_htlc_transaction_meth);
                js_free(j_calls->sign_closing_transaction_meth);
                js_free(j_calls->sign_channel_announcement_meth);
                js_free(j_calls->ready_channel_meth);
                js_free(j_calls->write_meth);
                FREE(j_calls);
        }
}
LDKPublicKey get_per_commitment_point_jcall(const void* this_arg, uint64_t idx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_1(j_calls->get_per_commitment_point_meth, idx);
        LDKPublicKey arg_ref;
        CHECK(*((uint32_t*)arg) == 33);
        memcpy(arg_ref.compressed_form, (uint8_t*)(arg + 4), 33);
        return arg_ref;
}
LDKThirtyTwoBytes release_commitment_secret_jcall(const void* this_arg, uint64_t idx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_1(j_calls->release_commitment_secret_meth, idx);
        LDKThirtyTwoBytes arg_ref;
        CHECK(*((uint32_t*)arg) == 32);
        memcpy(arg_ref.data, (uint8_t*)(arg + 4), 32);
        return arg_ref;
}
LDKC2Tuple_u64u64Z key_derivation_params_jcall(const void* this_arg) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKC2Tuple_u64u64Z* ret = (LDKC2Tuple_u64u64Z*)js_invoke_function_0(j_calls->key_derivation_params_meth);
        LDKC2Tuple_u64u64Z ret_conv = *(LDKC2Tuple_u64u64Z*)ret;
        ret_conv = C2Tuple_u64u64Z_clone((LDKC2Tuple_u64u64Z*)ret);
        return ret_conv;
}
LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ sign_counterparty_commitment_jcall(const void* this_arg, const LDKCommitmentTransaction * commitment_tx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKCommitmentTransaction commitment_tx_var = *commitment_tx;
        if (commitment_tx->inner != NULL)
                commitment_tx_var = CommitmentTransaction_clone(commitment_tx);
        CHECK((((long)commitment_tx_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&commitment_tx_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long commitment_tx_ref = (long)commitment_tx_var.inner;
        if (commitment_tx_var.is_owned) {
                commitment_tx_ref |= 1;
        }
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* ret = (LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)js_invoke_function_1(j_calls->sign_counterparty_commitment_meth, commitment_tx_ref);
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ ret_conv = *(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)ret;
        ret_conv = CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_clone((LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)ret);
        return ret_conv;
}
LDKCResult_SignatureNoneZ sign_holder_commitment_jcall(const void* this_arg, const LDKHolderCommitmentTransaction * commitment_tx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKHolderCommitmentTransaction commitment_tx_var = *commitment_tx;
        if (commitment_tx->inner != NULL)
                commitment_tx_var = HolderCommitmentTransaction_clone(commitment_tx);
        CHECK((((long)commitment_tx_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&commitment_tx_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long commitment_tx_ref = (long)commitment_tx_var.inner;
        if (commitment_tx_var.is_owned) {
                commitment_tx_ref |= 1;
        }
        LDKCResult_SignatureNoneZ* ret = (LDKCResult_SignatureNoneZ*)js_invoke_function_1(j_calls->sign_holder_commitment_meth, commitment_tx_ref);
        LDKCResult_SignatureNoneZ ret_conv = *(LDKCResult_SignatureNoneZ*)ret;
        ret_conv = CResult_SignatureNoneZ_clone((LDKCResult_SignatureNoneZ*)ret);
        return ret_conv;
}
LDKCResult_CVec_SignatureZNoneZ sign_holder_commitment_htlc_transactions_jcall(const void* this_arg, const LDKHolderCommitmentTransaction * commitment_tx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKHolderCommitmentTransaction commitment_tx_var = *commitment_tx;
        if (commitment_tx->inner != NULL)
                commitment_tx_var = HolderCommitmentTransaction_clone(commitment_tx);
        CHECK((((long)commitment_tx_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&commitment_tx_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long commitment_tx_ref = (long)commitment_tx_var.inner;
        if (commitment_tx_var.is_owned) {
                commitment_tx_ref |= 1;
        }
        LDKCResult_CVec_SignatureZNoneZ* ret = (LDKCResult_CVec_SignatureZNoneZ*)js_invoke_function_1(j_calls->sign_holder_commitment_htlc_transactions_meth, commitment_tx_ref);
        LDKCResult_CVec_SignatureZNoneZ ret_conv = *(LDKCResult_CVec_SignatureZNoneZ*)ret;
        ret_conv = CResult_CVec_SignatureZNoneZ_clone((LDKCResult_CVec_SignatureZNoneZ*)ret);
        return ret_conv;
}
LDKCResult_SignatureNoneZ sign_justice_transaction_jcall(const void* this_arg, LDKTransaction justice_tx, uintptr_t input, uint64_t amount, const uint8_t (* per_commitment_key)[32], const LDKHTLCOutputInCommitment * htlc) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKTransaction justice_tx_var = justice_tx;
        int8_tArray justice_tx_arr = init_arr(justice_tx_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(justice_tx_arr + 4), justice_tx_var.data, justice_tx_var.datalen);
        Transaction_free(justice_tx_var);
        int8_tArray per_commitment_key_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(per_commitment_key_arr + 4), *per_commitment_key, 32);
        LDKHTLCOutputInCommitment htlc_var = *htlc;
        if (htlc->inner != NULL)
                htlc_var = HTLCOutputInCommitment_clone(htlc);
        CHECK((((long)htlc_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&htlc_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long htlc_ref = (long)htlc_var.inner;
        if (htlc_var.is_owned) {
                htlc_ref |= 1;
        }
        LDKCResult_SignatureNoneZ* ret = (LDKCResult_SignatureNoneZ*)js_invoke_function_5(j_calls->sign_justice_transaction_meth, justice_tx_arr, input, amount, per_commitment_key_arr, htlc_ref);
        LDKCResult_SignatureNoneZ ret_conv = *(LDKCResult_SignatureNoneZ*)ret;
        ret_conv = CResult_SignatureNoneZ_clone((LDKCResult_SignatureNoneZ*)ret);
        return ret_conv;
}
LDKCResult_SignatureNoneZ sign_counterparty_htlc_transaction_jcall(const void* this_arg, LDKTransaction htlc_tx, uintptr_t input, uint64_t amount, LDKPublicKey per_commitment_point, const LDKHTLCOutputInCommitment * htlc) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKTransaction htlc_tx_var = htlc_tx;
        int8_tArray htlc_tx_arr = init_arr(htlc_tx_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(htlc_tx_arr + 4), htlc_tx_var.data, htlc_tx_var.datalen);
        Transaction_free(htlc_tx_var);
        int8_tArray per_commitment_point_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(per_commitment_point_arr + 4), per_commitment_point.compressed_form, 33);
        LDKHTLCOutputInCommitment htlc_var = *htlc;
        if (htlc->inner != NULL)
                htlc_var = HTLCOutputInCommitment_clone(htlc);
        CHECK((((long)htlc_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&htlc_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long htlc_ref = (long)htlc_var.inner;
        if (htlc_var.is_owned) {
                htlc_ref |= 1;
        }
        LDKCResult_SignatureNoneZ* ret = (LDKCResult_SignatureNoneZ*)js_invoke_function_5(j_calls->sign_counterparty_htlc_transaction_meth, htlc_tx_arr, input, amount, per_commitment_point_arr, htlc_ref);
        LDKCResult_SignatureNoneZ ret_conv = *(LDKCResult_SignatureNoneZ*)ret;
        ret_conv = CResult_SignatureNoneZ_clone((LDKCResult_SignatureNoneZ*)ret);
        return ret_conv;
}
LDKCResult_SignatureNoneZ sign_closing_transaction_jcall(const void* this_arg, LDKTransaction closing_tx) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKTransaction closing_tx_var = closing_tx;
        int8_tArray closing_tx_arr = init_arr(closing_tx_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(closing_tx_arr + 4), closing_tx_var.data, closing_tx_var.datalen);
        Transaction_free(closing_tx_var);
        LDKCResult_SignatureNoneZ* ret = (LDKCResult_SignatureNoneZ*)js_invoke_function_1(j_calls->sign_closing_transaction_meth, closing_tx_arr);
        LDKCResult_SignatureNoneZ ret_conv = *(LDKCResult_SignatureNoneZ*)ret;
        ret_conv = CResult_SignatureNoneZ_clone((LDKCResult_SignatureNoneZ*)ret);
        return ret_conv;
}
LDKCResult_SignatureNoneZ sign_channel_announcement_jcall(const void* this_arg, const LDKUnsignedChannelAnnouncement * msg) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKUnsignedChannelAnnouncement msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UnsignedChannelAnnouncement_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_SignatureNoneZ* ret = (LDKCResult_SignatureNoneZ*)js_invoke_function_1(j_calls->sign_channel_announcement_meth, msg_ref);
        LDKCResult_SignatureNoneZ ret_conv = *(LDKCResult_SignatureNoneZ*)ret;
        ret_conv = CResult_SignatureNoneZ_clone((LDKCResult_SignatureNoneZ*)ret);
        return ret_conv;
}
void ready_channel_jcall(void* this_arg, const LDKChannelTransactionParameters * channel_parameters) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        LDKChannelTransactionParameters channel_parameters_var = *channel_parameters;
        if (channel_parameters->inner != NULL)
                channel_parameters_var = ChannelTransactionParameters_clone(channel_parameters);
        CHECK((((long)channel_parameters_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&channel_parameters_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long channel_parameters_ref = (long)channel_parameters_var.inner;
        if (channel_parameters_var.is_owned) {
                channel_parameters_ref |= 1;
        }
        js_invoke_function_1(j_calls->ready_channel_meth, channel_parameters_ref);
}
LDKCVec_u8Z write_jcall(const void* this_arg) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_0(j_calls->write_meth);
        LDKCVec_u8Z arg_ref;
        arg_ref.datalen = *((uint32_t*)arg);
        arg_ref.data = MALLOC(arg_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(arg_ref.data, (uint8_t*)(arg + 4), arg_ref.datalen);
        return arg_ref;
}
static void* LDKChannelKeys_JCalls_clone(const void* this_arg) {
        LDKChannelKeys_JCalls *j_calls = (LDKChannelKeys_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKChannelKeys LDKChannelKeys_init (/*TODO: JS Object Reference */void* o, uint32_t pubkeys) {
        LDKChannelKeys_JCalls *calls = MALLOC(sizeof(LDKChannelKeys_JCalls), "LDKChannelKeys_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKChannelPublicKeys pubkeys_conv;
        pubkeys_conv.inner = (void*)(pubkeys & (~1));
        pubkeys_conv.is_owned = (pubkeys & 1) || (pubkeys == 0);
        if (pubkeys_conv.inner != NULL)
                pubkeys_conv = ChannelPublicKeys_clone(&pubkeys_conv);

        LDKChannelKeys ret = {
                .this_arg = (void*) calls,
                .get_per_commitment_point = get_per_commitment_point_jcall,
                .release_commitment_secret = release_commitment_secret_jcall,
                .key_derivation_params = key_derivation_params_jcall,
                .sign_counterparty_commitment = sign_counterparty_commitment_jcall,
                .sign_holder_commitment = sign_holder_commitment_jcall,
                .sign_holder_commitment_htlc_transactions = sign_holder_commitment_htlc_transactions_jcall,
                .sign_justice_transaction = sign_justice_transaction_jcall,
                .sign_counterparty_htlc_transaction = sign_counterparty_htlc_transaction_jcall,
                .sign_closing_transaction = sign_closing_transaction_jcall,
                .sign_channel_announcement = sign_channel_announcement_jcall,
                .ready_channel = ready_channel_jcall,
                .clone = LDKChannelKeys_JCalls_clone,
                .write = write_jcall,
                .free = LDKChannelKeys_JCalls_free,
                .pubkeys = pubkeys_conv,
                .set_pubkeys = NULL,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKChannelKeys_new(/*TODO: JS Object Reference */void* o, uint32_t pubkeys) {
        LDKChannelKeys *res_ptr = MALLOC(sizeof(LDKChannelKeys), "LDKChannelKeys");
        *res_ptr = LDKChannelKeys_init(o, pubkeys);
        return (long)res_ptr;
}
int8_tArray  __attribute__((visibility("default"))) TS_ChannelKeys_get_per_commitment_point(uint32_t this_arg, int64_t idx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), (this_arg_conv->get_per_commitment_point)(this_arg_conv->this_arg, idx).compressed_form, 33);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelKeys_release_commitment_secret(uint32_t this_arg, int64_t idx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), (this_arg_conv->release_commitment_secret)(this_arg_conv->this_arg, idx).data, 32);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_key_derivation_params(uint32_t this_arg) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKC2Tuple_u64u64Z* ret_ref = MALLOC(sizeof(LDKC2Tuple_u64u64Z), "LDKC2Tuple_u64u64Z");
        *ret_ref = (this_arg_conv->key_derivation_params)(this_arg_conv->this_arg);
        return (long)ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_counterparty_commitment(uint32_t this_arg, uint32_t commitment_tx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKCommitmentTransaction commitment_tx_conv;
        commitment_tx_conv.inner = (void*)(commitment_tx & (~1));
        commitment_tx_conv.is_owned = false;
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ), "LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ");
        *ret_conv = (this_arg_conv->sign_counterparty_commitment)(this_arg_conv->this_arg, &commitment_tx_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_holder_commitment(uint32_t this_arg, uint32_t commitment_tx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKHolderCommitmentTransaction commitment_tx_conv;
        commitment_tx_conv.inner = (void*)(commitment_tx & (~1));
        commitment_tx_conv.is_owned = false;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = (this_arg_conv->sign_holder_commitment)(this_arg_conv->this_arg, &commitment_tx_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_holder_commitment_htlc_transactions(uint32_t this_arg, uint32_t commitment_tx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKHolderCommitmentTransaction commitment_tx_conv;
        commitment_tx_conv.inner = (void*)(commitment_tx & (~1));
        commitment_tx_conv.is_owned = false;
        LDKCResult_CVec_SignatureZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_SignatureZNoneZ), "LDKCResult_CVec_SignatureZNoneZ");
        *ret_conv = (this_arg_conv->sign_holder_commitment_htlc_transactions)(this_arg_conv->this_arg, &commitment_tx_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_justice_transaction(uint32_t this_arg, int8_tArray justice_tx, intptr_t input, int64_t amount, int8_tArray per_commitment_key, uint32_t htlc) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKTransaction justice_tx_ref;
        justice_tx_ref.datalen = *((uint32_t*)justice_tx);
        justice_tx_ref.data = MALLOC(justice_tx_ref.datalen, "LDKTransaction Bytes");
        memcpy(justice_tx_ref.data, (uint8_t*)(justice_tx + 4), justice_tx_ref.datalen);
        justice_tx_ref.data_is_owned = true;
        unsigned char per_commitment_key_arr[32];
        CHECK(*((uint32_t*)per_commitment_key) == 32);
        memcpy(per_commitment_key_arr, (uint8_t*)(per_commitment_key + 4), 32);
        unsigned char (*per_commitment_key_ref)[32] = &per_commitment_key_arr;
        LDKHTLCOutputInCommitment htlc_conv;
        htlc_conv.inner = (void*)(htlc & (~1));
        htlc_conv.is_owned = false;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = (this_arg_conv->sign_justice_transaction)(this_arg_conv->this_arg, justice_tx_ref, input, amount, per_commitment_key_ref, &htlc_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_counterparty_htlc_transaction(uint32_t this_arg, int8_tArray htlc_tx, intptr_t input, int64_t amount, int8_tArray per_commitment_point, uint32_t htlc) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKTransaction htlc_tx_ref;
        htlc_tx_ref.datalen = *((uint32_t*)htlc_tx);
        htlc_tx_ref.data = MALLOC(htlc_tx_ref.datalen, "LDKTransaction Bytes");
        memcpy(htlc_tx_ref.data, (uint8_t*)(htlc_tx + 4), htlc_tx_ref.datalen);
        htlc_tx_ref.data_is_owned = true;
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        LDKHTLCOutputInCommitment htlc_conv;
        htlc_conv.inner = (void*)(htlc & (~1));
        htlc_conv.is_owned = false;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = (this_arg_conv->sign_counterparty_htlc_transaction)(this_arg_conv->this_arg, htlc_tx_ref, input, amount, per_commitment_point_ref, &htlc_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_closing_transaction(uint32_t this_arg, int8_tArray closing_tx) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKTransaction closing_tx_ref;
        closing_tx_ref.datalen = *((uint32_t*)closing_tx);
        closing_tx_ref.data = MALLOC(closing_tx_ref.datalen, "LDKTransaction Bytes");
        memcpy(closing_tx_ref.data, (uint8_t*)(closing_tx + 4), closing_tx_ref.datalen);
        closing_tx_ref.data_is_owned = true;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = (this_arg_conv->sign_closing_transaction)(this_arg_conv->this_arg, closing_tx_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_sign_channel_announcement(uint32_t this_arg, uint32_t msg) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKUnsignedChannelAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = (this_arg_conv->sign_channel_announcement)(this_arg_conv->this_arg, &msg_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_ChannelKeys_ready_channel(uint32_t this_arg, uint32_t channel_parameters) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKChannelTransactionParameters channel_parameters_conv;
        channel_parameters_conv.inner = (void*)(channel_parameters & (~1));
        channel_parameters_conv.is_owned = false;
        (this_arg_conv->ready_channel)(this_arg_conv->this_arg, &channel_parameters_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelKeys_write(uint32_t this_arg) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKCVec_u8Z arg_var = (this_arg_conv->write)(this_arg_conv->this_arg);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

LDKChannelPublicKeys LDKChannelKeys_set_get_pubkeys(LDKChannelKeys* this_arg) {
        if (this_arg->set_pubkeys != NULL)
                this_arg->set_pubkeys(this_arg);
        return this_arg->pubkeys;
}
uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_get_pubkeys(uint32_t this_arg) {
        LDKChannelKeys* this_arg_conv = (LDKChannelKeys*)this_arg;
        LDKChannelPublicKeys ret_var = LDKChannelKeys_set_get_pubkeys(this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelMonitorZ_new(int8_tArray a, uint32_t b) {
        LDKC2Tuple_BlockHashChannelMonitorZ* ret = MALLOC(sizeof(LDKC2Tuple_BlockHashChannelMonitorZ), "LDKC2Tuple_BlockHashChannelMonitorZ");
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        ret->a = a_ref;
        LDKChannelMonitor b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        // Warning: we may need a move here but can't clone!
        ret->b = b_conv;
        return (long)ret;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelMonitorZ_get_a(uint32_t ptr) {
        LDKC2Tuple_BlockHashChannelMonitorZ *tuple = (LDKC2Tuple_BlockHashChannelMonitorZ*)ptr;
        int8_tArray a_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(a_arr + 4), tuple->a.data, 32);
        return a_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelMonitorZ_get_b(uint32_t ptr) {
        LDKC2Tuple_BlockHashChannelMonitorZ *tuple = (LDKC2Tuple_BlockHashChannelMonitorZ*)ptr;
        LDKChannelMonitor b_var = tuple->b;
        CHECK((((long)b_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&b_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long b_ref = (long)b_var.inner & ~1;
        return b_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ *val = (LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ *val = (LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_SpendableOutputDescriptorDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_SpendableOutputDescriptorDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_SpendableOutputDescriptorDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ *val = (LDKCResult_SpendableOutputDescriptorDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_SpendableOutputDescriptorDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ *val = (LDKCResult_SpendableOutputDescriptorDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ChanKeySignerDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ChanKeySignerDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChanKeySignerDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ChanKeySignerDecodeErrorZ *val = (LDKCResult_ChanKeySignerDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKChannelKeys* ret = MALLOC(sizeof(LDKChannelKeys), "LDKChannelKeys");
        *ret = (*val->contents.result);
        return (long)ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChanKeySignerDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ChanKeySignerDecodeErrorZ *val = (LDKCResult_ChanKeySignerDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_InMemoryChannelKeysDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_InMemoryChannelKeysDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_InMemoryChannelKeysDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_InMemoryChannelKeysDecodeErrorZ *val = (LDKCResult_InMemoryChannelKeysDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKInMemoryChannelKeys res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_InMemoryChannelKeysDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_InMemoryChannelKeysDecodeErrorZ *val = (LDKCResult_InMemoryChannelKeysDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_TxOutAccessErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_TxOutAccessErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_TxOutAccessErrorZ_get_ok(uint32_t arg) {
        LDKCResult_TxOutAccessErrorZ *val = (LDKCResult_TxOutAccessErrorZ*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return (long)res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_TxOutAccessErrorZ_get_err(uint32_t arg) {
        LDKCResult_TxOutAccessErrorZ *val = (LDKCResult_TxOutAccessErrorZ*)arg;
        CHECK(!val->result_ok);
        uint32_t err_conv = LDKAccessError_to_js((*val->contents.err));
        return err_conv;
}
static inline LDKCResult_TxOutAccessErrorZ CResult_TxOutAccessErrorZ_clone(const LDKCResult_TxOutAccessErrorZ *orig) {
        LDKCResult_TxOutAccessErrorZ res = { .result_ok = orig->result_ok };
        if (orig->result_ok) {
                LDKTxOut* contents = MALLOC(sizeof(LDKTxOut), "LDKTxOut result OK clone");
                *contents = TxOut_clone(orig->contents.result);
                res.contents.result = contents;
        } else {
                LDKAccessError* contents = MALLOC(sizeof(LDKAccessError), "LDKAccessError result Err clone");
                *contents = AccessError_clone(orig->contents.err);
                res.contents.err = contents;
        }
        return res;
}
uint32_t __attribute__((visibility("default"))) TS_LDKAPIError_ref_from_ptr(uint32_t ptr) {
        LDKAPIError *obj = (LDKAPIError*)ptr;
        switch(obj->tag) {
                case LDKAPIError_APIMisuseError: {
                        LDKCVec_u8Z err_var = obj->api_misuse_error.err;
                        int8_tArray err_arr = init_arr(err_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(err_arr + 4), err_var.data, err_var.datalen);
                        return 0 /* LDKAPIError - APIMisuseError */; (void) err_arr;
                }
                case LDKAPIError_FeeRateTooHigh: {
                        LDKCVec_u8Z err_var = obj->fee_rate_too_high.err;
                        int8_tArray err_arr = init_arr(err_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(err_arr + 4), err_var.data, err_var.datalen);
                        return 0 /* LDKAPIError - FeeRateTooHigh */; (void) err_arr; (void) obj->fee_rate_too_high.feerate;
                }
                case LDKAPIError_RouteError: {
                        LDKStr err_str = obj->route_error.err;
                        jstring err_conv = str_ref_to_ts(err_str.chars, err_str.len);
                        return 0 /* LDKAPIError - RouteError */; (void) err_conv;
                }
                case LDKAPIError_ChannelUnavailable: {
                        LDKCVec_u8Z err_var = obj->channel_unavailable.err;
                        int8_tArray err_arr = init_arr(err_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(err_arr + 4), err_var.data, err_var.datalen);
                        return 0 /* LDKAPIError - ChannelUnavailable */; (void) err_arr;
                }
                case LDKAPIError_MonitorUpdateFailed: {
                        return 0 /* LDKAPIError - MonitorUpdateFailed */;
                }
                default: abort();
        }
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NoneAPIErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NoneAPIErrorZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NoneAPIErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NoneAPIErrorZ *val = (LDKCResult_NoneAPIErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NoneAPIErrorZ_get_err(uint32_t arg) {
        LDKCResult_NoneAPIErrorZ *val = (LDKCResult_NoneAPIErrorZ*)arg;
        CHECK(!val->result_ok);
        long err_ref = (long)&(*val->contents.err);
        return err_ref;
}
static inline LDKCResult_NoneAPIErrorZ CResult_NoneAPIErrorZ_clone(const LDKCResult_NoneAPIErrorZ *orig) {
        LDKCResult_NoneAPIErrorZ res = { .result_ok = orig->result_ok };
        if (orig->result_ok) {
                res.contents.result = NULL;
        } else {
                LDKAPIError* contents = MALLOC(sizeof(LDKAPIError), "LDKAPIError result Err clone");
                *contents = APIError_clone(orig->contents.err);
                res.contents.err = contents;
        }
        return res;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_ChannelDetailsZ_new(uint32_tArray elems) {
        LDKCVec_ChannelDetailsZ *ret = MALLOC(sizeof(LDKCVec_ChannelDetailsZ), "LDKCVec_ChannelDetailsZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKChannelDetails) * ret->datalen, "LDKCVec_ChannelDetailsZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKChannelDetails arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = ChannelDetails_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_ChannelDetailsZ CVec_ChannelDetailsZ_clone(const LDKCVec_ChannelDetailsZ *orig) {
        LDKCVec_ChannelDetailsZ ret = { .data = MALLOC(sizeof(LDKChannelDetails) * orig->datalen, "LDKCVec_ChannelDetailsZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = ChannelDetails_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NonePaymentSendFailureZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NonePaymentSendFailureZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NonePaymentSendFailureZ_get_ok(uint32_t arg) {
        LDKCResult_NonePaymentSendFailureZ *val = (LDKCResult_NonePaymentSendFailureZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NonePaymentSendFailureZ_get_err(uint32_t arg) {
        LDKCResult_NonePaymentSendFailureZ *val = (LDKCResult_NonePaymentSendFailureZ*)arg;
        CHECK(!val->result_ok);
        LDKPaymentSendFailure err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
uint32_t __attribute__((visibility("default"))) TS_LDKNetAddress_ref_from_ptr(uint32_t ptr) {
        LDKNetAddress *obj = (LDKNetAddress*)ptr;
        switch(obj->tag) {
                case LDKNetAddress_IPv4: {
                        int8_tArray addr_arr = init_arr(4, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(addr_arr + 4), obj->i_pv4.addr.data, 4);
                        return 0 /* LDKNetAddress - IPv4 */; (void) addr_arr; (void) obj->i_pv4.port;
                }
                case LDKNetAddress_IPv6: {
                        int8_tArray addr_arr = init_arr(16, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(addr_arr + 4), obj->i_pv6.addr.data, 16);
                        return 0 /* LDKNetAddress - IPv6 */; (void) addr_arr; (void) obj->i_pv6.port;
                }
                case LDKNetAddress_OnionV2: {
                        int8_tArray addr_arr = init_arr(10, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(addr_arr + 4), obj->onion_v2.addr.data, 10);
                        return 0 /* LDKNetAddress - OnionV2 */; (void) addr_arr; (void) obj->onion_v2.port;
                }
                case LDKNetAddress_OnionV3: {
                        int8_tArray ed25519_pubkey_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
                        memcpy((uint8_t*)(ed25519_pubkey_arr + 4), obj->onion_v3.ed25519_pubkey.data, 32);
                        return 0 /* LDKNetAddress - OnionV3 */; (void) ed25519_pubkey_arr; (void) obj->onion_v3.checksum; (void) obj->onion_v3.version; (void) obj->onion_v3.port;
                }
                default: abort();
        }
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_NetAddressZ_new(uint32_tArray elems) {
        LDKCVec_NetAddressZ *ret = MALLOC(sizeof(LDKCVec_NetAddressZ), "LDKCVec_NetAddressZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKNetAddress) * ret->datalen, "LDKCVec_NetAddressZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKNetAddress arr_elem_conv = *(LDKNetAddress*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_NetAddressZ CVec_NetAddressZ_clone(const LDKCVec_NetAddressZ *orig) {
        LDKCVec_NetAddressZ ret = { .data = MALLOC(sizeof(LDKNetAddress) * orig->datalen, "LDKCVec_NetAddressZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = NetAddress_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_ChannelMonitorZ_new(uint32_tArray elems) {
        LDKCVec_ChannelMonitorZ *ret = MALLOC(sizeof(LDKCVec_ChannelMonitorZ), "LDKCVec_ChannelMonitorZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKChannelMonitor) * ret->datalen, "LDKCVec_ChannelMonitorZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKChannelMonitor arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        // Warning: we may need a move here but can't clone!
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
typedef struct LDKWatch_JCalls {
        atomic_size_t refcnt;
        uint32_t watch_channel_meth;
        uint32_t update_channel_meth;
        uint32_t release_pending_monitor_events_meth;
} LDKWatch_JCalls;
static void LDKWatch_JCalls_free(void* this_arg) {
        LDKWatch_JCalls *j_calls = (LDKWatch_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->watch_channel_meth);
                js_free(j_calls->update_channel_meth);
                js_free(j_calls->release_pending_monitor_events_meth);
                FREE(j_calls);
        }
}
LDKCResult_NoneChannelMonitorUpdateErrZ watch_channel_jcall(const void* this_arg, LDKOutPoint funding_txo, LDKChannelMonitor monitor) {
        LDKWatch_JCalls *j_calls = (LDKWatch_JCalls*) this_arg;
        LDKOutPoint funding_txo_var = funding_txo;
        CHECK((((long)funding_txo_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&funding_txo_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long funding_txo_ref = (long)funding_txo_var.inner;
        if (funding_txo_var.is_owned) {
                funding_txo_ref |= 1;
        }
        LDKChannelMonitor monitor_var = monitor;
        CHECK((((long)monitor_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&monitor_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long monitor_ref = (long)monitor_var.inner;
        if (monitor_var.is_owned) {
                monitor_ref |= 1;
        }
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret = (LDKCResult_NoneChannelMonitorUpdateErrZ*)js_invoke_function_2(j_calls->watch_channel_meth, funding_txo_ref, monitor_ref);
        LDKCResult_NoneChannelMonitorUpdateErrZ ret_conv = *(LDKCResult_NoneChannelMonitorUpdateErrZ*)ret;
        ret_conv = CResult_NoneChannelMonitorUpdateErrZ_clone((LDKCResult_NoneChannelMonitorUpdateErrZ*)ret);
        return ret_conv;
}
LDKCResult_NoneChannelMonitorUpdateErrZ update_channel_jcall(const void* this_arg, LDKOutPoint funding_txo, LDKChannelMonitorUpdate update) {
        LDKWatch_JCalls *j_calls = (LDKWatch_JCalls*) this_arg;
        LDKOutPoint funding_txo_var = funding_txo;
        CHECK((((long)funding_txo_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&funding_txo_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long funding_txo_ref = (long)funding_txo_var.inner;
        if (funding_txo_var.is_owned) {
                funding_txo_ref |= 1;
        }
        LDKChannelMonitorUpdate update_var = update;
        CHECK((((long)update_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&update_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long update_ref = (long)update_var.inner;
        if (update_var.is_owned) {
                update_ref |= 1;
        }
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret = (LDKCResult_NoneChannelMonitorUpdateErrZ*)js_invoke_function_2(j_calls->update_channel_meth, funding_txo_ref, update_ref);
        LDKCResult_NoneChannelMonitorUpdateErrZ ret_conv = *(LDKCResult_NoneChannelMonitorUpdateErrZ*)ret;
        ret_conv = CResult_NoneChannelMonitorUpdateErrZ_clone((LDKCResult_NoneChannelMonitorUpdateErrZ*)ret);
        return ret_conv;
}
LDKCVec_MonitorEventZ release_pending_monitor_events_jcall(const void* this_arg) {
        LDKWatch_JCalls *j_calls = (LDKWatch_JCalls*) this_arg;
        uint32_tArray arg = js_invoke_function_0(j_calls->release_pending_monitor_events_meth);
        LDKCVec_MonitorEventZ arg_constr;
        arg_constr.datalen = *((uint32_t*)arg);
        if (arg_constr.datalen > 0)
                arg_constr.data = MALLOC(arg_constr.datalen * sizeof(LDKMonitorEvent), "LDKCVec_MonitorEventZ Elements");
        else
                arg_constr.data = NULL;
        uint32_t* arg_vals = (uint32_t*)(arg + 4);
        for (size_t o = 0; o < arg_constr.datalen; o++) {
                uint32_t arr_conv_14 = arg_vals[o];
                LDKMonitorEvent arr_conv_14_conv;
                arr_conv_14_conv.inner = (void*)(arr_conv_14 & (~1));
                arr_conv_14_conv.is_owned = (arr_conv_14 & 1) || (arr_conv_14 == 0);
                if (arr_conv_14_conv.inner != NULL)
                        arr_conv_14_conv = MonitorEvent_clone(&arr_conv_14_conv);
                arg_constr.data[o] = arr_conv_14_conv;
        }
        return arg_constr;
}
static void* LDKWatch_JCalls_clone(const void* this_arg) {
        LDKWatch_JCalls *j_calls = (LDKWatch_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKWatch LDKWatch_init (/*TODO: JS Object Reference */void* o) {
        LDKWatch_JCalls *calls = MALLOC(sizeof(LDKWatch_JCalls), "LDKWatch_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKWatch ret = {
                .this_arg = (void*) calls,
                .watch_channel = watch_channel_jcall,
                .update_channel = update_channel_jcall,
                .release_pending_monitor_events = release_pending_monitor_events_jcall,
                .free = LDKWatch_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKWatch_new(/*TODO: JS Object Reference */void* o) {
        LDKWatch *res_ptr = MALLOC(sizeof(LDKWatch), "LDKWatch");
        *res_ptr = LDKWatch_init(o);
        return (long)res_ptr;
}
uint32_t  __attribute__((visibility("default"))) TS_Watch_watch_channel(uint32_t this_arg, uint32_t funding_txo, uint32_t monitor) {
        LDKWatch* this_arg_conv = (LDKWatch*)this_arg;
        LDKOutPoint funding_txo_conv;
        funding_txo_conv.inner = (void*)(funding_txo & (~1));
        funding_txo_conv.is_owned = (funding_txo & 1) || (funding_txo == 0);
        if (funding_txo_conv.inner != NULL)
                funding_txo_conv = OutPoint_clone(&funding_txo_conv);
        LDKChannelMonitor monitor_conv;
        monitor_conv.inner = (void*)(monitor & (~1));
        monitor_conv.is_owned = (monitor & 1) || (monitor == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = (this_arg_conv->watch_channel)(this_arg_conv->this_arg, funding_txo_conv, monitor_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_Watch_update_channel(uint32_t this_arg, uint32_t funding_txo, uint32_t update) {
        LDKWatch* this_arg_conv = (LDKWatch*)this_arg;
        LDKOutPoint funding_txo_conv;
        funding_txo_conv.inner = (void*)(funding_txo & (~1));
        funding_txo_conv.is_owned = (funding_txo & 1) || (funding_txo == 0);
        if (funding_txo_conv.inner != NULL)
                funding_txo_conv = OutPoint_clone(&funding_txo_conv);
        LDKChannelMonitorUpdate update_conv;
        update_conv.inner = (void*)(update & (~1));
        update_conv.is_owned = (update & 1) || (update == 0);
        if (update_conv.inner != NULL)
                update_conv = ChannelMonitorUpdate_clone(&update_conv);
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = (this_arg_conv->update_channel)(this_arg_conv->this_arg, funding_txo_conv, update_conv);
        return (long)ret_conv;
}

uint32_tArray  __attribute__((visibility("default"))) TS_Watch_release_pending_monitor_events(uint32_t this_arg) {
        LDKWatch* this_arg_conv = (LDKWatch*)this_arg;
        LDKCVec_MonitorEventZ ret_var = (this_arg_conv->release_pending_monitor_events)(this_arg_conv->this_arg);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t o = 0; o < ret_var.datalen; o++) {
                LDKMonitorEvent arr_conv_14_var = ret_var.data[o];
                CHECK((((long)arr_conv_14_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                CHECK((((long)&arr_conv_14_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                long arr_conv_14_ref = (long)arr_conv_14_var.inner;
                if (arr_conv_14_var.is_owned) {
                        arr_conv_14_ref |= 1;
                }
                ret_arr_ptr[o] = arr_conv_14_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

typedef struct LDKBroadcasterInterface_JCalls {
        atomic_size_t refcnt;
        uint32_t broadcast_transaction_meth;
} LDKBroadcasterInterface_JCalls;
static void LDKBroadcasterInterface_JCalls_free(void* this_arg) {
        LDKBroadcasterInterface_JCalls *j_calls = (LDKBroadcasterInterface_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->broadcast_transaction_meth);
                FREE(j_calls);
        }
}
void broadcast_transaction_jcall(const void* this_arg, LDKTransaction tx) {
        LDKBroadcasterInterface_JCalls *j_calls = (LDKBroadcasterInterface_JCalls*) this_arg;
        LDKTransaction tx_var = tx;
        int8_tArray tx_arr = init_arr(tx_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(tx_arr + 4), tx_var.data, tx_var.datalen);
        Transaction_free(tx_var);
        js_invoke_function_1(j_calls->broadcast_transaction_meth, tx_arr);
}
static void* LDKBroadcasterInterface_JCalls_clone(const void* this_arg) {
        LDKBroadcasterInterface_JCalls *j_calls = (LDKBroadcasterInterface_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKBroadcasterInterface LDKBroadcasterInterface_init (/*TODO: JS Object Reference */void* o) {
        LDKBroadcasterInterface_JCalls *calls = MALLOC(sizeof(LDKBroadcasterInterface_JCalls), "LDKBroadcasterInterface_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKBroadcasterInterface ret = {
                .this_arg = (void*) calls,
                .broadcast_transaction = broadcast_transaction_jcall,
                .free = LDKBroadcasterInterface_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKBroadcasterInterface_new(/*TODO: JS Object Reference */void* o) {
        LDKBroadcasterInterface *res_ptr = MALLOC(sizeof(LDKBroadcasterInterface), "LDKBroadcasterInterface");
        *res_ptr = LDKBroadcasterInterface_init(o);
        return (long)res_ptr;
}
void  __attribute__((visibility("default"))) TS_BroadcasterInterface_broadcast_transaction(uint32_t this_arg, int8_tArray tx) {
        LDKBroadcasterInterface* this_arg_conv = (LDKBroadcasterInterface*)this_arg;
        LDKTransaction tx_ref;
        tx_ref.datalen = *((uint32_t*)tx);
        tx_ref.data = MALLOC(tx_ref.datalen, "LDKTransaction Bytes");
        memcpy(tx_ref.data, (uint8_t*)(tx + 4), tx_ref.datalen);
        tx_ref.data_is_owned = true;
        (this_arg_conv->broadcast_transaction)(this_arg_conv->this_arg, tx_ref);
}

typedef struct LDKKeysInterface_JCalls {
        atomic_size_t refcnt;
        uint32_t get_node_secret_meth;
        uint32_t get_destination_script_meth;
        uint32_t get_shutdown_pubkey_meth;
        uint32_t get_channel_keys_meth;
        uint32_t get_secure_random_bytes_meth;
        uint32_t read_chan_signer_meth;
} LDKKeysInterface_JCalls;
static void LDKKeysInterface_JCalls_free(void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_node_secret_meth);
                js_free(j_calls->get_destination_script_meth);
                js_free(j_calls->get_shutdown_pubkey_meth);
                js_free(j_calls->get_channel_keys_meth);
                js_free(j_calls->get_secure_random_bytes_meth);
                js_free(j_calls->read_chan_signer_meth);
                FREE(j_calls);
        }
}
LDKSecretKey get_node_secret_jcall(const void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_0(j_calls->get_node_secret_meth);
        LDKSecretKey arg_ref;
        CHECK(*((uint32_t*)arg) == 32);
        memcpy(arg_ref.bytes, (uint8_t*)(arg + 4), 32);
        return arg_ref;
}
LDKCVec_u8Z get_destination_script_jcall(const void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_0(j_calls->get_destination_script_meth);
        LDKCVec_u8Z arg_ref;
        arg_ref.datalen = *((uint32_t*)arg);
        arg_ref.data = MALLOC(arg_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(arg_ref.data, (uint8_t*)(arg + 4), arg_ref.datalen);
        return arg_ref;
}
LDKPublicKey get_shutdown_pubkey_jcall(const void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_0(j_calls->get_shutdown_pubkey_meth);
        LDKPublicKey arg_ref;
        CHECK(*((uint32_t*)arg) == 33);
        memcpy(arg_ref.compressed_form, (uint8_t*)(arg + 4), 33);
        return arg_ref;
}
LDKChannelKeys get_channel_keys_jcall(const void* this_arg, bool inbound, uint64_t channel_value_satoshis) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        LDKChannelKeys* ret = (LDKChannelKeys*)js_invoke_function_2(j_calls->get_channel_keys_meth, inbound, channel_value_satoshis);
        LDKChannelKeys ret_conv = *(LDKChannelKeys*)ret;
        ret_conv = ChannelKeys_clone(ret);
        return ret_conv;
}
LDKThirtyTwoBytes get_secure_random_bytes_jcall(const void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        int8_tArray arg = js_invoke_function_0(j_calls->get_secure_random_bytes_meth);
        LDKThirtyTwoBytes arg_ref;
        CHECK(*((uint32_t*)arg) == 32);
        memcpy(arg_ref.data, (uint8_t*)(arg + 4), 32);
        return arg_ref;
}
LDKCResult_ChanKeySignerDecodeErrorZ read_chan_signer_jcall(const void* this_arg, LDKu8slice reader) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        LDKu8slice reader_var = reader;
        int8_tArray reader_arr = init_arr(reader_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(reader_arr + 4), reader_var.data, reader_var.datalen);
        LDKCResult_ChanKeySignerDecodeErrorZ* ret = (LDKCResult_ChanKeySignerDecodeErrorZ*)js_invoke_function_1(j_calls->read_chan_signer_meth, reader_arr);
        LDKCResult_ChanKeySignerDecodeErrorZ ret_conv = *(LDKCResult_ChanKeySignerDecodeErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
static void* LDKKeysInterface_JCalls_clone(const void* this_arg) {
        LDKKeysInterface_JCalls *j_calls = (LDKKeysInterface_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKKeysInterface LDKKeysInterface_init (/*TODO: JS Object Reference */void* o) {
        LDKKeysInterface_JCalls *calls = MALLOC(sizeof(LDKKeysInterface_JCalls), "LDKKeysInterface_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKKeysInterface ret = {
                .this_arg = (void*) calls,
                .get_node_secret = get_node_secret_jcall,
                .get_destination_script = get_destination_script_jcall,
                .get_shutdown_pubkey = get_shutdown_pubkey_jcall,
                .get_channel_keys = get_channel_keys_jcall,
                .get_secure_random_bytes = get_secure_random_bytes_jcall,
                .read_chan_signer = read_chan_signer_jcall,
                .free = LDKKeysInterface_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKKeysInterface_new(/*TODO: JS Object Reference */void* o) {
        LDKKeysInterface *res_ptr = MALLOC(sizeof(LDKKeysInterface), "LDKKeysInterface");
        *res_ptr = LDKKeysInterface_init(o);
        return (long)res_ptr;
}
int8_tArray  __attribute__((visibility("default"))) TS_KeysInterface_get_node_secret(uint32_t this_arg) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), (this_arg_conv->get_node_secret)(this_arg_conv->this_arg).bytes, 32);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_KeysInterface_get_destination_script(uint32_t this_arg) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        LDKCVec_u8Z arg_var = (this_arg_conv->get_destination_script)(this_arg_conv->this_arg);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_KeysInterface_get_shutdown_pubkey(uint32_t this_arg) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), (this_arg_conv->get_shutdown_pubkey)(this_arg_conv->this_arg).compressed_form, 33);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_KeysInterface_get_channel_keys(uint32_t this_arg, jboolean inbound, int64_t channel_value_satoshis) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        LDKChannelKeys* ret = MALLOC(sizeof(LDKChannelKeys), "LDKChannelKeys");
        *ret = (this_arg_conv->get_channel_keys)(this_arg_conv->this_arg, inbound, channel_value_satoshis);
        return (long)ret;
}

int8_tArray  __attribute__((visibility("default"))) TS_KeysInterface_get_secure_random_bytes(uint32_t this_arg) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), (this_arg_conv->get_secure_random_bytes)(this_arg_conv->this_arg).data, 32);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_KeysInterface_read_chan_signer(uint32_t this_arg, int8_tArray reader) {
        LDKKeysInterface* this_arg_conv = (LDKKeysInterface*)this_arg;
        LDKu8slice reader_ref;
        reader_ref.datalen = *((uint32_t*)reader);
        reader_ref.data = (int8_t*)(reader + 4);
        LDKCResult_ChanKeySignerDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChanKeySignerDecodeErrorZ), "LDKCResult_ChanKeySignerDecodeErrorZ");
        *ret_conv = (this_arg_conv->read_chan_signer)(this_arg_conv->this_arg, reader_ref);
        return (long)ret_conv;
}

typedef struct LDKFeeEstimator_JCalls {
        atomic_size_t refcnt;
        uint32_t get_est_sat_per_1000_weight_meth;
} LDKFeeEstimator_JCalls;
static void LDKFeeEstimator_JCalls_free(void* this_arg) {
        LDKFeeEstimator_JCalls *j_calls = (LDKFeeEstimator_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_est_sat_per_1000_weight_meth);
                FREE(j_calls);
        }
}
uint32_t get_est_sat_per_1000_weight_jcall(const void* this_arg, LDKConfirmationTarget confirmation_target) {
        LDKFeeEstimator_JCalls *j_calls = (LDKFeeEstimator_JCalls*) this_arg;
        uint32_t confirmation_target_conv = LDKConfirmationTarget_to_js(confirmation_target);
        return js_invoke_function_1(j_calls->get_est_sat_per_1000_weight_meth, confirmation_target_conv);
}
static void* LDKFeeEstimator_JCalls_clone(const void* this_arg) {
        LDKFeeEstimator_JCalls *j_calls = (LDKFeeEstimator_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKFeeEstimator LDKFeeEstimator_init (/*TODO: JS Object Reference */void* o) {
        LDKFeeEstimator_JCalls *calls = MALLOC(sizeof(LDKFeeEstimator_JCalls), "LDKFeeEstimator_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKFeeEstimator ret = {
                .this_arg = (void*) calls,
                .get_est_sat_per_1000_weight = get_est_sat_per_1000_weight_jcall,
                .free = LDKFeeEstimator_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKFeeEstimator_new(/*TODO: JS Object Reference */void* o) {
        LDKFeeEstimator *res_ptr = MALLOC(sizeof(LDKFeeEstimator), "LDKFeeEstimator");
        *res_ptr = LDKFeeEstimator_init(o);
        return (long)res_ptr;
}
int32_t  __attribute__((visibility("default"))) TS_FeeEstimator_get_est_sat_per_1000_weight(uint32_t this_arg, uint32_t confirmation_target) {
        LDKFeeEstimator* this_arg_conv = (LDKFeeEstimator*)this_arg;
        LDKConfirmationTarget confirmation_target_conv = LDKConfirmationTarget_from_js(confirmation_target);
        int32_t ret_val = (this_arg_conv->get_est_sat_per_1000_weight)(this_arg_conv->this_arg, confirmation_target_conv);
        return ret_val;
}

