Update auto-generated bindings
[ldk-java] / src / main / java / org / ldk / structs / UnsignedChannelUpdate.java
index d9ca14447338eb2832baa589a4477c9c9c43a3ba..758565871ae17eb78e4497b4e2ba6bdc1cc5b356 100644 (file)
@@ -5,6 +5,10 @@ import org.ldk.enums.*;
 import org.ldk.util.*;
 import java.util.Arrays;
 
+
+/**
+ * The unsigned part of a channel_update
+ */
 @SuppressWarnings("unchecked") // We correctly assign various generic arrays
 public class UnsignedChannelUpdate extends CommonBase {
        UnsignedChannelUpdate(Object _dummy, long ptr) { super(ptr); }
@@ -14,94 +18,164 @@ public class UnsignedChannelUpdate extends CommonBase {
                if (ptr != 0) { bindings.UnsignedChannelUpdate_free(ptr); }
        }
 
-       public static UnsignedChannelUpdate constructor_clone(UnsignedChannelUpdate orig) {
-               long ret = bindings.UnsignedChannelUpdate_clone(orig == null ? 0 : orig.ptr & ~1);
-               UnsignedChannelUpdate ret_hu_conv = new UnsignedChannelUpdate(null, ret);
-               ret_hu_conv.ptrs_to.add(orig);
-               return ret_hu_conv;
-       }
-
+       /**
+        * The genesis hash of the blockchain where the channel is to be opened
+        */
        public byte[] get_chain_hash() {
                byte[] ret = bindings.UnsignedChannelUpdate_get_chain_hash(this.ptr);
                return ret;
        }
 
+       /**
+        * The genesis hash of the blockchain where the channel is to be opened
+        */
        public void set_chain_hash(byte[] val) {
                bindings.UnsignedChannelUpdate_set_chain_hash(this.ptr, val);
        }
 
+       /**
+        * The short channel ID
+        */
        public long get_short_channel_id() {
                long ret = bindings.UnsignedChannelUpdate_get_short_channel_id(this.ptr);
                return ret;
        }
 
+       /**
+        * The short channel ID
+        */
        public void set_short_channel_id(long val) {
                bindings.UnsignedChannelUpdate_set_short_channel_id(this.ptr, val);
        }
 
+       /**
+        * A strictly monotonic announcement counter, with gaps allowed, specific to this channel
+        */
        public int get_timestamp() {
                int ret = bindings.UnsignedChannelUpdate_get_timestamp(this.ptr);
                return ret;
        }
 
+       /**
+        * A strictly monotonic announcement counter, with gaps allowed, specific to this channel
+        */
        public void set_timestamp(int val) {
                bindings.UnsignedChannelUpdate_set_timestamp(this.ptr, val);
        }
 
+       /**
+        * Channel flags
+        */
        public byte get_flags() {
                byte ret = bindings.UnsignedChannelUpdate_get_flags(this.ptr);
                return ret;
        }
 
+       /**
+        * Channel flags
+        */
        public void set_flags(byte val) {
                bindings.UnsignedChannelUpdate_set_flags(this.ptr, val);
        }
 
+       /**
+        * The number of blocks such that if:
+        * `incoming_htlc.cltv_expiry < outgoing_htlc.cltv_expiry + cltv_expiry_delta`
+        * then we need to fail the HTLC backwards. When forwarding an HTLC, cltv_expiry_delta determines
+        * the outgoing HTLC's minimum cltv_expiry value -- so, if an incoming HTLC comes in with a
+        * cltv_expiry of 100000, and the node we're forwarding to has a cltv_expiry_delta value of 10,
+        * then we'll check that the outgoing HTLC's cltv_expiry value is at least 100010 before
+        * forwarding. Note that the HTLC sender is the one who originally sets this value when
+        * constructing the route.
+        */
        public short get_cltv_expiry_delta() {
                short ret = bindings.UnsignedChannelUpdate_get_cltv_expiry_delta(this.ptr);
                return ret;
        }
 
+       /**
+        * The number of blocks such that if:
+        * `incoming_htlc.cltv_expiry < outgoing_htlc.cltv_expiry + cltv_expiry_delta`
+        * then we need to fail the HTLC backwards. When forwarding an HTLC, cltv_expiry_delta determines
+        * the outgoing HTLC's minimum cltv_expiry value -- so, if an incoming HTLC comes in with a
+        * cltv_expiry of 100000, and the node we're forwarding to has a cltv_expiry_delta value of 10,
+        * then we'll check that the outgoing HTLC's cltv_expiry value is at least 100010 before
+        * forwarding. Note that the HTLC sender is the one who originally sets this