typedef struct LDKLogger_JCalls {
        atomic_size_t refcnt;
        uint32_t log_meth;
} LDKLogger_JCalls;
static void LDKLogger_JCalls_free(void* this_arg) {
        LDKLogger_JCalls *j_calls = (LDKLogger_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->log_meth);
                FREE(j_calls);
        }
}
void log_jcall(const void* this_arg, const char* record) {
        LDKLogger_JCalls *j_calls = (LDKLogger_JCalls*) this_arg;
        const char* record_str = record;
        jstring record_conv = str_ref_to_ts(record_str, strlen(record_str));
        js_invoke_function_1(j_calls->log_meth, record_conv);
}
static void* LDKLogger_JCalls_clone(const void* this_arg) {
        LDKLogger_JCalls *j_calls = (LDKLogger_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKLogger LDKLogger_init (/*TODO: JS Object Reference */void* o) {
        LDKLogger_JCalls *calls = MALLOC(sizeof(LDKLogger_JCalls), "LDKLogger_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKLogger ret = {
                .this_arg = (void*) calls,
                .log = log_jcall,
                .free = LDKLogger_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKLogger_new(/*TODO: JS Object Reference */void* o) {
        LDKLogger *res_ptr = MALLOC(sizeof(LDKLogger), "LDKLogger");
        *res_ptr = LDKLogger_init(o);
        return (long)res_ptr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelManagerZ_new(int8_tArray a, uint32_t b) {
        LDKC2Tuple_BlockHashChannelManagerZ* ret = MALLOC(sizeof(LDKC2Tuple_BlockHashChannelManagerZ), "LDKC2Tuple_BlockHashChannelManagerZ");
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        ret->a = a_ref;
        LDKChannelManager b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        // Warning: we may need a move here but can't clone!
        ret->b = b_conv;
        return (long)ret;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelManagerZ_get_a(uint32_t ptr) {
        LDKC2Tuple_BlockHashChannelManagerZ *tuple = (LDKC2Tuple_BlockHashChannelManagerZ*)ptr;
        int8_tArray a_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(a_arr + 4), tuple->a.data, 32);
        return a_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC2Tuple_BlockHashChannelManagerZ_get_b(uint32_t ptr) {
        LDKC2Tuple_BlockHashChannelManagerZ *tuple = (LDKC2Tuple_BlockHashChannelManagerZ*)ptr;
        LDKChannelManager b_var = tuple->b;
        CHECK((((long)b_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&b_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long b_ref = (long)b_var.inner & ~1;
        return b_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ *val = (LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ *val = (LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NetAddressu8Z_result_ok(uint32_t arg) {
        return ((LDKCResult_NetAddressu8Z*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NetAddressu8Z_get_ok(uint32_t arg) {
        LDKCResult_NetAddressu8Z *val = (LDKCResult_NetAddressu8Z*)arg;
        CHECK(val->result_ok);
        long res_ref = (long)&(*val->contents.result);
        return res_ref;
}
int8_t  __attribute__((visibility("default"))) TS_LDKCResult_NetAddressu8Z_get_err(uint32_t arg) {
        LDKCResult_NetAddressu8Z *val = (LDKCResult_NetAddressu8Z*)arg;
        CHECK(!val->result_ok);
        return *val->contents.err;
}
static inline LDKCResult_NetAddressu8Z CResult_NetAddressu8Z_clone(const LDKCResult_NetAddressu8Z *orig) {
        LDKCResult_NetAddressu8Z res = { .result_ok = orig->result_ok };
        if (orig->result_ok) {
                LDKNetAddress* contents = MALLOC(sizeof(LDKNetAddress), "LDKNetAddress result OK clone");
                *contents = NetAddress_clone(orig->contents.result);
                res.contents.result = contents;
        } else {
                int8_t* contents = MALLOC(sizeof(int8_t), "int8_t result Err clone");
                *contents = *orig->contents.err;
                res.contents.err = contents;
        }
        return res;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_CResult_NetAddressu8ZDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_CResult_NetAddressu8ZDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_CResult_NetAddressu8ZDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ *val = (LDKCResult_CResult_NetAddressu8ZDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKCResult_NetAddressu8Z* res_conv = MALLOC(sizeof(LDKCResult_NetAddressu8Z), "LDKCResult_NetAddressu8Z");
        *res_conv = (*val->contents.result);
        *res_conv = CResult_NetAddressu8Z_clone(res_conv);
        return (long)res_conv;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_CResult_NetAddressu8ZDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ *val = (LDKCResult_CResult_NetAddressu8ZDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_u64Z_new(int64_tArray elems) {
        LDKCVec_u64Z *ret = MALLOC(sizeof(LDKCVec_u64Z), "LDKCVec_u64Z");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(uint64_t) * ret->datalen, "LDKCVec_u64Z Data");
                int64_t *java_elems = (int64_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        ret->data[i] = java_elems[i];
                }
        }
        return (long)ret;
}
static inline LDKCVec_u64Z CVec_u64Z_clone(const LDKCVec_u64Z *orig) {
        LDKCVec_u64Z ret = { .data = MALLOC(sizeof(int64_t) * orig->datalen, "LDKCVec_u64Z clone bytes"), .datalen = orig->datalen };
        memcpy(ret.data, orig->data, sizeof(int64_t) * ret.datalen);
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_UpdateAddHTLCZ_new(uint32_tArray elems) {
        LDKCVec_UpdateAddHTLCZ *ret = MALLOC(sizeof(LDKCVec_UpdateAddHTLCZ), "LDKCVec_UpdateAddHTLCZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKUpdateAddHTLC) * ret->datalen, "LDKCVec_UpdateAddHTLCZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKUpdateAddHTLC arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = UpdateAddHTLC_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_UpdateAddHTLCZ CVec_UpdateAddHTLCZ_clone(const LDKCVec_UpdateAddHTLCZ *orig) {
        LDKCVec_UpdateAddHTLCZ ret = { .data = MALLOC(sizeof(LDKUpdateAddHTLC) * orig->datalen, "LDKCVec_UpdateAddHTLCZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = UpdateAddHTLC_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_UpdateFulfillHTLCZ_new(uint32_tArray elems) {
        LDKCVec_UpdateFulfillHTLCZ *ret = MALLOC(sizeof(LDKCVec_UpdateFulfillHTLCZ), "LDKCVec_UpdateFulfillHTLCZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKUpdateFulfillHTLC) * ret->datalen, "LDKCVec_UpdateFulfillHTLCZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKUpdateFulfillHTLC arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = UpdateFulfillHTLC_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_UpdateFulfillHTLCZ CVec_UpdateFulfillHTLCZ_clone(const LDKCVec_UpdateFulfillHTLCZ *orig) {
        LDKCVec_UpdateFulfillHTLCZ ret = { .data = MALLOC(sizeof(LDKUpdateFulfillHTLC) * orig->datalen, "LDKCVec_UpdateFulfillHTLCZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = UpdateFulfillHTLC_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_UpdateFailHTLCZ_new(uint32_tArray elems) {
        LDKCVec_UpdateFailHTLCZ *ret = MALLOC(sizeof(LDKCVec_UpdateFailHTLCZ), "LDKCVec_UpdateFailHTLCZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKUpdateFailHTLC) * ret->datalen, "LDKCVec_UpdateFailHTLCZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKUpdateFailHTLC arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = UpdateFailHTLC_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_UpdateFailHTLCZ CVec_UpdateFailHTLCZ_clone(const LDKCVec_UpdateFailHTLCZ *orig) {
        LDKCVec_UpdateFailHTLCZ ret = { .data = MALLOC(sizeof(LDKUpdateFailHTLC) * orig->datalen, "LDKCVec_UpdateFailHTLCZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = UpdateFailHTLC_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_UpdateFailMalformedHTLCZ_new(uint32_tArray elems) {
        LDKCVec_UpdateFailMalformedHTLCZ *ret = MALLOC(sizeof(LDKCVec_UpdateFailMalformedHTLCZ), "LDKCVec_UpdateFailMalformedHTLCZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKUpdateFailMalformedHTLC) * ret->datalen, "LDKCVec_UpdateFailMalformedHTLCZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKUpdateFailMalformedHTLC arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = UpdateFailMalformedHTLC_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_UpdateFailMalformedHTLCZ CVec_UpdateFailMalformedHTLCZ_clone(const LDKCVec_UpdateFailMalformedHTLCZ *orig) {
        LDKCVec_UpdateFailMalformedHTLCZ ret = { .data = MALLOC(sizeof(LDKUpdateFailMalformedHTLC) * orig->datalen, "LDKCVec_UpdateFailMalformedHTLCZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = UpdateFailMalformedHTLC_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_boolLightningErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_boolLightningErrorZ*)arg)->result_ok;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_boolLightningErrorZ_get_ok(uint32_t arg) {
        LDKCResult_boolLightningErrorZ *val = (LDKCResult_boolLightningErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_boolLightningErrorZ_get_err(uint32_t arg) {
        LDKCResult_boolLightningErrorZ *val = (LDKCResult_boolLightningErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKLightningError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_new(uint32_t a, uint32_t b, uint32_t c) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ* ret = MALLOC(sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ), "LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ");
        LDKChannelAnnouncement a_conv;
        a_conv.inner = (void*)(a & (~1));
        a_conv.is_owned = (a & 1) || (a == 0);
        if (a_conv.inner != NULL)
                a_conv = ChannelAnnouncement_clone(&a_conv);
        ret->a = a_conv;
        LDKChannelUpdate b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        if (b_conv.inner != NULL)
                b_conv = ChannelUpdate_clone(&b_conv);
        ret->b = b_conv;
        LDKChannelUpdate c_conv;
        c_conv.inner = (void*)(c & (~1));
        c_conv.is_owned = (c & 1) || (c == 0);
        if (c_conv.inner != NULL)
                c_conv = ChannelUpdate_clone(&c_conv);
        ret->c = c_conv;
        return (long)ret;
}
static inline LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_clone(const LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ *orig) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ ret = {
                .a = ChannelAnnouncement_clone(&orig->a),
                .b = ChannelUpdate_clone(&orig->b),
                .c = ChannelUpdate_clone(&orig->c),
        };
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_get_a(uint32_t ptr) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ *tuple = (LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)ptr;
        LDKChannelAnnouncement a_var = tuple->a;
        CHECK((((long)a_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&a_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long a_ref = (long)a_var.inner & ~1;
        return a_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_get_b(uint32_t ptr) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ *tuple = (LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)ptr;
        LDKChannelUpdate b_var = tuple->b;
        CHECK((((long)b_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&b_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long b_ref = (long)b_var.inner & ~1;
        return b_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_get_c(uint32_t ptr) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ *tuple = (LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)ptr;
        LDKChannelUpdate c_var = tuple->c;
        CHECK((((long)c_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&c_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long c_ref = (long)c_var.inner & ~1;
        return c_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ_new(uint32_tArray elems) {
        LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ *ret = MALLOC(sizeof(LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ), "LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ) * ret->datalen, "LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ arr_elem_conv = *(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)arr_elem;
                        FREE((void*)arr_elem);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ CVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ_clone(const LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ *orig) {
        LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ ret = { .data = MALLOC(sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ) * orig->datalen, "LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_clone(&orig->data[i]);
        }
        return ret;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_NodeAnnouncementZ_new(uint32_tArray elems) {
        LDKCVec_NodeAnnouncementZ *ret = MALLOC(sizeof(LDKCVec_NodeAnnouncementZ), "LDKCVec_NodeAnnouncementZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKNodeAnnouncement) * ret->datalen, "LDKCVec_NodeAnnouncementZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKNodeAnnouncement arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = NodeAnnouncement_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_NodeAnnouncementZ CVec_NodeAnnouncementZ_clone(const LDKCVec_NodeAnnouncementZ *orig) {
        LDKCVec_NodeAnnouncementZ ret = { .data = MALLOC(sizeof(LDKNodeAnnouncement) * orig->datalen, "LDKCVec_NodeAnnouncementZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = NodeAnnouncement_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NoneLightningErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NoneLightningErrorZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NoneLightningErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NoneLightningErrorZ *val = (LDKCResult_NoneLightningErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NoneLightningErrorZ_get_err(uint32_t arg) {
        LDKCResult_NoneLightningErrorZ *val = (LDKCResult_NoneLightningErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKLightningError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ChannelReestablishDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ChannelReestablishDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChannelReestablishDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ChannelReestablishDecodeErrorZ *val = (LDKCResult_ChannelReestablishDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKChannelReestablish res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ChannelReestablishDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ChannelReestablishDecodeErrorZ *val = (LDKCResult_ChannelReestablishDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_InitDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_InitDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_InitDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_InitDecodeErrorZ *val = (LDKCResult_InitDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKInit res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_InitDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_InitDecodeErrorZ *val = (LDKCResult_InitDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_PingDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_PingDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_PingDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_PingDecodeErrorZ *val = (LDKCResult_PingDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKPing res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_PingDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_PingDecodeErrorZ *val = (LDKCResult_PingDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_PongDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_PongDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_PongDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_PongDecodeErrorZ *val = (LDKCResult_PongDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKPong res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_PongDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_PongDecodeErrorZ *val = (LDKCResult_PongDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ *val = (LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKUnsignedChannelAnnouncement res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ *val = (LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelUpdateDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_UnsignedChannelUpdateDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelUpdateDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ *val = (LDKCResult_UnsignedChannelUpdateDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKUnsignedChannelUpdate res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedChannelUpdateDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ *val = (LDKCResult_UnsignedChannelUpdateDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ErrorMessageDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ErrorMessageDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ErrorMessageDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ErrorMessageDecodeErrorZ *val = (LDKCResult_ErrorMessageDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKErrorMessage res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ErrorMessageDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ErrorMessageDecodeErrorZ *val = (LDKCResult_ErrorMessageDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ *val = (LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKUnsignedNodeAnnouncement res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ *val = (LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_QueryShortChannelIdsDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_QueryShortChannelIdsDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_QueryShortChannelIdsDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_QueryShortChannelIdsDecodeErrorZ *val = (LDKCResult_QueryShortChannelIdsDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKQueryShortChannelIds res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_QueryShortChannelIdsDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_QueryShortChannelIdsDecodeErrorZ *val = (LDKCResult_QueryShortChannelIdsDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ *val = (LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKReplyShortChannelIdsEnd res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ *val = (LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_QueryChannelRangeDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_QueryChannelRangeDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_QueryChannelRangeDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_QueryChannelRangeDecodeErrorZ *val = (LDKCResult_QueryChannelRangeDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKQueryChannelRange res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_QueryChannelRangeDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_QueryChannelRangeDecodeErrorZ *val = (LDKCResult_QueryChannelRangeDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_ReplyChannelRangeDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_ReplyChannelRangeDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ReplyChannelRangeDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_ReplyChannelRangeDecodeErrorZ *val = (LDKCResult_ReplyChannelRangeDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKReplyChannelRange res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_ReplyChannelRangeDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_ReplyChannelRangeDecodeErrorZ *val = (LDKCResult_ReplyChannelRangeDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_GossipTimestampFilterDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_GossipTimestampFilterDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_GossipTimestampFilterDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_GossipTimestampFilterDecodeErrorZ *val = (LDKCResult_GossipTimestampFilterDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKGossipTimestampFilter res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_GossipTimestampFilterDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_GossipTimestampFilterDecodeErrorZ *val = (LDKCResult_GossipTimestampFilterDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_CVec_u8ZPeerHandleErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_CVec_u8ZPeerHandleErrorZ*)arg)->result_ok;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKCResult_CVec_u8ZPeerHandleErrorZ_get_ok(uint32_t arg) {
        LDKCResult_CVec_u8ZPeerHandleErrorZ *val = (LDKCResult_CVec_u8ZPeerHandleErrorZ*)arg;
        CHECK(val->result_ok);
        LDKCVec_u8Z res_var = (*val->contents.result);
        int8_tArray res_arr = init_arr(res_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(res_arr + 4), res_var.data, res_var.datalen);
        return res_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_CVec_u8ZPeerHandleErrorZ_get_err(uint32_t arg) {
        LDKCResult_CVec_u8ZPeerHandleErrorZ *val = (LDKCResult_CVec_u8ZPeerHandleErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKPeerHandleError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NonePeerHandleErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NonePeerHandleErrorZ*)arg)->result_ok;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_NonePeerHandleErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NonePeerHandleErrorZ *val = (LDKCResult_NonePeerHandleErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NonePeerHandleErrorZ_get_err(uint32_t arg) {
        LDKCResult_NonePeerHandleErrorZ *val = (LDKCResult_NonePeerHandleErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKPeerHandleError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_boolPeerHandleErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_boolPeerHandleErrorZ*)arg)->result_ok;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_boolPeerHandleErrorZ_get_ok(uint32_t arg) {
        LDKCResult_boolPeerHandleErrorZ *val = (LDKCResult_boolPeerHandleErrorZ*)arg;
        CHECK(val->result_ok);
        return *val->contents.result;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_boolPeerHandleErrorZ_get_err(uint32_t arg) {
        LDKCResult_boolPeerHandleErrorZ *val = (LDKCResult_boolPeerHandleErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKPeerHandleError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_SecretKeySecpErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_SecretKeySecpErrorZ*)arg)->result_ok;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKCResult_SecretKeySecpErrorZ_get_ok(uint32_t arg) {
        LDKCResult_SecretKeySecpErrorZ *val = (LDKCResult_SecretKeySecpErrorZ*)arg;
        CHECK(val->result_ok);
        int8_tArray res_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(res_arr + 4), (*val->contents.result).bytes, 32);
        return res_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_SecretKeySecpErrorZ_get_err(uint32_t arg) {
        LDKCResult_SecretKeySecpErrorZ *val = (LDKCResult_SecretKeySecpErrorZ*)arg;
        CHECK(!val->result_ok);
        uint32_t err_conv = LDKSecp256k1Error_to_js((*val->contents.err));
        return err_conv;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_PublicKeySecpErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_PublicKeySecpErrorZ*)arg)->result_ok;
}
int8_tArray  __attribute__((visibility("default"))) TS_LDKCResult_PublicKeySecpErrorZ_get_ok(uint32_t arg) {
        LDKCResult_PublicKeySecpErrorZ *val = (LDKCResult_PublicKeySecpErrorZ*)arg;
        CHECK(val->result_ok);
        int8_tArray res_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(res_arr + 4), (*val->contents.result).compressed_form, 33);
        return res_arr;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_PublicKeySecpErrorZ_get_err(uint32_t arg) {
        LDKCResult_PublicKeySecpErrorZ *val = (LDKCResult_PublicKeySecpErrorZ*)arg;
        CHECK(!val->result_ok);
        uint32_t err_conv = LDKSecp256k1Error_to_js((*val->contents.err));
        return err_conv;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_TxCreationKeysSecpErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_TxCreationKeysSecpErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_TxCreationKeysSecpErrorZ_get_ok(uint32_t arg) {
        LDKCResult_TxCreationKeysSecpErrorZ *val = (LDKCResult_TxCreationKeysSecpErrorZ*)arg;
        CHECK(val->result_ok);
        LDKTxCreationKeys res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_TxCreationKeysSecpErrorZ_get_err(uint32_t arg) {
        LDKCResult_TxCreationKeysSecpErrorZ *val = (LDKCResult_TxCreationKeysSecpErrorZ*)arg;
        CHECK(!val->result_ok);
        uint32_t err_conv = LDKSecp256k1Error_to_js((*val->contents.err));
        return err_conv;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_TrustedCommitmentTransactionNoneZ_result_ok(uint32_t arg) {
        return ((LDKCResult_TrustedCommitmentTransactionNoneZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_TrustedCommitmentTransactionNoneZ_get_ok(uint32_t arg) {
        LDKCResult_TrustedCommitmentTransactionNoneZ *val = (LDKCResult_TrustedCommitmentTransactionNoneZ*)arg;
        CHECK(val->result_ok);
        LDKTrustedCommitmentTransaction res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
void  __attribute__((visibility("default"))) TS_LDKCResult_TrustedCommitmentTransactionNoneZ_get_err(uint32_t arg) {
        LDKCResult_TrustedCommitmentTransactionNoneZ *val = (LDKCResult_TrustedCommitmentTransactionNoneZ*)arg;
        CHECK(!val->result_ok);
        return *val->contents.err;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_RouteHopZ_new(uint32_tArray elems) {
        LDKCVec_RouteHopZ *ret = MALLOC(sizeof(LDKCVec_RouteHopZ), "LDKCVec_RouteHopZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKRouteHop) * ret->datalen, "LDKCVec_RouteHopZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKRouteHop arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = RouteHop_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_RouteHopZ CVec_RouteHopZ_clone(const LDKCVec_RouteHopZ *orig) {
        LDKCVec_RouteHopZ ret = { .data = MALLOC(sizeof(LDKRouteHop) * orig->datalen, "LDKCVec_RouteHopZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = RouteHop_clone(&orig->data[i]);
        }
        return ret;
}
static inline LDKCVec_CVec_RouteHopZZ CVec_CVec_RouteHopZZ_clone(const LDKCVec_CVec_RouteHopZZ *orig) {
        LDKCVec_CVec_RouteHopZZ ret = { .data = MALLOC(sizeof(LDKCVec_RouteHopZ) * orig->datalen, "LDKCVec_CVec_RouteHopZZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = CVec_RouteHopZ_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_RouteDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_RouteDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RouteDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_RouteDecodeErrorZ *val = (LDKCResult_RouteDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKRoute res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RouteDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_RouteDecodeErrorZ *val = (LDKCResult_RouteDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCVec_RouteHintZ_new(uint32_tArray elems) {
        LDKCVec_RouteHintZ *ret = MALLOC(sizeof(LDKCVec_RouteHintZ), "LDKCVec_RouteHintZ");
        ret->datalen = *((uint32_t*)elems);
        if (ret->datalen == 0) {
                ret->data = NULL;
        } else {
                ret->data = MALLOC(sizeof(LDKRouteHint) * ret->datalen, "LDKCVec_RouteHintZ Data");
                uint32_t *java_elems = (uint32_t*)(elems + 4);
                for (size_t i = 0; i < ret->datalen; i++) {
                        uint32_t arr_elem = java_elems[i];
                        LDKRouteHint arr_elem_conv;
                        arr_elem_conv.inner = (void*)(arr_elem & (~1));
                        arr_elem_conv.is_owned = (arr_elem & 1) || (arr_elem == 0);
                        if (arr_elem_conv.inner != NULL)
                                arr_elem_conv = RouteHint_clone(&arr_elem_conv);
                        ret->data[i] = arr_elem_conv;
                }
        }
        return (long)ret;
}
static inline LDKCVec_RouteHintZ CVec_RouteHintZ_clone(const LDKCVec_RouteHintZ *orig) {
        LDKCVec_RouteHintZ ret = { .data = MALLOC(sizeof(LDKRouteHint) * orig->datalen, "LDKCVec_RouteHintZ clone bytes"), .datalen = orig->datalen };
        for (size_t i = 0; i < ret.datalen; i++) {
                ret.data[i] = RouteHint_clone(&orig->data[i]);
        }
        return ret;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_RouteLightningErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_RouteLightningErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RouteLightningErrorZ_get_ok(uint32_t arg) {
        LDKCResult_RouteLightningErrorZ *val = (LDKCResult_RouteLightningErrorZ*)arg;
        CHECK(val->result_ok);
        LDKRoute res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RouteLightningErrorZ_get_err(uint32_t arg) {
        LDKCResult_RouteLightningErrorZ *val = (LDKCResult_RouteLightningErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKLightningError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_RoutingFeesDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_RoutingFeesDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RoutingFeesDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_RoutingFeesDecodeErrorZ *val = (LDKCResult_RoutingFeesDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKRoutingFees res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_RoutingFeesDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_RoutingFeesDecodeErrorZ *val = (LDKCResult_RoutingFeesDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NodeAnnouncementInfoDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NodeAnnouncementInfoDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NodeAnnouncementInfoDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ *val = (LDKCResult_NodeAnnouncementInfoDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKNodeAnnouncementInfo res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NodeAnnouncementInfoDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ *val = (LDKCResult_NodeAnnouncementInfoDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NodeInfoDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NodeInfoDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NodeInfoDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NodeInfoDecodeErrorZ *val = (LDKCResult_NodeInfoDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKNodeInfo res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NodeInfoDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_NodeInfoDecodeErrorZ *val = (LDKCResult_NodeInfoDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
jboolean  __attribute__((visibility("default"))) TS_LDKCResult_NetworkGraphDecodeErrorZ_result_ok(uint32_t arg) {
        return ((LDKCResult_NetworkGraphDecodeErrorZ*)arg)->result_ok;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NetworkGraphDecodeErrorZ_get_ok(uint32_t arg) {
        LDKCResult_NetworkGraphDecodeErrorZ *val = (LDKCResult_NetworkGraphDecodeErrorZ*)arg;
        CHECK(val->result_ok);
        LDKNetworkGraph res_var = (*val->contents.result);
        CHECK((((long)res_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&res_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long res_ref = (long)res_var.inner & ~1;
        return res_ref;
}
uint32_t  __attribute__((visibility("default"))) TS_LDKCResult_NetworkGraphDecodeErrorZ_get_err(uint32_t arg) {
        LDKCResult_NetworkGraphDecodeErrorZ *val = (LDKCResult_NetworkGraphDecodeErrorZ*)arg;
        CHECK(!val->result_ok);
        LDKDecodeError err_var = (*val->contents.err);
        CHECK((((long)err_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&err_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long err_ref = (long)err_var.inner & ~1;
        return err_ref;
}
typedef struct LDKMessageSendEventsProvider_JCalls {
        atomic_size_t refcnt;
        uint32_t get_and_clear_pending_msg_events_meth;
} LDKMessageSendEventsProvider_JCalls;
static void LDKMessageSendEventsProvider_JCalls_free(void* this_arg) {
        LDKMessageSendEventsProvider_JCalls *j_calls = (LDKMessageSendEventsProvider_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_and_clear_pending_msg_events_meth);
                FREE(j_calls);
        }
}
LDKCVec_MessageSendEventZ get_and_clear_pending_msg_events_jcall(const void* this_arg) {
        LDKMessageSendEventsProvider_JCalls *j_calls = (LDKMessageSendEventsProvider_JCalls*) this_arg;
        uint32_tArray arg = js_invoke_function_0(j_calls->get_and_clear_pending_msg_events_meth);
        LDKCVec_MessageSendEventZ arg_constr;
        arg_constr.datalen = *((uint32_t*)arg);
        if (arg_constr.datalen > 0)
                arg_constr.data = MALLOC(arg_constr.datalen * sizeof(LDKMessageSendEvent), "LDKCVec_MessageSendEventZ Elements");
        else
                arg_constr.data = NULL;
        uint32_t* arg_vals = (uint32_t*)(arg + 4);
        for (size_t s = 0; s < arg_constr.datalen; s++) {
                uint32_t arr_conv_18 = arg_vals[s];
                LDKMessageSendEvent arr_conv_18_conv = *(LDKMessageSendEvent*)arr_conv_18;
                FREE((void*)arr_conv_18);
                arg_constr.data[s] = arr_conv_18_conv;
        }
        return arg_constr;
}
static void* LDKMessageSendEventsProvider_JCalls_clone(const void* this_arg) {
        LDKMessageSendEventsProvider_JCalls *j_calls = (LDKMessageSendEventsProvider_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKMessageSendEventsProvider LDKMessageSendEventsProvider_init (/*TODO: JS Object Reference */void* o) {
        LDKMessageSendEventsProvider_JCalls *calls = MALLOC(sizeof(LDKMessageSendEventsProvider_JCalls), "LDKMessageSendEventsProvider_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKMessageSendEventsProvider ret = {
                .this_arg = (void*) calls,
                .get_and_clear_pending_msg_events = get_and_clear_pending_msg_events_jcall,
                .free = LDKMessageSendEventsProvider_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKMessageSendEventsProvider_new(/*TODO: JS Object Reference */void* o) {
        LDKMessageSendEventsProvider *res_ptr = MALLOC(sizeof(LDKMessageSendEventsProvider), "LDKMessageSendEventsProvider");
        *res_ptr = LDKMessageSendEventsProvider_init(o);
        return (long)res_ptr;
}
uint32_tArray  __attribute__((visibility("default"))) TS_MessageSendEventsProvider_get_and_clear_pending_msg_events(uint32_t this_arg) {
        LDKMessageSendEventsProvider* this_arg_conv = (LDKMessageSendEventsProvider*)this_arg;
        LDKCVec_MessageSendEventZ ret_var = (this_arg_conv->get_and_clear_pending_msg_events)(this_arg_conv->this_arg);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t s = 0; s < ret_var.datalen; s++) {
                LDKMessageSendEvent *arr_conv_18_copy = MALLOC(sizeof(LDKMessageSendEvent), "LDKMessageSendEvent");
                *arr_conv_18_copy = MessageSendEvent_clone(&ret_var.data[s]);
                long arr_conv_18_ref = (long)arr_conv_18_copy;
                ret_arr_ptr[s] = arr_conv_18_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

typedef struct LDKEventsProvider_JCalls {
        atomic_size_t refcnt;
        uint32_t get_and_clear_pending_events_meth;
} LDKEventsProvider_JCalls;
static void LDKEventsProvider_JCalls_free(void* this_arg) {
        LDKEventsProvider_JCalls *j_calls = (LDKEventsProvider_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_and_clear_pending_events_meth);
                FREE(j_calls);
        }
}
LDKCVec_EventZ get_and_clear_pending_events_jcall(const void* this_arg) {
        LDKEventsProvider_JCalls *j_calls = (LDKEventsProvider_JCalls*) this_arg;
        uint32_tArray arg = js_invoke_function_0(j_calls->get_and_clear_pending_events_meth);
        LDKCVec_EventZ arg_constr;
        arg_constr.datalen = *((uint32_t*)arg);
        if (arg_constr.datalen > 0)
                arg_constr.data = MALLOC(arg_constr.datalen * sizeof(LDKEvent), "LDKCVec_EventZ Elements");
        else
                arg_constr.data = NULL;
        uint32_t* arg_vals = (uint32_t*)(arg + 4);
        for (size_t h = 0; h < arg_constr.datalen; h++) {
                uint32_t arr_conv_7 = arg_vals[h];
                LDKEvent arr_conv_7_conv = *(LDKEvent*)arr_conv_7;
                FREE((void*)arr_conv_7);
                arg_constr.data[h] = arr_conv_7_conv;
        }
        return arg_constr;
}
static void* LDKEventsProvider_JCalls_clone(const void* this_arg) {
        LDKEventsProvider_JCalls *j_calls = (LDKEventsProvider_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKEventsProvider LDKEventsProvider_init (/*TODO: JS Object Reference */void* o) {
        LDKEventsProvider_JCalls *calls = MALLOC(sizeof(LDKEventsProvider_JCalls), "LDKEventsProvider_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKEventsProvider ret = {
                .this_arg = (void*) calls,
                .get_and_clear_pending_events = get_and_clear_pending_events_jcall,
                .free = LDKEventsProvider_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKEventsProvider_new(/*TODO: JS Object Reference */void* o) {
        LDKEventsProvider *res_ptr = MALLOC(sizeof(LDKEventsProvider), "LDKEventsProvider");
        *res_ptr = LDKEventsProvider_init(o);
        return (long)res_ptr;
}
uint32_tArray  __attribute__((visibility("default"))) TS_EventsProvider_get_and_clear_pending_events(uint32_t this_arg) {
        LDKEventsProvider* this_arg_conv = (LDKEventsProvider*)this_arg;
        LDKCVec_EventZ ret_var = (this_arg_conv->get_and_clear_pending_events)(this_arg_conv->this_arg);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t h = 0; h < ret_var.datalen; h++) {
                LDKEvent *arr_conv_7_copy = MALLOC(sizeof(LDKEvent), "LDKEvent");
                *arr_conv_7_copy = Event_clone(&ret_var.data[h]);
                long arr_conv_7_ref = (long)arr_conv_7_copy;
                ret_arr_ptr[h] = arr_conv_7_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

typedef struct LDKAccess_JCalls {
        atomic_size_t refcnt;
        uint32_t get_utxo_meth;
} LDKAccess_JCalls;
static void LDKAccess_JCalls_free(void* this_arg) {
        LDKAccess_JCalls *j_calls = (LDKAccess_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->get_utxo_meth);
                FREE(j_calls);
        }
}
LDKCResult_TxOutAccessErrorZ get_utxo_jcall(const void* this_arg, const uint8_t (* genesis_hash)[32], uint64_t short_channel_id) {
        LDKAccess_JCalls *j_calls = (LDKAccess_JCalls*) this_arg;
        int8_tArray genesis_hash_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(genesis_hash_arr + 4), *genesis_hash, 32);
        LDKCResult_TxOutAccessErrorZ* ret = (LDKCResult_TxOutAccessErrorZ*)js_invoke_function_2(j_calls->get_utxo_meth, genesis_hash_arr, short_channel_id);
        LDKCResult_TxOutAccessErrorZ ret_conv = *(LDKCResult_TxOutAccessErrorZ*)ret;
        ret_conv = CResult_TxOutAccessErrorZ_clone((LDKCResult_TxOutAccessErrorZ*)ret);
        return ret_conv;
}
static void* LDKAccess_JCalls_clone(const void* this_arg) {
        LDKAccess_JCalls *j_calls = (LDKAccess_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKAccess LDKAccess_init (/*TODO: JS Object Reference */void* o) {
        LDKAccess_JCalls *calls = MALLOC(sizeof(LDKAccess_JCalls), "LDKAccess_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKAccess ret = {
                .this_arg = (void*) calls,
                .get_utxo = get_utxo_jcall,
                .free = LDKAccess_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKAccess_new(/*TODO: JS Object Reference */void* o) {
        LDKAccess *res_ptr = MALLOC(sizeof(LDKAccess), "LDKAccess");
        *res_ptr = LDKAccess_init(o);
        return (long)res_ptr;
}
uint32_t  __attribute__((visibility("default"))) TS_Access_get_utxo(uint32_t this_arg, int8_tArray genesis_hash, int64_t short_channel_id) {
        LDKAccess* this_arg_conv = (LDKAccess*)this_arg;
        unsigned char genesis_hash_arr[32];
        CHECK(*((uint32_t*)genesis_hash) == 32);
        memcpy(genesis_hash_arr, (uint8_t*)(genesis_hash + 4), 32);
        unsigned char (*genesis_hash_ref)[32] = &genesis_hash_arr;
        LDKCResult_TxOutAccessErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxOutAccessErrorZ), "LDKCResult_TxOutAccessErrorZ");
        *ret_conv = (this_arg_conv->get_utxo)(this_arg_conv->this_arg, genesis_hash_ref, short_channel_id);
        return (long)ret_conv;
}

typedef struct LDKFilter_JCalls {
        atomic_size_t refcnt;
        uint32_t register_tx_meth;
        uint32_t register_output_meth;
} LDKFilter_JCalls;
static void LDKFilter_JCalls_free(void* this_arg) {
        LDKFilter_JCalls *j_calls = (LDKFilter_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->register_tx_meth);
                js_free(j_calls->register_output_meth);
                FREE(j_calls);
        }
}
void register_tx_jcall(const void* this_arg, const uint8_t (* txid)[32], LDKu8slice script_pubkey) {
        LDKFilter_JCalls *j_calls = (LDKFilter_JCalls*) this_arg;
        int8_tArray txid_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(txid_arr + 4), *txid, 32);
        LDKu8slice script_pubkey_var = script_pubkey;
        int8_tArray script_pubkey_arr = init_arr(script_pubkey_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(script_pubkey_arr + 4), script_pubkey_var.data, script_pubkey_var.datalen);
        js_invoke_function_2(j_calls->register_tx_meth, txid_arr, script_pubkey_arr);
}
void register_output_jcall(const void* this_arg, const LDKOutPoint * outpoint, LDKu8slice script_pubkey) {
        LDKFilter_JCalls *j_calls = (LDKFilter_JCalls*) this_arg;
        LDKOutPoint outpoint_var = *outpoint;
        if (outpoint->inner != NULL)
                outpoint_var = OutPoint_clone(outpoint);
        CHECK((((long)outpoint_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&outpoint_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long outpoint_ref = (long)outpoint_var.inner;
        if (outpoint_var.is_owned) {
                outpoint_ref |= 1;
        }
        LDKu8slice script_pubkey_var = script_pubkey;
        int8_tArray script_pubkey_arr = init_arr(script_pubkey_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(script_pubkey_arr + 4), script_pubkey_var.data, script_pubkey_var.datalen);
        js_invoke_function_2(j_calls->register_output_meth, outpoint_ref, script_pubkey_arr);
}
static void* LDKFilter_JCalls_clone(const void* this_arg) {
        LDKFilter_JCalls *j_calls = (LDKFilter_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKFilter LDKFilter_init (/*TODO: JS Object Reference */void* o) {
        LDKFilter_JCalls *calls = MALLOC(sizeof(LDKFilter_JCalls), "LDKFilter_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKFilter ret = {
                .this_arg = (void*) calls,
                .register_tx = register_tx_jcall,
                .register_output = register_output_jcall,
                .free = LDKFilter_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKFilter_new(/*TODO: JS Object Reference */void* o) {
        LDKFilter *res_ptr = MALLOC(sizeof(LDKFilter), "LDKFilter");
        *res_ptr = LDKFilter_init(o);
        return (long)res_ptr;
}
void  __attribute__((visibility("default"))) TS_Filter_register_tx(uint32_t this_arg, int8_tArray txid, int8_tArray script_pubkey) {
        LDKFilter* this_arg_conv = (LDKFilter*)this_arg;
        unsigned char txid_arr[32];
        CHECK(*((uint32_t*)txid) == 32);
        memcpy(txid_arr, (uint8_t*)(txid + 4), 32);
        unsigned char (*txid_ref)[32] = &txid_arr;
        LDKu8slice script_pubkey_ref;
        script_pubkey_ref.datalen = *((uint32_t*)script_pubkey);
        script_pubkey_ref.data = (int8_t*)(script_pubkey + 4);
        (this_arg_conv->register_tx)(this_arg_conv->this_arg, txid_ref, script_pubkey_ref);
}

void  __attribute__((visibility("default"))) TS_Filter_register_output(uint32_t this_arg, uint32_t outpoint, int8_tArray script_pubkey) {
        LDKFilter* this_arg_conv = (LDKFilter*)this_arg;
        LDKOutPoint outpoint_conv;
        outpoint_conv.inner = (void*)(outpoint & (~1));
        outpoint_conv.is_owned = false;
        LDKu8slice script_pubkey_ref;
        script_pubkey_ref.datalen = *((uint32_t*)script_pubkey);
        script_pubkey_ref.data = (int8_t*)(script_pubkey + 4);
        (this_arg_conv->register_output)(this_arg_conv->this_arg, &outpoint_conv, script_pubkey_ref);
}

typedef struct LDKPersist_JCalls {
        atomic_size_t refcnt;
        uint32_t persist_new_channel_meth;
        uint32_t update_persisted_channel_meth;
} LDKPersist_JCalls;
static void LDKPersist_JCalls_free(void* this_arg) {
        LDKPersist_JCalls *j_calls = (LDKPersist_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->persist_new_channel_meth);
                js_free(j_calls->update_persisted_channel_meth);
                FREE(j_calls);
        }
}
LDKCResult_NoneChannelMonitorUpdateErrZ persist_new_channel_jcall(const void* this_arg, LDKOutPoint id, const LDKChannelMonitor * data) {
        LDKPersist_JCalls *j_calls = (LDKPersist_JCalls*) this_arg;
        LDKOutPoint id_var = id;
        CHECK((((long)id_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&id_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long id_ref = (long)id_var.inner;
        if (id_var.is_owned) {
                id_ref |= 1;
        }
        LDKChannelMonitor data_var = *data;
        // Warning: we may need a move here but can't clone!
        CHECK((((long)data_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&data_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long data_ref = (long)data_var.inner;
        if (data_var.is_owned) {
                data_ref |= 1;
        }
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret = (LDKCResult_NoneChannelMonitorUpdateErrZ*)js_invoke_function_2(j_calls->persist_new_channel_meth, id_ref, data_ref);
        LDKCResult_NoneChannelMonitorUpdateErrZ ret_conv = *(LDKCResult_NoneChannelMonitorUpdateErrZ*)ret;
        ret_conv = CResult_NoneChannelMonitorUpdateErrZ_clone((LDKCResult_NoneChannelMonitorUpdateErrZ*)ret);
        return ret_conv;
}
LDKCResult_NoneChannelMonitorUpdateErrZ update_persisted_channel_jcall(const void* this_arg, LDKOutPoint id, const LDKChannelMonitorUpdate * update, const LDKChannelMonitor * data) {
        LDKPersist_JCalls *j_calls = (LDKPersist_JCalls*) this_arg;
        LDKOutPoint id_var = id;
        CHECK((((long)id_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&id_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long id_ref = (long)id_var.inner;
        if (id_var.is_owned) {
                id_ref |= 1;
        }
        LDKChannelMonitorUpdate update_var = *update;
        if (update->inner != NULL)
                update_var = ChannelMonitorUpdate_clone(update);
        CHECK((((long)update_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&update_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long update_ref = (long)update_var.inner;
        if (update_var.is_owned) {
                update_ref |= 1;
        }
        LDKChannelMonitor data_var = *data;
        // Warning: we may need a move here but can't clone!
        CHECK((((long)data_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&data_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long data_ref = (long)data_var.inner;
        if (data_var.is_owned) {
                data_ref |= 1;
        }
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret = (LDKCResult_NoneChannelMonitorUpdateErrZ*)js_invoke_function_3(j_calls->update_persisted_channel_meth, id_ref, update_ref, data_ref);
        LDKCResult_NoneChannelMonitorUpdateErrZ ret_conv = *(LDKCResult_NoneChannelMonitorUpdateErrZ*)ret;
        ret_conv = CResult_NoneChannelMonitorUpdateErrZ_clone((LDKCResult_NoneChannelMonitorUpdateErrZ*)ret);
        return ret_conv;
}
static void* LDKPersist_JCalls_clone(const void* this_arg) {
        LDKPersist_JCalls *j_calls = (LDKPersist_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKPersist LDKPersist_init (/*TODO: JS Object Reference */void* o) {
        LDKPersist_JCalls *calls = MALLOC(sizeof(LDKPersist_JCalls), "LDKPersist_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKPersist ret = {
                .this_arg = (void*) calls,
                .persist_new_channel = persist_new_channel_jcall,
                .update_persisted_channel = update_persisted_channel_jcall,
                .free = LDKPersist_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKPersist_new(/*TODO: JS Object Reference */void* o) {
        LDKPersist *res_ptr = MALLOC(sizeof(LDKPersist), "LDKPersist");
        *res_ptr = LDKPersist_init(o);
        return (long)res_ptr;
}
uint32_t  __attribute__((visibility("default"))) TS_Persist_persist_new_channel(uint32_t this_arg, uint32_t id, uint32_t data) {
        LDKPersist* this_arg_conv = (LDKPersist*)this_arg;
        LDKOutPoint id_conv;
        id_conv.inner = (void*)(id & (~1));
        id_conv.is_owned = (id & 1) || (id == 0);
        if (id_conv.inner != NULL)
                id_conv = OutPoint_clone(&id_conv);
        LDKChannelMonitor data_conv;
        data_conv.inner = (void*)(data & (~1));
        data_conv.is_owned = false;
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = (this_arg_conv->persist_new_channel)(this_arg_conv->this_arg, id_conv, &data_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_Persist_update_persisted_channel(uint32_t this_arg, uint32_t id, uint32_t update, uint32_t data) {
        LDKPersist* this_arg_conv = (LDKPersist*)this_arg;
        LDKOutPoint id_conv;
        id_conv.inner = (void*)(id & (~1));
        id_conv.is_owned = (id & 1) || (id == 0);
        if (id_conv.inner != NULL)
                id_conv = OutPoint_clone(&id_conv);
        LDKChannelMonitorUpdate update_conv;
        update_conv.inner = (void*)(update & (~1));
        update_conv.is_owned = false;
        LDKChannelMonitor data_conv;
        data_conv.inner = (void*)(data & (~1));
        data_conv.is_owned = false;
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = (this_arg_conv->update_persisted_channel)(this_arg_conv->this_arg, id_conv, &update_conv, &data_conv);
        return (long)ret_conv;
}

typedef struct LDKChannelMessageHandler_JCalls {
        atomic_size_t refcnt;
        LDKMessageSendEventsProvider_JCalls* MessageSendEventsProvider;
        uint32_t handle_open_channel_meth;
        uint32_t handle_accept_channel_meth;
        uint32_t handle_funding_created_meth;
        uint32_t handle_funding_signed_meth;
        uint32_t handle_funding_locked_meth;
        uint32_t handle_shutdown_meth;
        uint32_t handle_closing_signed_meth;
        uint32_t handle_update_add_htlc_meth;
        uint32_t handle_update_fulfill_htlc_meth;
        uint32_t handle_update_fail_htlc_meth;
        uint32_t handle_update_fail_malformed_htlc_meth;
        uint32_t handle_commitment_signed_meth;
        uint32_t handle_revoke_and_ack_meth;
        uint32_t handle_update_fee_meth;
        uint32_t handle_announcement_signatures_meth;
        uint32_t peer_disconnected_meth;
        uint32_t peer_connected_meth;
        uint32_t handle_channel_reestablish_meth;
        uint32_t handle_error_meth;
} LDKChannelMessageHandler_JCalls;
static void LDKChannelMessageHandler_JCalls_free(void* this_arg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->handle_open_channel_meth);
                js_free(j_calls->handle_accept_channel_meth);
                js_free(j_calls->handle_funding_created_meth);
                js_free(j_calls->handle_funding_signed_meth);
                js_free(j_calls->handle_funding_locked_meth);
                js_free(j_calls->handle_shutdown_meth);
                js_free(j_calls->handle_closing_signed_meth);
                js_free(j_calls->handle_update_add_htlc_meth);
                js_free(j_calls->handle_update_fulfill_htlc_meth);
                js_free(j_calls->handle_update_fail_htlc_meth);
                js_free(j_calls->handle_update_fail_malformed_htlc_meth);
                js_free(j_calls->handle_commitment_signed_meth);
                js_free(j_calls->handle_revoke_and_ack_meth);
                js_free(j_calls->handle_update_fee_meth);
                js_free(j_calls->handle_announcement_signatures_meth);
                js_free(j_calls->peer_disconnected_meth);
                js_free(j_calls->peer_connected_meth);
                js_free(j_calls->handle_channel_reestablish_meth);
                js_free(j_calls->handle_error_meth);
                FREE(j_calls);
        }
}
void handle_open_channel_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKInitFeatures their_features, const LDKOpenChannel * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKInitFeatures their_features_var = their_features;
        CHECK((((long)their_features_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&their_features_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long their_features_ref = (long)their_features_var.inner;
        if (their_features_var.is_owned) {
                their_features_ref |= 1;
        }
        LDKOpenChannel msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = OpenChannel_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_3(j_calls->handle_open_channel_meth, their_node_id_arr, their_features_ref, msg_ref);
}
void handle_accept_channel_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKInitFeatures their_features, const LDKAcceptChannel * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKInitFeatures their_features_var = their_features;
        CHECK((((long)their_features_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&their_features_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long their_features_ref = (long)their_features_var.inner;
        if (their_features_var.is_owned) {
                their_features_ref |= 1;
        }
        LDKAcceptChannel msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = AcceptChannel_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_3(j_calls->handle_accept_channel_meth, their_node_id_arr, their_features_ref, msg_ref);
}
void handle_funding_created_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKFundingCreated * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKFundingCreated msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = FundingCreated_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_funding_created_meth, their_node_id_arr, msg_ref);
}
void handle_funding_signed_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKFundingSigned * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKFundingSigned msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = FundingSigned_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_funding_signed_meth, their_node_id_arr, msg_ref);
}
void handle_funding_locked_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKFundingLocked * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKFundingLocked msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = FundingLocked_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_funding_locked_meth, their_node_id_arr, msg_ref);
}
void handle_shutdown_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKShutdown * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKShutdown msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = Shutdown_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_shutdown_meth, their_node_id_arr, msg_ref);
}
void handle_closing_signed_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKClosingSigned * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKClosingSigned msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = ClosingSigned_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_closing_signed_meth, their_node_id_arr, msg_ref);
}
void handle_update_add_htlc_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKUpdateAddHTLC * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKUpdateAddHTLC msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UpdateAddHTLC_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_update_add_htlc_meth, their_node_id_arr, msg_ref);
}
void handle_update_fulfill_htlc_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKUpdateFulfillHTLC * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKUpdateFulfillHTLC msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UpdateFulfillHTLC_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_update_fulfill_htlc_meth, their_node_id_arr, msg_ref);
}
void handle_update_fail_htlc_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKUpdateFailHTLC * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKUpdateFailHTLC msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UpdateFailHTLC_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_update_fail_htlc_meth, their_node_id_arr, msg_ref);
}
void handle_update_fail_malformed_htlc_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKUpdateFailMalformedHTLC * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKUpdateFailMalformedHTLC msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UpdateFailMalformedHTLC_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_update_fail_malformed_htlc_meth, their_node_id_arr, msg_ref);
}
void handle_commitment_signed_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKCommitmentSigned * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKCommitmentSigned msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = CommitmentSigned_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_commitment_signed_meth, their_node_id_arr, msg_ref);
}
void handle_revoke_and_ack_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKRevokeAndACK * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKRevokeAndACK msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = RevokeAndACK_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_revoke_and_ack_meth, their_node_id_arr, msg_ref);
}
void handle_update_fee_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKUpdateFee * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKUpdateFee msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = UpdateFee_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_update_fee_meth, their_node_id_arr, msg_ref);
}
void handle_announcement_signatures_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKAnnouncementSignatures * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKAnnouncementSignatures msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = AnnouncementSignatures_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_announcement_signatures_meth, their_node_id_arr, msg_ref);
}
void peer_disconnected_jcall(const void* this_arg, LDKPublicKey their_node_id, bool no_connection_possible) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        js_invoke_function_2(j_calls->peer_disconnected_meth, their_node_id_arr, no_connection_possible);
}
void peer_connected_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKInit * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKInit msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = Init_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->peer_connected_meth, their_node_id_arr, msg_ref);
}
void handle_channel_reestablish_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKChannelReestablish * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKChannelReestablish msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = ChannelReestablish_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_channel_reestablish_meth, their_node_id_arr, msg_ref);
}
void handle_error_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKErrorMessage * msg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKErrorMessage msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = ErrorMessage_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        js_invoke_function_2(j_calls->handle_error_meth, their_node_id_arr, msg_ref);
}
static void* LDKChannelMessageHandler_JCalls_clone(const void* this_arg) {
        LDKChannelMessageHandler_JCalls *j_calls = (LDKChannelMessageHandler_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        atomic_fetch_add_explicit(&j_calls->MessageSendEventsProvider->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKChannelMessageHandler LDKChannelMessageHandler_init (/*TODO: JS Object Reference */void* o, /*TODO: JS Object Reference */void* MessageSendEventsProvider) {
        LDKChannelMessageHandler_JCalls *calls = MALLOC(sizeof(LDKChannelMessageHandler_JCalls), "LDKChannelMessageHandler_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKChannelMessageHandler ret = {
                .this_arg = (void*) calls,
                .handle_open_channel = handle_open_channel_jcall,
                .handle_accept_channel = handle_accept_channel_jcall,
                .handle_funding_created = handle_funding_created_jcall,
                .handle_funding_signed = handle_funding_signed_jcall,
                .handle_funding_locked = handle_funding_locked_jcall,
                .handle_shutdown = handle_shutdown_jcall,
                .handle_closing_signed = handle_closing_signed_jcall,
                .handle_update_add_htlc = handle_update_add_htlc_jcall,
                .handle_update_fulfill_htlc = handle_update_fulfill_htlc_jcall,
                .handle_update_fail_htlc = handle_update_fail_htlc_jcall,
                .handle_update_fail_malformed_htlc = handle_update_fail_malformed_htlc_jcall,
                .handle_commitment_signed = handle_commitment_signed_jcall,
                .handle_revoke_and_ack = handle_revoke_and_ack_jcall,
                .handle_update_fee = handle_update_fee_jcall,
                .handle_announcement_signatures = handle_announcement_signatures_jcall,
                .peer_disconnected = peer_disconnected_jcall,
                .peer_connected = peer_connected_jcall,
                .handle_channel_reestablish = handle_channel_reestablish_jcall,
                .handle_error = handle_error_jcall,
                .free = LDKChannelMessageHandler_JCalls_free,
                .MessageSendEventsProvider = LDKMessageSendEventsProvider_init(MessageSendEventsProvider),
        };
        calls->MessageSendEventsProvider = ret.MessageSendEventsProvider.this_arg;
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKChannelMessageHandler_new(/*TODO: JS Object Reference */void* o, /*TODO: JS Object Reference */ void* MessageSendEventsProvider) {
        LDKChannelMessageHandler *res_ptr = MALLOC(sizeof(LDKChannelMessageHandler), "LDKChannelMessageHandler");
        *res_ptr = LDKChannelMessageHandler_init(o, MessageSendEventsProvider);
        return (long)res_ptr;
}
void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_open_channel(uint32_t this_arg, int8_tArray their_node_id, uint32_t their_features, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKInitFeatures their_features_conv;
        their_features_conv.inner = (void*)(their_features & (~1));
        their_features_conv.is_owned = (their_features & 1) || (their_features == 0);
        // Warning: we may need a move here but can't clone!
        LDKOpenChannel msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_open_channel)(this_arg_conv->this_arg, their_node_id_ref, their_features_conv, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_accept_channel(uint32_t this_arg, int8_tArray their_node_id, uint32_t their_features, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKInitFeatures their_features_conv;
        their_features_conv.inner = (void*)(their_features & (~1));
        their_features_conv.is_owned = (their_features & 1) || (their_features == 0);
        // Warning: we may need a move here but can't clone!
        LDKAcceptChannel msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_accept_channel)(this_arg_conv->this_arg, their_node_id_ref, their_features_conv, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_funding_created(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKFundingCreated msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_funding_created)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_funding_signed(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKFundingSigned msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_funding_signed)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_funding_locked(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKFundingLocked msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_funding_locked)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_shutdown(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKShutdown msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_shutdown)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_closing_signed(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKClosingSigned msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_closing_signed)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_update_add_htlc(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKUpdateAddHTLC msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_update_add_htlc)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_update_fulfill_htlc(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKUpdateFulfillHTLC msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_update_fulfill_htlc)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_update_fail_htlc(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKUpdateFailHTLC msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_update_fail_htlc)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_update_fail_malformed_htlc(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKUpdateFailMalformedHTLC msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_update_fail_malformed_htlc)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_commitment_signed(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKCommitmentSigned msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_commitment_signed)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_revoke_and_ack(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKRevokeAndACK msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_revoke_and_ack)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_update_fee(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKUpdateFee msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_update_fee)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_announcement_signatures(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKAnnouncementSignatures msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_announcement_signatures)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_peer_disconnected(uint32_t this_arg, int8_tArray their_node_id, jboolean no_connection_possible) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        (this_arg_conv->peer_disconnected)(this_arg_conv->this_arg, their_node_id_ref, no_connection_possible);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_peer_connected(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKInit msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->peer_connected)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_channel_reestablish(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKChannelReestablish msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_channel_reestablish)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_handle_error(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKChannelMessageHandler* this_arg_conv = (LDKChannelMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKErrorMessage msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        (this_arg_conv->handle_error)(this_arg_conv->this_arg, their_node_id_ref, &msg_conv);
}

typedef struct LDKRoutingMessageHandler_JCalls {
        atomic_size_t refcnt;
        LDKMessageSendEventsProvider_JCalls* MessageSendEventsProvider;
        uint32_t handle_node_announcement_meth;
        uint32_t handle_channel_announcement_meth;
        uint32_t handle_channel_update_meth;
        uint32_t handle_htlc_fail_channel_update_meth;
        uint32_t get_next_channel_announcements_meth;
        uint32_t get_next_node_announcements_meth;
        uint32_t sync_routing_table_meth;
        uint32_t handle_reply_channel_range_meth;
        uint32_t handle_reply_short_channel_ids_end_meth;
        uint32_t handle_query_channel_range_meth;
        uint32_t handle_query_short_channel_ids_meth;
} LDKRoutingMessageHandler_JCalls;
static void LDKRoutingMessageHandler_JCalls_free(void* this_arg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->handle_node_announcement_meth);
                js_free(j_calls->handle_channel_announcement_meth);
                js_free(j_calls->handle_channel_update_meth);
                js_free(j_calls->handle_htlc_fail_channel_update_meth);
                js_free(j_calls->get_next_channel_announcements_meth);
                js_free(j_calls->get_next_node_announcements_meth);
                js_free(j_calls->sync_routing_table_meth);
                js_free(j_calls->handle_reply_channel_range_meth);
                js_free(j_calls->handle_reply_short_channel_ids_end_meth);
                js_free(j_calls->handle_query_channel_range_meth);
                js_free(j_calls->handle_query_short_channel_ids_meth);
                FREE(j_calls);
        }
}
LDKCResult_boolLightningErrorZ handle_node_announcement_jcall(const void* this_arg, const LDKNodeAnnouncement * msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        LDKNodeAnnouncement msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = NodeAnnouncement_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_boolLightningErrorZ* ret = (LDKCResult_boolLightningErrorZ*)js_invoke_function_1(j_calls->handle_node_announcement_meth, msg_ref);
        LDKCResult_boolLightningErrorZ ret_conv = *(LDKCResult_boolLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
LDKCResult_boolLightningErrorZ handle_channel_announcement_jcall(const void* this_arg, const LDKChannelAnnouncement * msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        LDKChannelAnnouncement msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = ChannelAnnouncement_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_boolLightningErrorZ* ret = (LDKCResult_boolLightningErrorZ*)js_invoke_function_1(j_calls->handle_channel_announcement_meth, msg_ref);
        LDKCResult_boolLightningErrorZ ret_conv = *(LDKCResult_boolLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
LDKCResult_boolLightningErrorZ handle_channel_update_jcall(const void* this_arg, const LDKChannelUpdate * msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        LDKChannelUpdate msg_var = *msg;
        if (msg->inner != NULL)
                msg_var = ChannelUpdate_clone(msg);
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_boolLightningErrorZ* ret = (LDKCResult_boolLightningErrorZ*)js_invoke_function_1(j_calls->handle_channel_update_meth, msg_ref);
        LDKCResult_boolLightningErrorZ ret_conv = *(LDKCResult_boolLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
void handle_htlc_fail_channel_update_jcall(const void* this_arg, const LDKHTLCFailChannelUpdate * update) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        long ret_update = (long)update;
        js_invoke_function_1(j_calls->handle_htlc_fail_channel_update_meth, ret_update);
}
LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ get_next_channel_announcements_jcall(const void* this_arg, uint64_t starting_point, uint8_t batch_amount) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        uint32_tArray arg = js_invoke_function_2(j_calls->get_next_channel_announcements_meth, starting_point, batch_amount);
        LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ arg_constr;
        arg_constr.datalen = *((uint32_t*)arg);
        if (arg_constr.datalen > 0)
                arg_constr.data = MALLOC(arg_constr.datalen * sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ), "LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ Elements");
        else
                arg_constr.data = NULL;
        uint32_t* arg_vals = (uint32_t*)(arg + 4);
        for (size_t l = 0; l < arg_constr.datalen; l++) {
                uint32_t arr_conv_63 = arg_vals[l];
                LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ arr_conv_63_conv = *(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)arr_conv_63;
                FREE((void*)arr_conv_63);
                arg_constr.data[l] = arr_conv_63_conv;
        }
        return arg_constr;
}
LDKCVec_NodeAnnouncementZ get_next_node_announcements_jcall(const void* this_arg, LDKPublicKey starting_point, uint8_t batch_amount) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray starting_point_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(starting_point_arr + 4), starting_point.compressed_form, 33);
        uint32_tArray arg = js_invoke_function_2(j_calls->get_next_node_announcements_meth, starting_point_arr, batch_amount);
        LDKCVec_NodeAnnouncementZ arg_constr;
        arg_constr.datalen = *((uint32_t*)arg);
        if (arg_constr.datalen > 0)
                arg_constr.data = MALLOC(arg_constr.datalen * sizeof(LDKNodeAnnouncement), "LDKCVec_NodeAnnouncementZ Elements");
        else
                arg_constr.data = NULL;
        uint32_t* arg_vals = (uint32_t*)(arg + 4);
        for (size_t s = 0; s < arg_constr.datalen; s++) {
                uint32_t arr_conv_18 = arg_vals[s];
                LDKNodeAnnouncement arr_conv_18_conv;
                arr_conv_18_conv.inner = (void*)(arr_conv_18 & (~1));
                arr_conv_18_conv.is_owned = (arr_conv_18 & 1) || (arr_conv_18 == 0);
                if (arr_conv_18_conv.inner != NULL)
                        arr_conv_18_conv = NodeAnnouncement_clone(&arr_conv_18_conv);
                arg_constr.data[s] = arr_conv_18_conv;
        }
        return arg_constr;
}
void sync_routing_table_jcall(const void* this_arg, LDKPublicKey their_node_id, const LDKInit * init) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKInit init_var = *init;
        if (init->inner != NULL)
                init_var = Init_clone(init);
        CHECK((((long)init_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&init_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long init_ref = (long)init_var.inner;
        if (init_var.is_owned) {
                init_ref |= 1;
        }
        js_invoke_function_2(j_calls->sync_routing_table_meth, their_node_id_arr, init_ref);
}
LDKCResult_NoneLightningErrorZ handle_reply_channel_range_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKReplyChannelRange msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKReplyChannelRange msg_var = msg;
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_NoneLightningErrorZ* ret = (LDKCResult_NoneLightningErrorZ*)js_invoke_function_2(j_calls->handle_reply_channel_range_meth, their_node_id_arr, msg_ref);
        LDKCResult_NoneLightningErrorZ ret_conv = *(LDKCResult_NoneLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
LDKCResult_NoneLightningErrorZ handle_reply_short_channel_ids_end_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKReplyShortChannelIdsEnd msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKReplyShortChannelIdsEnd msg_var = msg;
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_NoneLightningErrorZ* ret = (LDKCResult_NoneLightningErrorZ*)js_invoke_function_2(j_calls->handle_reply_short_channel_ids_end_meth, their_node_id_arr, msg_ref);
        LDKCResult_NoneLightningErrorZ ret_conv = *(LDKCResult_NoneLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
LDKCResult_NoneLightningErrorZ handle_query_channel_range_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKQueryChannelRange msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKQueryChannelRange msg_var = msg;
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_NoneLightningErrorZ* ret = (LDKCResult_NoneLightningErrorZ*)js_invoke_function_2(j_calls->handle_query_channel_range_meth, their_node_id_arr, msg_ref);
        LDKCResult_NoneLightningErrorZ ret_conv = *(LDKCResult_NoneLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
LDKCResult_NoneLightningErrorZ handle_query_short_channel_ids_jcall(const void* this_arg, LDKPublicKey their_node_id, LDKQueryShortChannelIds msg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        int8_tArray their_node_id_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(their_node_id_arr + 4), their_node_id.compressed_form, 33);
        LDKQueryShortChannelIds msg_var = msg;
        CHECK((((long)msg_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&msg_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long msg_ref = (long)msg_var.inner;
        if (msg_var.is_owned) {
                msg_ref |= 1;
        }
        LDKCResult_NoneLightningErrorZ* ret = (LDKCResult_NoneLightningErrorZ*)js_invoke_function_2(j_calls->handle_query_short_channel_ids_meth, their_node_id_arr, msg_ref);
        LDKCResult_NoneLightningErrorZ ret_conv = *(LDKCResult_NoneLightningErrorZ*)ret;
        // Warning: we may need a move here but can't do a full clone!
        return ret_conv;
}
static void* LDKRoutingMessageHandler_JCalls_clone(const void* this_arg) {
        LDKRoutingMessageHandler_JCalls *j_calls = (LDKRoutingMessageHandler_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        atomic_fetch_add_explicit(&j_calls->MessageSendEventsProvider->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKRoutingMessageHandler LDKRoutingMessageHandler_init (/*TODO: JS Object Reference */void* o, /*TODO: JS Object Reference */void* MessageSendEventsProvider) {
        LDKRoutingMessageHandler_JCalls *calls = MALLOC(sizeof(LDKRoutingMessageHandler_JCalls), "LDKRoutingMessageHandler_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKRoutingMessageHandler ret = {
                .this_arg = (void*) calls,
                .handle_node_announcement = handle_node_announcement_jcall,
                .handle_channel_announcement = handle_channel_announcement_jcall,
                .handle_channel_update = handle_channel_update_jcall,
                .handle_htlc_fail_channel_update = handle_htlc_fail_channel_update_jcall,
                .get_next_channel_announcements = get_next_channel_announcements_jcall,
                .get_next_node_announcements = get_next_node_announcements_jcall,
                .sync_routing_table = sync_routing_table_jcall,
                .handle_reply_channel_range = handle_reply_channel_range_jcall,
                .handle_reply_short_channel_ids_end = handle_reply_short_channel_ids_end_jcall,
                .handle_query_channel_range = handle_query_channel_range_jcall,
                .handle_query_short_channel_ids = handle_query_short_channel_ids_jcall,
                .free = LDKRoutingMessageHandler_JCalls_free,
                .MessageSendEventsProvider = LDKMessageSendEventsProvider_init(MessageSendEventsProvider),
        };
        calls->MessageSendEventsProvider = ret.MessageSendEventsProvider.this_arg;
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKRoutingMessageHandler_new(/*TODO: JS Object Reference */void* o, /*TODO: JS Object Reference */ void* MessageSendEventsProvider) {
        LDKRoutingMessageHandler *res_ptr = MALLOC(sizeof(LDKRoutingMessageHandler), "LDKRoutingMessageHandler");
        *res_ptr = LDKRoutingMessageHandler_init(o, MessageSendEventsProvider);
        return (long)res_ptr;
}
uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_node_announcement(uint32_t this_arg, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKNodeAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_boolLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolLightningErrorZ), "LDKCResult_boolLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_node_announcement)(this_arg_conv->this_arg, &msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_channel_announcement(uint32_t this_arg, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKChannelAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_boolLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolLightningErrorZ), "LDKCResult_boolLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_channel_announcement)(this_arg_conv->this_arg, &msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_channel_update(uint32_t this_arg, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKChannelUpdate msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_boolLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolLightningErrorZ), "LDKCResult_boolLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_channel_update)(this_arg_conv->this_arg, &msg_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_htlc_fail_channel_update(uint32_t this_arg, uint32_t update) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKHTLCFailChannelUpdate* update_conv = (LDKHTLCFailChannelUpdate*)update;
        (this_arg_conv->handle_htlc_fail_channel_update)(this_arg_conv->this_arg, update_conv);
}

uint32_tArray  __attribute__((visibility("default"))) TS_RoutingMessageHandler_get_next_channel_announcements(uint32_t this_arg, int64_t starting_point, int8_t batch_amount) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ ret_var = (this_arg_conv->get_next_channel_announcements)(this_arg_conv->this_arg, starting_point, batch_amount);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t l = 0; l < ret_var.datalen; l++) {
                LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ* arr_conv_63_ref = MALLOC(sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ), "LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ");
                *arr_conv_63_ref = ret_var.data[l];
                arr_conv_63_ref->a = ChannelAnnouncement_clone(&arr_conv_63_ref->a);
                arr_conv_63_ref->b = ChannelUpdate_clone(&arr_conv_63_ref->b);
                arr_conv_63_ref->c = ChannelUpdate_clone(&arr_conv_63_ref->c);
                ret_arr_ptr[l] = (long)arr_conv_63_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_tArray  __attribute__((visibility("default"))) TS_RoutingMessageHandler_get_next_node_announcements(uint32_t this_arg, int8_tArray starting_point, int8_t batch_amount) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey starting_point_ref;
        CHECK(*((uint32_t*)starting_point) == 33);
        memcpy(starting_point_ref.compressed_form, (uint8_t*)(starting_point + 4), 33);
        LDKCVec_NodeAnnouncementZ ret_var = (this_arg_conv->get_next_node_announcements)(this_arg_conv->this_arg, starting_point_ref, batch_amount);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t s = 0; s < ret_var.datalen; s++) {
                LDKNodeAnnouncement arr_conv_18_var = ret_var.data[s];
                CHECK((((long)arr_conv_18_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                CHECK((((long)&arr_conv_18_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                long arr_conv_18_ref = (long)arr_conv_18_var.inner;
                if (arr_conv_18_var.is_owned) {
                        arr_conv_18_ref |= 1;
                }
                ret_arr_ptr[s] = arr_conv_18_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_RoutingMessageHandler_sync_routing_table(uint32_t this_arg, int8_tArray their_node_id, uint32_t init) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKInit init_conv;
        init_conv.inner = (void*)(init & (~1));
        init_conv.is_owned = false;
        (this_arg_conv->sync_routing_table)(this_arg_conv->this_arg, their_node_id_ref, &init_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_reply_channel_range(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKReplyChannelRange msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = (msg & 1) || (msg == 0);
        if (msg_conv.inner != NULL)
                msg_conv = ReplyChannelRange_clone(&msg_conv);
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_reply_channel_range)(this_arg_conv->this_arg, their_node_id_ref, msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_reply_short_channel_ids_end(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKReplyShortChannelIdsEnd msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = (msg & 1) || (msg == 0);
        if (msg_conv.inner != NULL)
                msg_conv = ReplyShortChannelIdsEnd_clone(&msg_conv);
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_reply_short_channel_ids_end)(this_arg_conv->this_arg, their_node_id_ref, msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_query_channel_range(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKQueryChannelRange msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = (msg & 1) || (msg == 0);
        if (msg_conv.inner != NULL)
                msg_conv = QueryChannelRange_clone(&msg_conv);
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_query_channel_range)(this_arg_conv->this_arg, their_node_id_ref, msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingMessageHandler_handle_query_short_channel_ids(uint32_t this_arg, int8_tArray their_node_id, uint32_t msg) {
        LDKRoutingMessageHandler* this_arg_conv = (LDKRoutingMessageHandler*)this_arg;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKQueryShortChannelIds msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = (msg & 1) || (msg == 0);
        if (msg_conv.inner != NULL)
                msg_conv = QueryShortChannelIds_clone(&msg_conv);
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = (this_arg_conv->handle_query_short_channel_ids)(this_arg_conv->this_arg, their_node_id_ref, msg_conv);
        return (long)ret_conv;
}

typedef struct LDKSocketDescriptor_JCalls {
        atomic_size_t refcnt;
        uint32_t send_data_meth;
        uint32_t disconnect_socket_meth;
        uint32_t eq_meth;
        uint32_t hash_meth;
} LDKSocketDescriptor_JCalls;
static void LDKSocketDescriptor_JCalls_free(void* this_arg) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        if (atomic_fetch_sub_explicit(&j_calls->refcnt, 1, memory_order_acquire) == 1) {
                js_free(j_calls->send_data_meth);
                js_free(j_calls->disconnect_socket_meth);
                js_free(j_calls->eq_meth);
                js_free(j_calls->hash_meth);
                FREE(j_calls);
        }
}
uintptr_t send_data_jcall(void* this_arg, LDKu8slice data, bool resume_read) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        LDKu8slice data_var = data;
        int8_tArray data_arr = init_arr(data_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(data_arr + 4), data_var.data, data_var.datalen);
        return js_invoke_function_2(j_calls->send_data_meth, data_arr, resume_read);
}
void disconnect_socket_jcall(void* this_arg) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        js_invoke_function_0(j_calls->disconnect_socket_meth);
}
bool eq_jcall(const void* this_arg, const LDKSocketDescriptor * other_arg) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        LDKSocketDescriptor *other_arg_clone = MALLOC(sizeof(LDKSocketDescriptor), "LDKSocketDescriptor");
        *other_arg_clone = SocketDescriptor_clone(other_arg);
        return js_invoke_function_1(j_calls->eq_meth, (long)other_arg_clone);
}
uint64_t hash_jcall(const void* this_arg) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        return js_invoke_function_0(j_calls->hash_meth);
}
static void* LDKSocketDescriptor_JCalls_clone(const void* this_arg) {
        LDKSocketDescriptor_JCalls *j_calls = (LDKSocketDescriptor_JCalls*) this_arg;
        atomic_fetch_add_explicit(&j_calls->refcnt, 1, memory_order_release);
        return (void*) this_arg;
}
static inline LDKSocketDescriptor LDKSocketDescriptor_init (/*TODO: JS Object Reference */void* o) {
        LDKSocketDescriptor_JCalls *calls = MALLOC(sizeof(LDKSocketDescriptor_JCalls), "LDKSocketDescriptor_JCalls");
        atomic_init(&calls->refcnt, 1);
        //TODO: Assign calls->o from o

        LDKSocketDescriptor ret = {
                .this_arg = (void*) calls,
                .send_data = send_data_jcall,
                .disconnect_socket = disconnect_socket_jcall,
                .eq = eq_jcall,
                .hash = hash_jcall,
                .clone = LDKSocketDescriptor_JCalls_clone,
                .free = LDKSocketDescriptor_JCalls_free,
        };
        return ret;
}
long  __attribute__((visibility("default"))) TS_LDKSocketDescriptor_new(/*TODO: JS Object Reference */void* o) {
        LDKSocketDescriptor *res_ptr = MALLOC(sizeof(LDKSocketDescriptor), "LDKSocketDescriptor");
        *res_ptr = LDKSocketDescriptor_init(o);
        return (long)res_ptr;
}
intptr_t  __attribute__((visibility("default"))) TS_SocketDescriptor_send_data(uint32_t this_arg, int8_tArray data, jboolean resume_read) {
        LDKSocketDescriptor* this_arg_conv = (LDKSocketDescriptor*)this_arg;
        LDKu8slice data_ref;
        data_ref.datalen = *((uint32_t*)data);
        data_ref.data = (int8_t*)(data + 4);
        intptr_t ret_val = (this_arg_conv->send_data)(this_arg_conv->this_arg, data_ref, resume_read);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_SocketDescriptor_disconnect_socket(uint32_t this_arg) {
        LDKSocketDescriptor* this_arg_conv = (LDKSocketDescriptor*)this_arg;
        (this_arg_conv->disconnect_socket)(this_arg_conv->this_arg);
}

int64_t  __attribute__((visibility("default"))) TS_SocketDescriptor_hash(uint32_t this_arg) {
        LDKSocketDescriptor* this_arg_conv = (LDKSocketDescriptor*)this_arg;
        int64_t ret_val = (this_arg_conv->hash)(this_arg_conv->this_arg);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_Transaction_free(int8_tArray _res) {
        LDKTransaction _res_ref;
        _res_ref.datalen = *((uint32_t*)_res);
        _res_ref.data = MALLOC(_res_ref.datalen, "LDKTransaction Bytes");
        memcpy(_res_ref.data, (uint8_t*)(_res + 4), _res_ref.datalen);
        _res_ref.data_is_owned = true;
        Transaction_free(_res_ref);
}

void  __attribute__((visibility("default"))) TS_TxOut_free(uint32_t _res) {
        LDKTxOut _res_conv = *(LDKTxOut*)_res;
        FREE((void*)_res);
        TxOut_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_TxOut_clone(uint32_t orig) {
        LDKTxOut* orig_conv = (LDKTxOut*)orig;
        LDKTxOut* ret_ref = MALLOC(sizeof(LDKTxOut), "LDKTxOut");
        *ret_ref = TxOut_clone(orig_conv);
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_SpendableOutputDescriptorZ_free(uint32_tArray _res) {
        LDKCVec_SpendableOutputDescriptorZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKSpendableOutputDescriptor), "LDKCVec_SpendableOutputDescriptorZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t b = 0; b < _res_constr.datalen; b++) {
                uint32_t arr_conv_27 = _res_vals[b];
                LDKSpendableOutputDescriptor arr_conv_27_conv = *(LDKSpendableOutputDescriptor*)arr_conv_27;
                FREE((void*)arr_conv_27);
                _res_constr.data[b] = arr_conv_27_conv;
        }
        CVec_SpendableOutputDescriptorZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_MessageSendEventZ_free(uint32_tArray _res) {
        LDKCVec_MessageSendEventZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKMessageSendEvent), "LDKCVec_MessageSendEventZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t s = 0; s < _res_constr.datalen; s++) {
                uint32_t arr_conv_18 = _res_vals[s];
                LDKMessageSendEvent arr_conv_18_conv = *(LDKMessageSendEvent*)arr_conv_18;
                FREE((void*)arr_conv_18);
                _res_constr.data[s] = arr_conv_18_conv;
        }
        CVec_MessageSendEventZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_EventZ_free(uint32_tArray _res) {
        LDKCVec_EventZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKEvent), "LDKCVec_EventZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t h = 0; h < _res_constr.datalen; h++) {
                uint32_t arr_conv_7 = _res_vals[h];
                LDKEvent arr_conv_7_conv = *(LDKEvent*)arr_conv_7;
                FREE((void*)arr_conv_7);
                _res_constr.data[h] = arr_conv_7_conv;
        }
        CVec_EventZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_usizeTransactionZ_free(uint32_t _res) {
        LDKC2Tuple_usizeTransactionZ _res_conv = *(LDKC2Tuple_usizeTransactionZ*)_res;
        FREE((void*)_res);
        C2Tuple_usizeTransactionZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_usizeTransactionZ_new(intptr_t a, int8_tArray b) {
        LDKTransaction b_ref;
        b_ref.datalen = *((uint32_t*)b);
        b_ref.data = MALLOC(b_ref.datalen, "LDKTransaction Bytes");
        memcpy(b_ref.data, (uint8_t*)(b + 4), b_ref.datalen);
        b_ref.data_is_owned = true;
        LDKC2Tuple_usizeTransactionZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_usizeTransactionZ), "LDKC2Tuple_usizeTransactionZ");
        *ret_ref = C2Tuple_usizeTransactionZ_new(a, b_ref);
        // XXX: We likely need to clone here, but no _clone fn is available for Uint8Array
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_C2Tuple_usizeTransactionZZ_free(uint32_tArray _res) {
        LDKCVec_C2Tuple_usizeTransactionZZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKC2Tuple_usizeTransactionZ), "LDKCVec_C2Tuple_usizeTransactionZZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t e = 0; e < _res_constr.datalen; e++) {
                uint32_t arr_conv_30 = _res_vals[e];
                LDKC2Tuple_usizeTransactionZ arr_conv_30_conv = *(LDKC2Tuple_usizeTransactionZ*)arr_conv_30;
                FREE((void*)arr_conv_30);
                _res_constr.data[e] = arr_conv_30_conv;
        }
        CVec_C2Tuple_usizeTransactionZZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneChannelMonitorUpdateErrZ_ok() {
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = CResult_NoneChannelMonitorUpdateErrZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneChannelMonitorUpdateErrZ_err(uint32_t e) {
        LDKChannelMonitorUpdateErr e_conv = LDKChannelMonitorUpdateErr_from_js(e);
        LDKCResult_NoneChannelMonitorUpdateErrZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneChannelMonitorUpdateErrZ), "LDKCResult_NoneChannelMonitorUpdateErrZ");
        *ret_conv = CResult_NoneChannelMonitorUpdateErrZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NoneChannelMonitorUpdateErrZ_free(uint32_t _res) {
        LDKCResult_NoneChannelMonitorUpdateErrZ _res_conv = *(LDKCResult_NoneChannelMonitorUpdateErrZ*)_res;
        FREE((void*)_res);
        CResult_NoneChannelMonitorUpdateErrZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_MonitorEventZ_free(uint32_tArray _res) {
        LDKCVec_MonitorEventZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKMonitorEvent), "LDKCVec_MonitorEventZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t o = 0; o < _res_constr.datalen; o++) {
                uint32_t arr_conv_14 = _res_vals[o];
                LDKMonitorEvent arr_conv_14_conv;
                arr_conv_14_conv.inner = (void*)(arr_conv_14 & (~1));
                arr_conv_14_conv.is_owned = (arr_conv_14 & 1) || (arr_conv_14 == 0);
                _res_constr.data[o] = arr_conv_14_conv;
        }
        CVec_MonitorEventZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChannelMonitorUpdateDecodeErrorZ_ok(uint32_t o) {
        LDKChannelMonitorUpdate o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = ChannelMonitorUpdate_clone(&o_conv);
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelMonitorUpdateDecodeErrorZ), "LDKCResult_ChannelMonitorUpdateDecodeErrorZ");
        *ret_conv = CResult_ChannelMonitorUpdateDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChannelMonitorUpdateDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelMonitorUpdateDecodeErrorZ), "LDKCResult_ChannelMonitorUpdateDecodeErrorZ");
        *ret_conv = CResult_ChannelMonitorUpdateDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ChannelMonitorUpdateDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ _res_conv = *(LDKCResult_ChannelMonitorUpdateDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ChannelMonitorUpdateDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneMonitorUpdateErrorZ_ok() {
        LDKCResult_NoneMonitorUpdateErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneMonitorUpdateErrorZ), "LDKCResult_NoneMonitorUpdateErrorZ");
        *ret_conv = CResult_NoneMonitorUpdateErrorZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneMonitorUpdateErrorZ_err(uint32_t e) {
        LDKMonitorUpdateError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NoneMonitorUpdateErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneMonitorUpdateErrorZ), "LDKCResult_NoneMonitorUpdateErrorZ");
        *ret_conv = CResult_NoneMonitorUpdateErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NoneMonitorUpdateErrorZ_free(uint32_t _res) {
        LDKCResult_NoneMonitorUpdateErrorZ _res_conv = *(LDKCResult_NoneMonitorUpdateErrorZ*)_res;
        FREE((void*)_res);
        CResult_NoneMonitorUpdateErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_OutPointScriptZ_free(uint32_t _res) {
        LDKC2Tuple_OutPointScriptZ _res_conv = *(LDKC2Tuple_OutPointScriptZ*)_res;
        FREE((void*)_res);
        C2Tuple_OutPointScriptZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_OutPointScriptZ_new(uint32_t a, int8_tArray b) {
        LDKOutPoint a_conv;
        a_conv.inner = (void*)(a & (~1));
        a_conv.is_owned = (a & 1) || (a == 0);
        if (a_conv.inner != NULL)
                a_conv = OutPoint_clone(&a_conv);
        LDKCVec_u8Z b_ref;
        b_ref.datalen = *((uint32_t*)b);
        b_ref.data = MALLOC(b_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(b_ref.data, (uint8_t*)(b + 4), b_ref.datalen);
        LDKC2Tuple_OutPointScriptZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_OutPointScriptZ), "LDKC2Tuple_OutPointScriptZ");
        *ret_ref = C2Tuple_OutPointScriptZ_new(a_conv, b_ref);
        ret_ref->a = OutPoint_clone(&ret_ref->a);
        ret_ref->b = CVec_u8Z_clone(&ret_ref->b);
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_TransactionZ_free(ptrArray _res) {
        LDKCVec_TransactionZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKTransaction), "LDKCVec_TransactionZ Elements");
        else
                _res_constr.data = NULL;
        int8_tArray* _res_vals = (int8_tArray*)(_res + 4);
        for (size_t m = 0; m < _res_constr.datalen; m++) {
                int8_tArray arr_conv_12 = _res_vals[m];
                LDKTransaction arr_conv_12_ref;
                arr_conv_12_ref.datalen = *((uint32_t*)arr_conv_12);
                arr_conv_12_ref.data = MALLOC(arr_conv_12_ref.datalen, "LDKTransaction Bytes");
                memcpy(arr_conv_12_ref.data, (uint8_t*)(arr_conv_12 + 4), arr_conv_12_ref.datalen);
                arr_conv_12_ref.data_is_owned = true;
                _res_constr.data[m] = arr_conv_12_ref;
        }
        CVec_TransactionZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_u32TxOutZ_free(uint32_t _res) {
        LDKC2Tuple_u32TxOutZ _res_conv = *(LDKC2Tuple_u32TxOutZ*)_res;
        FREE((void*)_res);
        C2Tuple_u32TxOutZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_u32TxOutZ_new(int32_t a, uint32_t b) {
        LDKTxOut b_conv = *(LDKTxOut*)b;
        FREE((void*)b);
        LDKC2Tuple_u32TxOutZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_u32TxOutZ), "LDKC2Tuple_u32TxOutZ");
        *ret_ref = C2Tuple_u32TxOutZ_new(a, b_conv);
        ret_ref->b = TxOut_clone(&ret_ref->b);
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_C2Tuple_u32TxOutZZ_free(uint32_tArray _res) {
        LDKCVec_C2Tuple_u32TxOutZZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKC2Tuple_u32TxOutZ), "LDKCVec_C2Tuple_u32TxOutZZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t z = 0; z < _res_constr.datalen; z++) {
                uint32_t arr_conv_25 = _res_vals[z];
                LDKC2Tuple_u32TxOutZ arr_conv_25_conv = *(LDKC2Tuple_u32TxOutZ*)arr_conv_25;
                FREE((void*)arr_conv_25);
                _res_constr.data[z] = arr_conv_25_conv;
        }
        CVec_C2Tuple_u32TxOutZZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_free(uint32_t _res) {
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ _res_conv = *(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ*)_res;
        FREE((void*)_res);
        C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_new(int8_tArray a, uint32_tArray b) {
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        LDKCVec_C2Tuple_u32TxOutZZ b_constr;
        b_constr.datalen = *((uint32_t*)b);
        if (b_constr.datalen > 0)
                b_constr.data = MALLOC(b_constr.datalen * sizeof(LDKC2Tuple_u32TxOutZ), "LDKCVec_C2Tuple_u32TxOutZZ Elements");
        else
                b_constr.data = NULL;
        uint32_t* b_vals = (uint32_t*)(b + 4);
        for (size_t z = 0; z < b_constr.datalen; z++) {
                uint32_t arr_conv_25 = b_vals[z];
                LDKC2Tuple_u32TxOutZ arr_conv_25_conv = *(LDKC2Tuple_u32TxOutZ*)arr_conv_25;
                FREE((void*)arr_conv_25);
                b_constr.data[z] = arr_conv_25_conv;
        }
        LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ), "LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ");
        *ret_ref = C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ_new(a_ref, b_constr);
        ret_ref->a = ThirtyTwoBytes_clone(&ret_ref->a);
        ret_ref->b = CVec_C2Tuple_u32TxOutZZ_clone(&ret_ref->b);
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ_free(uint32_tArray _res) {
        LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ), "LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t x = 0; x < _res_constr.datalen; x++) {
                uint32_t arr_conv_49 = _res_vals[x];
                LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ arr_conv_49_conv = *(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ*)arr_conv_49;
                FREE((void*)arr_conv_49);
                _res_constr.data[x] = arr_conv_49_conv;
        }
        CVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelMonitorZ_free(uint32_t _res) {
        LDKC2Tuple_BlockHashChannelMonitorZ _res_conv = *(LDKC2Tuple_BlockHashChannelMonitorZ*)_res;
        FREE((void*)_res);
        C2Tuple_BlockHashChannelMonitorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelMonitorZ_new(int8_tArray a, uint32_t b) {
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        LDKChannelMonitor b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        // Warning: we may need a move here but can't clone!
        LDKC2Tuple_BlockHashChannelMonitorZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_BlockHashChannelMonitorZ), "LDKC2Tuple_BlockHashChannelMonitorZ");
        *ret_ref = C2Tuple_BlockHashChannelMonitorZ_new(a_ref, b_conv);
        ret_ref->a = ThirtyTwoBytes_clone(&ret_ref->a);
        // XXX: We likely need to clone here, but no _clone fn is available for ChannelMonitor
        return (long)ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_ok(uint32_t o) {
        LDKC2Tuple_BlockHashChannelMonitorZ o_conv = *(LDKC2Tuple_BlockHashChannelMonitorZ*)o;
        FREE((void*)o);
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ");
        *ret_conv = CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ");
        *ret_conv = CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ _res_conv = *(LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_u64u64Z_free(uint32_t _res) {
        LDKC2Tuple_u64u64Z _res_conv = *(LDKC2Tuple_u64u64Z*)_res;
        FREE((void*)_res);
        C2Tuple_u64u64Z_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_u64u64Z_new(int64_t a, int64_t b) {
        LDKC2Tuple_u64u64Z* ret_ref = MALLOC(sizeof(LDKC2Tuple_u64u64Z), "LDKC2Tuple_u64u64Z");
        *ret_ref = C2Tuple_u64u64Z_new(a, b);
        return (long)ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SpendableOutputDescriptorDecodeErrorZ_ok(uint32_t o) {
        LDKSpendableOutputDescriptor o_conv = *(LDKSpendableOutputDescriptor*)o;
        FREE((void*)o);
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SpendableOutputDescriptorDecodeErrorZ), "LDKCResult_SpendableOutputDescriptorDecodeErrorZ");
        *ret_conv = CResult_SpendableOutputDescriptorDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SpendableOutputDescriptorDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SpendableOutputDescriptorDecodeErrorZ), "LDKCResult_SpendableOutputDescriptorDecodeErrorZ");
        *ret_conv = CResult_SpendableOutputDescriptorDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_SpendableOutputDescriptorDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ _res_conv = *(LDKCResult_SpendableOutputDescriptorDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_SpendableOutputDescriptorDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_SignatureZ_free(ptrArray _res) {
        LDKCVec_SignatureZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                _res_constr.data = NULL;
        int8_tArray* _res_vals = (int8_tArray*)(_res + 4);
        for (size_t m = 0; m < _res_constr.datalen; m++) {
                int8_tArray arr_conv_12 = _res_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                _res_constr.data[m] = arr_conv_12_ref;
        }
        CVec_SignatureZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_SignatureCVec_SignatureZZ_free(uint32_t _res) {
        LDKC2Tuple_SignatureCVec_SignatureZZ _res_conv = *(LDKC2Tuple_SignatureCVec_SignatureZZ*)_res;
        FREE((void*)_res);
        C2Tuple_SignatureCVec_SignatureZZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_SignatureCVec_SignatureZZ_new(int8_tArray a, ptrArray b) {
        LDKSignature a_ref;
        CHECK(*((uint32_t*)a) == 64);
        memcpy(a_ref.compact_form, (uint8_t*)(a + 4), 64);
        LDKCVec_SignatureZ b_constr;
        b_constr.datalen = *((uint32_t*)b);
        if (b_constr.datalen > 0)
                b_constr.data = MALLOC(b_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                b_constr.data = NULL;
        int8_tArray* b_vals = (int8_tArray*)(b + 4);
        for (size_t m = 0; m < b_constr.datalen; m++) {
                int8_tArray arr_conv_12 = b_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                b_constr.data[m] = arr_conv_12_ref;
        }
        LDKC2Tuple_SignatureCVec_SignatureZZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_SignatureCVec_SignatureZZ), "LDKC2Tuple_SignatureCVec_SignatureZZ");
        *ret_ref = C2Tuple_SignatureCVec_SignatureZZ_new(a_ref, b_constr);
        // XXX: We likely need to clone here, but no _clone fn is available for Uint8Array
        // XXX: We likely need to clone here, but no _clone fn is available for Uint8Array[]
        return (long)ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_ok(uint32_t o) {
        LDKC2Tuple_SignatureCVec_SignatureZZ o_conv = *(LDKC2Tuple_SignatureCVec_SignatureZZ*)o;
        FREE((void*)o);
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ), "LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ");
        *ret_conv = CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_err() {
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ), "LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ");
        *ret_conv = CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_err();
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_free(uint32_t _res) {
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ _res_conv = *(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)_res;
        FREE((void*)_res);
        CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_clone(uint32_t orig) {
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* orig_conv = (LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ*)orig;
        LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ), "LDKCResult_C2Tuple_SignatureCVec_SignatureZZNoneZ");
        *ret_conv = CResult_C2Tuple_SignatureCVec_SignatureZZNoneZ_clone(orig_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SignatureNoneZ_ok(int8_tArray o) {
        LDKSignature o_ref;
        CHECK(*((uint32_t*)o) == 64);
        memcpy(o_ref.compact_form, (uint8_t*)(o + 4), 64);
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = CResult_SignatureNoneZ_ok(o_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SignatureNoneZ_err() {
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = CResult_SignatureNoneZ_err();
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_SignatureNoneZ_free(uint32_t _res) {
        LDKCResult_SignatureNoneZ _res_conv = *(LDKCResult_SignatureNoneZ*)_res;
        FREE((void*)_res);
        CResult_SignatureNoneZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SignatureNoneZ_clone(uint32_t orig) {
        LDKCResult_SignatureNoneZ* orig_conv = (LDKCResult_SignatureNoneZ*)orig;
        LDKCResult_SignatureNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_SignatureNoneZ), "LDKCResult_SignatureNoneZ");
        *ret_conv = CResult_SignatureNoneZ_clone(orig_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CVec_SignatureZNoneZ_ok(ptrArray o) {
        LDKCVec_SignatureZ o_constr;
        o_constr.datalen = *((uint32_t*)o);
        if (o_constr.datalen > 0)
                o_constr.data = MALLOC(o_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                o_constr.data = NULL;
        int8_tArray* o_vals = (int8_tArray*)(o + 4);
        for (size_t m = 0; m < o_constr.datalen; m++) {
                int8_tArray arr_conv_12 = o_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                o_constr.data[m] = arr_conv_12_ref;
        }
        LDKCResult_CVec_SignatureZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_SignatureZNoneZ), "LDKCResult_CVec_SignatureZNoneZ");
        *ret_conv = CResult_CVec_SignatureZNoneZ_ok(o_constr);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CVec_SignatureZNoneZ_err() {
        LDKCResult_CVec_SignatureZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_SignatureZNoneZ), "LDKCResult_CVec_SignatureZNoneZ");
        *ret_conv = CResult_CVec_SignatureZNoneZ_err();
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_CVec_SignatureZNoneZ_free(uint32_t _res) {
        LDKCResult_CVec_SignatureZNoneZ _res_conv = *(LDKCResult_CVec_SignatureZNoneZ*)_res;
        FREE((void*)_res);
        CResult_CVec_SignatureZNoneZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CVec_SignatureZNoneZ_clone(uint32_t orig) {
        LDKCResult_CVec_SignatureZNoneZ* orig_conv = (LDKCResult_CVec_SignatureZNoneZ*)orig;
        LDKCResult_CVec_SignatureZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_SignatureZNoneZ), "LDKCResult_CVec_SignatureZNoneZ");
        *ret_conv = CResult_CVec_SignatureZNoneZ_clone(orig_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChanKeySignerDecodeErrorZ_ok(uint32_t o) {
        LDKChannelKeys o_conv = *(LDKChannelKeys*)o;
        LDKCResult_ChanKeySignerDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChanKeySignerDecodeErrorZ), "LDKCResult_ChanKeySignerDecodeErrorZ");
        *ret_conv = CResult_ChanKeySignerDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChanKeySignerDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ChanKeySignerDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChanKeySignerDecodeErrorZ), "LDKCResult_ChanKeySignerDecodeErrorZ");
        *ret_conv = CResult_ChanKeySignerDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ChanKeySignerDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ChanKeySignerDecodeErrorZ _res_conv = *(LDKCResult_ChanKeySignerDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ChanKeySignerDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_InMemoryChannelKeysDecodeErrorZ_ok(uint32_t o) {
        LDKInMemoryChannelKeys o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = InMemoryChannelKeys_clone(&o_conv);
        LDKCResult_InMemoryChannelKeysDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InMemoryChannelKeysDecodeErrorZ), "LDKCResult_InMemoryChannelKeysDecodeErrorZ");
        *ret_conv = CResult_InMemoryChannelKeysDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_InMemoryChannelKeysDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_InMemoryChannelKeysDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InMemoryChannelKeysDecodeErrorZ), "LDKCResult_InMemoryChannelKeysDecodeErrorZ");
        *ret_conv = CResult_InMemoryChannelKeysDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_InMemoryChannelKeysDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_InMemoryChannelKeysDecodeErrorZ _res_conv = *(LDKCResult_InMemoryChannelKeysDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_InMemoryChannelKeysDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TxOutAccessErrorZ_ok(uint32_t o) {
        LDKTxOut o_conv = *(LDKTxOut*)o;
        FREE((void*)o);
        LDKCResult_TxOutAccessErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxOutAccessErrorZ), "LDKCResult_TxOutAccessErrorZ");
        *ret_conv = CResult_TxOutAccessErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TxOutAccessErrorZ_err(uint32_t e) {
        LDKAccessError e_conv = LDKAccessError_from_js(e);
        LDKCResult_TxOutAccessErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxOutAccessErrorZ), "LDKCResult_TxOutAccessErrorZ");
        *ret_conv = CResult_TxOutAccessErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_TxOutAccessErrorZ_free(uint32_t _res) {
        LDKCResult_TxOutAccessErrorZ _res_conv = *(LDKCResult_TxOutAccessErrorZ*)_res;
        FREE((void*)_res);
        CResult_TxOutAccessErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneAPIErrorZ_ok() {
        LDKCResult_NoneAPIErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneAPIErrorZ), "LDKCResult_NoneAPIErrorZ");
        *ret_conv = CResult_NoneAPIErrorZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneAPIErrorZ_err(uint32_t e) {
        LDKAPIError e_conv = *(LDKAPIError*)e;
        FREE((void*)e);
        LDKCResult_NoneAPIErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneAPIErrorZ), "LDKCResult_NoneAPIErrorZ");
        *ret_conv = CResult_NoneAPIErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NoneAPIErrorZ_free(uint32_t _res) {
        LDKCResult_NoneAPIErrorZ _res_conv = *(LDKCResult_NoneAPIErrorZ*)_res;
        FREE((void*)_res);
        CResult_NoneAPIErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_ChannelDetailsZ_free(uint32_tArray _res) {
        LDKCVec_ChannelDetailsZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKChannelDetails), "LDKCVec_ChannelDetailsZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t q = 0; q < _res_constr.datalen; q++) {
                uint32_t arr_conv_16 = _res_vals[q];
                LDKChannelDetails arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                _res_constr.data[q] = arr_conv_16_conv;
        }
        CVec_ChannelDetailsZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NonePaymentSendFailureZ_ok() {
        LDKCResult_NonePaymentSendFailureZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePaymentSendFailureZ), "LDKCResult_NonePaymentSendFailureZ");
        *ret_conv = CResult_NonePaymentSendFailureZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NonePaymentSendFailureZ_err(uint32_t e) {
        LDKPaymentSendFailure e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NonePaymentSendFailureZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePaymentSendFailureZ), "LDKCResult_NonePaymentSendFailureZ");
        *ret_conv = CResult_NonePaymentSendFailureZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NonePaymentSendFailureZ_free(uint32_t _res) {
        LDKCResult_NonePaymentSendFailureZ _res_conv = *(LDKCResult_NonePaymentSendFailureZ*)_res;
        FREE((void*)_res);
        CResult_NonePaymentSendFailureZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_NetAddressZ_free(uint32_tArray _res) {
        LDKCVec_NetAddressZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKNetAddress), "LDKCVec_NetAddressZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t m = 0; m < _res_constr.datalen; m++) {
                uint32_t arr_conv_12 = _res_vals[m];
                LDKNetAddress arr_conv_12_conv = *(LDKNetAddress*)arr_conv_12;
                FREE((void*)arr_conv_12);
                _res_constr.data[m] = arr_conv_12_conv;
        }
        CVec_NetAddressZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_ChannelMonitorZ_free(uint32_tArray _res) {
        LDKCVec_ChannelMonitorZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKChannelMonitor), "LDKCVec_ChannelMonitorZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t q = 0; q < _res_constr.datalen; q++) {
                uint32_t arr_conv_16 = _res_vals[q];
                LDKChannelMonitor arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                _res_constr.data[q] = arr_conv_16_conv;
        }
        CVec_ChannelMonitorZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelManagerZ_free(uint32_t _res) {
        LDKC2Tuple_BlockHashChannelManagerZ _res_conv = *(LDKC2Tuple_BlockHashChannelManagerZ*)_res;
        FREE((void*)_res);
        C2Tuple_BlockHashChannelManagerZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelManagerZ_new(int8_tArray a, uint32_t b) {
        LDKThirtyTwoBytes a_ref;
        CHECK(*((uint32_t*)a) == 32);
        memcpy(a_ref.data, (uint8_t*)(a + 4), 32);
        LDKChannelManager b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        // Warning: we may need a move here but can't clone!
        LDKC2Tuple_BlockHashChannelManagerZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_BlockHashChannelManagerZ), "LDKC2Tuple_BlockHashChannelManagerZ");
        *ret_ref = C2Tuple_BlockHashChannelManagerZ_new(a_ref, b_conv);
        ret_ref->a = ThirtyTwoBytes_clone(&ret_ref->a);
        // XXX: We likely need to clone here, but no _clone fn is available for ChannelManager
        return (long)ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_ok(uint32_t o) {
        LDKC2Tuple_BlockHashChannelManagerZ o_conv = *(LDKC2Tuple_BlockHashChannelManagerZ*)o;
        FREE((void*)o);
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ");
        *ret_conv = CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ");
        *ret_conv = CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ _res_conv = *(LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NetAddressu8Z_ok(uint32_t o) {
        LDKNetAddress o_conv = *(LDKNetAddress*)o;
        FREE((void*)o);
        LDKCResult_NetAddressu8Z* ret_conv = MALLOC(sizeof(LDKCResult_NetAddressu8Z), "LDKCResult_NetAddressu8Z");
        *ret_conv = CResult_NetAddressu8Z_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NetAddressu8Z_err(int8_t e) {
        LDKCResult_NetAddressu8Z* ret_conv = MALLOC(sizeof(LDKCResult_NetAddressu8Z), "LDKCResult_NetAddressu8Z");
        *ret_conv = CResult_NetAddressu8Z_err(e);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NetAddressu8Z_free(uint32_t _res) {
        LDKCResult_NetAddressu8Z _res_conv = *(LDKCResult_NetAddressu8Z*)_res;
        FREE((void*)_res);
        CResult_NetAddressu8Z_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CResult_NetAddressu8ZDecodeErrorZ_ok(uint32_t o) {
        LDKCResult_NetAddressu8Z o_conv = *(LDKCResult_NetAddressu8Z*)o;
        FREE((void*)o);
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CResult_NetAddressu8ZDecodeErrorZ), "LDKCResult_CResult_NetAddressu8ZDecodeErrorZ");
        *ret_conv = CResult_CResult_NetAddressu8ZDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CResult_NetAddressu8ZDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CResult_NetAddressu8ZDecodeErrorZ), "LDKCResult_CResult_NetAddressu8ZDecodeErrorZ");
        *ret_conv = CResult_CResult_NetAddressu8ZDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_CResult_NetAddressu8ZDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ _res_conv = *(LDKCResult_CResult_NetAddressu8ZDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_CResult_NetAddressu8ZDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_u64Z_free(int64_tArray _res) {
        LDKCVec_u64Z _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                _res_constr.data = NULL;
        int64_t* _res_vals = (int64_t*)(_res + 4);
        for (size_t i = 0; i < _res_constr.datalen; i++) {
                int64_t arr_conv_8 = _res_vals[i];
                _res_constr.data[i] = arr_conv_8;
        }
        CVec_u64Z_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_UpdateAddHTLCZ_free(uint32_tArray _res) {
        LDKCVec_UpdateAddHTLCZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKUpdateAddHTLC), "LDKCVec_UpdateAddHTLCZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t p = 0; p < _res_constr.datalen; p++) {
                uint32_t arr_conv_15 = _res_vals[p];
                LDKUpdateAddHTLC arr_conv_15_conv;
                arr_conv_15_conv.inner = (void*)(arr_conv_15 & (~1));
                arr_conv_15_conv.is_owned = (arr_conv_15 & 1) || (arr_conv_15 == 0);
                _res_constr.data[p] = arr_conv_15_conv;
        }
        CVec_UpdateAddHTLCZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_UpdateFulfillHTLCZ_free(uint32_tArray _res) {
        LDKCVec_UpdateFulfillHTLCZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKUpdateFulfillHTLC), "LDKCVec_UpdateFulfillHTLCZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t t = 0; t < _res_constr.datalen; t++) {
                uint32_t arr_conv_19 = _res_vals[t];
                LDKUpdateFulfillHTLC arr_conv_19_conv;
                arr_conv_19_conv.inner = (void*)(arr_conv_19 & (~1));
                arr_conv_19_conv.is_owned = (arr_conv_19 & 1) || (arr_conv_19 == 0);
                _res_constr.data[t] = arr_conv_19_conv;
        }
        CVec_UpdateFulfillHTLCZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_UpdateFailHTLCZ_free(uint32_tArray _res) {
        LDKCVec_UpdateFailHTLCZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKUpdateFailHTLC), "LDKCVec_UpdateFailHTLCZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t q = 0; q < _res_constr.datalen; q++) {
                uint32_t arr_conv_16 = _res_vals[q];
                LDKUpdateFailHTLC arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                _res_constr.data[q] = arr_conv_16_conv;
        }
        CVec_UpdateFailHTLCZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_UpdateFailMalformedHTLCZ_free(uint32_tArray _res) {
        LDKCVec_UpdateFailMalformedHTLCZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKUpdateFailMalformedHTLC), "LDKCVec_UpdateFailMalformedHTLCZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t z = 0; z < _res_constr.datalen; z++) {
                uint32_t arr_conv_25 = _res_vals[z];
                LDKUpdateFailMalformedHTLC arr_conv_25_conv;
                arr_conv_25_conv.inner = (void*)(arr_conv_25 & (~1));
                arr_conv_25_conv.is_owned = (arr_conv_25 & 1) || (arr_conv_25 == 0);
                _res_constr.data[z] = arr_conv_25_conv;
        }
        CVec_UpdateFailMalformedHTLCZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_boolLightningErrorZ_ok(jboolean o) {
        LDKCResult_boolLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolLightningErrorZ), "LDKCResult_boolLightningErrorZ");
        *ret_conv = CResult_boolLightningErrorZ_ok(o);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_boolLightningErrorZ_err(uint32_t e) {
        LDKLightningError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_boolLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolLightningErrorZ), "LDKCResult_boolLightningErrorZ");
        *ret_conv = CResult_boolLightningErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_boolLightningErrorZ_free(uint32_t _res) {
        LDKCResult_boolLightningErrorZ _res_conv = *(LDKCResult_boolLightningErrorZ*)_res;
        FREE((void*)_res);
        CResult_boolLightningErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_free(uint32_t _res) {
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ _res_conv = *(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)_res;
        FREE((void*)_res);
        C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_new(uint32_t a, uint32_t b, uint32_t c) {
        LDKChannelAnnouncement a_conv;
        a_conv.inner = (void*)(a & (~1));
        a_conv.is_owned = (a & 1) || (a == 0);
        if (a_conv.inner != NULL)
                a_conv = ChannelAnnouncement_clone(&a_conv);
        LDKChannelUpdate b_conv;
        b_conv.inner = (void*)(b & (~1));
        b_conv.is_owned = (b & 1) || (b == 0);
        if (b_conv.inner != NULL)
                b_conv = ChannelUpdate_clone(&b_conv);
        LDKChannelUpdate c_conv;
        c_conv.inner = (void*)(c & (~1));
        c_conv.is_owned = (c & 1) || (c == 0);
        if (c_conv.inner != NULL)
                c_conv = ChannelUpdate_clone(&c_conv);
        LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ* ret_ref = MALLOC(sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ), "LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ");
        *ret_ref = C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ_new(a_conv, b_conv, c_conv);
        ret_ref->a = ChannelAnnouncement_clone(&ret_ref->a);
        ret_ref->b = ChannelUpdate_clone(&ret_ref->b);
        ret_ref->c = ChannelUpdate_clone(&ret_ref->c);
        return (long)ret_ref;
}

void  __attribute__((visibility("default"))) TS_CVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ_free(uint32_tArray _res) {
        LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ), "LDKCVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t l = 0; l < _res_constr.datalen; l++) {
                uint32_t arr_conv_63 = _res_vals[l];
                LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ arr_conv_63_conv = *(LDKC3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZ*)arr_conv_63;
                FREE((void*)arr_conv_63);
                _res_constr.data[l] = arr_conv_63_conv;
        }
        CVec_C3Tuple_ChannelAnnouncementChannelUpdateChannelUpdateZZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_NodeAnnouncementZ_free(uint32_tArray _res) {
        LDKCVec_NodeAnnouncementZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKNodeAnnouncement), "LDKCVec_NodeAnnouncementZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t s = 0; s < _res_constr.datalen; s++) {
                uint32_t arr_conv_18 = _res_vals[s];
                LDKNodeAnnouncement arr_conv_18_conv;
                arr_conv_18_conv.inner = (void*)(arr_conv_18 & (~1));
                arr_conv_18_conv.is_owned = (arr_conv_18 & 1) || (arr_conv_18 == 0);
                _res_constr.data[s] = arr_conv_18_conv;
        }
        CVec_NodeAnnouncementZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneLightningErrorZ_ok() {
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = CResult_NoneLightningErrorZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NoneLightningErrorZ_err(uint32_t e) {
        LDKLightningError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = CResult_NoneLightningErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NoneLightningErrorZ_free(uint32_t _res) {
        LDKCResult_NoneLightningErrorZ _res_conv = *(LDKCResult_NoneLightningErrorZ*)_res;
        FREE((void*)_res);
        CResult_NoneLightningErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChannelReestablishDecodeErrorZ_ok(uint32_t o) {
        LDKChannelReestablish o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = ChannelReestablish_clone(&o_conv);
        LDKCResult_ChannelReestablishDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelReestablishDecodeErrorZ), "LDKCResult_ChannelReestablishDecodeErrorZ");
        *ret_conv = CResult_ChannelReestablishDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ChannelReestablishDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ChannelReestablishDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelReestablishDecodeErrorZ), "LDKCResult_ChannelReestablishDecodeErrorZ");
        *ret_conv = CResult_ChannelReestablishDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ChannelReestablishDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ChannelReestablishDecodeErrorZ _res_conv = *(LDKCResult_ChannelReestablishDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ChannelReestablishDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_InitDecodeErrorZ_ok(uint32_t o) {
        LDKInit o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = Init_clone(&o_conv);
        LDKCResult_InitDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InitDecodeErrorZ), "LDKCResult_InitDecodeErrorZ");
        *ret_conv = CResult_InitDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_InitDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_InitDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InitDecodeErrorZ), "LDKCResult_InitDecodeErrorZ");
        *ret_conv = CResult_InitDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_InitDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_InitDecodeErrorZ _res_conv = *(LDKCResult_InitDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_InitDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PingDecodeErrorZ_ok(uint32_t o) {
        LDKPing o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = Ping_clone(&o_conv);
        LDKCResult_PingDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PingDecodeErrorZ), "LDKCResult_PingDecodeErrorZ");
        *ret_conv = CResult_PingDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PingDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_PingDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PingDecodeErrorZ), "LDKCResult_PingDecodeErrorZ");
        *ret_conv = CResult_PingDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_PingDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_PingDecodeErrorZ _res_conv = *(LDKCResult_PingDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_PingDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PongDecodeErrorZ_ok(uint32_t o) {
        LDKPong o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = Pong_clone(&o_conv);
        LDKCResult_PongDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PongDecodeErrorZ), "LDKCResult_PongDecodeErrorZ");
        *ret_conv = CResult_PongDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PongDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_PongDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PongDecodeErrorZ), "LDKCResult_PongDecodeErrorZ");
        *ret_conv = CResult_PongDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_PongDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_PongDecodeErrorZ _res_conv = *(LDKCResult_PongDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_PongDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelAnnouncementDecodeErrorZ_ok(uint32_t o) {
        LDKUnsignedChannelAnnouncement o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = UnsignedChannelAnnouncement_clone(&o_conv);
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ), "LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ");
        *ret_conv = CResult_UnsignedChannelAnnouncementDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelAnnouncementDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ), "LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ");
        *ret_conv = CResult_UnsignedChannelAnnouncementDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelAnnouncementDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ _res_conv = *(LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_UnsignedChannelAnnouncementDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelUpdateDecodeErrorZ_ok(uint32_t o) {
        LDKUnsignedChannelUpdate o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = UnsignedChannelUpdate_clone(&o_conv);
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelUpdateDecodeErrorZ), "LDKCResult_UnsignedChannelUpdateDecodeErrorZ");
        *ret_conv = CResult_UnsignedChannelUpdateDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelUpdateDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelUpdateDecodeErrorZ), "LDKCResult_UnsignedChannelUpdateDecodeErrorZ");
        *ret_conv = CResult_UnsignedChannelUpdateDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_UnsignedChannelUpdateDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ _res_conv = *(LDKCResult_UnsignedChannelUpdateDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_UnsignedChannelUpdateDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ErrorMessageDecodeErrorZ_ok(uint32_t o) {
        LDKErrorMessage o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = ErrorMessage_clone(&o_conv);
        LDKCResult_ErrorMessageDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ErrorMessageDecodeErrorZ), "LDKCResult_ErrorMessageDecodeErrorZ");
        *ret_conv = CResult_ErrorMessageDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ErrorMessageDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ErrorMessageDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ErrorMessageDecodeErrorZ), "LDKCResult_ErrorMessageDecodeErrorZ");
        *ret_conv = CResult_ErrorMessageDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ErrorMessageDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ErrorMessageDecodeErrorZ _res_conv = *(LDKCResult_ErrorMessageDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ErrorMessageDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedNodeAnnouncementDecodeErrorZ_ok(uint32_t o) {
        LDKUnsignedNodeAnnouncement o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = UnsignedNodeAnnouncement_clone(&o_conv);
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ), "LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ");
        *ret_conv = CResult_UnsignedNodeAnnouncementDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_UnsignedNodeAnnouncementDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ), "LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ");
        *ret_conv = CResult_UnsignedNodeAnnouncementDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_UnsignedNodeAnnouncementDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ _res_conv = *(LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_UnsignedNodeAnnouncementDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_QueryShortChannelIdsDecodeErrorZ_ok(uint32_t o) {
        LDKQueryShortChannelIds o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = QueryShortChannelIds_clone(&o_conv);
        LDKCResult_QueryShortChannelIdsDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryShortChannelIdsDecodeErrorZ), "LDKCResult_QueryShortChannelIdsDecodeErrorZ");
        *ret_conv = CResult_QueryShortChannelIdsDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_QueryShortChannelIdsDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_QueryShortChannelIdsDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryShortChannelIdsDecodeErrorZ), "LDKCResult_QueryShortChannelIdsDecodeErrorZ");
        *ret_conv = CResult_QueryShortChannelIdsDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_QueryShortChannelIdsDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_QueryShortChannelIdsDecodeErrorZ _res_conv = *(LDKCResult_QueryShortChannelIdsDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_QueryShortChannelIdsDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ReplyShortChannelIdsEndDecodeErrorZ_ok(uint32_t o) {
        LDKReplyShortChannelIdsEnd o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = ReplyShortChannelIdsEnd_clone(&o_conv);
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ), "LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ");
        *ret_conv = CResult_ReplyShortChannelIdsEndDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ReplyShortChannelIdsEndDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ), "LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ");
        *ret_conv = CResult_ReplyShortChannelIdsEndDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ReplyShortChannelIdsEndDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ _res_conv = *(LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ReplyShortChannelIdsEndDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_QueryChannelRangeDecodeErrorZ_ok(uint32_t o) {
        LDKQueryChannelRange o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = QueryChannelRange_clone(&o_conv);
        LDKCResult_QueryChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryChannelRangeDecodeErrorZ), "LDKCResult_QueryChannelRangeDecodeErrorZ");
        *ret_conv = CResult_QueryChannelRangeDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_QueryChannelRangeDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_QueryChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryChannelRangeDecodeErrorZ), "LDKCResult_QueryChannelRangeDecodeErrorZ");
        *ret_conv = CResult_QueryChannelRangeDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_QueryChannelRangeDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_QueryChannelRangeDecodeErrorZ _res_conv = *(LDKCResult_QueryChannelRangeDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_QueryChannelRangeDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ReplyChannelRangeDecodeErrorZ_ok(uint32_t o) {
        LDKReplyChannelRange o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = ReplyChannelRange_clone(&o_conv);
        LDKCResult_ReplyChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyChannelRangeDecodeErrorZ), "LDKCResult_ReplyChannelRangeDecodeErrorZ");
        *ret_conv = CResult_ReplyChannelRangeDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_ReplyChannelRangeDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_ReplyChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyChannelRangeDecodeErrorZ), "LDKCResult_ReplyChannelRangeDecodeErrorZ");
        *ret_conv = CResult_ReplyChannelRangeDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_ReplyChannelRangeDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_ReplyChannelRangeDecodeErrorZ _res_conv = *(LDKCResult_ReplyChannelRangeDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_ReplyChannelRangeDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_GossipTimestampFilterDecodeErrorZ_ok(uint32_t o) {
        LDKGossipTimestampFilter o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = GossipTimestampFilter_clone(&o_conv);
        LDKCResult_GossipTimestampFilterDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_GossipTimestampFilterDecodeErrorZ), "LDKCResult_GossipTimestampFilterDecodeErrorZ");
        *ret_conv = CResult_GossipTimestampFilterDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_GossipTimestampFilterDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_GossipTimestampFilterDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_GossipTimestampFilterDecodeErrorZ), "LDKCResult_GossipTimestampFilterDecodeErrorZ");
        *ret_conv = CResult_GossipTimestampFilterDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_GossipTimestampFilterDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_GossipTimestampFilterDecodeErrorZ _res_conv = *(LDKCResult_GossipTimestampFilterDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_GossipTimestampFilterDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_PublicKeyZ_free(ptrArray _res) {
        LDKCVec_PublicKeyZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKPublicKey), "LDKCVec_PublicKeyZ Elements");
        else
                _res_constr.data = NULL;
        int8_tArray* _res_vals = (int8_tArray*)(_res + 4);
        for (size_t m = 0; m < _res_constr.datalen; m++) {
                int8_tArray arr_conv_12 = _res_vals[m];
                LDKPublicKey arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 33);
                memcpy(arr_conv_12_ref.compressed_form, (uint8_t*)(arr_conv_12 + 4), 33);
                _res_constr.data[m] = arr_conv_12_ref;
        }
        CVec_PublicKeyZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_u8Z_free(int8_tArray _res) {
        LDKCVec_u8Z _res_ref;
        _res_ref.datalen = *((uint32_t*)_res);
        _res_ref.data = MALLOC(_res_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(_res_ref.data, (uint8_t*)(_res + 4), _res_ref.datalen);
        CVec_u8Z_free(_res_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CVec_u8ZPeerHandleErrorZ_ok(int8_tArray o) {
        LDKCVec_u8Z o_ref;
        o_ref.datalen = *((uint32_t*)o);
        o_ref.data = MALLOC(o_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(o_ref.data, (uint8_t*)(o + 4), o_ref.datalen);
        LDKCResult_CVec_u8ZPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_u8ZPeerHandleErrorZ), "LDKCResult_CVec_u8ZPeerHandleErrorZ");
        *ret_conv = CResult_CVec_u8ZPeerHandleErrorZ_ok(o_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_CVec_u8ZPeerHandleErrorZ_err(uint32_t e) {
        LDKPeerHandleError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_CVec_u8ZPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_u8ZPeerHandleErrorZ), "LDKCResult_CVec_u8ZPeerHandleErrorZ");
        *ret_conv = CResult_CVec_u8ZPeerHandleErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_CVec_u8ZPeerHandleErrorZ_free(uint32_t _res) {
        LDKCResult_CVec_u8ZPeerHandleErrorZ _res_conv = *(LDKCResult_CVec_u8ZPeerHandleErrorZ*)_res;
        FREE((void*)_res);
        CResult_CVec_u8ZPeerHandleErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NonePeerHandleErrorZ_ok() {
        LDKCResult_NonePeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePeerHandleErrorZ), "LDKCResult_NonePeerHandleErrorZ");
        *ret_conv = CResult_NonePeerHandleErrorZ_ok();
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NonePeerHandleErrorZ_err(uint32_t e) {
        LDKPeerHandleError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NonePeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePeerHandleErrorZ), "LDKCResult_NonePeerHandleErrorZ");
        *ret_conv = CResult_NonePeerHandleErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NonePeerHandleErrorZ_free(uint32_t _res) {
        LDKCResult_NonePeerHandleErrorZ _res_conv = *(LDKCResult_NonePeerHandleErrorZ*)_res;
        FREE((void*)_res);
        CResult_NonePeerHandleErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_boolPeerHandleErrorZ_ok(jboolean o) {
        LDKCResult_boolPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolPeerHandleErrorZ), "LDKCResult_boolPeerHandleErrorZ");
        *ret_conv = CResult_boolPeerHandleErrorZ_ok(o);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_boolPeerHandleErrorZ_err(uint32_t e) {
        LDKPeerHandleError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_boolPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolPeerHandleErrorZ), "LDKCResult_boolPeerHandleErrorZ");
        *ret_conv = CResult_boolPeerHandleErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_boolPeerHandleErrorZ_free(uint32_t _res) {
        LDKCResult_boolPeerHandleErrorZ _res_conv = *(LDKCResult_boolPeerHandleErrorZ*)_res;
        FREE((void*)_res);
        CResult_boolPeerHandleErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SecretKeySecpErrorZ_ok(int8_tArray o) {
        LDKSecretKey o_ref;
        CHECK(*((uint32_t*)o) == 32);
        memcpy(o_ref.bytes, (uint8_t*)(o + 4), 32);
        LDKCResult_SecretKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SecretKeySecpErrorZ), "LDKCResult_SecretKeySecpErrorZ");
        *ret_conv = CResult_SecretKeySecpErrorZ_ok(o_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_SecretKeySecpErrorZ_err(uint32_t e) {
        LDKSecp256k1Error e_conv = LDKSecp256k1Error_from_js(e);
        LDKCResult_SecretKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SecretKeySecpErrorZ), "LDKCResult_SecretKeySecpErrorZ");
        *ret_conv = CResult_SecretKeySecpErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_SecretKeySecpErrorZ_free(uint32_t _res) {
        LDKCResult_SecretKeySecpErrorZ _res_conv = *(LDKCResult_SecretKeySecpErrorZ*)_res;
        FREE((void*)_res);
        CResult_SecretKeySecpErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PublicKeySecpErrorZ_ok(int8_tArray o) {
        LDKPublicKey o_ref;
        CHECK(*((uint32_t*)o) == 33);
        memcpy(o_ref.compressed_form, (uint8_t*)(o + 4), 33);
        LDKCResult_PublicKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PublicKeySecpErrorZ), "LDKCResult_PublicKeySecpErrorZ");
        *ret_conv = CResult_PublicKeySecpErrorZ_ok(o_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_PublicKeySecpErrorZ_err(uint32_t e) {
        LDKSecp256k1Error e_conv = LDKSecp256k1Error_from_js(e);
        LDKCResult_PublicKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PublicKeySecpErrorZ), "LDKCResult_PublicKeySecpErrorZ");
        *ret_conv = CResult_PublicKeySecpErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_PublicKeySecpErrorZ_free(uint32_t _res) {
        LDKCResult_PublicKeySecpErrorZ _res_conv = *(LDKCResult_PublicKeySecpErrorZ*)_res;
        FREE((void*)_res);
        CResult_PublicKeySecpErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TxCreationKeysSecpErrorZ_ok(uint32_t o) {
        LDKTxCreationKeys o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = TxCreationKeys_clone(&o_conv);
        LDKCResult_TxCreationKeysSecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxCreationKeysSecpErrorZ), "LDKCResult_TxCreationKeysSecpErrorZ");
        *ret_conv = CResult_TxCreationKeysSecpErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TxCreationKeysSecpErrorZ_err(uint32_t e) {
        LDKSecp256k1Error e_conv = LDKSecp256k1Error_from_js(e);
        LDKCResult_TxCreationKeysSecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxCreationKeysSecpErrorZ), "LDKCResult_TxCreationKeysSecpErrorZ");
        *ret_conv = CResult_TxCreationKeysSecpErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_TxCreationKeysSecpErrorZ_free(uint32_t _res) {
        LDKCResult_TxCreationKeysSecpErrorZ _res_conv = *(LDKCResult_TxCreationKeysSecpErrorZ*)_res;
        FREE((void*)_res);
        CResult_TxCreationKeysSecpErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TrustedCommitmentTransactionNoneZ_ok(uint32_t o) {
        LDKTrustedCommitmentTransaction o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_TrustedCommitmentTransactionNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_TrustedCommitmentTransactionNoneZ), "LDKCResult_TrustedCommitmentTransactionNoneZ");
        *ret_conv = CResult_TrustedCommitmentTransactionNoneZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_TrustedCommitmentTransactionNoneZ_err() {
        LDKCResult_TrustedCommitmentTransactionNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_TrustedCommitmentTransactionNoneZ), "LDKCResult_TrustedCommitmentTransactionNoneZ");
        *ret_conv = CResult_TrustedCommitmentTransactionNoneZ_err();
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_TrustedCommitmentTransactionNoneZ_free(uint32_t _res) {
        LDKCResult_TrustedCommitmentTransactionNoneZ _res_conv = *(LDKCResult_TrustedCommitmentTransactionNoneZ*)_res;
        FREE((void*)_res);
        CResult_TrustedCommitmentTransactionNoneZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_RouteHopZ_free(uint32_tArray _res) {
        LDKCVec_RouteHopZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKRouteHop), "LDKCVec_RouteHopZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t k = 0; k < _res_constr.datalen; k++) {
                uint32_t arr_conv_10 = _res_vals[k];
                LDKRouteHop arr_conv_10_conv;
                arr_conv_10_conv.inner = (void*)(arr_conv_10 & (~1));
                arr_conv_10_conv.is_owned = (arr_conv_10 & 1) || (arr_conv_10 == 0);
                _res_constr.data[k] = arr_conv_10_conv;
        }
        CVec_RouteHopZ_free(_res_constr);
}

void  __attribute__((visibility("default"))) TS_CVec_CVec_RouteHopZZ_free(ptrArray _res) {
        LDKCVec_CVec_RouteHopZZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKCVec_RouteHopZ), "LDKCVec_CVec_RouteHopZZ Elements");
        else
                _res_constr.data = NULL;
        uint32_tArray* _res_vals = (uint32_tArray*)(_res + 4);
        for (size_t m = 0; m < _res_constr.datalen; m++) {
                uint32_tArray arr_conv_12 = _res_vals[m];
                LDKCVec_RouteHopZ arr_conv_12_constr;
                arr_conv_12_constr.datalen = *((uint32_t*)arr_conv_12);
                if (arr_conv_12_constr.datalen > 0)
                        arr_conv_12_constr.data = MALLOC(arr_conv_12_constr.datalen * sizeof(LDKRouteHop), "LDKCVec_RouteHopZ Elements");
                else
                        arr_conv_12_constr.data = NULL;
                uint32_t* arr_conv_12_vals = (uint32_t*)(arr_conv_12 + 4);
                for (size_t k = 0; k < arr_conv_12_constr.datalen; k++) {
                        uint32_t arr_conv_10 = arr_conv_12_vals[k];
                        LDKRouteHop arr_conv_10_conv;
                        arr_conv_10_conv.inner = (void*)(arr_conv_10 & (~1));
                        arr_conv_10_conv.is_owned = (arr_conv_10 & 1) || (arr_conv_10 == 0);
                        arr_conv_12_constr.data[k] = arr_conv_10_conv;
                }
                _res_constr.data[m] = arr_conv_12_constr;
        }
        CVec_CVec_RouteHopZZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RouteDecodeErrorZ_ok(uint32_t o) {
        LDKRoute o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = Route_clone(&o_conv);
        LDKCResult_RouteDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteDecodeErrorZ), "LDKCResult_RouteDecodeErrorZ");
        *ret_conv = CResult_RouteDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RouteDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_RouteDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteDecodeErrorZ), "LDKCResult_RouteDecodeErrorZ");
        *ret_conv = CResult_RouteDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_RouteDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_RouteDecodeErrorZ _res_conv = *(LDKCResult_RouteDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_RouteDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_CVec_RouteHintZ_free(uint32_tArray _res) {
        LDKCVec_RouteHintZ _res_constr;
        _res_constr.datalen = *((uint32_t*)_res);
        if (_res_constr.datalen > 0)
                _res_constr.data = MALLOC(_res_constr.datalen * sizeof(LDKRouteHint), "LDKCVec_RouteHintZ Elements");
        else
                _res_constr.data = NULL;
        uint32_t* _res_vals = (uint32_t*)(_res + 4);
        for (size_t l = 0; l < _res_constr.datalen; l++) {
                uint32_t arr_conv_11 = _res_vals[l];
                LDKRouteHint arr_conv_11_conv;
                arr_conv_11_conv.inner = (void*)(arr_conv_11 & (~1));
                arr_conv_11_conv.is_owned = (arr_conv_11 & 1) || (arr_conv_11 == 0);
                _res_constr.data[l] = arr_conv_11_conv;
        }
        CVec_RouteHintZ_free(_res_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RouteLightningErrorZ_ok(uint32_t o) {
        LDKRoute o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = Route_clone(&o_conv);
        LDKCResult_RouteLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteLightningErrorZ), "LDKCResult_RouteLightningErrorZ");
        *ret_conv = CResult_RouteLightningErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RouteLightningErrorZ_err(uint32_t e) {
        LDKLightningError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_RouteLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteLightningErrorZ), "LDKCResult_RouteLightningErrorZ");
        *ret_conv = CResult_RouteLightningErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_RouteLightningErrorZ_free(uint32_t _res) {
        LDKCResult_RouteLightningErrorZ _res_conv = *(LDKCResult_RouteLightningErrorZ*)_res;
        FREE((void*)_res);
        CResult_RouteLightningErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RoutingFeesDecodeErrorZ_ok(uint32_t o) {
        LDKRoutingFees o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        if (o_conv.inner != NULL)
                o_conv = RoutingFees_clone(&o_conv);
        LDKCResult_RoutingFeesDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RoutingFeesDecodeErrorZ), "LDKCResult_RoutingFeesDecodeErrorZ");
        *ret_conv = CResult_RoutingFeesDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_RoutingFeesDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_RoutingFeesDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RoutingFeesDecodeErrorZ), "LDKCResult_RoutingFeesDecodeErrorZ");
        *ret_conv = CResult_RoutingFeesDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_RoutingFeesDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_RoutingFeesDecodeErrorZ _res_conv = *(LDKCResult_RoutingFeesDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_RoutingFeesDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NodeAnnouncementInfoDecodeErrorZ_ok(uint32_t o) {
        LDKNodeAnnouncementInfo o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeAnnouncementInfoDecodeErrorZ), "LDKCResult_NodeAnnouncementInfoDecodeErrorZ");
        *ret_conv = CResult_NodeAnnouncementInfoDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NodeAnnouncementInfoDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeAnnouncementInfoDecodeErrorZ), "LDKCResult_NodeAnnouncementInfoDecodeErrorZ");
        *ret_conv = CResult_NodeAnnouncementInfoDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NodeAnnouncementInfoDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ _res_conv = *(LDKCResult_NodeAnnouncementInfoDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_NodeAnnouncementInfoDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NodeInfoDecodeErrorZ_ok(uint32_t o) {
        LDKNodeInfo o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NodeInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeInfoDecodeErrorZ), "LDKCResult_NodeInfoDecodeErrorZ");
        *ret_conv = CResult_NodeInfoDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NodeInfoDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NodeInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeInfoDecodeErrorZ), "LDKCResult_NodeInfoDecodeErrorZ");
        *ret_conv = CResult_NodeInfoDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NodeInfoDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_NodeInfoDecodeErrorZ _res_conv = *(LDKCResult_NodeInfoDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_NodeInfoDecodeErrorZ_free(_res_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NetworkGraphDecodeErrorZ_ok(uint32_t o) {
        LDKNetworkGraph o_conv;
        o_conv.inner = (void*)(o & (~1));
        o_conv.is_owned = (o & 1) || (o == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NetworkGraphDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NetworkGraphDecodeErrorZ), "LDKCResult_NetworkGraphDecodeErrorZ");
        *ret_conv = CResult_NetworkGraphDecodeErrorZ_ok(o_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_CResult_NetworkGraphDecodeErrorZ_err(uint32_t e) {
        LDKDecodeError e_conv;
        e_conv.inner = (void*)(e & (~1));
        e_conv.is_owned = (e & 1) || (e == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_NetworkGraphDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NetworkGraphDecodeErrorZ), "LDKCResult_NetworkGraphDecodeErrorZ");
        *ret_conv = CResult_NetworkGraphDecodeErrorZ_err(e_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_CResult_NetworkGraphDecodeErrorZ_free(uint32_t _res) {
        LDKCResult_NetworkGraphDecodeErrorZ _res_conv = *(LDKCResult_NetworkGraphDecodeErrorZ*)_res;
        FREE((void*)_res);
        CResult_NetworkGraphDecodeErrorZ_free(_res_conv);
}

void  __attribute__((visibility("default"))) TS_Event_free(uint32_t this_ptr) {
        LDKEvent this_ptr_conv = *(LDKEvent*)this_ptr;
        FREE((void*)this_ptr);
        Event_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Event_clone(uint32_t orig) {
        LDKEvent* orig_conv = (LDKEvent*)orig;
        LDKEvent *ret_copy = MALLOC(sizeof(LDKEvent), "LDKEvent");
        *ret_copy = Event_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Event_write(uint32_t obj) {
        LDKEvent* obj_conv = (LDKEvent*)obj;
        LDKCVec_u8Z arg_var = Event_write(obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_MessageSendEvent_free(uint32_t this_ptr) {
        LDKMessageSendEvent this_ptr_conv = *(LDKMessageSendEvent*)this_ptr;
        FREE((void*)this_ptr);
        MessageSendEvent_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_MessageSendEvent_clone(uint32_t orig) {
        LDKMessageSendEvent* orig_conv = (LDKMessageSendEvent*)orig;
        LDKMessageSendEvent *ret_copy = MALLOC(sizeof(LDKMessageSendEvent), "LDKMessageSendEvent");
        *ret_copy = MessageSendEvent_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_MessageSendEventsProvider_free(uint32_t this_ptr) {
        LDKMessageSendEventsProvider this_ptr_conv = *(LDKMessageSendEventsProvider*)this_ptr;
        FREE((void*)this_ptr);
        MessageSendEventsProvider_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_EventsProvider_free(uint32_t this_ptr) {
        LDKEventsProvider this_ptr_conv = *(LDKEventsProvider*)this_ptr;
        FREE((void*)this_ptr);
        EventsProvider_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_APIError_free(uint32_t this_ptr) {
        LDKAPIError this_ptr_conv = *(LDKAPIError*)this_ptr;
        FREE((void*)this_ptr);
        APIError_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_APIError_clone(uint32_t orig) {
        LDKAPIError* orig_conv = (LDKAPIError*)orig;
        LDKAPIError *ret_copy = MALLOC(sizeof(LDKAPIError), "LDKAPIError");
        *ret_copy = APIError_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_Level_clone(uint32_t orig) {
        LDKLevel* orig_conv = (LDKLevel*)orig;
        uint32_t ret_conv = LDKLevel_to_js(Level_clone(orig_conv));
        return ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_Level_max() {
        uint32_t ret_conv = LDKLevel_to_js(Level_max());
        return ret_conv;
}

void  __attribute__((visibility("default"))) TS_Logger_free(uint32_t this_ptr) {
        LDKLogger this_ptr_conv = *(LDKLogger*)this_ptr;
        FREE((void*)this_ptr);
        Logger_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_free(uint32_t this_ptr) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelHandshakeConfig_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_clone(uint32_t orig) {
        LDKChannelHandshakeConfig orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelHandshakeConfig ret_var = ChannelHandshakeConfig_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_get_minimum_depth(uint32_t this_ptr) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = ChannelHandshakeConfig_get_minimum_depth(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_set_minimum_depth(uint32_t this_ptr, int32_t val) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeConfig_set_minimum_depth(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_get_our_to_self_delay(uint32_t this_ptr) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = ChannelHandshakeConfig_get_our_to_self_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_set_our_to_self_delay(uint32_t this_ptr, int16_t val) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeConfig_set_our_to_self_delay(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_get_our_htlc_minimum_msat(uint32_t this_ptr) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeConfig_get_our_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_set_our_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeConfig_set_our_htlc_minimum_msat(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_new(int32_t minimum_depth_arg, int16_t our_to_self_delay_arg, int64_t our_htlc_minimum_msat_arg) {
        LDKChannelHandshakeConfig ret_var = ChannelHandshakeConfig_new(minimum_depth_arg, our_to_self_delay_arg, our_htlc_minimum_msat_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeConfig_default() {
        LDKChannelHandshakeConfig ret_var = ChannelHandshakeConfig_default();
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_free(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelHandshakeLimits_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_clone(uint32_t orig) {
        LDKChannelHandshakeLimits orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelHandshakeLimits ret_var = ChannelHandshakeLimits_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_min_funding_satoshis(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_min_funding_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_min_funding_satoshis(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_min_funding_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_max_htlc_minimum_msat(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_max_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_max_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_max_htlc_minimum_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_min_max_htlc_value_in_flight_msat(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_min_max_htlc_value_in_flight_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_min_max_htlc_value_in_flight_msat(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_min_max_htlc_value_in_flight_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_max_channel_reserve_satoshis(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_max_channel_reserve_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_max_channel_reserve_satoshis(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_max_channel_reserve_satoshis(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_min_max_accepted_htlcs(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = ChannelHandshakeLimits_get_min_max_accepted_htlcs(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_min_max_accepted_htlcs(uint32_t this_ptr, int16_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_min_max_accepted_htlcs(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_min_dust_limit_satoshis(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_min_dust_limit_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_min_dust_limit_satoshis(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_min_dust_limit_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_max_dust_limit_satoshis(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelHandshakeLimits_get_max_dust_limit_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_max_dust_limit_satoshis(uint32_t this_ptr, int64_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_max_dust_limit_satoshis(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_max_minimum_depth(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = ChannelHandshakeLimits_get_max_minimum_depth(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_max_minimum_depth(uint32_t this_ptr, int32_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_max_minimum_depth(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_force_announced_channel_preference(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ChannelHandshakeLimits_get_force_announced_channel_preference(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_force_announced_channel_preference(uint32_t this_ptr, jboolean val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_force_announced_channel_preference(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_get_their_to_self_delay(uint32_t this_ptr) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = ChannelHandshakeLimits_get_their_to_self_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_set_their_to_self_delay(uint32_t this_ptr, int16_t val) {
        LDKChannelHandshakeLimits this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelHandshakeLimits_set_their_to_self_delay(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_new(int64_t min_funding_satoshis_arg, int64_t max_htlc_minimum_msat_arg, int64_t min_max_htlc_value_in_flight_msat_arg, int64_t max_channel_reserve_satoshis_arg, int16_t min_max_accepted_htlcs_arg, int64_t min_dust_limit_satoshis_arg, int64_t max_dust_limit_satoshis_arg, int32_t max_minimum_depth_arg, jboolean force_announced_channel_preference_arg, int16_t their_to_self_delay_arg) {
        LDKChannelHandshakeLimits ret_var = ChannelHandshakeLimits_new(min_funding_satoshis_arg, max_htlc_minimum_msat_arg, min_max_htlc_value_in_flight_msat_arg, max_channel_reserve_satoshis_arg, min_max_accepted_htlcs_arg, min_dust_limit_satoshis_arg, max_dust_limit_satoshis_arg, max_minimum_depth_arg, force_announced_channel_preference_arg, their_to_self_delay_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelHandshakeLimits_default() {
        LDKChannelHandshakeLimits ret_var = ChannelHandshakeLimits_default();
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelConfig_free(uint32_t this_ptr) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelConfig_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelConfig_clone(uint32_t orig) {
        LDKChannelConfig orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelConfig ret_var = ChannelConfig_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int32_t  __attribute__((visibility("default"))) TS_ChannelConfig_get_fee_proportional_millionths(uint32_t this_ptr) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = ChannelConfig_get_fee_proportional_millionths(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelConfig_set_fee_proportional_millionths(uint32_t this_ptr, int32_t val) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelConfig_set_fee_proportional_millionths(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelConfig_get_announced_channel(uint32_t this_ptr) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ChannelConfig_get_announced_channel(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelConfig_set_announced_channel(uint32_t this_ptr, jboolean val) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelConfig_set_announced_channel(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelConfig_get_commit_upfront_shutdown_pubkey(uint32_t this_ptr) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ChannelConfig_get_commit_upfront_shutdown_pubkey(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelConfig_set_commit_upfront_shutdown_pubkey(uint32_t this_ptr, jboolean val) {
        LDKChannelConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelConfig_set_commit_upfront_shutdown_pubkey(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelConfig_new(int32_t fee_proportional_millionths_arg, jboolean announced_channel_arg, jboolean commit_upfront_shutdown_pubkey_arg) {
        LDKChannelConfig ret_var = ChannelConfig_new(fee_proportional_millionths_arg, announced_channel_arg, commit_upfront_shutdown_pubkey_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelConfig_default() {
        LDKChannelConfig ret_var = ChannelConfig_default();
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelConfig_write(uint32_t obj) {
        LDKChannelConfig obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelConfig_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelConfig_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelConfig ret_var = ChannelConfig_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UserConfig_free(uint32_t this_ptr) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UserConfig_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_clone(uint32_t orig) {
        LDKUserConfig orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUserConfig ret_var = UserConfig_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_get_own_channel_config(uint32_t this_ptr) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelHandshakeConfig ret_var = UserConfig_get_own_channel_config(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UserConfig_set_own_channel_config(uint32_t this_ptr, uint32_t val) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelHandshakeConfig val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelHandshakeConfig_clone(&val_conv);
        UserConfig_set_own_channel_config(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_get_peer_channel_config_limits(uint32_t this_ptr) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelHandshakeLimits ret_var = UserConfig_get_peer_channel_config_limits(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UserConfig_set_peer_channel_config_limits(uint32_t this_ptr, uint32_t val) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelHandshakeLimits val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelHandshakeLimits_clone(&val_conv);
        UserConfig_set_peer_channel_config_limits(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_get_channel_options(uint32_t this_ptr) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelConfig ret_var = UserConfig_get_channel_options(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UserConfig_set_channel_options(uint32_t this_ptr, uint32_t val) {
        LDKUserConfig this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelConfig val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelConfig_clone(&val_conv);
        UserConfig_set_channel_options(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_new(uint32_t own_channel_config_arg, uint32_t peer_channel_config_limits_arg, uint32_t channel_options_arg) {
        LDKChannelHandshakeConfig own_channel_config_arg_conv;
        own_channel_config_arg_conv.inner = (void*)(own_channel_config_arg & (~1));
        own_channel_config_arg_conv.is_owned = (own_channel_config_arg & 1) || (own_channel_config_arg == 0);
        if (own_channel_config_arg_conv.inner != NULL)
                own_channel_config_arg_conv = ChannelHandshakeConfig_clone(&own_channel_config_arg_conv);
        LDKChannelHandshakeLimits peer_channel_config_limits_arg_conv;
        peer_channel_config_limits_arg_conv.inner = (void*)(peer_channel_config_limits_arg & (~1));
        peer_channel_config_limits_arg_conv.is_owned = (peer_channel_config_limits_arg & 1) || (peer_channel_config_limits_arg == 0);
        if (peer_channel_config_limits_arg_conv.inner != NULL)
                peer_channel_config_limits_arg_conv = ChannelHandshakeLimits_clone(&peer_channel_config_limits_arg_conv);
        LDKChannelConfig channel_options_arg_conv;
        channel_options_arg_conv.inner = (void*)(channel_options_arg & (~1));
        channel_options_arg_conv.is_owned = (channel_options_arg & 1) || (channel_options_arg == 0);
        if (channel_options_arg_conv.inner != NULL)
                channel_options_arg_conv = ChannelConfig_clone(&channel_options_arg_conv);
        LDKUserConfig ret_var = UserConfig_new(own_channel_config_arg_conv, peer_channel_config_limits_arg_conv, channel_options_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_UserConfig_default() {
        LDKUserConfig ret_var = UserConfig_default();
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_AccessError_clone(uint32_t orig) {
        LDKAccessError* orig_conv = (LDKAccessError*)orig;
        uint32_t ret_conv = LDKAccessError_to_js(AccessError_clone(orig_conv));
        return ret_conv;
}

void  __attribute__((visibility("default"))) TS_Access_free(uint32_t this_ptr) {
        LDKAccess this_ptr_conv = *(LDKAccess*)this_ptr;
        FREE((void*)this_ptr);
        Access_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_Watch_free(uint32_t this_ptr) {
        LDKWatch this_ptr_conv = *(LDKWatch*)this_ptr;
        FREE((void*)this_ptr);
        Watch_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_Filter_free(uint32_t this_ptr) {
        LDKFilter this_ptr_conv = *(LDKFilter*)this_ptr;
        FREE((void*)this_ptr);
        Filter_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_BroadcasterInterface_free(uint32_t this_ptr) {
        LDKBroadcasterInterface this_ptr_conv = *(LDKBroadcasterInterface*)this_ptr;
        FREE((void*)this_ptr);
        BroadcasterInterface_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ConfirmationTarget_clone(uint32_t orig) {
        LDKConfirmationTarget* orig_conv = (LDKConfirmationTarget*)orig;
        uint32_t ret_conv = LDKConfirmationTarget_to_js(ConfirmationTarget_clone(orig_conv));
        return ret_conv;
}

void  __attribute__((visibility("default"))) TS_FeeEstimator_free(uint32_t this_ptr) {
        LDKFeeEstimator this_ptr_conv = *(LDKFeeEstimator*)this_ptr;
        FREE((void*)this_ptr);
        FeeEstimator_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_ChainMonitor_free(uint32_t this_ptr) {
        LDKChainMonitor this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChainMonitor_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_ChainMonitor_block_connected(uint32_t this_arg, int8_tArray header, uint32_tArray txdata, int32_t height) {
        LDKChainMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        LDKCVec_C2Tuple_usizeTransactionZZ txdata_constr;
        txdata_constr.datalen = *((uint32_t*)txdata);
        if (txdata_constr.datalen > 0)
                txdata_constr.data = MALLOC(txdata_constr.datalen * sizeof(LDKC2Tuple_usizeTransactionZ), "LDKCVec_C2Tuple_usizeTransactionZZ Elements");
        else
                txdata_constr.data = NULL;
        uint32_t* txdata_vals = (uint32_t*)(txdata + 4);
        for (size_t e = 0; e < txdata_constr.datalen; e++) {
                uint32_t arr_conv_30 = txdata_vals[e];
                LDKC2Tuple_usizeTransactionZ arr_conv_30_conv = *(LDKC2Tuple_usizeTransactionZ*)arr_conv_30;
                FREE((void*)arr_conv_30);
                txdata_constr.data[e] = arr_conv_30_conv;
        }
        ChainMonitor_block_connected(&this_arg_conv, header_ref, txdata_constr, height);
}

void  __attribute__((visibility("default"))) TS_ChainMonitor_block_disconnected(uint32_t this_arg, int8_tArray header, int32_t disconnected_height) {
        LDKChainMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        ChainMonitor_block_disconnected(&this_arg_conv, header_ref, disconnected_height);
}

uint32_t  __attribute__((visibility("default"))) TS_ChainMonitor_new(uint32_t chain_source, uint32_t broadcaster, uint32_t logger, uint32_t feeest, uint32_t persister) {
        LDKFilter* chain_source_conv = (LDKFilter*)chain_source;
        LDKBroadcasterInterface broadcaster_conv = *(LDKBroadcasterInterface*)broadcaster;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKFeeEstimator feeest_conv = *(LDKFeeEstimator*)feeest;
        LDKPersist persister_conv = *(LDKPersist*)persister;
        LDKChainMonitor ret_var = ChainMonitor_new(chain_source_conv, broadcaster_conv, logger_conv, feeest_conv, persister_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChainMonitor_as_Watch(uint32_t this_arg) {
        LDKChainMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKWatch* ret = MALLOC(sizeof(LDKWatch), "LDKWatch");
        *ret = ChainMonitor_as_Watch(&this_arg_conv);
        return (long)ret;
}

uint32_t  __attribute__((visibility("default"))) TS_ChainMonitor_as_EventsProvider(uint32_t this_arg) {
        LDKChainMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKEventsProvider* ret = MALLOC(sizeof(LDKEventsProvider), "LDKEventsProvider");
        *ret = ChainMonitor_as_EventsProvider(&this_arg_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_free(uint32_t this_ptr) {
        LDKChannelMonitorUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelMonitorUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_clone(uint32_t orig) {
        LDKChannelMonitorUpdate orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelMonitorUpdate ret_var = ChannelMonitorUpdate_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int64_t  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_get_update_id(uint32_t this_ptr) {
        LDKChannelMonitorUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelMonitorUpdate_get_update_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_set_update_id(uint32_t this_ptr, int64_t val) {
        LDKChannelMonitorUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelMonitorUpdate_set_update_id(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_write(uint32_t obj) {
        LDKChannelMonitorUpdate obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelMonitorUpdate_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelMonitorUpdate_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_ChannelMonitorUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelMonitorUpdateDecodeErrorZ), "LDKCResult_ChannelMonitorUpdateDecodeErrorZ");
        *ret_conv = ChannelMonitorUpdate_read(ser_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelMonitorUpdateErr_clone(uint32_t orig) {
        LDKChannelMonitorUpdateErr* orig_conv = (LDKChannelMonitorUpdateErr*)orig;
        uint32_t ret_conv = LDKChannelMonitorUpdateErr_to_js(ChannelMonitorUpdateErr_clone(orig_conv));
        return ret_conv;
}

void  __attribute__((visibility("default"))) TS_MonitorUpdateError_free(uint32_t this_ptr) {
        LDKMonitorUpdateError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        MonitorUpdateError_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_MonitorEvent_free(uint32_t this_ptr) {
        LDKMonitorEvent this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        MonitorEvent_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_MonitorEvent_clone(uint32_t orig) {
        LDKMonitorEvent orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKMonitorEvent ret_var = MonitorEvent_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_HTLCUpdate_free(uint32_t this_ptr) {
        LDKHTLCUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        HTLCUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_HTLCUpdate_clone(uint32_t orig) {
        LDKHTLCUpdate orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKHTLCUpdate ret_var = HTLCUpdate_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_HTLCUpdate_write(uint32_t obj) {
        LDKHTLCUpdate obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = HTLCUpdate_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_HTLCUpdate_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKHTLCUpdate ret_var = HTLCUpdate_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelMonitor_free(uint32_t this_ptr) {
        LDKChannelMonitor this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelMonitor_free(this_ptr_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelMonitor_write(uint32_t obj) {
        LDKChannelMonitor obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelMonitor_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelMonitor_update_monitor(uint32_t this_arg, uint32_t updates, uint32_t broadcaster, uint32_t fee_estimator, uint32_t logger) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelMonitorUpdate updates_conv;
        updates_conv.inner = (void*)(updates & (~1));
        updates_conv.is_owned = false;
        LDKBroadcasterInterface* broadcaster_conv = (LDKBroadcasterInterface*)broadcaster;
        LDKFeeEstimator* fee_estimator_conv = (LDKFeeEstimator*)fee_estimator;
        LDKLogger* logger_conv = (LDKLogger*)logger;
        LDKCResult_NoneMonitorUpdateErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneMonitorUpdateErrorZ), "LDKCResult_NoneMonitorUpdateErrorZ");
        *ret_conv = ChannelMonitor_update_monitor(&this_arg_conv, &updates_conv, broadcaster_conv, fee_estimator_conv, logger_conv);
        return (long)ret_conv;
}

int64_t  __attribute__((visibility("default"))) TS_ChannelMonitor_get_latest_update_id(uint32_t this_arg) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int64_t ret_val = ChannelMonitor_get_latest_update_id(&this_arg_conv);
        return ret_val;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelMonitor_get_funding_txo(uint32_t this_arg) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKC2Tuple_OutPointScriptZ* ret_ref = MALLOC(sizeof(LDKC2Tuple_OutPointScriptZ), "LDKC2Tuple_OutPointScriptZ");
        *ret_ref = ChannelMonitor_get_funding_txo(&this_arg_conv);
        ret_ref->a = OutPoint_clone(&ret_ref->a);
        ret_ref->b = CVec_u8Z_clone(&ret_ref->b);
        return (long)ret_ref;
}

uint32_tArray  __attribute__((visibility("default"))) TS_ChannelMonitor_get_and_clear_pending_monitor_events(uint32_t this_arg) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKCVec_MonitorEventZ ret_var = ChannelMonitor_get_and_clear_pending_monitor_events(&this_arg_conv);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t o = 0; o < ret_var.datalen; o++) {
                LDKMonitorEvent arr_conv_14_var = ret_var.data[o];
                CHECK((((long)arr_conv_14_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                CHECK((((long)&arr_conv_14_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                long arr_conv_14_ref = (long)arr_conv_14_var.inner;
                if (arr_conv_14_var.is_owned) {
                        arr_conv_14_ref |= 1;
                }
                ret_arr_ptr[o] = arr_conv_14_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_tArray  __attribute__((visibility("default"))) TS_ChannelMonitor_get_and_clear_pending_events(uint32_t this_arg) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKCVec_EventZ ret_var = ChannelMonitor_get_and_clear_pending_events(&this_arg_conv);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t h = 0; h < ret_var.datalen; h++) {
                LDKEvent *arr_conv_7_copy = MALLOC(sizeof(LDKEvent), "LDKEvent");
                *arr_conv_7_copy = Event_clone(&ret_var.data[h]);
                long arr_conv_7_ref = (long)arr_conv_7_copy;
                ret_arr_ptr[h] = arr_conv_7_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

ptrArray  __attribute__((visibility("default"))) TS_ChannelMonitor_get_latest_holder_commitment_txn(uint32_t this_arg, uint32_t logger) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKLogger* logger_conv = (LDKLogger*)logger;
        LDKCVec_TransactionZ ret_var = ChannelMonitor_get_latest_holder_commitment_txn(&this_arg_conv, logger_conv);
        ptrArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native ptrArray Bytes");
        int8_tArray *ret_arr_ptr = (int8_tArray*)(ret_arr + 4);
        for (size_t m = 0; m < ret_var.datalen; m++) {
                LDKTransaction arr_conv_12_var = ret_var.data[m];
                int8_tArray arr_conv_12_arr = init_arr(arr_conv_12_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
                memcpy((uint8_t*)(arr_conv_12_arr + 4), arr_conv_12_var.data, arr_conv_12_var.datalen);
                Transaction_free(arr_conv_12_var);
                ret_arr_ptr[m] = arr_conv_12_arr;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_tArray  __attribute__((visibility("default"))) TS_ChannelMonitor_block_connected(uint32_t this_arg, int8_tArray header, uint32_tArray txdata, int32_t height, uint32_t broadcaster, uint32_t fee_estimator, uint32_t logger) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        LDKCVec_C2Tuple_usizeTransactionZZ txdata_constr;
        txdata_constr.datalen = *((uint32_t*)txdata);
        if (txdata_constr.datalen > 0)
                txdata_constr.data = MALLOC(txdata_constr.datalen * sizeof(LDKC2Tuple_usizeTransactionZ), "LDKCVec_C2Tuple_usizeTransactionZZ Elements");
        else
                txdata_constr.data = NULL;
        uint32_t* txdata_vals = (uint32_t*)(txdata + 4);
        for (size_t e = 0; e < txdata_constr.datalen; e++) {
                uint32_t arr_conv_30 = txdata_vals[e];
                LDKC2Tuple_usizeTransactionZ arr_conv_30_conv = *(LDKC2Tuple_usizeTransactionZ*)arr_conv_30;
                FREE((void*)arr_conv_30);
                txdata_constr.data[e] = arr_conv_30_conv;
        }
        LDKBroadcasterInterface broadcaster_conv = *(LDKBroadcasterInterface*)broadcaster;
        LDKFeeEstimator fee_estimator_conv = *(LDKFeeEstimator*)fee_estimator;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKCVec_C2Tuple_TxidCVec_C2Tuple_u32TxOutZZZZ ret_var = ChannelMonitor_block_connected(&this_arg_conv, header_ref, txdata_constr, height, broadcaster_conv, fee_estimator_conv, logger_conv);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t x = 0; x < ret_var.datalen; x++) {
                LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ* arr_conv_49_ref = MALLOC(sizeof(LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ), "LDKC2Tuple_TxidCVec_C2Tuple_u32TxOutZZZ");
                *arr_conv_49_ref = ret_var.data[x];
                arr_conv_49_ref->a = ThirtyTwoBytes_clone(&arr_conv_49_ref->a);
                arr_conv_49_ref->b = CVec_C2Tuple_u32TxOutZZ_clone(&arr_conv_49_ref->b);
                ret_arr_ptr[x] = (long)arr_conv_49_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelMonitor_block_disconnected(uint32_t this_arg, int8_tArray header, int32_t height, uint32_t broadcaster, uint32_t fee_estimator, uint32_t logger) {
        LDKChannelMonitor this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        LDKBroadcasterInterface broadcaster_conv = *(LDKBroadcasterInterface*)broadcaster;
        LDKFeeEstimator fee_estimator_conv = *(LDKFeeEstimator*)fee_estimator;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        ChannelMonitor_block_disconnected(&this_arg_conv, header_ref, height, broadcaster_conv, fee_estimator_conv, logger_conv);
}

void  __attribute__((visibility("default"))) TS_Persist_free(uint32_t this_ptr) {
        LDKPersist this_ptr_conv = *(LDKPersist*)this_ptr;
        FREE((void*)this_ptr);
        Persist_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelMonitorZ_read(int8_tArray ser, uint32_t arg) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKKeysInterface* arg_conv = (LDKKeysInterface*)arg;
        LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelMonitorZDecodeErrorZ");
        *ret_conv = C2Tuple_BlockHashChannelMonitorZ_read(ser_ref, arg_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_OutPoint_free(uint32_t this_ptr) {
        LDKOutPoint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        OutPoint_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_OutPoint_clone(uint32_t orig) {
        LDKOutPoint orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKOutPoint ret_var = OutPoint_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_OutPoint_get_txid(uint32_t this_ptr) {
        LDKOutPoint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *OutPoint_get_txid(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_OutPoint_set_txid(uint32_t this_ptr, int8_tArray val) {
        LDKOutPoint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        OutPoint_set_txid(&this_ptr_conv, val_ref);
}

int16_t  __attribute__((visibility("default"))) TS_OutPoint_get_index(uint32_t this_ptr) {
        LDKOutPoint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = OutPoint_get_index(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OutPoint_set_index(uint32_t this_ptr, int16_t val) {
        LDKOutPoint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OutPoint_set_index(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_OutPoint_new(int8_tArray txid_arg, int16_t index_arg) {
        LDKThirtyTwoBytes txid_arg_ref;
        CHECK(*((uint32_t*)txid_arg) == 32);
        memcpy(txid_arg_ref.data, (uint8_t*)(txid_arg + 4), 32);
        LDKOutPoint ret_var = OutPoint_new(txid_arg_ref, index_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_OutPoint_to_channel_id(uint32_t this_arg) {
        LDKOutPoint this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OutPoint_to_channel_id(&this_arg_conv).data, 32);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_OutPoint_write(uint32_t obj) {
        LDKOutPoint obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = OutPoint_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_OutPoint_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKOutPoint ret_var = OutPoint_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_SpendableOutputDescriptor_free(uint32_t this_ptr) {
        LDKSpendableOutputDescriptor this_ptr_conv = *(LDKSpendableOutputDescriptor*)this_ptr;
        FREE((void*)this_ptr);
        SpendableOutputDescriptor_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_SpendableOutputDescriptor_clone(uint32_t orig) {
        LDKSpendableOutputDescriptor* orig_conv = (LDKSpendableOutputDescriptor*)orig;
        LDKSpendableOutputDescriptor *ret_copy = MALLOC(sizeof(LDKSpendableOutputDescriptor), "LDKSpendableOutputDescriptor");
        *ret_copy = SpendableOutputDescriptor_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_SpendableOutputDescriptor_write(uint32_t obj) {
        LDKSpendableOutputDescriptor* obj_conv = (LDKSpendableOutputDescriptor*)obj;
        LDKCVec_u8Z arg_var = SpendableOutputDescriptor_write(obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_SpendableOutputDescriptor_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_SpendableOutputDescriptorDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SpendableOutputDescriptorDecodeErrorZ), "LDKCResult_SpendableOutputDescriptorDecodeErrorZ");
        *ret_conv = SpendableOutputDescriptor_read(ser_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelKeys_clone(uint32_t orig) {
        LDKChannelKeys* orig_conv = (LDKChannelKeys*)orig;
        LDKChannelKeys* ret = MALLOC(sizeof(LDKChannelKeys), "LDKChannelKeys");
        *ret = ChannelKeys_clone(orig_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_ChannelKeys_free(uint32_t this_ptr) {
        LDKChannelKeys this_ptr_conv = *(LDKChannelKeys*)this_ptr;
        FREE((void*)this_ptr);
        ChannelKeys_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_KeysInterface_free(uint32_t this_ptr) {
        LDKKeysInterface this_ptr_conv = *(LDKKeysInterface*)this_ptr;
        FREE((void*)this_ptr);
        KeysInterface_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_free(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        InMemoryChannelKeys_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_clone(uint32_t orig) {
        LDKInMemoryChannelKeys orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKInMemoryChannelKeys ret_var = InMemoryChannelKeys_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_funding_key(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_funding_key(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_funding_key(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSecretKey val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.bytes, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_funding_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_revocation_base_key(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_revocation_base_key(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_revocation_base_key(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSecretKey val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.bytes, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_revocation_base_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_payment_key(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_payment_key(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_payment_key(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSecretKey val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.bytes, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_payment_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_delayed_payment_base_key(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_delayed_payment_base_key(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_delayed_payment_base_key(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSecretKey val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.bytes, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_delayed_payment_base_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_htlc_base_key(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_htlc_base_key(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_htlc_base_key(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSecretKey val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.bytes, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_htlc_base_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_commitment_seed(uint32_t this_ptr) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *InMemoryChannelKeys_get_commitment_seed(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_set_commitment_seed(uint32_t this_ptr, int8_tArray val) {
        LDKInMemoryChannelKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        InMemoryChannelKeys_set_commitment_seed(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_new(int8_tArray funding_key, int8_tArray revocation_base_key, int8_tArray payment_key, int8_tArray delayed_payment_base_key, int8_tArray htlc_base_key, int8_tArray commitment_seed, int64_t channel_value_satoshis, uint32_t key_derivation_params) {
        LDKSecretKey funding_key_ref;
        CHECK(*((uint32_t*)funding_key) == 32);
        memcpy(funding_key_ref.bytes, (uint8_t*)(funding_key + 4), 32);
        LDKSecretKey revocation_base_key_ref;
        CHECK(*((uint32_t*)revocation_base_key) == 32);
        memcpy(revocation_base_key_ref.bytes, (uint8_t*)(revocation_base_key + 4), 32);
        LDKSecretKey payment_key_ref;
        CHECK(*((uint32_t*)payment_key) == 32);
        memcpy(payment_key_ref.bytes, (uint8_t*)(payment_key + 4), 32);
        LDKSecretKey delayed_payment_base_key_ref;
        CHECK(*((uint32_t*)delayed_payment_base_key) == 32);
        memcpy(delayed_payment_base_key_ref.bytes, (uint8_t*)(delayed_payment_base_key + 4), 32);
        LDKSecretKey htlc_base_key_ref;
        CHECK(*((uint32_t*)htlc_base_key) == 32);
        memcpy(htlc_base_key_ref.bytes, (uint8_t*)(htlc_base_key + 4), 32);
        LDKThirtyTwoBytes commitment_seed_ref;
        CHECK(*((uint32_t*)commitment_seed) == 32);
        memcpy(commitment_seed_ref.data, (uint8_t*)(commitment_seed + 4), 32);
        LDKC2Tuple_u64u64Z key_derivation_params_conv = *(LDKC2Tuple_u64u64Z*)key_derivation_params;
        FREE((void*)key_derivation_params);
        LDKInMemoryChannelKeys ret_var = InMemoryChannelKeys_new(funding_key_ref, revocation_base_key_ref, payment_key_ref, delayed_payment_base_key_ref, htlc_base_key_ref, commitment_seed_ref, channel_value_satoshis, key_derivation_params_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_counterparty_pubkeys(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = InMemoryChannelKeys_counterparty_pubkeys(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int16_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_counterparty_selected_contest_delay(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int16_t ret_val = InMemoryChannelKeys_counterparty_selected_contest_delay(&this_arg_conv);
        return ret_val;
}

int16_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_holder_selected_contest_delay(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int16_t ret_val = InMemoryChannelKeys_holder_selected_contest_delay(&this_arg_conv);
        return ret_val;
}

jboolean  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_is_outbound(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        jboolean ret_val = InMemoryChannelKeys_is_outbound(&this_arg_conv);
        return ret_val;
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_funding_outpoint(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKOutPoint ret_var = InMemoryChannelKeys_funding_outpoint(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_get_channel_parameters(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelTransactionParameters ret_var = InMemoryChannelKeys_get_channel_parameters(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_as_ChannelKeys(uint32_t this_arg) {
        LDKInMemoryChannelKeys this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelKeys* ret = MALLOC(sizeof(LDKChannelKeys), "LDKChannelKeys");
        *ret = InMemoryChannelKeys_as_ChannelKeys(&this_arg_conv);
        return (long)ret;
}

int8_tArray  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_write(uint32_t obj) {
        LDKInMemoryChannelKeys obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = InMemoryChannelKeys_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_InMemoryChannelKeys_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_InMemoryChannelKeysDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InMemoryChannelKeysDecodeErrorZ), "LDKCResult_InMemoryChannelKeysDecodeErrorZ");
        *ret_conv = InMemoryChannelKeys_read(ser_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_KeysManager_free(uint32_t this_ptr) {
        LDKKeysManager this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        KeysManager_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_KeysManager_new(int8_tArray seed, uint32_t network, int64_t starting_time_secs, int32_t starting_time_nanos) {
        unsigned char seed_arr[32];
        CHECK(*((uint32_t*)seed) == 32);
        memcpy(seed_arr, (uint8_t*)(seed + 4), 32);
        unsigned char (*seed_ref)[32] = &seed_arr;
        LDKNetwork network_conv = LDKNetwork_from_js(network);
        LDKKeysManager ret_var = KeysManager_new(seed_ref, network_conv, starting_time_secs, starting_time_nanos);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_KeysManager_derive_channel_keys(uint32_t this_arg, int64_t channel_value_satoshis, int64_t params_1, int64_t params_2) {
        LDKKeysManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKInMemoryChannelKeys ret_var = KeysManager_derive_channel_keys(&this_arg_conv, channel_value_satoshis, params_1, params_2);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_KeysManager_as_KeysInterface(uint32_t this_arg) {
        LDKKeysManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKKeysInterface* ret = MALLOC(sizeof(LDKKeysInterface), "LDKKeysInterface");
        *ret = KeysManager_as_KeysInterface(&this_arg_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManager_free(uint32_t this_ptr) {
        LDKChannelManager this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelManager_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_free(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelDetails_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelDetails_clone(uint32_t orig) {
        LDKChannelDetails orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelDetails ret_var = ChannelDetails_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelDetails_get_channel_id(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ChannelDetails_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ChannelDetails_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelDetails_get_remote_network_id(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelDetails_get_remote_network_id(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_remote_network_id(uint32_t this_ptr, int8_tArray val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelDetails_set_remote_network_id(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelDetails_get_counterparty_features(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKInitFeatures ret_var = ChannelDetails_get_counterparty_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_counterparty_features(uint32_t this_ptr, uint32_t val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKInitFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        ChannelDetails_set_counterparty_features(&this_ptr_conv, val_conv);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelDetails_get_channel_value_satoshis(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelDetails_get_channel_value_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_channel_value_satoshis(uint32_t this_ptr, int64_t val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelDetails_set_channel_value_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelDetails_get_user_id(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelDetails_get_user_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_user_id(uint32_t this_ptr, int64_t val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelDetails_set_user_id(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelDetails_get_outbound_capacity_msat(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelDetails_get_outbound_capacity_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_outbound_capacity_msat(uint32_t this_ptr, int64_t val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelDetails_set_outbound_capacity_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelDetails_get_inbound_capacity_msat(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelDetails_get_inbound_capacity_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_inbound_capacity_msat(uint32_t this_ptr, int64_t val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelDetails_set_inbound_capacity_msat(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelDetails_get_is_live(uint32_t this_ptr) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ChannelDetails_get_is_live(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelDetails_set_is_live(uint32_t this_ptr, jboolean val) {
        LDKChannelDetails this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelDetails_set_is_live(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_PaymentSendFailure_free(uint32_t this_ptr) {
        LDKPaymentSendFailure this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        PaymentSendFailure_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_new(uint32_t network, uint32_t fee_est, uint32_t chain_monitor, uint32_t tx_broadcaster, uint32_t logger, uint32_t keys_manager, uint32_t config, intptr_t current_blockchain_height) {
        LDKNetwork network_conv = LDKNetwork_from_js(network);
        LDKFeeEstimator fee_est_conv = *(LDKFeeEstimator*)fee_est;
        LDKWatch chain_monitor_conv = *(LDKWatch*)chain_monitor;
        LDKBroadcasterInterface tx_broadcaster_conv = *(LDKBroadcasterInterface*)tx_broadcaster;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKKeysInterface keys_manager_conv = *(LDKKeysInterface*)keys_manager;
        LDKUserConfig config_conv;
        config_conv.inner = (void*)(config & (~1));
        config_conv.is_owned = (config & 1) || (config == 0);
        if (config_conv.inner != NULL)
                config_conv = UserConfig_clone(&config_conv);
        LDKChannelManager ret_var = ChannelManager_new(network_conv, fee_est_conv, chain_monitor_conv, tx_broadcaster_conv, logger_conv, keys_manager_conv, config_conv, current_blockchain_height);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_create_channel(uint32_t this_arg, int8_tArray their_network_key, int64_t channel_value_satoshis, int64_t push_msat, int64_t user_id, uint32_t override_config) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKPublicKey their_network_key_ref;
        CHECK(*((uint32_t*)their_network_key) == 33);
        memcpy(their_network_key_ref.compressed_form, (uint8_t*)(their_network_key + 4), 33);
        LDKUserConfig override_config_conv;
        override_config_conv.inner = (void*)(override_config & (~1));
        override_config_conv.is_owned = (override_config & 1) || (override_config == 0);
        if (override_config_conv.inner != NULL)
                override_config_conv = UserConfig_clone(&override_config_conv);
        LDKCResult_NoneAPIErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneAPIErrorZ), "LDKCResult_NoneAPIErrorZ");
        *ret_conv = ChannelManager_create_channel(&this_arg_conv, their_network_key_ref, channel_value_satoshis, push_msat, user_id, override_config_conv);
        return (long)ret_conv;
}

uint32_tArray  __attribute__((visibility("default"))) TS_ChannelManager_list_channels(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKCVec_ChannelDetailsZ ret_var = ChannelManager_list_channels(&this_arg_conv);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t q = 0; q < ret_var.datalen; q++) {
                LDKChannelDetails arr_conv_16_var = ret_var.data[q];
                CHECK((((long)arr_conv_16_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                CHECK((((long)&arr_conv_16_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                long arr_conv_16_ref = (long)arr_conv_16_var.inner;
                if (arr_conv_16_var.is_owned) {
                        arr_conv_16_ref |= 1;
                }
                ret_arr_ptr[q] = arr_conv_16_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_tArray  __attribute__((visibility("default"))) TS_ChannelManager_list_usable_channels(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKCVec_ChannelDetailsZ ret_var = ChannelManager_list_usable_channels(&this_arg_conv);
        uint32_tArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native uint32_tArray Bytes");
        uint32_t *ret_arr_ptr = (uint32_t*)(ret_arr + 4);
        for (size_t q = 0; q < ret_var.datalen; q++) {
                LDKChannelDetails arr_conv_16_var = ret_var.data[q];
                CHECK((((long)arr_conv_16_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
                CHECK((((long)&arr_conv_16_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
                long arr_conv_16_ref = (long)arr_conv_16_var.inner;
                if (arr_conv_16_var.is_owned) {
                        arr_conv_16_ref |= 1;
                }
                ret_arr_ptr[q] = arr_conv_16_ref;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_close_channel(uint32_t this_arg, int8_tArray channel_id) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char channel_id_arr[32];
        CHECK(*((uint32_t*)channel_id) == 32);
        memcpy(channel_id_arr, (uint8_t*)(channel_id + 4), 32);
        unsigned char (*channel_id_ref)[32] = &channel_id_arr;
        LDKCResult_NoneAPIErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneAPIErrorZ), "LDKCResult_NoneAPIErrorZ");
        *ret_conv = ChannelManager_close_channel(&this_arg_conv, channel_id_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_ChannelManager_force_close_channel(uint32_t this_arg, int8_tArray channel_id) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char channel_id_arr[32];
        CHECK(*((uint32_t*)channel_id) == 32);
        memcpy(channel_id_arr, (uint8_t*)(channel_id + 4), 32);
        unsigned char (*channel_id_ref)[32] = &channel_id_arr;
        ChannelManager_force_close_channel(&this_arg_conv, channel_id_ref);
}

void  __attribute__((visibility("default"))) TS_ChannelManager_force_close_all_channels(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        ChannelManager_force_close_all_channels(&this_arg_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_send_payment(uint32_t this_arg, uint32_t route, int8_tArray payment_hash, int8_tArray payment_secret) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKRoute route_conv;
        route_conv.inner = (void*)(route & (~1));
        route_conv.is_owned = false;
        LDKThirtyTwoBytes payment_hash_ref;
        CHECK(*((uint32_t*)payment_hash) == 32);
        memcpy(payment_hash_ref.data, (uint8_t*)(payment_hash + 4), 32);
        LDKThirtyTwoBytes payment_secret_ref;
        CHECK(*((uint32_t*)payment_secret) == 32);
        memcpy(payment_secret_ref.data, (uint8_t*)(payment_secret + 4), 32);
        LDKCResult_NonePaymentSendFailureZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePaymentSendFailureZ), "LDKCResult_NonePaymentSendFailureZ");
        *ret_conv = ChannelManager_send_payment(&this_arg_conv, &route_conv, payment_hash_ref, payment_secret_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_ChannelManager_funding_transaction_generated(uint32_t this_arg, int8_tArray temporary_channel_id, uint32_t funding_txo) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char temporary_channel_id_arr[32];
        CHECK(*((uint32_t*)temporary_channel_id) == 32);
        memcpy(temporary_channel_id_arr, (uint8_t*)(temporary_channel_id + 4), 32);
        unsigned char (*temporary_channel_id_ref)[32] = &temporary_channel_id_arr;
        LDKOutPoint funding_txo_conv;
        funding_txo_conv.inner = (void*)(funding_txo & (~1));
        funding_txo_conv.is_owned = (funding_txo & 1) || (funding_txo == 0);
        if (funding_txo_conv.inner != NULL)
                funding_txo_conv = OutPoint_clone(&funding_txo_conv);
        ChannelManager_funding_transaction_generated(&this_arg_conv, temporary_channel_id_ref, funding_txo_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelManager_broadcast_node_announcement(uint32_t this_arg, int8_tArray rgb, int8_tArray alias, uint32_tArray addresses) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKThreeBytes rgb_ref;
        CHECK(*((uint32_t*)rgb) == 3);
        memcpy(rgb_ref.data, (uint8_t*)(rgb + 4), 3);
        LDKThirtyTwoBytes alias_ref;
        CHECK(*((uint32_t*)alias) == 32);
        memcpy(alias_ref.data, (uint8_t*)(alias + 4), 32);
        LDKCVec_NetAddressZ addresses_constr;
        addresses_constr.datalen = *((uint32_t*)addresses);
        if (addresses_constr.datalen > 0)
                addresses_constr.data = MALLOC(addresses_constr.datalen * sizeof(LDKNetAddress), "LDKCVec_NetAddressZ Elements");
        else
                addresses_constr.data = NULL;
        uint32_t* addresses_vals = (uint32_t*)(addresses + 4);
        for (size_t m = 0; m < addresses_constr.datalen; m++) {
                uint32_t arr_conv_12 = addresses_vals[m];
                LDKNetAddress arr_conv_12_conv = *(LDKNetAddress*)arr_conv_12;
                FREE((void*)arr_conv_12);
                addresses_constr.data[m] = arr_conv_12_conv;
        }
        ChannelManager_broadcast_node_announcement(&this_arg_conv, rgb_ref, alias_ref, addresses_constr);
}

void  __attribute__((visibility("default"))) TS_ChannelManager_process_pending_htlc_forwards(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        ChannelManager_process_pending_htlc_forwards(&this_arg_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelManager_timer_chan_freshness_every_min(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        ChannelManager_timer_chan_freshness_every_min(&this_arg_conv);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelManager_fail_htlc_backwards(uint32_t this_arg, int8_tArray payment_hash, int8_tArray payment_secret) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char payment_hash_arr[32];
        CHECK(*((uint32_t*)payment_hash) == 32);
        memcpy(payment_hash_arr, (uint8_t*)(payment_hash + 4), 32);
        unsigned char (*payment_hash_ref)[32] = &payment_hash_arr;
        LDKThirtyTwoBytes payment_secret_ref;
        CHECK(*((uint32_t*)payment_secret) == 32);
        memcpy(payment_secret_ref.data, (uint8_t*)(payment_secret + 4), 32);
        jboolean ret_val = ChannelManager_fail_htlc_backwards(&this_arg_conv, payment_hash_ref, payment_secret_ref);
        return ret_val;
}

jboolean  __attribute__((visibility("default"))) TS_ChannelManager_claim_funds(uint32_t this_arg, int8_tArray payment_preimage, int8_tArray payment_secret, int64_t expected_amount) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKThirtyTwoBytes payment_preimage_ref;
        CHECK(*((uint32_t*)payment_preimage) == 32);
        memcpy(payment_preimage_ref.data, (uint8_t*)(payment_preimage + 4), 32);
        LDKThirtyTwoBytes payment_secret_ref;
        CHECK(*((uint32_t*)payment_secret) == 32);
        memcpy(payment_secret_ref.data, (uint8_t*)(payment_secret + 4), 32);
        jboolean ret_val = ChannelManager_claim_funds(&this_arg_conv, payment_preimage_ref, payment_secret_ref, expected_amount);
        return ret_val;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelManager_get_our_node_id(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelManager_get_our_node_id(&this_arg_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelManager_channel_monitor_updated(uint32_t this_arg, uint32_t funding_txo, int64_t highest_applied_update_id) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKOutPoint funding_txo_conv;
        funding_txo_conv.inner = (void*)(funding_txo & (~1));
        funding_txo_conv.is_owned = false;
        ChannelManager_channel_monitor_updated(&this_arg_conv, &funding_txo_conv, highest_applied_update_id);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_as_MessageSendEventsProvider(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKMessageSendEventsProvider* ret = MALLOC(sizeof(LDKMessageSendEventsProvider), "LDKMessageSendEventsProvider");
        *ret = ChannelManager_as_MessageSendEventsProvider(&this_arg_conv);
        return (long)ret;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_as_EventsProvider(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKEventsProvider* ret = MALLOC(sizeof(LDKEventsProvider), "LDKEventsProvider");
        *ret = ChannelManager_as_EventsProvider(&this_arg_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManager_block_connected(uint32_t this_arg, int8_tArray header, uint32_tArray txdata, int32_t height) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        LDKCVec_C2Tuple_usizeTransactionZZ txdata_constr;
        txdata_constr.datalen = *((uint32_t*)txdata);
        if (txdata_constr.datalen > 0)
                txdata_constr.data = MALLOC(txdata_constr.datalen * sizeof(LDKC2Tuple_usizeTransactionZ), "LDKCVec_C2Tuple_usizeTransactionZZ Elements");
        else
                txdata_constr.data = NULL;
        uint32_t* txdata_vals = (uint32_t*)(txdata + 4);
        for (size_t e = 0; e < txdata_constr.datalen; e++) {
                uint32_t arr_conv_30 = txdata_vals[e];
                LDKC2Tuple_usizeTransactionZ arr_conv_30_conv = *(LDKC2Tuple_usizeTransactionZ*)arr_conv_30;
                FREE((void*)arr_conv_30);
                txdata_constr.data[e] = arr_conv_30_conv;
        }
        ChannelManager_block_connected(&this_arg_conv, header_ref, txdata_constr, height);
}

void  __attribute__((visibility("default"))) TS_ChannelManager_block_disconnected(uint32_t this_arg, int8_tArray header) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char header_arr[80];
        CHECK(*((uint32_t*)header) == 80);
        memcpy(header_arr, (uint8_t*)(header + 4), 80);
        unsigned char (*header_ref)[80] = &header_arr;
        ChannelManager_block_disconnected(&this_arg_conv, header_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManager_as_ChannelMessageHandler(uint32_t this_arg) {
        LDKChannelManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelMessageHandler* ret = MALLOC(sizeof(LDKChannelMessageHandler), "LDKChannelMessageHandler");
        *ret = ChannelManager_as_ChannelMessageHandler(&this_arg_conv);
        return (long)ret;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelManager_write(uint32_t obj) {
        LDKChannelManager obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelManager_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_free(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelManagerReadArgs_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_keys_manager(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)ChannelManagerReadArgs_get_keys_manager(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_keys_manager(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKKeysInterface val_conv = *(LDKKeysInterface*)val;
        ChannelManagerReadArgs_set_keys_manager(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_fee_estimator(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)ChannelManagerReadArgs_get_fee_estimator(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_fee_estimator(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKFeeEstimator val_conv = *(LDKFeeEstimator*)val;
        ChannelManagerReadArgs_set_fee_estimator(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_chain_monitor(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)ChannelManagerReadArgs_get_chain_monitor(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_chain_monitor(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKWatch val_conv = *(LDKWatch*)val;
        ChannelManagerReadArgs_set_chain_monitor(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_tx_broadcaster(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)ChannelManagerReadArgs_get_tx_broadcaster(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_tx_broadcaster(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKBroadcasterInterface val_conv = *(LDKBroadcasterInterface*)val;
        ChannelManagerReadArgs_set_tx_broadcaster(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_logger(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)ChannelManagerReadArgs_get_logger(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_logger(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKLogger val_conv = *(LDKLogger*)val;
        ChannelManagerReadArgs_set_logger(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_get_default_config(uint32_t this_ptr) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUserConfig ret_var = ChannelManagerReadArgs_get_default_config(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_set_default_config(uint32_t this_ptr, uint32_t val) {
        LDKChannelManagerReadArgs this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUserConfig val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = UserConfig_clone(&val_conv);
        ChannelManagerReadArgs_set_default_config(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelManagerReadArgs_new(uint32_t keys_manager, uint32_t fee_estimator, uint32_t chain_monitor, uint32_t tx_broadcaster, uint32_t logger, uint32_t default_config, uint32_tArray channel_monitors) {
        LDKKeysInterface keys_manager_conv = *(LDKKeysInterface*)keys_manager;
        LDKFeeEstimator fee_estimator_conv = *(LDKFeeEstimator*)fee_estimator;
        LDKWatch chain_monitor_conv = *(LDKWatch*)chain_monitor;
        LDKBroadcasterInterface tx_broadcaster_conv = *(LDKBroadcasterInterface*)tx_broadcaster;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKUserConfig default_config_conv;
        default_config_conv.inner = (void*)(default_config & (~1));
        default_config_conv.is_owned = (default_config & 1) || (default_config == 0);
        if (default_config_conv.inner != NULL)
                default_config_conv = UserConfig_clone(&default_config_conv);
        LDKCVec_ChannelMonitorZ channel_monitors_constr;
        channel_monitors_constr.datalen = *((uint32_t*)channel_monitors);
        if (channel_monitors_constr.datalen > 0)
                channel_monitors_constr.data = MALLOC(channel_monitors_constr.datalen * sizeof(LDKChannelMonitor), "LDKCVec_ChannelMonitorZ Elements");
        else
                channel_monitors_constr.data = NULL;
        uint32_t* channel_monitors_vals = (uint32_t*)(channel_monitors + 4);
        for (size_t q = 0; q < channel_monitors_constr.datalen; q++) {
                uint32_t arr_conv_16 = channel_monitors_vals[q];
                LDKChannelMonitor arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                // Warning: we may need a move here but can't clone!
                channel_monitors_constr.data[q] = arr_conv_16_conv;
        }
        LDKChannelManagerReadArgs ret_var = ChannelManagerReadArgs_new(keys_manager_conv, fee_estimator_conv, chain_monitor_conv, tx_broadcaster_conv, logger_conv, default_config_conv, channel_monitors_constr);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_C2Tuple_BlockHashChannelManagerZ_read(int8_tArray ser, uint32_t arg) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelManagerReadArgs arg_conv;
        arg_conv.inner = (void*)(arg & (~1));
        arg_conv.is_owned = (arg & 1) || (arg == 0);
        // Warning: we may need a move here but can't clone!
        LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ), "LDKCResult_C2Tuple_BlockHashChannelManagerZDecodeErrorZ");
        *ret_conv = C2Tuple_BlockHashChannelManagerZ_read(ser_ref, arg_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_DecodeError_free(uint32_t this_ptr) {
        LDKDecodeError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        DecodeError_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_Init_free(uint32_t this_ptr) {
        LDKInit this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        Init_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Init_clone(uint32_t orig) {
        LDKInit orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKInit ret_var = Init_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ErrorMessage_free(uint32_t this_ptr) {
        LDKErrorMessage this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ErrorMessage_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ErrorMessage_clone(uint32_t orig) {
        LDKErrorMessage orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKErrorMessage ret_var = ErrorMessage_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ErrorMessage_get_channel_id(uint32_t this_ptr) {
        LDKErrorMessage this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ErrorMessage_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ErrorMessage_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKErrorMessage this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ErrorMessage_set_channel_id(&this_ptr_conv, val_ref);
}

jstring  __attribute__((visibility("default"))) TS_ErrorMessage_get_data(uint32_t this_ptr) {
        LDKErrorMessage this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKStr _str = ErrorMessage_get_data(&this_ptr_conv);
        jstring _conv = str_ref_to_ts(_str.chars, _str.len);
        return _conv;
}

void  __attribute__((visibility("default"))) TS_ErrorMessage_set_data(uint32_t this_ptr, int8_tArray val) {
        LDKErrorMessage this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u8Z val_ref;
        val_ref.datalen = *((uint32_t*)val);
        val_ref.data = MALLOC(val_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(val_ref.data, (uint8_t*)(val + 4), val_ref.datalen);
        ErrorMessage_set_data(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ErrorMessage_new(int8_tArray channel_id_arg, int8_tArray data_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKCVec_u8Z data_arg_ref;
        data_arg_ref.datalen = *((uint32_t*)data_arg);
        data_arg_ref.data = MALLOC(data_arg_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(data_arg_ref.data, (uint8_t*)(data_arg + 4), data_arg_ref.datalen);
        LDKErrorMessage ret_var = ErrorMessage_new(channel_id_arg_ref, data_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_Ping_free(uint32_t this_ptr) {
        LDKPing this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        Ping_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Ping_clone(uint32_t orig) {
        LDKPing orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKPing ret_var = Ping_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int16_t  __attribute__((visibility("default"))) TS_Ping_get_ponglen(uint32_t this_ptr) {
        LDKPing this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = Ping_get_ponglen(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_Ping_set_ponglen(uint32_t this_ptr, int16_t val) {
        LDKPing this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        Ping_set_ponglen(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_Ping_get_byteslen(uint32_t this_ptr) {
        LDKPing this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = Ping_get_byteslen(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_Ping_set_byteslen(uint32_t this_ptr, int16_t val) {
        LDKPing this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        Ping_set_byteslen(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_Ping_new(int16_t ponglen_arg, int16_t byteslen_arg) {
        LDKPing ret_var = Ping_new(ponglen_arg, byteslen_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_Pong_free(uint32_t this_ptr) {
        LDKPong this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        Pong_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Pong_clone(uint32_t orig) {
        LDKPong orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKPong ret_var = Pong_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int16_t  __attribute__((visibility("default"))) TS_Pong_get_byteslen(uint32_t this_ptr) {
        LDKPong this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = Pong_get_byteslen(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_Pong_set_byteslen(uint32_t this_ptr, int16_t val) {
        LDKPong this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        Pong_set_byteslen(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_Pong_new(int16_t byteslen_arg) {
        LDKPong ret_var = Pong_new(byteslen_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_free(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        OpenChannel_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_OpenChannel_clone(uint32_t orig) {
        LDKOpenChannel orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKOpenChannel ret_var = OpenChannel_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_chain_hash(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *OpenChannel_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        OpenChannel_set_chain_hash(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_temporary_channel_id(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *OpenChannel_get_temporary_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_temporary_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        OpenChannel_set_temporary_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_funding_satoshis(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_funding_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_funding_satoshis(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_funding_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_push_msat(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_push_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_push_msat(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_push_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_dust_limit_satoshis(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_dust_limit_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_dust_limit_satoshis(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_dust_limit_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_max_htlc_value_in_flight_msat(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_max_htlc_value_in_flight_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_max_htlc_value_in_flight_msat(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_max_htlc_value_in_flight_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_channel_reserve_satoshis(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_channel_reserve_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_channel_reserve_satoshis(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_channel_reserve_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_OpenChannel_get_htlc_minimum_msat(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = OpenChannel_get_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_htlc_minimum_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_OpenChannel_get_feerate_per_kw(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = OpenChannel_get_feerate_per_kw(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_feerate_per_kw(uint32_t this_ptr, int32_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_feerate_per_kw(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_OpenChannel_get_to_self_delay(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = OpenChannel_get_to_self_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_to_self_delay(uint32_t this_ptr, int16_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_to_self_delay(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_OpenChannel_get_max_accepted_htlcs(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = OpenChannel_get_max_accepted_htlcs(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_max_accepted_htlcs(uint32_t this_ptr, int16_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_max_accepted_htlcs(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_funding_pubkey(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_funding_pubkey(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_funding_pubkey(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_funding_pubkey(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_revocation_basepoint(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_revocation_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_revocation_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_revocation_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_payment_point(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_payment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_payment_point(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_payment_point(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_delayed_payment_basepoint(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_delayed_payment_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_delayed_payment_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_delayed_payment_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_htlc_basepoint(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_htlc_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_htlc_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_htlc_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_get_first_per_commitment_point(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), OpenChannel_get_first_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_first_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        OpenChannel_set_first_per_commitment_point(&this_ptr_conv, val_ref);
}

int8_t  __attribute__((visibility("default"))) TS_OpenChannel_get_channel_flags(uint32_t this_ptr) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_t ret_val = OpenChannel_get_channel_flags(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_OpenChannel_set_channel_flags(uint32_t this_ptr, int8_t val) {
        LDKOpenChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        OpenChannel_set_channel_flags(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_free(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        AcceptChannel_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_AcceptChannel_clone(uint32_t orig) {
        LDKAcceptChannel orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKAcceptChannel ret_var = AcceptChannel_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_temporary_channel_id(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *AcceptChannel_get_temporary_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_temporary_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        AcceptChannel_set_temporary_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_dust_limit_satoshis(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = AcceptChannel_get_dust_limit_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_dust_limit_satoshis(uint32_t this_ptr, int64_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_dust_limit_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_max_htlc_value_in_flight_msat(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = AcceptChannel_get_max_htlc_value_in_flight_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_max_htlc_value_in_flight_msat(uint32_t this_ptr, int64_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_max_htlc_value_in_flight_msat(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_channel_reserve_satoshis(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = AcceptChannel_get_channel_reserve_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_channel_reserve_satoshis(uint32_t this_ptr, int64_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_channel_reserve_satoshis(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_htlc_minimum_msat(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = AcceptChannel_get_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_htlc_minimum_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_minimum_depth(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = AcceptChannel_get_minimum_depth(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_minimum_depth(uint32_t this_ptr, int32_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_minimum_depth(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_to_self_delay(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = AcceptChannel_get_to_self_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_to_self_delay(uint32_t this_ptr, int16_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_to_self_delay(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_AcceptChannel_get_max_accepted_htlcs(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = AcceptChannel_get_max_accepted_htlcs(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_max_accepted_htlcs(uint32_t this_ptr, int16_t val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AcceptChannel_set_max_accepted_htlcs(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_funding_pubkey(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_funding_pubkey(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_funding_pubkey(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_funding_pubkey(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_revocation_basepoint(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_revocation_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_revocation_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_revocation_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_payment_point(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_payment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_payment_point(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_payment_point(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_delayed_payment_basepoint(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_delayed_payment_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_delayed_payment_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_delayed_payment_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_htlc_basepoint(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_htlc_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_htlc_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_htlc_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_get_first_per_commitment_point(uint32_t this_ptr) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AcceptChannel_get_first_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AcceptChannel_set_first_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKAcceptChannel this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        AcceptChannel_set_first_per_commitment_point(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_FundingCreated_free(uint32_t this_ptr) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        FundingCreated_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingCreated_clone(uint32_t orig) {
        LDKFundingCreated orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKFundingCreated ret_var = FundingCreated_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingCreated_get_temporary_channel_id(uint32_t this_ptr) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *FundingCreated_get_temporary_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_FundingCreated_set_temporary_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        FundingCreated_set_temporary_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingCreated_get_funding_txid(uint32_t this_ptr) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *FundingCreated_get_funding_txid(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_FundingCreated_set_funding_txid(uint32_t this_ptr, int8_tArray val) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        FundingCreated_set_funding_txid(&this_ptr_conv, val_ref);
}

int16_t  __attribute__((visibility("default"))) TS_FundingCreated_get_funding_output_index(uint32_t this_ptr) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = FundingCreated_get_funding_output_index(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_FundingCreated_set_funding_output_index(uint32_t this_ptr, int16_t val) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        FundingCreated_set_funding_output_index(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingCreated_get_signature(uint32_t this_ptr) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), FundingCreated_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_FundingCreated_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKFundingCreated this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        FundingCreated_set_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingCreated_new(int8_tArray temporary_channel_id_arg, int8_tArray funding_txid_arg, int16_t funding_output_index_arg, int8_tArray signature_arg) {
        LDKThirtyTwoBytes temporary_channel_id_arg_ref;
        CHECK(*((uint32_t*)temporary_channel_id_arg) == 32);
        memcpy(temporary_channel_id_arg_ref.data, (uint8_t*)(temporary_channel_id_arg + 4), 32);
        LDKThirtyTwoBytes funding_txid_arg_ref;
        CHECK(*((uint32_t*)funding_txid_arg) == 32);
        memcpy(funding_txid_arg_ref.data, (uint8_t*)(funding_txid_arg + 4), 32);
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKFundingCreated ret_var = FundingCreated_new(temporary_channel_id_arg_ref, funding_txid_arg_ref, funding_output_index_arg, signature_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_FundingSigned_free(uint32_t this_ptr) {
        LDKFundingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        FundingSigned_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingSigned_clone(uint32_t orig) {
        LDKFundingSigned orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKFundingSigned ret_var = FundingSigned_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingSigned_get_channel_id(uint32_t this_ptr) {
        LDKFundingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *FundingSigned_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_FundingSigned_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKFundingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        FundingSigned_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingSigned_get_signature(uint32_t this_ptr) {
        LDKFundingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), FundingSigned_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_FundingSigned_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKFundingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        FundingSigned_set_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingSigned_new(int8_tArray channel_id_arg, int8_tArray signature_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKFundingSigned ret_var = FundingSigned_new(channel_id_arg_ref, signature_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_FundingLocked_free(uint32_t this_ptr) {
        LDKFundingLocked this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        FundingLocked_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingLocked_clone(uint32_t orig) {
        LDKFundingLocked orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKFundingLocked ret_var = FundingLocked_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingLocked_get_channel_id(uint32_t this_ptr) {
        LDKFundingLocked this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *FundingLocked_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_FundingLocked_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKFundingLocked this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        FundingLocked_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingLocked_get_next_per_commitment_point(uint32_t this_ptr) {
        LDKFundingLocked this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), FundingLocked_get_next_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_FundingLocked_set_next_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKFundingLocked this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        FundingLocked_set_next_per_commitment_point(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_FundingLocked_new(int8_tArray channel_id_arg, int8_tArray next_per_commitment_point_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKPublicKey next_per_commitment_point_arg_ref;
        CHECK(*((uint32_t*)next_per_commitment_point_arg) == 33);
        memcpy(next_per_commitment_point_arg_ref.compressed_form, (uint8_t*)(next_per_commitment_point_arg + 4), 33);
        LDKFundingLocked ret_var = FundingLocked_new(channel_id_arg_ref, next_per_commitment_point_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_Shutdown_free(uint32_t this_ptr) {
        LDKShutdown this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        Shutdown_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Shutdown_clone(uint32_t orig) {
        LDKShutdown orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKShutdown ret_var = Shutdown_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Shutdown_get_channel_id(uint32_t this_ptr) {
        LDKShutdown this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *Shutdown_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_Shutdown_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKShutdown this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        Shutdown_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_Shutdown_get_scriptpubkey(uint32_t this_ptr) {
        LDKShutdown this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKu8slice arg_var = Shutdown_get_scriptpubkey(&this_ptr_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_Shutdown_set_scriptpubkey(uint32_t this_ptr, int8_tArray val) {
        LDKShutdown this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u8Z val_ref;
        val_ref.datalen = *((uint32_t*)val);
        val_ref.data = MALLOC(val_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(val_ref.data, (uint8_t*)(val + 4), val_ref.datalen);
        Shutdown_set_scriptpubkey(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_Shutdown_new(int8_tArray channel_id_arg, int8_tArray scriptpubkey_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKCVec_u8Z scriptpubkey_arg_ref;
        scriptpubkey_arg_ref.datalen = *((uint32_t*)scriptpubkey_arg);
        scriptpubkey_arg_ref.data = MALLOC(scriptpubkey_arg_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(scriptpubkey_arg_ref.data, (uint8_t*)(scriptpubkey_arg + 4), scriptpubkey_arg_ref.datalen);
        LDKShutdown ret_var = Shutdown_new(channel_id_arg_ref, scriptpubkey_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ClosingSigned_free(uint32_t this_ptr) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ClosingSigned_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ClosingSigned_clone(uint32_t orig) {
        LDKClosingSigned orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKClosingSigned ret_var = ClosingSigned_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ClosingSigned_get_channel_id(uint32_t this_ptr) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ClosingSigned_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ClosingSigned_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ClosingSigned_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_ClosingSigned_get_fee_satoshis(uint32_t this_ptr) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ClosingSigned_get_fee_satoshis(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ClosingSigned_set_fee_satoshis(uint32_t this_ptr, int64_t val) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ClosingSigned_set_fee_satoshis(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_ClosingSigned_get_signature(uint32_t this_ptr) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ClosingSigned_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ClosingSigned_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKClosingSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ClosingSigned_set_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ClosingSigned_new(int8_tArray channel_id_arg, int64_t fee_satoshis_arg, int8_tArray signature_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKClosingSigned ret_var = ClosingSigned_new(channel_id_arg_ref, fee_satoshis_arg, signature_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_free(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UpdateAddHTLC_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateAddHTLC_clone(uint32_t orig) {
        LDKUpdateAddHTLC orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUpdateAddHTLC ret_var = UpdateAddHTLC_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateAddHTLC_get_channel_id(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateAddHTLC_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateAddHTLC_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UpdateAddHTLC_get_htlc_id(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UpdateAddHTLC_get_htlc_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_set_htlc_id(uint32_t this_ptr, int64_t val) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateAddHTLC_set_htlc_id(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_UpdateAddHTLC_get_amount_msat(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UpdateAddHTLC_get_amount_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_set_amount_msat(uint32_t this_ptr, int64_t val) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateAddHTLC_set_amount_msat(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateAddHTLC_get_payment_hash(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateAddHTLC_get_payment_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_set_payment_hash(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateAddHTLC_set_payment_hash(&this_ptr_conv, val_ref);
}

int32_t  __attribute__((visibility("default"))) TS_UpdateAddHTLC_get_cltv_expiry(uint32_t this_ptr) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UpdateAddHTLC_get_cltv_expiry(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateAddHTLC_set_cltv_expiry(uint32_t this_ptr, int32_t val) {
        LDKUpdateAddHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateAddHTLC_set_cltv_expiry(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_free(uint32_t this_ptr) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UpdateFulfillHTLC_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_clone(uint32_t orig) {
        LDKUpdateFulfillHTLC orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUpdateFulfillHTLC ret_var = UpdateFulfillHTLC_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_get_channel_id(uint32_t this_ptr) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateFulfillHTLC_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateFulfillHTLC_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_get_htlc_id(uint32_t this_ptr) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UpdateFulfillHTLC_get_htlc_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_set_htlc_id(uint32_t this_ptr, int64_t val) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateFulfillHTLC_set_htlc_id(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_get_payment_preimage(uint32_t this_ptr) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateFulfillHTLC_get_payment_preimage(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_set_payment_preimage(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateFulfillHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateFulfillHTLC_set_payment_preimage(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_new(int8_tArray channel_id_arg, int64_t htlc_id_arg, int8_tArray payment_preimage_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKThirtyTwoBytes payment_preimage_arg_ref;
        CHECK(*((uint32_t*)payment_preimage_arg) == 32);
        memcpy(payment_preimage_arg_ref.data, (uint8_t*)(payment_preimage_arg + 4), 32);
        LDKUpdateFulfillHTLC ret_var = UpdateFulfillHTLC_new(channel_id_arg_ref, htlc_id_arg, payment_preimage_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UpdateFailHTLC_free(uint32_t this_ptr) {
        LDKUpdateFailHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UpdateFailHTLC_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFailHTLC_clone(uint32_t orig) {
        LDKUpdateFailHTLC orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUpdateFailHTLC ret_var = UpdateFailHTLC_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFailHTLC_get_channel_id(uint32_t this_ptr) {
        LDKUpdateFailHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateFailHTLC_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateFailHTLC_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateFailHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateFailHTLC_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UpdateFailHTLC_get_htlc_id(uint32_t this_ptr) {
        LDKUpdateFailHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UpdateFailHTLC_get_htlc_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateFailHTLC_set_htlc_id(uint32_t this_ptr, int64_t val) {
        LDKUpdateFailHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateFailHTLC_set_htlc_id(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_free(uint32_t this_ptr) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UpdateFailMalformedHTLC_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_clone(uint32_t orig) {
        LDKUpdateFailMalformedHTLC orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUpdateFailMalformedHTLC ret_var = UpdateFailMalformedHTLC_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_get_channel_id(uint32_t this_ptr) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateFailMalformedHTLC_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateFailMalformedHTLC_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_get_htlc_id(uint32_t this_ptr) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UpdateFailMalformedHTLC_get_htlc_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_set_htlc_id(uint32_t this_ptr, int64_t val) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateFailMalformedHTLC_set_htlc_id(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_get_failure_code(uint32_t this_ptr) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = UpdateFailMalformedHTLC_get_failure_code(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_set_failure_code(uint32_t this_ptr, int16_t val) {
        LDKUpdateFailMalformedHTLC this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateFailMalformedHTLC_set_failure_code(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_CommitmentSigned_free(uint32_t this_ptr) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        CommitmentSigned_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentSigned_clone(uint32_t orig) {
        LDKCommitmentSigned orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKCommitmentSigned ret_var = CommitmentSigned_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_CommitmentSigned_get_channel_id(uint32_t this_ptr) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *CommitmentSigned_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_CommitmentSigned_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        CommitmentSigned_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_CommitmentSigned_get_signature(uint32_t this_ptr) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), CommitmentSigned_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_CommitmentSigned_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        CommitmentSigned_set_signature(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_CommitmentSigned_set_htlc_signatures(uint32_t this_ptr, ptrArray val) {
        LDKCommitmentSigned this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_SignatureZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                val_constr.data = NULL;
        int8_tArray* val_vals = (int8_tArray*)(val + 4);
        for (size_t m = 0; m < val_constr.datalen; m++) {
                int8_tArray arr_conv_12 = val_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                val_constr.data[m] = arr_conv_12_ref;
        }
        CommitmentSigned_set_htlc_signatures(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentSigned_new(int8_tArray channel_id_arg, int8_tArray signature_arg, ptrArray htlc_signatures_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKCVec_SignatureZ htlc_signatures_arg_constr;
        htlc_signatures_arg_constr.datalen = *((uint32_t*)htlc_signatures_arg);
        if (htlc_signatures_arg_constr.datalen > 0)
                htlc_signatures_arg_constr.data = MALLOC(htlc_signatures_arg_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                htlc_signatures_arg_constr.data = NULL;
        int8_tArray* htlc_signatures_arg_vals = (int8_tArray*)(htlc_signatures_arg + 4);
        for (size_t m = 0; m < htlc_signatures_arg_constr.datalen; m++) {
                int8_tArray arr_conv_12 = htlc_signatures_arg_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                htlc_signatures_arg_constr.data[m] = arr_conv_12_ref;
        }
        LDKCommitmentSigned ret_var = CommitmentSigned_new(channel_id_arg_ref, signature_arg_ref, htlc_signatures_arg_constr);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_RevokeAndACK_free(uint32_t this_ptr) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        RevokeAndACK_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_RevokeAndACK_clone(uint32_t orig) {
        LDKRevokeAndACK orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKRevokeAndACK ret_var = RevokeAndACK_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_RevokeAndACK_get_channel_id(uint32_t this_ptr) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *RevokeAndACK_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_RevokeAndACK_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        RevokeAndACK_set_channel_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_RevokeAndACK_get_per_commitment_secret(uint32_t this_ptr) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *RevokeAndACK_get_per_commitment_secret(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_RevokeAndACK_set_per_commitment_secret(uint32_t this_ptr, int8_tArray val) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        RevokeAndACK_set_per_commitment_secret(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_RevokeAndACK_get_next_per_commitment_point(uint32_t this_ptr) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), RevokeAndACK_get_next_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_RevokeAndACK_set_next_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKRevokeAndACK this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        RevokeAndACK_set_next_per_commitment_point(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_RevokeAndACK_new(int8_tArray channel_id_arg, int8_tArray per_commitment_secret_arg, int8_tArray next_per_commitment_point_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKThirtyTwoBytes per_commitment_secret_arg_ref;
        CHECK(*((uint32_t*)per_commitment_secret_arg) == 32);
        memcpy(per_commitment_secret_arg_ref.data, (uint8_t*)(per_commitment_secret_arg + 4), 32);
        LDKPublicKey next_per_commitment_point_arg_ref;
        CHECK(*((uint32_t*)next_per_commitment_point_arg) == 33);
        memcpy(next_per_commitment_point_arg_ref.compressed_form, (uint8_t*)(next_per_commitment_point_arg + 4), 33);
        LDKRevokeAndACK ret_var = RevokeAndACK_new(channel_id_arg_ref, per_commitment_secret_arg_ref, next_per_commitment_point_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UpdateFee_free(uint32_t this_ptr) {
        LDKUpdateFee this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UpdateFee_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFee_clone(uint32_t orig) {
        LDKUpdateFee orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUpdateFee ret_var = UpdateFee_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFee_get_channel_id(uint32_t this_ptr) {
        LDKUpdateFee this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UpdateFee_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UpdateFee_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKUpdateFee this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UpdateFee_set_channel_id(&this_ptr_conv, val_ref);
}

int32_t  __attribute__((visibility("default"))) TS_UpdateFee_get_feerate_per_kw(uint32_t this_ptr) {
        LDKUpdateFee this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UpdateFee_get_feerate_per_kw(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UpdateFee_set_feerate_per_kw(uint32_t this_ptr, int32_t val) {
        LDKUpdateFee this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UpdateFee_set_feerate_per_kw(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFee_new(int8_tArray channel_id_arg, int32_t feerate_per_kw_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKUpdateFee ret_var = UpdateFee_new(channel_id_arg_ref, feerate_per_kw_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_DataLossProtect_free(uint32_t this_ptr) {
        LDKDataLossProtect this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        DataLossProtect_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_DataLossProtect_clone(uint32_t orig) {
        LDKDataLossProtect orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKDataLossProtect ret_var = DataLossProtect_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_DataLossProtect_get_your_last_per_commitment_secret(uint32_t this_ptr) {
        LDKDataLossProtect this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *DataLossProtect_get_your_last_per_commitment_secret(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_DataLossProtect_set_your_last_per_commitment_secret(uint32_t this_ptr, int8_tArray val) {
        LDKDataLossProtect this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        DataLossProtect_set_your_last_per_commitment_secret(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_DataLossProtect_get_my_current_per_commitment_point(uint32_t this_ptr) {
        LDKDataLossProtect this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), DataLossProtect_get_my_current_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_DataLossProtect_set_my_current_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKDataLossProtect this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        DataLossProtect_set_my_current_per_commitment_point(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_DataLossProtect_new(int8_tArray your_last_per_commitment_secret_arg, int8_tArray my_current_per_commitment_point_arg) {
        LDKThirtyTwoBytes your_last_per_commitment_secret_arg_ref;
        CHECK(*((uint32_t*)your_last_per_commitment_secret_arg) == 32);
        memcpy(your_last_per_commitment_secret_arg_ref.data, (uint8_t*)(your_last_per_commitment_secret_arg + 4), 32);
        LDKPublicKey my_current_per_commitment_point_arg_ref;
        CHECK(*((uint32_t*)my_current_per_commitment_point_arg) == 33);
        memcpy(my_current_per_commitment_point_arg_ref.compressed_form, (uint8_t*)(my_current_per_commitment_point_arg + 4), 33);
        LDKDataLossProtect ret_var = DataLossProtect_new(your_last_per_commitment_secret_arg_ref, my_current_per_commitment_point_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelReestablish_free(uint32_t this_ptr) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelReestablish_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelReestablish_clone(uint32_t orig) {
        LDKChannelReestablish orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelReestablish ret_var = ChannelReestablish_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelReestablish_get_channel_id(uint32_t this_ptr) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ChannelReestablish_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelReestablish_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ChannelReestablish_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelReestablish_get_next_local_commitment_number(uint32_t this_ptr) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelReestablish_get_next_local_commitment_number(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelReestablish_set_next_local_commitment_number(uint32_t this_ptr, int64_t val) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelReestablish_set_next_local_commitment_number(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_ChannelReestablish_get_next_remote_commitment_number(uint32_t this_ptr) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = ChannelReestablish_get_next_remote_commitment_number(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelReestablish_set_next_remote_commitment_number(uint32_t this_ptr, int64_t val) {
        LDKChannelReestablish this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelReestablish_set_next_remote_commitment_number(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_AnnouncementSignatures_free(uint32_t this_ptr) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        AnnouncementSignatures_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_AnnouncementSignatures_clone(uint32_t orig) {
        LDKAnnouncementSignatures orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKAnnouncementSignatures ret_var = AnnouncementSignatures_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_AnnouncementSignatures_get_channel_id(uint32_t this_ptr) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *AnnouncementSignatures_get_channel_id(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_AnnouncementSignatures_set_channel_id(uint32_t this_ptr, int8_tArray val) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        AnnouncementSignatures_set_channel_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_AnnouncementSignatures_get_short_channel_id(uint32_t this_ptr) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = AnnouncementSignatures_get_short_channel_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_AnnouncementSignatures_set_short_channel_id(uint32_t this_ptr, int64_t val) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        AnnouncementSignatures_set_short_channel_id(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_AnnouncementSignatures_get_node_signature(uint32_t this_ptr) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AnnouncementSignatures_get_node_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AnnouncementSignatures_set_node_signature(uint32_t this_ptr, int8_tArray val) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        AnnouncementSignatures_set_node_signature(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_AnnouncementSignatures_get_bitcoin_signature(uint32_t this_ptr) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), AnnouncementSignatures_get_bitcoin_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_AnnouncementSignatures_set_bitcoin_signature(uint32_t this_ptr, int8_tArray val) {
        LDKAnnouncementSignatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        AnnouncementSignatures_set_bitcoin_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_AnnouncementSignatures_new(int8_tArray channel_id_arg, int64_t short_channel_id_arg, int8_tArray node_signature_arg, int8_tArray bitcoin_signature_arg) {
        LDKThirtyTwoBytes channel_id_arg_ref;
        CHECK(*((uint32_t*)channel_id_arg) == 32);
        memcpy(channel_id_arg_ref.data, (uint8_t*)(channel_id_arg + 4), 32);
        LDKSignature node_signature_arg_ref;
        CHECK(*((uint32_t*)node_signature_arg) == 64);
        memcpy(node_signature_arg_ref.compact_form, (uint8_t*)(node_signature_arg + 4), 64);
        LDKSignature bitcoin_signature_arg_ref;
        CHECK(*((uint32_t*)bitcoin_signature_arg) == 64);
        memcpy(bitcoin_signature_arg_ref.compact_form, (uint8_t*)(bitcoin_signature_arg + 4), 64);
        LDKAnnouncementSignatures ret_var = AnnouncementSignatures_new(channel_id_arg_ref, short_channel_id_arg, node_signature_arg_ref, bitcoin_signature_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NetAddress_free(uint32_t this_ptr) {
        LDKNetAddress this_ptr_conv = *(LDKNetAddress*)this_ptr;
        FREE((void*)this_ptr);
        NetAddress_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NetAddress_clone(uint32_t orig) {
        LDKNetAddress* orig_conv = (LDKNetAddress*)orig;
        LDKNetAddress *ret_copy = MALLOC(sizeof(LDKNetAddress), "LDKNetAddress");
        *ret_copy = NetAddress_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_NetAddress_write(uint32_t obj) {
        LDKNetAddress* obj_conv = (LDKNetAddress*)obj;
        LDKCVec_u8Z arg_var = NetAddress_write(obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Result_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_CResult_NetAddressu8ZDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CResult_NetAddressu8ZDecodeErrorZ), "LDKCResult_CResult_NetAddressu8ZDecodeErrorZ");
        *ret_conv = Result_read(ser_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_free(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UnsignedNodeAnnouncement_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_clone(uint32_t orig) {
        LDKUnsignedNodeAnnouncement orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUnsignedNodeAnnouncement ret_var = UnsignedNodeAnnouncement_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_get_features(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures ret_var = UnsignedNodeAnnouncement_get_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_features(uint32_t this_ptr, uint32_t val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        UnsignedNodeAnnouncement_set_features(&this_ptr_conv, val_conv);
}

int32_t  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_get_timestamp(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UnsignedNodeAnnouncement_get_timestamp(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_timestamp(uint32_t this_ptr, int32_t val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedNodeAnnouncement_set_timestamp(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_get_node_id(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), UnsignedNodeAnnouncement_get_node_id(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_node_id(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        UnsignedNodeAnnouncement_set_node_id(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_get_rgb(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(3, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UnsignedNodeAnnouncement_get_rgb(&this_ptr_conv), 3);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_rgb(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThreeBytes val_ref;
        CHECK(*((uint32_t*)val) == 3);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 3);
        UnsignedNodeAnnouncement_set_rgb(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_get_alias(uint32_t this_ptr) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UnsignedNodeAnnouncement_get_alias(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_alias(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UnsignedNodeAnnouncement_set_alias(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_set_addresses(uint32_t this_ptr, uint32_tArray val) {
        LDKUnsignedNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_NetAddressZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKNetAddress), "LDKCVec_NetAddressZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t m = 0; m < val_constr.datalen; m++) {
                uint32_t arr_conv_12 = val_vals[m];
                LDKNetAddress arr_conv_12_conv = *(LDKNetAddress*)arr_conv_12;
                FREE((void*)arr_conv_12);
                val_constr.data[m] = arr_conv_12_conv;
        }
        UnsignedNodeAnnouncement_set_addresses(&this_ptr_conv, val_constr);
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncement_free(uint32_t this_ptr) {
        LDKNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NodeAnnouncement_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncement_clone(uint32_t orig) {
        LDKNodeAnnouncement orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKNodeAnnouncement ret_var = NodeAnnouncement_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeAnnouncement_get_signature(uint32_t this_ptr) {
        LDKNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), NodeAnnouncement_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncement_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        NodeAnnouncement_set_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncement_get_contents(uint32_t this_ptr) {
        LDKNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedNodeAnnouncement ret_var = NodeAnnouncement_get_contents(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncement_set_contents(uint32_t this_ptr, uint32_t val) {
        LDKNodeAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedNodeAnnouncement val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = UnsignedNodeAnnouncement_clone(&val_conv);
        NodeAnnouncement_set_contents(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncement_new(int8_tArray signature_arg, uint32_t contents_arg) {
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKUnsignedNodeAnnouncement contents_arg_conv;
        contents_arg_conv.inner = (void*)(contents_arg & (~1));
        contents_arg_conv.is_owned = (contents_arg & 1) || (contents_arg == 0);
        if (contents_arg_conv.inner != NULL)
                contents_arg_conv = UnsignedNodeAnnouncement_clone(&contents_arg_conv);
        LDKNodeAnnouncement ret_var = NodeAnnouncement_new(signature_arg_ref, contents_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_free(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UnsignedChannelAnnouncement_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_clone(uint32_t orig) {
        LDKUnsignedChannelAnnouncement orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUnsignedChannelAnnouncement ret_var = UnsignedChannelAnnouncement_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_features(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures ret_var = UnsignedChannelAnnouncement_get_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_features(uint32_t this_ptr, uint32_t val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        UnsignedChannelAnnouncement_set_features(&this_ptr_conv, val_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_chain_hash(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UnsignedChannelAnnouncement_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UnsignedChannelAnnouncement_set_chain_hash(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_short_channel_id(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UnsignedChannelAnnouncement_get_short_channel_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_short_channel_id(uint32_t this_ptr, int64_t val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelAnnouncement_set_short_channel_id(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_node_id_1(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), UnsignedChannelAnnouncement_get_node_id_1(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_node_id_1(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        UnsignedChannelAnnouncement_set_node_id_1(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_node_id_2(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), UnsignedChannelAnnouncement_get_node_id_2(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_node_id_2(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        UnsignedChannelAnnouncement_set_node_id_2(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_bitcoin_key_1(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), UnsignedChannelAnnouncement_get_bitcoin_key_1(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_bitcoin_key_1(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        UnsignedChannelAnnouncement_set_bitcoin_key_1(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_get_bitcoin_key_2(uint32_t this_ptr) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), UnsignedChannelAnnouncement_get_bitcoin_key_2(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_set_bitcoin_key_2(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        UnsignedChannelAnnouncement_set_bitcoin_key_2(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_free(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelAnnouncement_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelAnnouncement_clone(uint32_t orig) {
        LDKChannelAnnouncement orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelAnnouncement ret_var = ChannelAnnouncement_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelAnnouncement_get_node_signature_1(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelAnnouncement_get_node_signature_1(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_set_node_signature_1(uint32_t this_ptr, int8_tArray val) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ChannelAnnouncement_set_node_signature_1(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelAnnouncement_get_node_signature_2(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelAnnouncement_get_node_signature_2(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_set_node_signature_2(uint32_t this_ptr, int8_tArray val) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ChannelAnnouncement_set_node_signature_2(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelAnnouncement_get_bitcoin_signature_1(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelAnnouncement_get_bitcoin_signature_1(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_set_bitcoin_signature_1(uint32_t this_ptr, int8_tArray val) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ChannelAnnouncement_set_bitcoin_signature_1(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelAnnouncement_get_bitcoin_signature_2(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelAnnouncement_get_bitcoin_signature_2(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_set_bitcoin_signature_2(uint32_t this_ptr, int8_tArray val) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ChannelAnnouncement_set_bitcoin_signature_2(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelAnnouncement_get_contents(uint32_t this_ptr) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedChannelAnnouncement ret_var = ChannelAnnouncement_get_contents(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelAnnouncement_set_contents(uint32_t this_ptr, uint32_t val) {
        LDKChannelAnnouncement this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedChannelAnnouncement val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = UnsignedChannelAnnouncement_clone(&val_conv);
        ChannelAnnouncement_set_contents(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelAnnouncement_new(int8_tArray node_signature_1_arg, int8_tArray node_signature_2_arg, int8_tArray bitcoin_signature_1_arg, int8_tArray bitcoin_signature_2_arg, uint32_t contents_arg) {
        LDKSignature node_signature_1_arg_ref;
        CHECK(*((uint32_t*)node_signature_1_arg) == 64);
        memcpy(node_signature_1_arg_ref.compact_form, (uint8_t*)(node_signature_1_arg + 4), 64);
        LDKSignature node_signature_2_arg_ref;
        CHECK(*((uint32_t*)node_signature_2_arg) == 64);
        memcpy(node_signature_2_arg_ref.compact_form, (uint8_t*)(node_signature_2_arg + 4), 64);
        LDKSignature bitcoin_signature_1_arg_ref;
        CHECK(*((uint32_t*)bitcoin_signature_1_arg) == 64);
        memcpy(bitcoin_signature_1_arg_ref.compact_form, (uint8_t*)(bitcoin_signature_1_arg + 4), 64);
        LDKSignature bitcoin_signature_2_arg_ref;
        CHECK(*((uint32_t*)bitcoin_signature_2_arg) == 64);
        memcpy(bitcoin_signature_2_arg_ref.compact_form, (uint8_t*)(bitcoin_signature_2_arg + 4), 64);
        LDKUnsignedChannelAnnouncement contents_arg_conv;
        contents_arg_conv.inner = (void*)(contents_arg & (~1));
        contents_arg_conv.is_owned = (contents_arg & 1) || (contents_arg == 0);
        if (contents_arg_conv.inner != NULL)
                contents_arg_conv = UnsignedChannelAnnouncement_clone(&contents_arg_conv);
        LDKChannelAnnouncement ret_var = ChannelAnnouncement_new(node_signature_1_arg_ref, node_signature_2_arg_ref, bitcoin_signature_1_arg_ref, bitcoin_signature_2_arg_ref, contents_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_free(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        UnsignedChannelUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_clone(uint32_t orig) {
        LDKUnsignedChannelUpdate orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKUnsignedChannelUpdate ret_var = UnsignedChannelUpdate_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_chain_hash(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *UnsignedChannelUpdate_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        UnsignedChannelUpdate_set_chain_hash(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_short_channel_id(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UnsignedChannelUpdate_get_short_channel_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_short_channel_id(uint32_t this_ptr, int64_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_short_channel_id(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_timestamp(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UnsignedChannelUpdate_get_timestamp(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_timestamp(uint32_t this_ptr, int32_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_timestamp(&this_ptr_conv, val);
}

int8_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_flags(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_t ret_val = UnsignedChannelUpdate_get_flags(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_flags(uint32_t this_ptr, int8_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_flags(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_cltv_expiry_delta(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = UnsignedChannelUpdate_get_cltv_expiry_delta(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_cltv_expiry_delta(uint32_t this_ptr, int16_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_cltv_expiry_delta(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_htlc_minimum_msat(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = UnsignedChannelUpdate_get_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_htlc_minimum_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_fee_base_msat(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UnsignedChannelUpdate_get_fee_base_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_fee_base_msat(uint32_t this_ptr, int32_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_fee_base_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_get_fee_proportional_millionths(uint32_t this_ptr) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = UnsignedChannelUpdate_get_fee_proportional_millionths(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_set_fee_proportional_millionths(uint32_t this_ptr, int32_t val) {
        LDKUnsignedChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        UnsignedChannelUpdate_set_fee_proportional_millionths(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_ChannelUpdate_free(uint32_t this_ptr) {
        LDKChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelUpdate_clone(uint32_t orig) {
        LDKChannelUpdate orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelUpdate ret_var = ChannelUpdate_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelUpdate_get_signature(uint32_t this_ptr) {
        LDKChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelUpdate_get_signature(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelUpdate_set_signature(uint32_t this_ptr, int8_tArray val) {
        LDKChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        ChannelUpdate_set_signature(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelUpdate_get_contents(uint32_t this_ptr) {
        LDKChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedChannelUpdate ret_var = ChannelUpdate_get_contents(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelUpdate_set_contents(uint32_t this_ptr, uint32_t val) {
        LDKChannelUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUnsignedChannelUpdate val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = UnsignedChannelUpdate_clone(&val_conv);
        ChannelUpdate_set_contents(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelUpdate_new(int8_tArray signature_arg, uint32_t contents_arg) {
        LDKSignature signature_arg_ref;
        CHECK(*((uint32_t*)signature_arg) == 64);
        memcpy(signature_arg_ref.compact_form, (uint8_t*)(signature_arg + 4), 64);
        LDKUnsignedChannelUpdate contents_arg_conv;
        contents_arg_conv.inner = (void*)(contents_arg & (~1));
        contents_arg_conv.is_owned = (contents_arg & 1) || (contents_arg == 0);
        if (contents_arg_conv.inner != NULL)
                contents_arg_conv = UnsignedChannelUpdate_clone(&contents_arg_conv);
        LDKChannelUpdate ret_var = ChannelUpdate_new(signature_arg_ref, contents_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_QueryChannelRange_free(uint32_t this_ptr) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        QueryChannelRange_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_QueryChannelRange_clone(uint32_t orig) {
        LDKQueryChannelRange orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKQueryChannelRange ret_var = QueryChannelRange_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_QueryChannelRange_get_chain_hash(uint32_t this_ptr) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *QueryChannelRange_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_QueryChannelRange_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        QueryChannelRange_set_chain_hash(&this_ptr_conv, val_ref);
}

int32_t  __attribute__((visibility("default"))) TS_QueryChannelRange_get_first_blocknum(uint32_t this_ptr) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = QueryChannelRange_get_first_blocknum(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_QueryChannelRange_set_first_blocknum(uint32_t this_ptr, int32_t val) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        QueryChannelRange_set_first_blocknum(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_QueryChannelRange_get_number_of_blocks(uint32_t this_ptr) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = QueryChannelRange_get_number_of_blocks(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_QueryChannelRange_set_number_of_blocks(uint32_t this_ptr, int32_t val) {
        LDKQueryChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        QueryChannelRange_set_number_of_blocks(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_QueryChannelRange_new(int8_tArray chain_hash_arg, int32_t first_blocknum_arg, int32_t number_of_blocks_arg) {
        LDKThirtyTwoBytes chain_hash_arg_ref;
        CHECK(*((uint32_t*)chain_hash_arg) == 32);
        memcpy(chain_hash_arg_ref.data, (uint8_t*)(chain_hash_arg + 4), 32);
        LDKQueryChannelRange ret_var = QueryChannelRange_new(chain_hash_arg_ref, first_blocknum_arg, number_of_blocks_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_free(uint32_t this_ptr) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ReplyChannelRange_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyChannelRange_clone(uint32_t orig) {
        LDKReplyChannelRange orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKReplyChannelRange ret_var = ReplyChannelRange_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ReplyChannelRange_get_chain_hash(uint32_t this_ptr) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ReplyChannelRange_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ReplyChannelRange_set_chain_hash(&this_ptr_conv, val_ref);
}

int32_t  __attribute__((visibility("default"))) TS_ReplyChannelRange_get_first_blocknum(uint32_t this_ptr) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = ReplyChannelRange_get_first_blocknum(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_set_first_blocknum(uint32_t this_ptr, int32_t val) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ReplyChannelRange_set_first_blocknum(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_ReplyChannelRange_get_number_of_blocks(uint32_t this_ptr) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = ReplyChannelRange_get_number_of_blocks(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_set_number_of_blocks(uint32_t this_ptr, int32_t val) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ReplyChannelRange_set_number_of_blocks(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ReplyChannelRange_get_full_information(uint32_t this_ptr) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ReplyChannelRange_get_full_information(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_set_full_information(uint32_t this_ptr, jboolean val) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ReplyChannelRange_set_full_information(&this_ptr_conv, val);
}

void  __attribute__((visibility("default"))) TS_ReplyChannelRange_set_short_channel_ids(uint32_t this_ptr, int64_tArray val) {
        LDKReplyChannelRange this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u64Z val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                val_constr.data = NULL;
        int64_t* val_vals = (int64_t*)(val + 4);
        for (size_t i = 0; i < val_constr.datalen; i++) {
                int64_t arr_conv_8 = val_vals[i];
                val_constr.data[i] = arr_conv_8;
        }
        ReplyChannelRange_set_short_channel_ids(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyChannelRange_new(int8_tArray chain_hash_arg, int32_t first_blocknum_arg, int32_t number_of_blocks_arg, jboolean full_information_arg, int64_tArray short_channel_ids_arg) {
        LDKThirtyTwoBytes chain_hash_arg_ref;
        CHECK(*((uint32_t*)chain_hash_arg) == 32);
        memcpy(chain_hash_arg_ref.data, (uint8_t*)(chain_hash_arg + 4), 32);
        LDKCVec_u64Z short_channel_ids_arg_constr;
        short_channel_ids_arg_constr.datalen = *((uint32_t*)short_channel_ids_arg);
        if (short_channel_ids_arg_constr.datalen > 0)
                short_channel_ids_arg_constr.data = MALLOC(short_channel_ids_arg_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                short_channel_ids_arg_constr.data = NULL;
        int64_t* short_channel_ids_arg_vals = (int64_t*)(short_channel_ids_arg + 4);
        for (size_t i = 0; i < short_channel_ids_arg_constr.datalen; i++) {
                int64_t arr_conv_8 = short_channel_ids_arg_vals[i];
                short_channel_ids_arg_constr.data[i] = arr_conv_8;
        }
        LDKReplyChannelRange ret_var = ReplyChannelRange_new(chain_hash_arg_ref, first_blocknum_arg, number_of_blocks_arg, full_information_arg, short_channel_ids_arg_constr);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_QueryShortChannelIds_free(uint32_t this_ptr) {
        LDKQueryShortChannelIds this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        QueryShortChannelIds_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_QueryShortChannelIds_clone(uint32_t orig) {
        LDKQueryShortChannelIds orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKQueryShortChannelIds ret_var = QueryShortChannelIds_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_QueryShortChannelIds_get_chain_hash(uint32_t this_ptr) {
        LDKQueryShortChannelIds this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *QueryShortChannelIds_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_QueryShortChannelIds_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKQueryShortChannelIds this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        QueryShortChannelIds_set_chain_hash(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_QueryShortChannelIds_set_short_channel_ids(uint32_t this_ptr, int64_tArray val) {
        LDKQueryShortChannelIds this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u64Z val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                val_constr.data = NULL;
        int64_t* val_vals = (int64_t*)(val + 4);
        for (size_t i = 0; i < val_constr.datalen; i++) {
                int64_t arr_conv_8 = val_vals[i];
                val_constr.data[i] = arr_conv_8;
        }
        QueryShortChannelIds_set_short_channel_ids(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_QueryShortChannelIds_new(int8_tArray chain_hash_arg, int64_tArray short_channel_ids_arg) {
        LDKThirtyTwoBytes chain_hash_arg_ref;
        CHECK(*((uint32_t*)chain_hash_arg) == 32);
        memcpy(chain_hash_arg_ref.data, (uint8_t*)(chain_hash_arg + 4), 32);
        LDKCVec_u64Z short_channel_ids_arg_constr;
        short_channel_ids_arg_constr.datalen = *((uint32_t*)short_channel_ids_arg);
        if (short_channel_ids_arg_constr.datalen > 0)
                short_channel_ids_arg_constr.data = MALLOC(short_channel_ids_arg_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                short_channel_ids_arg_constr.data = NULL;
        int64_t* short_channel_ids_arg_vals = (int64_t*)(short_channel_ids_arg + 4);
        for (size_t i = 0; i < short_channel_ids_arg_constr.datalen; i++) {
                int64_t arr_conv_8 = short_channel_ids_arg_vals[i];
                short_channel_ids_arg_constr.data[i] = arr_conv_8;
        }
        LDKQueryShortChannelIds ret_var = QueryShortChannelIds_new(chain_hash_arg_ref, short_channel_ids_arg_constr);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_free(uint32_t this_ptr) {
        LDKReplyShortChannelIdsEnd this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ReplyShortChannelIdsEnd_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_clone(uint32_t orig) {
        LDKReplyShortChannelIdsEnd orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKReplyShortChannelIdsEnd ret_var = ReplyShortChannelIdsEnd_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_get_chain_hash(uint32_t this_ptr) {
        LDKReplyShortChannelIdsEnd this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *ReplyShortChannelIdsEnd_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKReplyShortChannelIdsEnd this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        ReplyShortChannelIdsEnd_set_chain_hash(&this_ptr_conv, val_ref);
}

jboolean  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_get_full_information(uint32_t this_ptr) {
        LDKReplyShortChannelIdsEnd this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ReplyShortChannelIdsEnd_get_full_information(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_set_full_information(uint32_t this_ptr, jboolean val) {
        LDKReplyShortChannelIdsEnd this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ReplyShortChannelIdsEnd_set_full_information(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_new(int8_tArray chain_hash_arg, jboolean full_information_arg) {
        LDKThirtyTwoBytes chain_hash_arg_ref;
        CHECK(*((uint32_t*)chain_hash_arg) == 32);
        memcpy(chain_hash_arg_ref.data, (uint8_t*)(chain_hash_arg + 4), 32);
        LDKReplyShortChannelIdsEnd ret_var = ReplyShortChannelIdsEnd_new(chain_hash_arg_ref, full_information_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_GossipTimestampFilter_free(uint32_t this_ptr) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        GossipTimestampFilter_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_GossipTimestampFilter_clone(uint32_t orig) {
        LDKGossipTimestampFilter orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKGossipTimestampFilter ret_var = GossipTimestampFilter_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_GossipTimestampFilter_get_chain_hash(uint32_t this_ptr) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *GossipTimestampFilter_get_chain_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_GossipTimestampFilter_set_chain_hash(uint32_t this_ptr, int8_tArray val) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        GossipTimestampFilter_set_chain_hash(&this_ptr_conv, val_ref);
}

int32_t  __attribute__((visibility("default"))) TS_GossipTimestampFilter_get_first_timestamp(uint32_t this_ptr) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = GossipTimestampFilter_get_first_timestamp(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_GossipTimestampFilter_set_first_timestamp(uint32_t this_ptr, int32_t val) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        GossipTimestampFilter_set_first_timestamp(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_GossipTimestampFilter_get_timestamp_range(uint32_t this_ptr) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = GossipTimestampFilter_get_timestamp_range(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_GossipTimestampFilter_set_timestamp_range(uint32_t this_ptr, int32_t val) {
        LDKGossipTimestampFilter this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        GossipTimestampFilter_set_timestamp_range(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_GossipTimestampFilter_new(int8_tArray chain_hash_arg, int32_t first_timestamp_arg, int32_t timestamp_range_arg) {
        LDKThirtyTwoBytes chain_hash_arg_ref;
        CHECK(*((uint32_t*)chain_hash_arg) == 32);
        memcpy(chain_hash_arg_ref.data, (uint8_t*)(chain_hash_arg + 4), 32);
        LDKGossipTimestampFilter ret_var = GossipTimestampFilter_new(chain_hash_arg_ref, first_timestamp_arg, timestamp_range_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ErrorAction_free(uint32_t this_ptr) {
        LDKErrorAction this_ptr_conv = *(LDKErrorAction*)this_ptr;
        FREE((void*)this_ptr);
        ErrorAction_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ErrorAction_clone(uint32_t orig) {
        LDKErrorAction* orig_conv = (LDKErrorAction*)orig;
        LDKErrorAction *ret_copy = MALLOC(sizeof(LDKErrorAction), "LDKErrorAction");
        *ret_copy = ErrorAction_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_LightningError_free(uint32_t this_ptr) {
        LDKLightningError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        LightningError_free(this_ptr_conv);
}

jstring  __attribute__((visibility("default"))) TS_LightningError_get_err(uint32_t this_ptr) {
        LDKLightningError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKStr _str = LightningError_get_err(&this_ptr_conv);
        jstring _conv = str_ref_to_ts(_str.chars, _str.len);
        return _conv;
}

void  __attribute__((visibility("default"))) TS_LightningError_set_err(uint32_t this_ptr, int8_tArray val) {
        LDKLightningError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u8Z val_ref;
        val_ref.datalen = *((uint32_t*)val);
        val_ref.data = MALLOC(val_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(val_ref.data, (uint8_t*)(val + 4), val_ref.datalen);
        LightningError_set_err(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_LightningError_get_action(uint32_t this_ptr) {
        LDKLightningError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKErrorAction *ret_copy = MALLOC(sizeof(LDKErrorAction), "LDKErrorAction");
        *ret_copy = LightningError_get_action(&this_ptr_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_LightningError_set_action(uint32_t this_ptr, uint32_t val) {
        LDKLightningError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKErrorAction val_conv = *(LDKErrorAction*)val;
        FREE((void*)val);
        LightningError_set_action(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_LightningError_new(int8_tArray err_arg, uint32_t action_arg) {
        LDKCVec_u8Z err_arg_ref;
        err_arg_ref.datalen = *((uint32_t*)err_arg);
        err_arg_ref.data = MALLOC(err_arg_ref.datalen, "LDKCVec_u8Z Bytes");
        memcpy(err_arg_ref.data, (uint8_t*)(err_arg + 4), err_arg_ref.datalen);
        LDKErrorAction action_arg_conv = *(LDKErrorAction*)action_arg;
        FREE((void*)action_arg);
        LDKLightningError ret_var = LightningError_new(err_arg_ref, action_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_free(uint32_t this_ptr) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        CommitmentUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentUpdate_clone(uint32_t orig) {
        LDKCommitmentUpdate orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKCommitmentUpdate ret_var = CommitmentUpdate_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_update_add_htlcs(uint32_t this_ptr, uint32_tArray val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_UpdateAddHTLCZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKUpdateAddHTLC), "LDKCVec_UpdateAddHTLCZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t p = 0; p < val_constr.datalen; p++) {
                uint32_t arr_conv_15 = val_vals[p];
                LDKUpdateAddHTLC arr_conv_15_conv;
                arr_conv_15_conv.inner = (void*)(arr_conv_15 & (~1));
                arr_conv_15_conv.is_owned = (arr_conv_15 & 1) || (arr_conv_15 == 0);
                if (arr_conv_15_conv.inner != NULL)
                        arr_conv_15_conv = UpdateAddHTLC_clone(&arr_conv_15_conv);
                val_constr.data[p] = arr_conv_15_conv;
        }
        CommitmentUpdate_set_update_add_htlcs(&this_ptr_conv, val_constr);
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_update_fulfill_htlcs(uint32_t this_ptr, uint32_tArray val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_UpdateFulfillHTLCZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKUpdateFulfillHTLC), "LDKCVec_UpdateFulfillHTLCZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t t = 0; t < val_constr.datalen; t++) {
                uint32_t arr_conv_19 = val_vals[t];
                LDKUpdateFulfillHTLC arr_conv_19_conv;
                arr_conv_19_conv.inner = (void*)(arr_conv_19 & (~1));
                arr_conv_19_conv.is_owned = (arr_conv_19 & 1) || (arr_conv_19 == 0);
                if (arr_conv_19_conv.inner != NULL)
                        arr_conv_19_conv = UpdateFulfillHTLC_clone(&arr_conv_19_conv);
                val_constr.data[t] = arr_conv_19_conv;
        }
        CommitmentUpdate_set_update_fulfill_htlcs(&this_ptr_conv, val_constr);
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_update_fail_htlcs(uint32_t this_ptr, uint32_tArray val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_UpdateFailHTLCZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKUpdateFailHTLC), "LDKCVec_UpdateFailHTLCZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t q = 0; q < val_constr.datalen; q++) {
                uint32_t arr_conv_16 = val_vals[q];
                LDKUpdateFailHTLC arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                if (arr_conv_16_conv.inner != NULL)
                        arr_conv_16_conv = UpdateFailHTLC_clone(&arr_conv_16_conv);
                val_constr.data[q] = arr_conv_16_conv;
        }
        CommitmentUpdate_set_update_fail_htlcs(&this_ptr_conv, val_constr);
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_update_fail_malformed_htlcs(uint32_t this_ptr, uint32_tArray val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_UpdateFailMalformedHTLCZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKUpdateFailMalformedHTLC), "LDKCVec_UpdateFailMalformedHTLCZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t z = 0; z < val_constr.datalen; z++) {
                uint32_t arr_conv_25 = val_vals[z];
                LDKUpdateFailMalformedHTLC arr_conv_25_conv;
                arr_conv_25_conv.inner = (void*)(arr_conv_25 & (~1));
                arr_conv_25_conv.is_owned = (arr_conv_25 & 1) || (arr_conv_25 == 0);
                if (arr_conv_25_conv.inner != NULL)
                        arr_conv_25_conv = UpdateFailMalformedHTLC_clone(&arr_conv_25_conv);
                val_constr.data[z] = arr_conv_25_conv;
        }
        CommitmentUpdate_set_update_fail_malformed_htlcs(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentUpdate_get_update_fee(uint32_t this_ptr) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUpdateFee ret_var = CommitmentUpdate_get_update_fee(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_update_fee(uint32_t this_ptr, uint32_t val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKUpdateFee val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = UpdateFee_clone(&val_conv);
        CommitmentUpdate_set_update_fee(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentUpdate_get_commitment_signed(uint32_t this_ptr) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCommitmentSigned ret_var = CommitmentUpdate_get_commitment_signed(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CommitmentUpdate_set_commitment_signed(uint32_t this_ptr, uint32_t val) {
        LDKCommitmentUpdate this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCommitmentSigned val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = CommitmentSigned_clone(&val_conv);
        CommitmentUpdate_set_commitment_signed(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentUpdate_new(uint32_tArray update_add_htlcs_arg, uint32_tArray update_fulfill_htlcs_arg, uint32_tArray update_fail_htlcs_arg, uint32_tArray update_fail_malformed_htlcs_arg, uint32_t update_fee_arg, uint32_t commitment_signed_arg) {
        LDKCVec_UpdateAddHTLCZ update_add_htlcs_arg_constr;
        update_add_htlcs_arg_constr.datalen = *((uint32_t*)update_add_htlcs_arg);
        if (update_add_htlcs_arg_constr.datalen > 0)
                update_add_htlcs_arg_constr.data = MALLOC(update_add_htlcs_arg_constr.datalen * sizeof(LDKUpdateAddHTLC), "LDKCVec_UpdateAddHTLCZ Elements");
        else
                update_add_htlcs_arg_constr.data = NULL;
        uint32_t* update_add_htlcs_arg_vals = (uint32_t*)(update_add_htlcs_arg + 4);
        for (size_t p = 0; p < update_add_htlcs_arg_constr.datalen; p++) {
                uint32_t arr_conv_15 = update_add_htlcs_arg_vals[p];
                LDKUpdateAddHTLC arr_conv_15_conv;
                arr_conv_15_conv.inner = (void*)(arr_conv_15 & (~1));
                arr_conv_15_conv.is_owned = (arr_conv_15 & 1) || (arr_conv_15 == 0);
                if (arr_conv_15_conv.inner != NULL)
                        arr_conv_15_conv = UpdateAddHTLC_clone(&arr_conv_15_conv);
                update_add_htlcs_arg_constr.data[p] = arr_conv_15_conv;
        }
        LDKCVec_UpdateFulfillHTLCZ update_fulfill_htlcs_arg_constr;
        update_fulfill_htlcs_arg_constr.datalen = *((uint32_t*)update_fulfill_htlcs_arg);
        if (update_fulfill_htlcs_arg_constr.datalen > 0)
                update_fulfill_htlcs_arg_constr.data = MALLOC(update_fulfill_htlcs_arg_constr.datalen * sizeof(LDKUpdateFulfillHTLC), "LDKCVec_UpdateFulfillHTLCZ Elements");
        else
                update_fulfill_htlcs_arg_constr.data = NULL;
        uint32_t* update_fulfill_htlcs_arg_vals = (uint32_t*)(update_fulfill_htlcs_arg + 4);
        for (size_t t = 0; t < update_fulfill_htlcs_arg_constr.datalen; t++) {
                uint32_t arr_conv_19 = update_fulfill_htlcs_arg_vals[t];
                LDKUpdateFulfillHTLC arr_conv_19_conv;
                arr_conv_19_conv.inner = (void*)(arr_conv_19 & (~1));
                arr_conv_19_conv.is_owned = (arr_conv_19 & 1) || (arr_conv_19 == 0);
                if (arr_conv_19_conv.inner != NULL)
                        arr_conv_19_conv = UpdateFulfillHTLC_clone(&arr_conv_19_conv);
                update_fulfill_htlcs_arg_constr.data[t] = arr_conv_19_conv;
        }
        LDKCVec_UpdateFailHTLCZ update_fail_htlcs_arg_constr;
        update_fail_htlcs_arg_constr.datalen = *((uint32_t*)update_fail_htlcs_arg);
        if (update_fail_htlcs_arg_constr.datalen > 0)
                update_fail_htlcs_arg_constr.data = MALLOC(update_fail_htlcs_arg_constr.datalen * sizeof(LDKUpdateFailHTLC), "LDKCVec_UpdateFailHTLCZ Elements");
        else
                update_fail_htlcs_arg_constr.data = NULL;
        uint32_t* update_fail_htlcs_arg_vals = (uint32_t*)(update_fail_htlcs_arg + 4);
        for (size_t q = 0; q < update_fail_htlcs_arg_constr.datalen; q++) {
                uint32_t arr_conv_16 = update_fail_htlcs_arg_vals[q];
                LDKUpdateFailHTLC arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                if (arr_conv_16_conv.inner != NULL)
                        arr_conv_16_conv = UpdateFailHTLC_clone(&arr_conv_16_conv);
                update_fail_htlcs_arg_constr.data[q] = arr_conv_16_conv;
        }
        LDKCVec_UpdateFailMalformedHTLCZ update_fail_malformed_htlcs_arg_constr;
        update_fail_malformed_htlcs_arg_constr.datalen = *((uint32_t*)update_fail_malformed_htlcs_arg);
        if (update_fail_malformed_htlcs_arg_constr.datalen > 0)
                update_fail_malformed_htlcs_arg_constr.data = MALLOC(update_fail_malformed_htlcs_arg_constr.datalen * sizeof(LDKUpdateFailMalformedHTLC), "LDKCVec_UpdateFailMalformedHTLCZ Elements");
        else
                update_fail_malformed_htlcs_arg_constr.data = NULL;
        uint32_t* update_fail_malformed_htlcs_arg_vals = (uint32_t*)(update_fail_malformed_htlcs_arg + 4);
        for (size_t z = 0; z < update_fail_malformed_htlcs_arg_constr.datalen; z++) {
                uint32_t arr_conv_25 = update_fail_malformed_htlcs_arg_vals[z];
                LDKUpdateFailMalformedHTLC arr_conv_25_conv;
                arr_conv_25_conv.inner = (void*)(arr_conv_25 & (~1));
                arr_conv_25_conv.is_owned = (arr_conv_25 & 1) || (arr_conv_25 == 0);
                if (arr_conv_25_conv.inner != NULL)
                        arr_conv_25_conv = UpdateFailMalformedHTLC_clone(&arr_conv_25_conv);
                update_fail_malformed_htlcs_arg_constr.data[z] = arr_conv_25_conv;
        }
        LDKUpdateFee update_fee_arg_conv;
        update_fee_arg_conv.inner = (void*)(update_fee_arg & (~1));
        update_fee_arg_conv.is_owned = (update_fee_arg & 1) || (update_fee_arg == 0);
        if (update_fee_arg_conv.inner != NULL)
                update_fee_arg_conv = UpdateFee_clone(&update_fee_arg_conv);
        LDKCommitmentSigned commitment_signed_arg_conv;
        commitment_signed_arg_conv.inner = (void*)(commitment_signed_arg & (~1));
        commitment_signed_arg_conv.is_owned = (commitment_signed_arg & 1) || (commitment_signed_arg == 0);
        if (commitment_signed_arg_conv.inner != NULL)
                commitment_signed_arg_conv = CommitmentSigned_clone(&commitment_signed_arg_conv);
        LDKCommitmentUpdate ret_var = CommitmentUpdate_new(update_add_htlcs_arg_constr, update_fulfill_htlcs_arg_constr, update_fail_htlcs_arg_constr, update_fail_malformed_htlcs_arg_constr, update_fee_arg_conv, commitment_signed_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_HTLCFailChannelUpdate_free(uint32_t this_ptr) {
        LDKHTLCFailChannelUpdate this_ptr_conv = *(LDKHTLCFailChannelUpdate*)this_ptr;
        FREE((void*)this_ptr);
        HTLCFailChannelUpdate_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_HTLCFailChannelUpdate_clone(uint32_t orig) {
        LDKHTLCFailChannelUpdate* orig_conv = (LDKHTLCFailChannelUpdate*)orig;
        LDKHTLCFailChannelUpdate *ret_copy = MALLOC(sizeof(LDKHTLCFailChannelUpdate), "LDKHTLCFailChannelUpdate");
        *ret_copy = HTLCFailChannelUpdate_clone(orig_conv);
        long ret_ref = (long)ret_copy;
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelMessageHandler_free(uint32_t this_ptr) {
        LDKChannelMessageHandler this_ptr_conv = *(LDKChannelMessageHandler*)this_ptr;
        FREE((void*)this_ptr);
        ChannelMessageHandler_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_RoutingMessageHandler_free(uint32_t this_ptr) {
        LDKRoutingMessageHandler this_ptr_conv = *(LDKRoutingMessageHandler*)this_ptr;
        FREE((void*)this_ptr);
        RoutingMessageHandler_free(this_ptr_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_AcceptChannel_write(uint32_t obj) {
        LDKAcceptChannel obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = AcceptChannel_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_AcceptChannel_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKAcceptChannel ret_var = AcceptChannel_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_AnnouncementSignatures_write(uint32_t obj) {
        LDKAnnouncementSignatures obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = AnnouncementSignatures_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_AnnouncementSignatures_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKAnnouncementSignatures ret_var = AnnouncementSignatures_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelReestablish_write(uint32_t obj) {
        LDKChannelReestablish obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelReestablish_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelReestablish_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_ChannelReestablishDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ChannelReestablishDecodeErrorZ), "LDKCResult_ChannelReestablishDecodeErrorZ");
        *ret_conv = ChannelReestablish_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_ClosingSigned_write(uint32_t obj) {
        LDKClosingSigned obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ClosingSigned_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ClosingSigned_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKClosingSigned ret_var = ClosingSigned_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_CommitmentSigned_write(uint32_t obj) {
        LDKCommitmentSigned obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = CommitmentSigned_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentSigned_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCommitmentSigned ret_var = CommitmentSigned_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingCreated_write(uint32_t obj) {
        LDKFundingCreated obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = FundingCreated_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_FundingCreated_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKFundingCreated ret_var = FundingCreated_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingSigned_write(uint32_t obj) {
        LDKFundingSigned obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = FundingSigned_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_FundingSigned_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKFundingSigned ret_var = FundingSigned_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_FundingLocked_write(uint32_t obj) {
        LDKFundingLocked obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = FundingLocked_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_FundingLocked_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKFundingLocked ret_var = FundingLocked_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Init_write(uint32_t obj) {
        LDKInit obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = Init_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Init_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_InitDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_InitDecodeErrorZ), "LDKCResult_InitDecodeErrorZ");
        *ret_conv = Init_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_OpenChannel_write(uint32_t obj) {
        LDKOpenChannel obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = OpenChannel_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_OpenChannel_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKOpenChannel ret_var = OpenChannel_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_RevokeAndACK_write(uint32_t obj) {
        LDKRevokeAndACK obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = RevokeAndACK_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_RevokeAndACK_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKRevokeAndACK ret_var = RevokeAndACK_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Shutdown_write(uint32_t obj) {
        LDKShutdown obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = Shutdown_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Shutdown_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKShutdown ret_var = Shutdown_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFailHTLC_write(uint32_t obj) {
        LDKUpdateFailHTLC obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UpdateFailHTLC_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFailHTLC_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKUpdateFailHTLC ret_var = UpdateFailHTLC_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_write(uint32_t obj) {
        LDKUpdateFailMalformedHTLC obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UpdateFailMalformedHTLC_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFailMalformedHTLC_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKUpdateFailMalformedHTLC ret_var = UpdateFailMalformedHTLC_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFee_write(uint32_t obj) {
        LDKUpdateFee obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UpdateFee_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFee_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKUpdateFee ret_var = UpdateFee_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_write(uint32_t obj) {
        LDKUpdateFulfillHTLC obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UpdateFulfillHTLC_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateFulfillHTLC_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKUpdateFulfillHTLC ret_var = UpdateFulfillHTLC_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UpdateAddHTLC_write(uint32_t obj) {
        LDKUpdateAddHTLC obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UpdateAddHTLC_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UpdateAddHTLC_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKUpdateAddHTLC ret_var = UpdateAddHTLC_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Ping_write(uint32_t obj) {
        LDKPing obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = Ping_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Ping_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_PingDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PingDecodeErrorZ), "LDKCResult_PingDecodeErrorZ");
        *ret_conv = Ping_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_Pong_write(uint32_t obj) {
        LDKPong obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = Pong_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Pong_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_PongDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PongDecodeErrorZ), "LDKCResult_PongDecodeErrorZ");
        *ret_conv = Pong_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_write(uint32_t obj) {
        LDKUnsignedChannelAnnouncement obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UnsignedChannelAnnouncement_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedChannelAnnouncement_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ), "LDKCResult_UnsignedChannelAnnouncementDecodeErrorZ");
        *ret_conv = UnsignedChannelAnnouncement_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelAnnouncement_write(uint32_t obj) {
        LDKChannelAnnouncement obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelAnnouncement_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelAnnouncement_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelAnnouncement ret_var = ChannelAnnouncement_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_write(uint32_t obj) {
        LDKUnsignedChannelUpdate obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UnsignedChannelUpdate_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedChannelUpdate_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_UnsignedChannelUpdateDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedChannelUpdateDecodeErrorZ), "LDKCResult_UnsignedChannelUpdateDecodeErrorZ");
        *ret_conv = UnsignedChannelUpdate_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelUpdate_write(uint32_t obj) {
        LDKChannelUpdate obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelUpdate_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelUpdate_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelUpdate ret_var = ChannelUpdate_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ErrorMessage_write(uint32_t obj) {
        LDKErrorMessage obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ErrorMessage_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ErrorMessage_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_ErrorMessageDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ErrorMessageDecodeErrorZ), "LDKCResult_ErrorMessageDecodeErrorZ");
        *ret_conv = ErrorMessage_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_write(uint32_t obj) {
        LDKUnsignedNodeAnnouncement obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = UnsignedNodeAnnouncement_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_UnsignedNodeAnnouncement_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ), "LDKCResult_UnsignedNodeAnnouncementDecodeErrorZ");
        *ret_conv = UnsignedNodeAnnouncement_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeAnnouncement_write(uint32_t obj) {
        LDKNodeAnnouncement obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = NodeAnnouncement_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncement_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKNodeAnnouncement ret_var = NodeAnnouncement_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_QueryShortChannelIds_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_QueryShortChannelIdsDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryShortChannelIdsDecodeErrorZ), "LDKCResult_QueryShortChannelIdsDecodeErrorZ");
        *ret_conv = QueryShortChannelIds_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_QueryShortChannelIds_write(uint32_t obj) {
        LDKQueryShortChannelIds obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = QueryShortChannelIds_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ), "LDKCResult_ReplyShortChannelIdsEndDecodeErrorZ");
        *ret_conv = ReplyShortChannelIdsEnd_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_ReplyShortChannelIdsEnd_write(uint32_t obj) {
        LDKReplyShortChannelIdsEnd obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ReplyShortChannelIdsEnd_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_QueryChannelRange_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_QueryChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_QueryChannelRangeDecodeErrorZ), "LDKCResult_QueryChannelRangeDecodeErrorZ");
        *ret_conv = QueryChannelRange_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_QueryChannelRange_write(uint32_t obj) {
        LDKQueryChannelRange obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = QueryChannelRange_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ReplyChannelRange_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_ReplyChannelRangeDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_ReplyChannelRangeDecodeErrorZ), "LDKCResult_ReplyChannelRangeDecodeErrorZ");
        *ret_conv = ReplyChannelRange_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_ReplyChannelRange_write(uint32_t obj) {
        LDKReplyChannelRange obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ReplyChannelRange_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_GossipTimestampFilter_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_GossipTimestampFilterDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_GossipTimestampFilterDecodeErrorZ), "LDKCResult_GossipTimestampFilterDecodeErrorZ");
        *ret_conv = GossipTimestampFilter_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_GossipTimestampFilter_write(uint32_t obj) {
        LDKGossipTimestampFilter obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = GossipTimestampFilter_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_MessageHandler_free(uint32_t this_ptr) {
        LDKMessageHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        MessageHandler_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_MessageHandler_get_chan_handler(uint32_t this_ptr) {
        LDKMessageHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)MessageHandler_get_chan_handler(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_MessageHandler_set_chan_handler(uint32_t this_ptr, uint32_t val) {
        LDKMessageHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelMessageHandler val_conv = *(LDKChannelMessageHandler*)val;
        MessageHandler_set_chan_handler(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_MessageHandler_get_route_handler(uint32_t this_ptr) {
        LDKMessageHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        long ret_ret = (long)MessageHandler_get_route_handler(&this_ptr_conv);
        return ret_ret;
}

void  __attribute__((visibility("default"))) TS_MessageHandler_set_route_handler(uint32_t this_ptr, uint32_t val) {
        LDKMessageHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingMessageHandler val_conv = *(LDKRoutingMessageHandler*)val;
        MessageHandler_set_route_handler(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_MessageHandler_new(uint32_t chan_handler_arg, uint32_t route_handler_arg) {
        LDKChannelMessageHandler chan_handler_arg_conv = *(LDKChannelMessageHandler*)chan_handler_arg;
        LDKRoutingMessageHandler route_handler_arg_conv = *(LDKRoutingMessageHandler*)route_handler_arg;
        LDKMessageHandler ret_var = MessageHandler_new(chan_handler_arg_conv, route_handler_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_SocketDescriptor_clone(uint32_t orig) {
        LDKSocketDescriptor* orig_conv = (LDKSocketDescriptor*)orig;
        LDKSocketDescriptor* ret = MALLOC(sizeof(LDKSocketDescriptor), "LDKSocketDescriptor");
        *ret = SocketDescriptor_clone(orig_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_SocketDescriptor_free(uint32_t this_ptr) {
        LDKSocketDescriptor this_ptr_conv = *(LDKSocketDescriptor*)this_ptr;
        FREE((void*)this_ptr);
        SocketDescriptor_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_PeerHandleError_free(uint32_t this_ptr) {
        LDKPeerHandleError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        PeerHandleError_free(this_ptr_conv);
}

jboolean  __attribute__((visibility("default"))) TS_PeerHandleError_get_no_connection_possible(uint32_t this_ptr) {
        LDKPeerHandleError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = PeerHandleError_get_no_connection_possible(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_PeerHandleError_set_no_connection_possible(uint32_t this_ptr, jboolean val) {
        LDKPeerHandleError this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        PeerHandleError_set_no_connection_possible(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_PeerHandleError_new(jboolean no_connection_possible_arg) {
        LDKPeerHandleError ret_var = PeerHandleError_new(no_connection_possible_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_PeerManager_free(uint32_t this_ptr) {
        LDKPeerManager this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        PeerManager_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_PeerManager_new(uint32_t message_handler, int8_tArray our_node_secret, int8_tArray ephemeral_random_data, uint32_t logger) {
        LDKMessageHandler message_handler_conv;
        message_handler_conv.inner = (void*)(message_handler & (~1));
        message_handler_conv.is_owned = (message_handler & 1) || (message_handler == 0);
        // Warning: we may need a move here but can't clone!
        LDKSecretKey our_node_secret_ref;
        CHECK(*((uint32_t*)our_node_secret) == 32);
        memcpy(our_node_secret_ref.bytes, (uint8_t*)(our_node_secret + 4), 32);
        unsigned char ephemeral_random_data_arr[32];
        CHECK(*((uint32_t*)ephemeral_random_data) == 32);
        memcpy(ephemeral_random_data_arr, (uint8_t*)(ephemeral_random_data + 4), 32);
        unsigned char (*ephemeral_random_data_ref)[32] = &ephemeral_random_data_arr;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKPeerManager ret_var = PeerManager_new(message_handler_conv, our_node_secret_ref, ephemeral_random_data_ref, logger_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

ptrArray  __attribute__((visibility("default"))) TS_PeerManager_get_peer_node_ids(uint32_t this_arg) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKCVec_PublicKeyZ ret_var = PeerManager_get_peer_node_ids(&this_arg_conv);
        ptrArray ret_arr = init_arr(ret_var.datalen, sizeof(uint32_t), "Native ptrArray Bytes");
        int8_tArray *ret_arr_ptr = (int8_tArray*)(ret_arr + 4);
        for (size_t m = 0; m < ret_var.datalen; m++) {
                int8_tArray arr_conv_12_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
                memcpy((uint8_t*)(arr_conv_12_arr + 4), ret_var.data[m].compressed_form, 33);
                ret_arr_ptr[m] = arr_conv_12_arr;
        }
        FREE(ret_var.data);
        return ret_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_PeerManager_new_outbound_connection(uint32_t this_arg, int8_tArray their_node_id, uint32_t descriptor) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKPublicKey their_node_id_ref;
        CHECK(*((uint32_t*)their_node_id) == 33);
        memcpy(their_node_id_ref.compressed_form, (uint8_t*)(their_node_id + 4), 33);
        LDKSocketDescriptor descriptor_conv = *(LDKSocketDescriptor*)descriptor;
        LDKCResult_CVec_u8ZPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_u8ZPeerHandleErrorZ), "LDKCResult_CVec_u8ZPeerHandleErrorZ");
        *ret_conv = PeerManager_new_outbound_connection(&this_arg_conv, their_node_id_ref, descriptor_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_PeerManager_new_inbound_connection(uint32_t this_arg, uint32_t descriptor) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKSocketDescriptor descriptor_conv = *(LDKSocketDescriptor*)descriptor;
        LDKCResult_NonePeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePeerHandleErrorZ), "LDKCResult_NonePeerHandleErrorZ");
        *ret_conv = PeerManager_new_inbound_connection(&this_arg_conv, descriptor_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_PeerManager_write_buffer_space_avail(uint32_t this_arg, uint32_t descriptor) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKSocketDescriptor* descriptor_conv = (LDKSocketDescriptor*)descriptor;
        LDKCResult_NonePeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NonePeerHandleErrorZ), "LDKCResult_NonePeerHandleErrorZ");
        *ret_conv = PeerManager_write_buffer_space_avail(&this_arg_conv, descriptor_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_PeerManager_read_event(uint32_t this_arg, uint32_t peer_descriptor, int8_tArray data) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKSocketDescriptor* peer_descriptor_conv = (LDKSocketDescriptor*)peer_descriptor;
        LDKu8slice data_ref;
        data_ref.datalen = *((uint32_t*)data);
        data_ref.data = (int8_t*)(data + 4);
        LDKCResult_boolPeerHandleErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_boolPeerHandleErrorZ), "LDKCResult_boolPeerHandleErrorZ");
        *ret_conv = PeerManager_read_event(&this_arg_conv, peer_descriptor_conv, data_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_PeerManager_process_events(uint32_t this_arg) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        PeerManager_process_events(&this_arg_conv);
}

void  __attribute__((visibility("default"))) TS_PeerManager_socket_disconnected(uint32_t this_arg, uint32_t descriptor) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKSocketDescriptor* descriptor_conv = (LDKSocketDescriptor*)descriptor;
        PeerManager_socket_disconnected(&this_arg_conv, descriptor_conv);
}

void  __attribute__((visibility("default"))) TS_PeerManager_timer_tick_occured(uint32_t this_arg) {
        LDKPeerManager this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        PeerManager_timer_tick_occured(&this_arg_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_build_commitment_secret(int8_tArray commitment_seed, int64_t idx) {
        unsigned char commitment_seed_arr[32];
        CHECK(*((uint32_t*)commitment_seed) == 32);
        memcpy(commitment_seed_arr, (uint8_t*)(commitment_seed + 4), 32);
        unsigned char (*commitment_seed_ref)[32] = &commitment_seed_arr;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), build_commitment_secret(commitment_seed_ref, idx).data, 32);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_derive_private_key(int8_tArray per_commitment_point, int8_tArray base_secret) {
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        unsigned char base_secret_arr[32];
        CHECK(*((uint32_t*)base_secret) == 32);
        memcpy(base_secret_arr, (uint8_t*)(base_secret + 4), 32);
        unsigned char (*base_secret_ref)[32] = &base_secret_arr;
        LDKCResult_SecretKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SecretKeySecpErrorZ), "LDKCResult_SecretKeySecpErrorZ");
        *ret_conv = derive_private_key(per_commitment_point_ref, base_secret_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_derive_public_key(int8_tArray per_commitment_point, int8_tArray base_point) {
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        LDKPublicKey base_point_ref;
        CHECK(*((uint32_t*)base_point) == 33);
        memcpy(base_point_ref.compressed_form, (uint8_t*)(base_point + 4), 33);
        LDKCResult_PublicKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PublicKeySecpErrorZ), "LDKCResult_PublicKeySecpErrorZ");
        *ret_conv = derive_public_key(per_commitment_point_ref, base_point_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_derive_private_revocation_key(int8_tArray per_commitment_secret, int8_tArray countersignatory_revocation_base_secret) {
        unsigned char per_commitment_secret_arr[32];
        CHECK(*((uint32_t*)per_commitment_secret) == 32);
        memcpy(per_commitment_secret_arr, (uint8_t*)(per_commitment_secret + 4), 32);
        unsigned char (*per_commitment_secret_ref)[32] = &per_commitment_secret_arr;
        unsigned char countersignatory_revocation_base_secret_arr[32];
        CHECK(*((uint32_t*)countersignatory_revocation_base_secret) == 32);
        memcpy(countersignatory_revocation_base_secret_arr, (uint8_t*)(countersignatory_revocation_base_secret + 4), 32);
        unsigned char (*countersignatory_revocation_base_secret_ref)[32] = &countersignatory_revocation_base_secret_arr;
        LDKCResult_SecretKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_SecretKeySecpErrorZ), "LDKCResult_SecretKeySecpErrorZ");
        *ret_conv = derive_private_revocation_key(per_commitment_secret_ref, countersignatory_revocation_base_secret_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_derive_public_revocation_key(int8_tArray per_commitment_point, int8_tArray countersignatory_revocation_base_point) {
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        LDKPublicKey countersignatory_revocation_base_point_ref;
        CHECK(*((uint32_t*)countersignatory_revocation_base_point) == 33);
        memcpy(countersignatory_revocation_base_point_ref.compressed_form, (uint8_t*)(countersignatory_revocation_base_point + 4), 33);
        LDKCResult_PublicKeySecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_PublicKeySecpErrorZ), "LDKCResult_PublicKeySecpErrorZ");
        *ret_conv = derive_public_revocation_key(per_commitment_point_ref, countersignatory_revocation_base_point_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_free(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        TxCreationKeys_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_TxCreationKeys_clone(uint32_t orig) {
        LDKTxCreationKeys orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKTxCreationKeys ret_var = TxCreationKeys_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_get_per_commitment_point(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TxCreationKeys_get_per_commitment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_set_per_commitment_point(uint32_t this_ptr, int8_tArray val) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        TxCreationKeys_set_per_commitment_point(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_get_revocation_key(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TxCreationKeys_get_revocation_key(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_set_revocation_key(uint32_t this_ptr, int8_tArray val) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        TxCreationKeys_set_revocation_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_get_broadcaster_htlc_key(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TxCreationKeys_get_broadcaster_htlc_key(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_set_broadcaster_htlc_key(uint32_t this_ptr, int8_tArray val) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        TxCreationKeys_set_broadcaster_htlc_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_get_countersignatory_htlc_key(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TxCreationKeys_get_countersignatory_htlc_key(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_set_countersignatory_htlc_key(uint32_t this_ptr, int8_tArray val) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        TxCreationKeys_set_countersignatory_htlc_key(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_get_broadcaster_delayed_payment_key(uint32_t this_ptr) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TxCreationKeys_get_broadcaster_delayed_payment_key(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_TxCreationKeys_set_broadcaster_delayed_payment_key(uint32_t this_ptr, int8_tArray val) {
        LDKTxCreationKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        TxCreationKeys_set_broadcaster_delayed_payment_key(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_TxCreationKeys_new(int8_tArray per_commitment_point_arg, int8_tArray revocation_key_arg, int8_tArray broadcaster_htlc_key_arg, int8_tArray countersignatory_htlc_key_arg, int8_tArray broadcaster_delayed_payment_key_arg) {
        LDKPublicKey per_commitment_point_arg_ref;
        CHECK(*((uint32_t*)per_commitment_point_arg) == 33);
        memcpy(per_commitment_point_arg_ref.compressed_form, (uint8_t*)(per_commitment_point_arg + 4), 33);
        LDKPublicKey revocation_key_arg_ref;
        CHECK(*((uint32_t*)revocation_key_arg) == 33);
        memcpy(revocation_key_arg_ref.compressed_form, (uint8_t*)(revocation_key_arg + 4), 33);
        LDKPublicKey broadcaster_htlc_key_arg_ref;
        CHECK(*((uint32_t*)broadcaster_htlc_key_arg) == 33);
        memcpy(broadcaster_htlc_key_arg_ref.compressed_form, (uint8_t*)(broadcaster_htlc_key_arg + 4), 33);
        LDKPublicKey countersignatory_htlc_key_arg_ref;
        CHECK(*((uint32_t*)countersignatory_htlc_key_arg) == 33);
        memcpy(countersignatory_htlc_key_arg_ref.compressed_form, (uint8_t*)(countersignatory_htlc_key_arg + 4), 33);
        LDKPublicKey broadcaster_delayed_payment_key_arg_ref;
        CHECK(*((uint32_t*)broadcaster_delayed_payment_key_arg) == 33);
        memcpy(broadcaster_delayed_payment_key_arg_ref.compressed_form, (uint8_t*)(broadcaster_delayed_payment_key_arg + 4), 33);
        LDKTxCreationKeys ret_var = TxCreationKeys_new(per_commitment_point_arg_ref, revocation_key_arg_ref, broadcaster_htlc_key_arg_ref, countersignatory_htlc_key_arg_ref, broadcaster_delayed_payment_key_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_TxCreationKeys_write(uint32_t obj) {
        LDKTxCreationKeys obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = TxCreationKeys_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_TxCreationKeys_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKTxCreationKeys ret_var = TxCreationKeys_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_free(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelPublicKeys_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelPublicKeys_clone(uint32_t orig) {
        LDKChannelPublicKeys orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = ChannelPublicKeys_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_get_funding_pubkey(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelPublicKeys_get_funding_pubkey(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_set_funding_pubkey(uint32_t this_ptr, int8_tArray val) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelPublicKeys_set_funding_pubkey(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_get_revocation_basepoint(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelPublicKeys_get_revocation_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_set_revocation_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelPublicKeys_set_revocation_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_get_payment_point(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelPublicKeys_get_payment_point(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_set_payment_point(uint32_t this_ptr, int8_tArray val) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelPublicKeys_set_payment_point(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_get_delayed_payment_basepoint(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelPublicKeys_get_delayed_payment_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_set_delayed_payment_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelPublicKeys_set_delayed_payment_basepoint(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_get_htlc_basepoint(uint32_t this_ptr) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelPublicKeys_get_htlc_basepoint(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelPublicKeys_set_htlc_basepoint(uint32_t this_ptr, int8_tArray val) {
        LDKChannelPublicKeys this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelPublicKeys_set_htlc_basepoint(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelPublicKeys_new(int8_tArray funding_pubkey_arg, int8_tArray revocation_basepoint_arg, int8_tArray payment_point_arg, int8_tArray delayed_payment_basepoint_arg, int8_tArray htlc_basepoint_arg) {
        LDKPublicKey funding_pubkey_arg_ref;
        CHECK(*((uint32_t*)funding_pubkey_arg) == 33);
        memcpy(funding_pubkey_arg_ref.compressed_form, (uint8_t*)(funding_pubkey_arg + 4), 33);
        LDKPublicKey revocation_basepoint_arg_ref;
        CHECK(*((uint32_t*)revocation_basepoint_arg) == 33);
        memcpy(revocation_basepoint_arg_ref.compressed_form, (uint8_t*)(revocation_basepoint_arg + 4), 33);
        LDKPublicKey payment_point_arg_ref;
        CHECK(*((uint32_t*)payment_point_arg) == 33);
        memcpy(payment_point_arg_ref.compressed_form, (uint8_t*)(payment_point_arg + 4), 33);
        LDKPublicKey delayed_payment_basepoint_arg_ref;
        CHECK(*((uint32_t*)delayed_payment_basepoint_arg) == 33);
        memcpy(delayed_payment_basepoint_arg_ref.compressed_form, (uint8_t*)(delayed_payment_basepoint_arg + 4), 33);
        LDKPublicKey htlc_basepoint_arg_ref;
        CHECK(*((uint32_t*)htlc_basepoint_arg) == 33);
        memcpy(htlc_basepoint_arg_ref.compressed_form, (uint8_t*)(htlc_basepoint_arg + 4), 33);
        LDKChannelPublicKeys ret_var = ChannelPublicKeys_new(funding_pubkey_arg_ref, revocation_basepoint_arg_ref, payment_point_arg_ref, delayed_payment_basepoint_arg_ref, htlc_basepoint_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelPublicKeys_write(uint32_t obj) {
        LDKChannelPublicKeys obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelPublicKeys_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelPublicKeys_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelPublicKeys ret_var = ChannelPublicKeys_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_TxCreationKeys_derive_new(int8_tArray per_commitment_point, int8_tArray broadcaster_delayed_payment_base, int8_tArray broadcaster_htlc_base, int8_tArray countersignatory_revocation_base, int8_tArray countersignatory_htlc_base) {
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        LDKPublicKey broadcaster_delayed_payment_base_ref;
        CHECK(*((uint32_t*)broadcaster_delayed_payment_base) == 33);
        memcpy(broadcaster_delayed_payment_base_ref.compressed_form, (uint8_t*)(broadcaster_delayed_payment_base + 4), 33);
        LDKPublicKey broadcaster_htlc_base_ref;
        CHECK(*((uint32_t*)broadcaster_htlc_base) == 33);
        memcpy(broadcaster_htlc_base_ref.compressed_form, (uint8_t*)(broadcaster_htlc_base + 4), 33);
        LDKPublicKey countersignatory_revocation_base_ref;
        CHECK(*((uint32_t*)countersignatory_revocation_base) == 33);
        memcpy(countersignatory_revocation_base_ref.compressed_form, (uint8_t*)(countersignatory_revocation_base + 4), 33);
        LDKPublicKey countersignatory_htlc_base_ref;
        CHECK(*((uint32_t*)countersignatory_htlc_base) == 33);
        memcpy(countersignatory_htlc_base_ref.compressed_form, (uint8_t*)(countersignatory_htlc_base + 4), 33);
        LDKCResult_TxCreationKeysSecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxCreationKeysSecpErrorZ), "LDKCResult_TxCreationKeysSecpErrorZ");
        *ret_conv = TxCreationKeys_derive_new(per_commitment_point_ref, broadcaster_delayed_payment_base_ref, broadcaster_htlc_base_ref, countersignatory_revocation_base_ref, countersignatory_htlc_base_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_TxCreationKeys_from_channel_static_keys(int8_tArray per_commitment_point, uint32_t broadcaster_keys, uint32_t countersignatory_keys) {
        LDKPublicKey per_commitment_point_ref;
        CHECK(*((uint32_t*)per_commitment_point) == 33);
        memcpy(per_commitment_point_ref.compressed_form, (uint8_t*)(per_commitment_point + 4), 33);
        LDKChannelPublicKeys broadcaster_keys_conv;
        broadcaster_keys_conv.inner = (void*)(broadcaster_keys & (~1));
        broadcaster_keys_conv.is_owned = false;
        LDKChannelPublicKeys countersignatory_keys_conv;
        countersignatory_keys_conv.inner = (void*)(countersignatory_keys & (~1));
        countersignatory_keys_conv.is_owned = false;
        LDKCResult_TxCreationKeysSecpErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_TxCreationKeysSecpErrorZ), "LDKCResult_TxCreationKeysSecpErrorZ");
        *ret_conv = TxCreationKeys_from_channel_static_keys(per_commitment_point_ref, &broadcaster_keys_conv, &countersignatory_keys_conv);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_get_revokeable_redeemscript(int8_tArray revocation_key, int16_t contest_delay, int8_tArray broadcaster_delayed_payment_key) {
        LDKPublicKey revocation_key_ref;
        CHECK(*((uint32_t*)revocation_key) == 33);
        memcpy(revocation_key_ref.compressed_form, (uint8_t*)(revocation_key + 4), 33);
        LDKPublicKey broadcaster_delayed_payment_key_ref;
        CHECK(*((uint32_t*)broadcaster_delayed_payment_key) == 33);
        memcpy(broadcaster_delayed_payment_key_ref.compressed_form, (uint8_t*)(broadcaster_delayed_payment_key + 4), 33);
        LDKCVec_u8Z arg_var = get_revokeable_redeemscript(revocation_key_ref, contest_delay, broadcaster_delayed_payment_key_ref);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_free(uint32_t this_ptr) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        HTLCOutputInCommitment_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_clone(uint32_t orig) {
        LDKHTLCOutputInCommitment orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKHTLCOutputInCommitment ret_var = HTLCOutputInCommitment_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

jboolean  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_get_offered(uint32_t this_ptr) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = HTLCOutputInCommitment_get_offered(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_set_offered(uint32_t this_ptr, jboolean val) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        HTLCOutputInCommitment_set_offered(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_get_amount_msat(uint32_t this_ptr) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = HTLCOutputInCommitment_get_amount_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_set_amount_msat(uint32_t this_ptr, int64_t val) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        HTLCOutputInCommitment_set_amount_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_get_cltv_expiry(uint32_t this_ptr) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = HTLCOutputInCommitment_get_cltv_expiry(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_set_cltv_expiry(uint32_t this_ptr, int32_t val) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        HTLCOutputInCommitment_set_cltv_expiry(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_get_payment_hash(uint32_t this_ptr) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *HTLCOutputInCommitment_get_payment_hash(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_set_payment_hash(uint32_t this_ptr, int8_tArray val) {
        LDKHTLCOutputInCommitment this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        HTLCOutputInCommitment_set_payment_hash(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_write(uint32_t obj) {
        LDKHTLCOutputInCommitment obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = HTLCOutputInCommitment_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_HTLCOutputInCommitment_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKHTLCOutputInCommitment ret_var = HTLCOutputInCommitment_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_get_htlc_redeemscript(uint32_t htlc, uint32_t keys) {
        LDKHTLCOutputInCommitment htlc_conv;
        htlc_conv.inner = (void*)(htlc & (~1));
        htlc_conv.is_owned = false;
        LDKTxCreationKeys keys_conv;
        keys_conv.inner = (void*)(keys & (~1));
        keys_conv.is_owned = false;
        LDKCVec_u8Z arg_var = get_htlc_redeemscript(&htlc_conv, &keys_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_make_funding_redeemscript(int8_tArray broadcaster, int8_tArray countersignatory) {
        LDKPublicKey broadcaster_ref;
        CHECK(*((uint32_t*)broadcaster) == 33);
        memcpy(broadcaster_ref.compressed_form, (uint8_t*)(broadcaster + 4), 33);
        LDKPublicKey countersignatory_ref;
        CHECK(*((uint32_t*)countersignatory) == 33);
        memcpy(countersignatory_ref.compressed_form, (uint8_t*)(countersignatory + 4), 33);
        LDKCVec_u8Z arg_var = make_funding_redeemscript(broadcaster_ref, countersignatory_ref);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_build_htlc_transaction(int8_tArray prev_hash, int32_t feerate_per_kw, int16_t contest_delay, uint32_t htlc, int8_tArray broadcaster_delayed_payment_key, int8_tArray revocation_key) {
        unsigned char prev_hash_arr[32];
        CHECK(*((uint32_t*)prev_hash) == 32);
        memcpy(prev_hash_arr, (uint8_t*)(prev_hash + 4), 32);
        unsigned char (*prev_hash_ref)[32] = &prev_hash_arr;
        LDKHTLCOutputInCommitment htlc_conv;
        htlc_conv.inner = (void*)(htlc & (~1));
        htlc_conv.is_owned = false;
        LDKPublicKey broadcaster_delayed_payment_key_ref;
        CHECK(*((uint32_t*)broadcaster_delayed_payment_key) == 33);
        memcpy(broadcaster_delayed_payment_key_ref.compressed_form, (uint8_t*)(broadcaster_delayed_payment_key + 4), 33);
        LDKPublicKey revocation_key_ref;
        CHECK(*((uint32_t*)revocation_key) == 33);
        memcpy(revocation_key_ref.compressed_form, (uint8_t*)(revocation_key + 4), 33);
        LDKTransaction arg_var = build_htlc_transaction(prev_hash_ref, feerate_per_kw, contest_delay, &htlc_conv, broadcaster_delayed_payment_key_ref, revocation_key_ref);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        Transaction_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_free(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelTransactionParameters_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_clone(uint32_t orig) {
        LDKChannelTransactionParameters orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKChannelTransactionParameters ret_var = ChannelTransactionParameters_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_get_holder_pubkeys(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = ChannelTransactionParameters_get_holder_pubkeys(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_set_holder_pubkeys(uint32_t this_ptr, uint32_t val) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelPublicKeys val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelPublicKeys_clone(&val_conv);
        ChannelTransactionParameters_set_holder_pubkeys(&this_ptr_conv, val_conv);
}

int16_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_get_holder_selected_contest_delay(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = ChannelTransactionParameters_get_holder_selected_contest_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_set_holder_selected_contest_delay(uint32_t this_ptr, int16_t val) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelTransactionParameters_set_holder_selected_contest_delay(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_get_is_outbound_from_holder(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = ChannelTransactionParameters_get_is_outbound_from_holder(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_set_is_outbound_from_holder(uint32_t this_ptr, jboolean val) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        ChannelTransactionParameters_set_is_outbound_from_holder(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_get_counterparty_parameters(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCounterpartyChannelTransactionParameters ret_var = ChannelTransactionParameters_get_counterparty_parameters(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_set_counterparty_parameters(uint32_t this_ptr, uint32_t val) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCounterpartyChannelTransactionParameters val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = CounterpartyChannelTransactionParameters_clone(&val_conv);
        ChannelTransactionParameters_set_counterparty_parameters(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_get_funding_outpoint(uint32_t this_ptr) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKOutPoint ret_var = ChannelTransactionParameters_get_funding_outpoint(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_set_funding_outpoint(uint32_t this_ptr, uint32_t val) {
        LDKChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKOutPoint val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = OutPoint_clone(&val_conv);
        ChannelTransactionParameters_set_funding_outpoint(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_new(uint32_t holder_pubkeys_arg, int16_t holder_selected_contest_delay_arg, jboolean is_outbound_from_holder_arg, uint32_t counterparty_parameters_arg, uint32_t funding_outpoint_arg) {
        LDKChannelPublicKeys holder_pubkeys_arg_conv;
        holder_pubkeys_arg_conv.inner = (void*)(holder_pubkeys_arg & (~1));
        holder_pubkeys_arg_conv.is_owned = (holder_pubkeys_arg & 1) || (holder_pubkeys_arg == 0);
        if (holder_pubkeys_arg_conv.inner != NULL)
                holder_pubkeys_arg_conv = ChannelPublicKeys_clone(&holder_pubkeys_arg_conv);
        LDKCounterpartyChannelTransactionParameters counterparty_parameters_arg_conv;
        counterparty_parameters_arg_conv.inner = (void*)(counterparty_parameters_arg & (~1));
        counterparty_parameters_arg_conv.is_owned = (counterparty_parameters_arg & 1) || (counterparty_parameters_arg == 0);
        if (counterparty_parameters_arg_conv.inner != NULL)
                counterparty_parameters_arg_conv = CounterpartyChannelTransactionParameters_clone(&counterparty_parameters_arg_conv);
        LDKOutPoint funding_outpoint_arg_conv;
        funding_outpoint_arg_conv.inner = (void*)(funding_outpoint_arg & (~1));
        funding_outpoint_arg_conv.is_owned = (funding_outpoint_arg & 1) || (funding_outpoint_arg == 0);
        if (funding_outpoint_arg_conv.inner != NULL)
                funding_outpoint_arg_conv = OutPoint_clone(&funding_outpoint_arg_conv);
        LDKChannelTransactionParameters ret_var = ChannelTransactionParameters_new(holder_pubkeys_arg_conv, holder_selected_contest_delay_arg, is_outbound_from_holder_arg, counterparty_parameters_arg_conv, funding_outpoint_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_free(uint32_t this_ptr) {
        LDKCounterpartyChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        CounterpartyChannelTransactionParameters_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_clone(uint32_t orig) {
        LDKCounterpartyChannelTransactionParameters orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKCounterpartyChannelTransactionParameters ret_var = CounterpartyChannelTransactionParameters_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_get_pubkeys(uint32_t this_ptr) {
        LDKCounterpartyChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = CounterpartyChannelTransactionParameters_get_pubkeys(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_set_pubkeys(uint32_t this_ptr, uint32_t val) {
        LDKCounterpartyChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelPublicKeys val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelPublicKeys_clone(&val_conv);
        CounterpartyChannelTransactionParameters_set_pubkeys(&this_ptr_conv, val_conv);
}

int16_t  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_get_selected_contest_delay(uint32_t this_ptr) {
        LDKCounterpartyChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = CounterpartyChannelTransactionParameters_get_selected_contest_delay(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_set_selected_contest_delay(uint32_t this_ptr, int16_t val) {
        LDKCounterpartyChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        CounterpartyChannelTransactionParameters_set_selected_contest_delay(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_new(uint32_t pubkeys_arg, int16_t selected_contest_delay_arg) {
        LDKChannelPublicKeys pubkeys_arg_conv;
        pubkeys_arg_conv.inner = (void*)(pubkeys_arg & (~1));
        pubkeys_arg_conv.is_owned = (pubkeys_arg & 1) || (pubkeys_arg == 0);
        if (pubkeys_arg_conv.inner != NULL)
                pubkeys_arg_conv = ChannelPublicKeys_clone(&pubkeys_arg_conv);
        LDKCounterpartyChannelTransactionParameters ret_var = CounterpartyChannelTransactionParameters_new(pubkeys_arg_conv, selected_contest_delay_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

jboolean  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_is_populated(uint32_t this_arg) {
        LDKChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        jboolean ret_val = ChannelTransactionParameters_is_populated(&this_arg_conv);
        return ret_val;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_as_holder_broadcastable(uint32_t this_arg) {
        LDKChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKDirectedChannelTransactionParameters ret_var = ChannelTransactionParameters_as_holder_broadcastable(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_as_counterparty_broadcastable(uint32_t this_arg) {
        LDKChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKDirectedChannelTransactionParameters ret_var = ChannelTransactionParameters_as_counterparty_broadcastable(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_write(uint32_t obj) {
        LDKCounterpartyChannelTransactionParameters obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = CounterpartyChannelTransactionParameters_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_CounterpartyChannelTransactionParameters_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCounterpartyChannelTransactionParameters ret_var = CounterpartyChannelTransactionParameters_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_write(uint32_t obj) {
        LDKChannelTransactionParameters obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelTransactionParameters_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelTransactionParameters_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelTransactionParameters ret_var = ChannelTransactionParameters_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_free(uint32_t this_ptr) {
        LDKDirectedChannelTransactionParameters this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        DirectedChannelTransactionParameters_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_broadcaster_pubkeys(uint32_t this_arg) {
        LDKDirectedChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = DirectedChannelTransactionParameters_broadcaster_pubkeys(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_countersignatory_pubkeys(uint32_t this_arg) {
        LDKDirectedChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelPublicKeys ret_var = DirectedChannelTransactionParameters_countersignatory_pubkeys(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int16_t  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_contest_delay(uint32_t this_arg) {
        LDKDirectedChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int16_t ret_val = DirectedChannelTransactionParameters_contest_delay(&this_arg_conv);
        return ret_val;
}

jboolean  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_is_outbound(uint32_t this_arg) {
        LDKDirectedChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        jboolean ret_val = DirectedChannelTransactionParameters_is_outbound(&this_arg_conv);
        return ret_val;
}

uint32_t  __attribute__((visibility("default"))) TS_DirectedChannelTransactionParameters_funding_outpoint(uint32_t this_arg) {
        LDKDirectedChannelTransactionParameters this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKOutPoint ret_var = DirectedChannelTransactionParameters_funding_outpoint(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_free(uint32_t this_ptr) {
        LDKHolderCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        HolderCommitmentTransaction_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_clone(uint32_t orig) {
        LDKHolderCommitmentTransaction orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKHolderCommitmentTransaction ret_var = HolderCommitmentTransaction_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_get_counterparty_sig(uint32_t this_ptr) {
        LDKHolderCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), HolderCommitmentTransaction_get_counterparty_sig(&this_ptr_conv).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_set_counterparty_sig(uint32_t this_ptr, int8_tArray val) {
        LDKHolderCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKSignature val_ref;
        CHECK(*((uint32_t*)val) == 64);
        memcpy(val_ref.compact_form, (uint8_t*)(val + 4), 64);
        HolderCommitmentTransaction_set_counterparty_sig(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_set_counterparty_htlc_sigs(uint32_t this_ptr, ptrArray val) {
        LDKHolderCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_SignatureZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                val_constr.data = NULL;
        int8_tArray* val_vals = (int8_tArray*)(val + 4);
        for (size_t m = 0; m < val_constr.datalen; m++) {
                int8_tArray arr_conv_12 = val_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                val_constr.data[m] = arr_conv_12_ref;
        }
        HolderCommitmentTransaction_set_counterparty_htlc_sigs(&this_ptr_conv, val_constr);
}

int8_tArray  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_write(uint32_t obj) {
        LDKHolderCommitmentTransaction obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = HolderCommitmentTransaction_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKHolderCommitmentTransaction ret_var = HolderCommitmentTransaction_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_HolderCommitmentTransaction_new(uint32_t commitment_tx, int8_tArray counterparty_sig, ptrArray counterparty_htlc_sigs, int8_tArray holder_funding_key, int8_tArray counterparty_funding_key) {
        LDKCommitmentTransaction commitment_tx_conv;
        commitment_tx_conv.inner = (void*)(commitment_tx & (~1));
        commitment_tx_conv.is_owned = (commitment_tx & 1) || (commitment_tx == 0);
        if (commitment_tx_conv.inner != NULL)
                commitment_tx_conv = CommitmentTransaction_clone(&commitment_tx_conv);
        LDKSignature counterparty_sig_ref;
        CHECK(*((uint32_t*)counterparty_sig) == 64);
        memcpy(counterparty_sig_ref.compact_form, (uint8_t*)(counterparty_sig + 4), 64);
        LDKCVec_SignatureZ counterparty_htlc_sigs_constr;
        counterparty_htlc_sigs_constr.datalen = *((uint32_t*)counterparty_htlc_sigs);
        if (counterparty_htlc_sigs_constr.datalen > 0)
                counterparty_htlc_sigs_constr.data = MALLOC(counterparty_htlc_sigs_constr.datalen * sizeof(LDKSignature), "LDKCVec_SignatureZ Elements");
        else
                counterparty_htlc_sigs_constr.data = NULL;
        int8_tArray* counterparty_htlc_sigs_vals = (int8_tArray*)(counterparty_htlc_sigs + 4);
        for (size_t m = 0; m < counterparty_htlc_sigs_constr.datalen; m++) {
                int8_tArray arr_conv_12 = counterparty_htlc_sigs_vals[m];
                LDKSignature arr_conv_12_ref;
                CHECK(*((uint32_t*)arr_conv_12) == 64);
                memcpy(arr_conv_12_ref.compact_form, (uint8_t*)(arr_conv_12 + 4), 64);
                counterparty_htlc_sigs_constr.data[m] = arr_conv_12_ref;
        }
        LDKPublicKey holder_funding_key_ref;
        CHECK(*((uint32_t*)holder_funding_key) == 33);
        memcpy(holder_funding_key_ref.compressed_form, (uint8_t*)(holder_funding_key + 4), 33);
        LDKPublicKey counterparty_funding_key_ref;
        CHECK(*((uint32_t*)counterparty_funding_key) == 33);
        memcpy(counterparty_funding_key_ref.compressed_form, (uint8_t*)(counterparty_funding_key + 4), 33);
        LDKHolderCommitmentTransaction ret_var = HolderCommitmentTransaction_new(commitment_tx_conv, counterparty_sig_ref, counterparty_htlc_sigs_constr, holder_funding_key_ref, counterparty_funding_key_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_free(uint32_t this_ptr) {
        LDKBuiltCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        BuiltCommitmentTransaction_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_clone(uint32_t orig) {
        LDKBuiltCommitmentTransaction orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKBuiltCommitmentTransaction ret_var = BuiltCommitmentTransaction_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_get_transaction(uint32_t this_ptr) {
        LDKBuiltCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKTransaction arg_var = BuiltCommitmentTransaction_get_transaction(&this_ptr_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        Transaction_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_set_transaction(uint32_t this_ptr, int8_tArray val) {
        LDKBuiltCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKTransaction val_ref;
        val_ref.datalen = *((uint32_t*)val);
        val_ref.data = MALLOC(val_ref.datalen, "LDKTransaction Bytes");
        memcpy(val_ref.data, (uint8_t*)(val + 4), val_ref.datalen);
        val_ref.data_is_owned = true;
        BuiltCommitmentTransaction_set_transaction(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_get_txid(uint32_t this_ptr) {
        LDKBuiltCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *BuiltCommitmentTransaction_get_txid(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_set_txid(uint32_t this_ptr, int8_tArray val) {
        LDKBuiltCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        BuiltCommitmentTransaction_set_txid(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_new(int8_tArray transaction_arg, int8_tArray txid_arg) {
        LDKTransaction transaction_arg_ref;
        transaction_arg_ref.datalen = *((uint32_t*)transaction_arg);
        transaction_arg_ref.data = MALLOC(transaction_arg_ref.datalen, "LDKTransaction Bytes");
        memcpy(transaction_arg_ref.data, (uint8_t*)(transaction_arg + 4), transaction_arg_ref.datalen);
        transaction_arg_ref.data_is_owned = true;
        LDKThirtyTwoBytes txid_arg_ref;
        CHECK(*((uint32_t*)txid_arg) == 32);
        memcpy(txid_arg_ref.data, (uint8_t*)(txid_arg + 4), 32);
        LDKBuiltCommitmentTransaction ret_var = BuiltCommitmentTransaction_new(transaction_arg_ref, txid_arg_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_write(uint32_t obj) {
        LDKBuiltCommitmentTransaction obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = BuiltCommitmentTransaction_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKBuiltCommitmentTransaction ret_var = BuiltCommitmentTransaction_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_get_sighash_all(uint32_t this_arg, int8_tArray funding_redeemscript, int64_t channel_value_satoshis) {
        LDKBuiltCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKu8slice funding_redeemscript_ref;
        funding_redeemscript_ref.datalen = *((uint32_t*)funding_redeemscript);
        funding_redeemscript_ref.data = (int8_t*)(funding_redeemscript + 4);
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), BuiltCommitmentTransaction_get_sighash_all(&this_arg_conv, funding_redeemscript_ref, channel_value_satoshis).data, 32);
        return arg_arr;
}

int8_tArray  __attribute__((visibility("default"))) TS_BuiltCommitmentTransaction_sign(uint32_t this_arg, int8_tArray funding_key, int8_tArray funding_redeemscript, int64_t channel_value_satoshis) {
        LDKBuiltCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char funding_key_arr[32];
        CHECK(*((uint32_t*)funding_key) == 32);
        memcpy(funding_key_arr, (uint8_t*)(funding_key + 4), 32);
        unsigned char (*funding_key_ref)[32] = &funding_key_arr;
        LDKu8slice funding_redeemscript_ref;
        funding_redeemscript_ref.datalen = *((uint32_t*)funding_redeemscript);
        funding_redeemscript_ref.data = (int8_t*)(funding_redeemscript + 4);
        int8_tArray arg_arr = init_arr(64, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), BuiltCommitmentTransaction_sign(&this_arg_conv, funding_key_ref, funding_redeemscript_ref, channel_value_satoshis).compact_form, 64);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_CommitmentTransaction_free(uint32_t this_ptr) {
        LDKCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        CommitmentTransaction_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_clone(uint32_t orig) {
        LDKCommitmentTransaction orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKCommitmentTransaction ret_var = CommitmentTransaction_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_CommitmentTransaction_write(uint32_t obj) {
        LDKCommitmentTransaction obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = CommitmentTransaction_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCommitmentTransaction ret_var = CommitmentTransaction_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int64_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_commitment_number(uint32_t this_arg) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int64_t ret_val = CommitmentTransaction_commitment_number(&this_arg_conv);
        return ret_val;
}

int64_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_to_broadcaster_value_sat(uint32_t this_arg) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int64_t ret_val = CommitmentTransaction_to_broadcaster_value_sat(&this_arg_conv);
        return ret_val;
}

int64_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_to_countersignatory_value_sat(uint32_t this_arg) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int64_t ret_val = CommitmentTransaction_to_countersignatory_value_sat(&this_arg_conv);
        return ret_val;
}

int32_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_feerate_per_kw(uint32_t this_arg) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int32_t ret_val = CommitmentTransaction_feerate_per_kw(&this_arg_conv);
        return ret_val;
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_trust(uint32_t this_arg) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKTrustedCommitmentTransaction ret_var = CommitmentTransaction_trust(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_CommitmentTransaction_verify(uint32_t this_arg, uint32_t channel_parameters, uint32_t broadcaster_keys, uint32_t countersignatory_keys) {
        LDKCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKDirectedChannelTransactionParameters channel_parameters_conv;
        channel_parameters_conv.inner = (void*)(channel_parameters & (~1));
        channel_parameters_conv.is_owned = false;
        LDKChannelPublicKeys broadcaster_keys_conv;
        broadcaster_keys_conv.inner = (void*)(broadcaster_keys & (~1));
        broadcaster_keys_conv.is_owned = false;
        LDKChannelPublicKeys countersignatory_keys_conv;
        countersignatory_keys_conv.inner = (void*)(countersignatory_keys & (~1));
        countersignatory_keys_conv.is_owned = false;
        LDKCResult_TrustedCommitmentTransactionNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_TrustedCommitmentTransactionNoneZ), "LDKCResult_TrustedCommitmentTransactionNoneZ");
        *ret_conv = CommitmentTransaction_verify(&this_arg_conv, &channel_parameters_conv, &broadcaster_keys_conv, &countersignatory_keys_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_TrustedCommitmentTransaction_free(uint32_t this_ptr) {
        LDKTrustedCommitmentTransaction this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        TrustedCommitmentTransaction_free(this_ptr_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_TrustedCommitmentTransaction_txid(uint32_t this_arg) {
        LDKTrustedCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), TrustedCommitmentTransaction_txid(&this_arg_conv).data, 32);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_TrustedCommitmentTransaction_built_transaction(uint32_t this_arg) {
        LDKTrustedCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKBuiltCommitmentTransaction ret_var = TrustedCommitmentTransaction_built_transaction(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_TrustedCommitmentTransaction_keys(uint32_t this_arg) {
        LDKTrustedCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKTxCreationKeys ret_var = TrustedCommitmentTransaction_keys(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_TrustedCommitmentTransaction_get_htlc_sigs(uint32_t this_arg, int8_tArray htlc_base_key, uint32_t channel_parameters) {
        LDKTrustedCommitmentTransaction this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        unsigned char htlc_base_key_arr[32];
        CHECK(*((uint32_t*)htlc_base_key) == 32);
        memcpy(htlc_base_key_arr, (uint8_t*)(htlc_base_key + 4), 32);
        unsigned char (*htlc_base_key_ref)[32] = &htlc_base_key_arr;
        LDKDirectedChannelTransactionParameters channel_parameters_conv;
        channel_parameters_conv.inner = (void*)(channel_parameters & (~1));
        channel_parameters_conv.is_owned = false;
        LDKCResult_CVec_SignatureZNoneZ* ret_conv = MALLOC(sizeof(LDKCResult_CVec_SignatureZNoneZ), "LDKCResult_CVec_SignatureZNoneZ");
        *ret_conv = TrustedCommitmentTransaction_get_htlc_sigs(&this_arg_conv, htlc_base_key_ref, &channel_parameters_conv);
        return (long)ret_conv;
}

int64_t  __attribute__((visibility("default"))) TS_get_commitment_transaction_number_obscure_factor(int8_tArray broadcaster_payment_basepoint, int8_tArray countersignatory_payment_basepoint, jboolean outbound_from_broadcaster) {
        LDKPublicKey broadcaster_payment_basepoint_ref;
        CHECK(*((uint32_t*)broadcaster_payment_basepoint) == 33);
        memcpy(broadcaster_payment_basepoint_ref.compressed_form, (uint8_t*)(broadcaster_payment_basepoint + 4), 33);
        LDKPublicKey countersignatory_payment_basepoint_ref;
        CHECK(*((uint32_t*)countersignatory_payment_basepoint) == 33);
        memcpy(countersignatory_payment_basepoint_ref.compressed_form, (uint8_t*)(countersignatory_payment_basepoint + 4), 33);
        int64_t ret_val = get_commitment_transaction_number_obscure_factor(broadcaster_payment_basepoint_ref, countersignatory_payment_basepoint_ref, outbound_from_broadcaster);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_InitFeatures_free(uint32_t this_ptr) {
        LDKInitFeatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        InitFeatures_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_NodeFeatures_free(uint32_t this_ptr) {
        LDKNodeFeatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NodeFeatures_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_ChannelFeatures_free(uint32_t this_ptr) {
        LDKChannelFeatures this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelFeatures_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_RouteHop_free(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        RouteHop_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHop_clone(uint32_t orig) {
        LDKRouteHop orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKRouteHop ret_var = RouteHop_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_RouteHop_get_pubkey(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), RouteHop_get_pubkey(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_pubkey(uint32_t this_ptr, int8_tArray val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        RouteHop_set_pubkey(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHop_get_node_features(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures ret_var = RouteHop_get_node_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_node_features(uint32_t this_ptr, uint32_t val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        RouteHop_set_node_features(&this_ptr_conv, val_conv);
}

int64_t  __attribute__((visibility("default"))) TS_RouteHop_get_short_channel_id(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = RouteHop_get_short_channel_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_short_channel_id(uint32_t this_ptr, int64_t val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHop_set_short_channel_id(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHop_get_channel_features(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures ret_var = RouteHop_get_channel_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_channel_features(uint32_t this_ptr, uint32_t val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        RouteHop_set_channel_features(&this_ptr_conv, val_conv);
}

int64_t  __attribute__((visibility("default"))) TS_RouteHop_get_fee_msat(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = RouteHop_get_fee_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_fee_msat(uint32_t this_ptr, int64_t val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHop_set_fee_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_RouteHop_get_cltv_expiry_delta(uint32_t this_ptr) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = RouteHop_get_cltv_expiry_delta(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHop_set_cltv_expiry_delta(uint32_t this_ptr, int32_t val) {
        LDKRouteHop this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHop_set_cltv_expiry_delta(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHop_new(int8_tArray pubkey_arg, uint32_t node_features_arg, int64_t short_channel_id_arg, uint32_t channel_features_arg, int64_t fee_msat_arg, int32_t cltv_expiry_delta_arg) {
        LDKPublicKey pubkey_arg_ref;
        CHECK(*((uint32_t*)pubkey_arg) == 33);
        memcpy(pubkey_arg_ref.compressed_form, (uint8_t*)(pubkey_arg + 4), 33);
        LDKNodeFeatures node_features_arg_conv;
        node_features_arg_conv.inner = (void*)(node_features_arg & (~1));
        node_features_arg_conv.is_owned = (node_features_arg & 1) || (node_features_arg == 0);
        // Warning: we may need a move here but can't clone!
        LDKChannelFeatures channel_features_arg_conv;
        channel_features_arg_conv.inner = (void*)(channel_features_arg & (~1));
        channel_features_arg_conv.is_owned = (channel_features_arg & 1) || (channel_features_arg == 0);
        // Warning: we may need a move here but can't clone!
        LDKRouteHop ret_var = RouteHop_new(pubkey_arg_ref, node_features_arg_conv, short_channel_id_arg, channel_features_arg_conv, fee_msat_arg, cltv_expiry_delta_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_Route_free(uint32_t this_ptr) {
        LDKRoute this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        Route_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_Route_clone(uint32_t orig) {
        LDKRoute orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKRoute ret_var = Route_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_Route_set_paths(uint32_t this_ptr, ptrArray val) {
        LDKRoute this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_CVec_RouteHopZZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKCVec_RouteHopZ), "LDKCVec_CVec_RouteHopZZ Elements");
        else
                val_constr.data = NULL;
        uint32_tArray* val_vals = (uint32_tArray*)(val + 4);
        for (size_t m = 0; m < val_constr.datalen; m++) {
                uint32_tArray arr_conv_12 = val_vals[m];
                LDKCVec_RouteHopZ arr_conv_12_constr;
                arr_conv_12_constr.datalen = *((uint32_t*)arr_conv_12);
                if (arr_conv_12_constr.datalen > 0)
                        arr_conv_12_constr.data = MALLOC(arr_conv_12_constr.datalen * sizeof(LDKRouteHop), "LDKCVec_RouteHopZ Elements");
                else
                        arr_conv_12_constr.data = NULL;
                uint32_t* arr_conv_12_vals = (uint32_t*)(arr_conv_12 + 4);
                for (size_t k = 0; k < arr_conv_12_constr.datalen; k++) {
                        uint32_t arr_conv_10 = arr_conv_12_vals[k];
                        LDKRouteHop arr_conv_10_conv;
                        arr_conv_10_conv.inner = (void*)(arr_conv_10 & (~1));
                        arr_conv_10_conv.is_owned = (arr_conv_10 & 1) || (arr_conv_10 == 0);
                        if (arr_conv_10_conv.inner != NULL)
                                arr_conv_10_conv = RouteHop_clone(&arr_conv_10_conv);
                        arr_conv_12_constr.data[k] = arr_conv_10_conv;
                }
                val_constr.data[m] = arr_conv_12_constr;
        }
        Route_set_paths(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_Route_new(ptrArray paths_arg) {
        LDKCVec_CVec_RouteHopZZ paths_arg_constr;
        paths_arg_constr.datalen = *((uint32_t*)paths_arg);
        if (paths_arg_constr.datalen > 0)
                paths_arg_constr.data = MALLOC(paths_arg_constr.datalen * sizeof(LDKCVec_RouteHopZ), "LDKCVec_CVec_RouteHopZZ Elements");
        else
                paths_arg_constr.data = NULL;
        uint32_tArray* paths_arg_vals = (uint32_tArray*)(paths_arg + 4);
        for (size_t m = 0; m < paths_arg_constr.datalen; m++) {
                uint32_tArray arr_conv_12 = paths_arg_vals[m];
                LDKCVec_RouteHopZ arr_conv_12_constr;
                arr_conv_12_constr.datalen = *((uint32_t*)arr_conv_12);
                if (arr_conv_12_constr.datalen > 0)
                        arr_conv_12_constr.data = MALLOC(arr_conv_12_constr.datalen * sizeof(LDKRouteHop), "LDKCVec_RouteHopZ Elements");
                else
                        arr_conv_12_constr.data = NULL;
                uint32_t* arr_conv_12_vals = (uint32_t*)(arr_conv_12 + 4);
                for (size_t k = 0; k < arr_conv_12_constr.datalen; k++) {
                        uint32_t arr_conv_10 = arr_conv_12_vals[k];
                        LDKRouteHop arr_conv_10_conv;
                        arr_conv_10_conv.inner = (void*)(arr_conv_10 & (~1));
                        arr_conv_10_conv.is_owned = (arr_conv_10 & 1) || (arr_conv_10 == 0);
                        if (arr_conv_10_conv.inner != NULL)
                                arr_conv_10_conv = RouteHop_clone(&arr_conv_10_conv);
                        arr_conv_12_constr.data[k] = arr_conv_10_conv;
                }
                paths_arg_constr.data[m] = arr_conv_12_constr;
        }
        LDKRoute ret_var = Route_new(paths_arg_constr);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_Route_write(uint32_t obj) {
        LDKRoute obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = Route_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_Route_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_RouteDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteDecodeErrorZ), "LDKCResult_RouteDecodeErrorZ");
        *ret_conv = Route_read(ser_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_RouteHint_free(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        RouteHint_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHint_clone(uint32_t orig) {
        LDKRouteHint orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKRouteHint ret_var = RouteHint_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_RouteHint_get_src_node_id(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), RouteHint_get_src_node_id(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_RouteHint_set_src_node_id(uint32_t this_ptr, int8_tArray val) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        RouteHint_set_src_node_id(&this_ptr_conv, val_ref);
}

int64_t  __attribute__((visibility("default"))) TS_RouteHint_get_short_channel_id(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = RouteHint_get_short_channel_id(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHint_set_short_channel_id(uint32_t this_ptr, int64_t val) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHint_set_short_channel_id(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHint_get_fees(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees ret_var = RouteHint_get_fees(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_RouteHint_set_fees(uint32_t this_ptr, uint32_t val) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = RoutingFees_clone(&val_conv);
        RouteHint_set_fees(&this_ptr_conv, val_conv);
}

int16_t  __attribute__((visibility("default"))) TS_RouteHint_get_cltv_expiry_delta(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = RouteHint_get_cltv_expiry_delta(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHint_set_cltv_expiry_delta(uint32_t this_ptr, int16_t val) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHint_set_cltv_expiry_delta(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_RouteHint_get_htlc_minimum_msat(uint32_t this_ptr) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = RouteHint_get_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RouteHint_set_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKRouteHint this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RouteHint_set_htlc_minimum_msat(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_RouteHint_new(int8_tArray src_node_id_arg, int64_t short_channel_id_arg, uint32_t fees_arg, int16_t cltv_expiry_delta_arg, int64_t htlc_minimum_msat_arg) {
        LDKPublicKey src_node_id_arg_ref;
        CHECK(*((uint32_t*)src_node_id_arg) == 33);
        memcpy(src_node_id_arg_ref.compressed_form, (uint8_t*)(src_node_id_arg + 4), 33);
        LDKRoutingFees fees_arg_conv;
        fees_arg_conv.inner = (void*)(fees_arg & (~1));
        fees_arg_conv.is_owned = (fees_arg & 1) || (fees_arg == 0);
        if (fees_arg_conv.inner != NULL)
                fees_arg_conv = RoutingFees_clone(&fees_arg_conv);
        LDKRouteHint ret_var = RouteHint_new(src_node_id_arg_ref, short_channel_id_arg, fees_arg_conv, cltv_expiry_delta_arg, htlc_minimum_msat_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_get_route(int8_tArray our_node_id, uint32_t network, int8_tArray target, uint32_tArray first_hops, uint32_tArray last_hops, int64_t final_value_msat, int32_t final_cltv, uint32_t logger) {
        LDKPublicKey our_node_id_ref;
        CHECK(*((uint32_t*)our_node_id) == 33);
        memcpy(our_node_id_ref.compressed_form, (uint8_t*)(our_node_id + 4), 33);
        LDKNetworkGraph network_conv;
        network_conv.inner = (void*)(network & (~1));
        network_conv.is_owned = false;
        LDKPublicKey target_ref;
        CHECK(*((uint32_t*)target) == 33);
        memcpy(target_ref.compressed_form, (uint8_t*)(target + 4), 33);
        LDKCVec_ChannelDetailsZ first_hops_constr;
        first_hops_constr.datalen = *((uint32_t*)first_hops);
        if (first_hops_constr.datalen > 0)
                first_hops_constr.data = MALLOC(first_hops_constr.datalen * sizeof(LDKChannelDetails), "LDKCVec_ChannelDetailsZ Elements");
        else
                first_hops_constr.data = NULL;
        uint32_t* first_hops_vals = (uint32_t*)(first_hops + 4);
        for (size_t q = 0; q < first_hops_constr.datalen; q++) {
                uint32_t arr_conv_16 = first_hops_vals[q];
                LDKChannelDetails arr_conv_16_conv;
                arr_conv_16_conv.inner = (void*)(arr_conv_16 & (~1));
                arr_conv_16_conv.is_owned = (arr_conv_16 & 1) || (arr_conv_16 == 0);
                first_hops_constr.data[q] = arr_conv_16_conv;
        }
        LDKCVec_RouteHintZ last_hops_constr;
        last_hops_constr.datalen = *((uint32_t*)last_hops);
        if (last_hops_constr.datalen > 0)
                last_hops_constr.data = MALLOC(last_hops_constr.datalen * sizeof(LDKRouteHint), "LDKCVec_RouteHintZ Elements");
        else
                last_hops_constr.data = NULL;
        uint32_t* last_hops_vals = (uint32_t*)(last_hops + 4);
        for (size_t l = 0; l < last_hops_constr.datalen; l++) {
                uint32_t arr_conv_11 = last_hops_vals[l];
                LDKRouteHint arr_conv_11_conv;
                arr_conv_11_conv.inner = (void*)(arr_conv_11 & (~1));
                arr_conv_11_conv.is_owned = (arr_conv_11 & 1) || (arr_conv_11 == 0);
                if (arr_conv_11_conv.inner != NULL)
                        arr_conv_11_conv = RouteHint_clone(&arr_conv_11_conv);
                last_hops_constr.data[l] = arr_conv_11_conv;
        }
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKCResult_RouteLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RouteLightningErrorZ), "LDKCResult_RouteLightningErrorZ");
        *ret_conv = get_route(our_node_id_ref, &network_conv, target_ref, &first_hops_constr, last_hops_constr, final_value_msat, final_cltv, logger_conv);
        FREE(first_hops_constr.data);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_NetworkGraph_free(uint32_t this_ptr) {
        LDKNetworkGraph this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NetworkGraph_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_LockedNetworkGraph_free(uint32_t this_ptr) {
        LDKLockedNetworkGraph this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        LockedNetworkGraph_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_free(uint32_t this_ptr) {
        LDKNetGraphMsgHandler this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NetGraphMsgHandler_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_new(int8_tArray genesis_hash, uint32_t chain_access, uint32_t logger) {
        LDKThirtyTwoBytes genesis_hash_ref;
        CHECK(*((uint32_t*)genesis_hash) == 32);
        memcpy(genesis_hash_ref.data, (uint8_t*)(genesis_hash + 4), 32);
        LDKAccess* chain_access_conv = (LDKAccess*)chain_access;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKNetGraphMsgHandler ret_var = NetGraphMsgHandler_new(genesis_hash_ref, chain_access_conv, logger_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_from_net_graph(uint32_t chain_access, uint32_t logger, uint32_t network_graph) {
        LDKAccess* chain_access_conv = (LDKAccess*)chain_access;
        LDKLogger logger_conv = *(LDKLogger*)logger;
        LDKNetworkGraph network_graph_conv;
        network_graph_conv.inner = (void*)(network_graph & (~1));
        network_graph_conv.is_owned = (network_graph & 1) || (network_graph == 0);
        // Warning: we may need a move here but can't clone!
        LDKNetGraphMsgHandler ret_var = NetGraphMsgHandler_from_net_graph(chain_access_conv, logger_conv, network_graph_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_read_locked_graph(uint32_t this_arg) {
        LDKNetGraphMsgHandler this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKLockedNetworkGraph ret_var = NetGraphMsgHandler_read_locked_graph(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_LockedNetworkGraph_graph(uint32_t this_arg) {
        LDKLockedNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKNetworkGraph ret_var = LockedNetworkGraph_graph(&this_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_as_RoutingMessageHandler(uint32_t this_arg) {
        LDKNetGraphMsgHandler this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKRoutingMessageHandler* ret = MALLOC(sizeof(LDKRoutingMessageHandler), "LDKRoutingMessageHandler");
        *ret = NetGraphMsgHandler_as_RoutingMessageHandler(&this_arg_conv);
        return (long)ret;
}

uint32_t  __attribute__((visibility("default"))) TS_NetGraphMsgHandler_as_MessageSendEventsProvider(uint32_t this_arg) {
        LDKNetGraphMsgHandler this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKMessageSendEventsProvider* ret = MALLOC(sizeof(LDKMessageSendEventsProvider), "LDKMessageSendEventsProvider");
        *ret = NetGraphMsgHandler_as_MessageSendEventsProvider(&this_arg_conv);
        return (long)ret;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_free(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        DirectionalChannelInfo_free(this_ptr_conv);
}

int32_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_last_update(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = DirectionalChannelInfo_get_last_update(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_last_update(uint32_t this_ptr, int32_t val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        DirectionalChannelInfo_set_last_update(&this_ptr_conv, val);
}

jboolean  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_enabled(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        jboolean ret_val = DirectionalChannelInfo_get_enabled(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_enabled(uint32_t this_ptr, jboolean val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        DirectionalChannelInfo_set_enabled(&this_ptr_conv, val);
}

int16_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_cltv_expiry_delta(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int16_t ret_val = DirectionalChannelInfo_get_cltv_expiry_delta(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_cltv_expiry_delta(uint32_t this_ptr, int16_t val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        DirectionalChannelInfo_set_cltv_expiry_delta(&this_ptr_conv, val);
}

int64_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_htlc_minimum_msat(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int64_t ret_val = DirectionalChannelInfo_get_htlc_minimum_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_htlc_minimum_msat(uint32_t this_ptr, int64_t val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        DirectionalChannelInfo_set_htlc_minimum_msat(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_fees(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees ret_var = DirectionalChannelInfo_get_fees(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_fees(uint32_t this_ptr, uint32_t val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = RoutingFees_clone(&val_conv);
        DirectionalChannelInfo_set_fees(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_get_last_update_message(uint32_t this_ptr) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelUpdate ret_var = DirectionalChannelInfo_get_last_update_message(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_set_last_update_message(uint32_t this_ptr, uint32_t val) {
        LDKDirectionalChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelUpdate val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelUpdate_clone(&val_conv);
        DirectionalChannelInfo_set_last_update_message(&this_ptr_conv, val_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_write(uint32_t obj) {
        LDKDirectionalChannelInfo obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = DirectionalChannelInfo_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_DirectionalChannelInfo_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKDirectionalChannelInfo ret_var = DirectionalChannelInfo_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_free(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        ChannelInfo_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelInfo_get_features(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures ret_var = ChannelInfo_get_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_features(uint32_t this_ptr, uint32_t val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        ChannelInfo_set_features(&this_ptr_conv, val_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelInfo_get_node_one(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelInfo_get_node_one(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_node_one(uint32_t this_ptr, int8_tArray val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelInfo_set_node_one(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelInfo_get_one_to_two(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKDirectionalChannelInfo ret_var = ChannelInfo_get_one_to_two(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_one_to_two(uint32_t this_ptr, uint32_t val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKDirectionalChannelInfo val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        ChannelInfo_set_one_to_two(&this_ptr_conv, val_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelInfo_get_node_two(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray arg_arr = init_arr(33, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), ChannelInfo_get_node_two(&this_ptr_conv).compressed_form, 33);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_node_two(uint32_t this_ptr, int8_tArray val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKPublicKey val_ref;
        CHECK(*((uint32_t*)val) == 33);
        memcpy(val_ref.compressed_form, (uint8_t*)(val + 4), 33);
        ChannelInfo_set_node_two(&this_ptr_conv, val_ref);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelInfo_get_two_to_one(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKDirectionalChannelInfo ret_var = ChannelInfo_get_two_to_one(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_two_to_one(uint32_t this_ptr, uint32_t val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKDirectionalChannelInfo val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        ChannelInfo_set_two_to_one(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelInfo_get_announcement_message(uint32_t this_ptr) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelAnnouncement ret_var = ChannelInfo_get_announcement_message(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_ChannelInfo_set_announcement_message(uint32_t this_ptr, uint32_t val) {
        LDKChannelInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKChannelAnnouncement val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = ChannelAnnouncement_clone(&val_conv);
        ChannelInfo_set_announcement_message(&this_ptr_conv, val_conv);
}

int8_tArray  __attribute__((visibility("default"))) TS_ChannelInfo_write(uint32_t obj) {
        LDKChannelInfo obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = ChannelInfo_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_ChannelInfo_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKChannelInfo ret_var = ChannelInfo_read(ser_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_RoutingFees_free(uint32_t this_ptr) {
        LDKRoutingFees this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        RoutingFees_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingFees_clone(uint32_t orig) {
        LDKRoutingFees orig_conv;
        orig_conv.inner = (void*)(orig & (~1));
        orig_conv.is_owned = false;
        LDKRoutingFees ret_var = RoutingFees_clone(&orig_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int32_t  __attribute__((visibility("default"))) TS_RoutingFees_get_base_msat(uint32_t this_ptr) {
        LDKRoutingFees this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = RoutingFees_get_base_msat(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RoutingFees_set_base_msat(uint32_t this_ptr, int32_t val) {
        LDKRoutingFees this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RoutingFees_set_base_msat(&this_ptr_conv, val);
}

int32_t  __attribute__((visibility("default"))) TS_RoutingFees_get_proportional_millionths(uint32_t this_ptr) {
        LDKRoutingFees this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = RoutingFees_get_proportional_millionths(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_RoutingFees_set_proportional_millionths(uint32_t this_ptr, int32_t val) {
        LDKRoutingFees this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        RoutingFees_set_proportional_millionths(&this_ptr_conv, val);
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingFees_new(int32_t base_msat_arg, int32_t proportional_millionths_arg) {
        LDKRoutingFees ret_var = RoutingFees_new(base_msat_arg, proportional_millionths_arg);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_RoutingFees_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_RoutingFeesDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_RoutingFeesDecodeErrorZ), "LDKCResult_RoutingFeesDecodeErrorZ");
        *ret_conv = RoutingFees_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_RoutingFees_write(uint32_t obj) {
        LDKRoutingFees obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = RoutingFees_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_free(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NodeAnnouncementInfo_free(this_ptr_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_get_features(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures ret_var = NodeAnnouncementInfo_get_features(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_features(uint32_t this_ptr, uint32_t val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeFeatures val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        NodeAnnouncementInfo_set_features(&this_ptr_conv, val_conv);
}

int32_t  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_get_last_update(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int32_t ret_val = NodeAnnouncementInfo_get_last_update(&this_ptr_conv);
        return ret_val;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_last_update(uint32_t this_ptr, int32_t val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        NodeAnnouncementInfo_set_last_update(&this_ptr_conv, val);
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_get_rgb(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(3, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *NodeAnnouncementInfo_get_rgb(&this_ptr_conv), 3);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_rgb(uint32_t this_ptr, int8_tArray val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThreeBytes val_ref;
        CHECK(*((uint32_t*)val) == 3);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 3);
        NodeAnnouncementInfo_set_rgb(&this_ptr_conv, val_ref);
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_get_alias(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        int8_tArray ret_arr = init_arr(32, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(ret_arr + 4), *NodeAnnouncementInfo_get_alias(&this_ptr_conv), 32);
        return ret_arr;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_alias(uint32_t this_ptr, int8_tArray val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKThirtyTwoBytes val_ref;
        CHECK(*((uint32_t*)val) == 32);
        memcpy(val_ref.data, (uint8_t*)(val + 4), 32);
        NodeAnnouncementInfo_set_alias(&this_ptr_conv, val_ref);
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_addresses(uint32_t this_ptr, uint32_tArray val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_NetAddressZ val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(LDKNetAddress), "LDKCVec_NetAddressZ Elements");
        else
                val_constr.data = NULL;
        uint32_t* val_vals = (uint32_t*)(val + 4);
        for (size_t m = 0; m < val_constr.datalen; m++) {
                uint32_t arr_conv_12 = val_vals[m];
                LDKNetAddress arr_conv_12_conv = *(LDKNetAddress*)arr_conv_12;
                FREE((void*)arr_conv_12);
                val_constr.data[m] = arr_conv_12_conv;
        }
        NodeAnnouncementInfo_set_addresses(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_get_announcement_message(uint32_t this_ptr) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeAnnouncement ret_var = NodeAnnouncementInfo_get_announcement_message(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_set_announcement_message(uint32_t this_ptr, uint32_t val) {
        LDKNodeAnnouncementInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeAnnouncement val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = NodeAnnouncement_clone(&val_conv);
        NodeAnnouncementInfo_set_announcement_message(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_new(uint32_t features_arg, int32_t last_update_arg, int8_tArray rgb_arg, int8_tArray alias_arg, uint32_tArray addresses_arg, uint32_t announcement_message_arg) {
        LDKNodeFeatures features_arg_conv;
        features_arg_conv.inner = (void*)(features_arg & (~1));
        features_arg_conv.is_owned = (features_arg & 1) || (features_arg == 0);
        // Warning: we may need a move here but can't clone!
        LDKThreeBytes rgb_arg_ref;
        CHECK(*((uint32_t*)rgb_arg) == 3);
        memcpy(rgb_arg_ref.data, (uint8_t*)(rgb_arg + 4), 3);
        LDKThirtyTwoBytes alias_arg_ref;
        CHECK(*((uint32_t*)alias_arg) == 32);
        memcpy(alias_arg_ref.data, (uint8_t*)(alias_arg + 4), 32);
        LDKCVec_NetAddressZ addresses_arg_constr;
        addresses_arg_constr.datalen = *((uint32_t*)addresses_arg);
        if (addresses_arg_constr.datalen > 0)
                addresses_arg_constr.data = MALLOC(addresses_arg_constr.datalen * sizeof(LDKNetAddress), "LDKCVec_NetAddressZ Elements");
        else
                addresses_arg_constr.data = NULL;
        uint32_t* addresses_arg_vals = (uint32_t*)(addresses_arg + 4);
        for (size_t m = 0; m < addresses_arg_constr.datalen; m++) {
                uint32_t arr_conv_12 = addresses_arg_vals[m];
                LDKNetAddress arr_conv_12_conv = *(LDKNetAddress*)arr_conv_12;
                FREE((void*)arr_conv_12);
                addresses_arg_constr.data[m] = arr_conv_12_conv;
        }
        LDKNodeAnnouncement announcement_message_arg_conv;
        announcement_message_arg_conv.inner = (void*)(announcement_message_arg & (~1));
        announcement_message_arg_conv.is_owned = (announcement_message_arg & 1) || (announcement_message_arg == 0);
        if (announcement_message_arg_conv.inner != NULL)
                announcement_message_arg_conv = NodeAnnouncement_clone(&announcement_message_arg_conv);
        LDKNodeAnnouncementInfo ret_var = NodeAnnouncementInfo_new(features_arg_conv, last_update_arg, rgb_arg_ref, alias_arg_ref, addresses_arg_constr, announcement_message_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_write(uint32_t obj) {
        LDKNodeAnnouncementInfo obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = NodeAnnouncementInfo_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_NodeAnnouncementInfo_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_NodeAnnouncementInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeAnnouncementInfoDecodeErrorZ), "LDKCResult_NodeAnnouncementInfoDecodeErrorZ");
        *ret_conv = NodeAnnouncementInfo_read(ser_ref);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_NodeInfo_free(uint32_t this_ptr) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = (this_ptr & 1) || (this_ptr == 0);
        NodeInfo_free(this_ptr_conv);
}

void  __attribute__((visibility("default"))) TS_NodeInfo_set_channels(uint32_t this_ptr, int64_tArray val) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKCVec_u64Z val_constr;
        val_constr.datalen = *((uint32_t*)val);
        if (val_constr.datalen > 0)
                val_constr.data = MALLOC(val_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                val_constr.data = NULL;
        int64_t* val_vals = (int64_t*)(val + 4);
        for (size_t i = 0; i < val_constr.datalen; i++) {
                int64_t arr_conv_8 = val_vals[i];
                val_constr.data[i] = arr_conv_8;
        }
        NodeInfo_set_channels(&this_ptr_conv, val_constr);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeInfo_get_lowest_inbound_channel_fees(uint32_t this_ptr) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees ret_var = NodeInfo_get_lowest_inbound_channel_fees(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NodeInfo_set_lowest_inbound_channel_fees(uint32_t this_ptr, uint32_t val) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKRoutingFees val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        if (val_conv.inner != NULL)
                val_conv = RoutingFees_clone(&val_conv);
        NodeInfo_set_lowest_inbound_channel_fees(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeInfo_get_announcement_info(uint32_t this_ptr) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeAnnouncementInfo ret_var = NodeInfo_get_announcement_info(&this_ptr_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

void  __attribute__((visibility("default"))) TS_NodeInfo_set_announcement_info(uint32_t this_ptr, uint32_t val) {
        LDKNodeInfo this_ptr_conv;
        this_ptr_conv.inner = (void*)(this_ptr & (~1));
        this_ptr_conv.is_owned = false;
        LDKNodeAnnouncementInfo val_conv;
        val_conv.inner = (void*)(val & (~1));
        val_conv.is_owned = (val & 1) || (val == 0);
        // Warning: we may need a move here but can't clone!
        NodeInfo_set_announcement_info(&this_ptr_conv, val_conv);
}

uint32_t  __attribute__((visibility("default"))) TS_NodeInfo_new(int64_tArray channels_arg, uint32_t lowest_inbound_channel_fees_arg, uint32_t announcement_info_arg) {
        LDKCVec_u64Z channels_arg_constr;
        channels_arg_constr.datalen = *((uint32_t*)channels_arg);
        if (channels_arg_constr.datalen > 0)
                channels_arg_constr.data = MALLOC(channels_arg_constr.datalen * sizeof(int64_t), "LDKCVec_u64Z Elements");
        else
                channels_arg_constr.data = NULL;
        int64_t* channels_arg_vals = (int64_t*)(channels_arg + 4);
        for (size_t i = 0; i < channels_arg_constr.datalen; i++) {
                int64_t arr_conv_8 = channels_arg_vals[i];
                channels_arg_constr.data[i] = arr_conv_8;
        }
        LDKRoutingFees lowest_inbound_channel_fees_arg_conv;
        lowest_inbound_channel_fees_arg_conv.inner = (void*)(lowest_inbound_channel_fees_arg & (~1));
        lowest_inbound_channel_fees_arg_conv.is_owned = (lowest_inbound_channel_fees_arg & 1) || (lowest_inbound_channel_fees_arg == 0);
        if (lowest_inbound_channel_fees_arg_conv.inner != NULL)
                lowest_inbound_channel_fees_arg_conv = RoutingFees_clone(&lowest_inbound_channel_fees_arg_conv);
        LDKNodeAnnouncementInfo announcement_info_arg_conv;
        announcement_info_arg_conv.inner = (void*)(announcement_info_arg & (~1));
        announcement_info_arg_conv.is_owned = (announcement_info_arg & 1) || (announcement_info_arg == 0);
        // Warning: we may need a move here but can't clone!
        LDKNodeInfo ret_var = NodeInfo_new(channels_arg_constr, lowest_inbound_channel_fees_arg_conv, announcement_info_arg_conv);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

int8_tArray  __attribute__((visibility("default"))) TS_NodeInfo_write(uint32_t obj) {
        LDKNodeInfo obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = NodeInfo_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_NodeInfo_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_NodeInfoDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NodeInfoDecodeErrorZ), "LDKCResult_NodeInfoDecodeErrorZ");
        *ret_conv = NodeInfo_read(ser_ref);
        return (long)ret_conv;
}

int8_tArray  __attribute__((visibility("default"))) TS_NetworkGraph_write(uint32_t obj) {
        LDKNetworkGraph obj_conv;
        obj_conv.inner = (void*)(obj & (~1));
        obj_conv.is_owned = false;
        LDKCVec_u8Z arg_var = NetworkGraph_write(&obj_conv);
        int8_tArray arg_arr = init_arr(arg_var.datalen, sizeof(uint8_t), "Native int8_tArray Bytes");
        memcpy((uint8_t*)(arg_arr + 4), arg_var.data, arg_var.datalen);
        CVec_u8Z_free(arg_var);
        return arg_arr;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_read(int8_tArray ser) {
        LDKu8slice ser_ref;
        ser_ref.datalen = *((uint32_t*)ser);
        ser_ref.data = (int8_t*)(ser + 4);
        LDKCResult_NetworkGraphDecodeErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NetworkGraphDecodeErrorZ), "LDKCResult_NetworkGraphDecodeErrorZ");
        *ret_conv = NetworkGraph_read(ser_ref);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_new(int8_tArray genesis_hash) {
        LDKThirtyTwoBytes genesis_hash_ref;
        CHECK(*((uint32_t*)genesis_hash) == 32);
        memcpy(genesis_hash_ref.data, (uint8_t*)(genesis_hash + 4), 32);
        LDKNetworkGraph ret_var = NetworkGraph_new(genesis_hash_ref);
        CHECK((((long)ret_var.inner) & 1) == 0); // We rely on a free low bit, malloc guarantees this.
        CHECK((((long)&ret_var) & 1) == 0); // We rely on a free low bit, pointer alignment guarantees this.
        long ret_ref = (long)ret_var.inner;
        if (ret_var.is_owned) {
                ret_ref |= 1;
        }
        return ret_ref;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_node_from_announcement(uint32_t this_arg, uint32_t msg) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKNodeAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_node_from_announcement(&this_arg_conv, &msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_node_from_unsigned_announcement(uint32_t this_arg, uint32_t msg) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKUnsignedNodeAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_node_from_unsigned_announcement(&this_arg_conv, &msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_channel_from_announcement(uint32_t this_arg, uint32_t msg, uint32_t chain_access) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKAccess* chain_access_conv = (LDKAccess*)chain_access;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_channel_from_announcement(&this_arg_conv, &msg_conv, chain_access_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_channel_from_unsigned_announcement(uint32_t this_arg, uint32_t msg, uint32_t chain_access) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKUnsignedChannelAnnouncement msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKAccess* chain_access_conv = (LDKAccess*)chain_access;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_channel_from_unsigned_announcement(&this_arg_conv, &msg_conv, chain_access_conv);
        return (long)ret_conv;
}

void  __attribute__((visibility("default"))) TS_NetworkGraph_close_channel_from_update(uint32_t this_arg, int64_t short_channel_id, jboolean is_permanent) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        NetworkGraph_close_channel_from_update(&this_arg_conv, short_channel_id, is_permanent);
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_channel(uint32_t this_arg, uint32_t msg) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKChannelUpdate msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_channel(&this_arg_conv, &msg_conv);
        return (long)ret_conv;
}

uint32_t  __attribute__((visibility("default"))) TS_NetworkGraph_update_channel_unsigned(uint32_t this_arg, uint32_t msg) {
        LDKNetworkGraph this_arg_conv;
        this_arg_conv.inner = (void*)(this_arg & (~1));
        this_arg_conv.is_owned = false;
        LDKUnsignedChannelUpdate msg_conv;
        msg_conv.inner = (void*)(msg & (~1));
        msg_conv.is_owned = false;
        LDKCResult_NoneLightningErrorZ* ret_conv = MALLOC(sizeof(LDKCResult_NoneLightningErrorZ), "LDKCResult_NoneLightningErrorZ");
        *ret_conv = NetworkGraph_update_channel_unsigned(&this_arg_conv, &msg_conv);
        return (long)ret_conv;
}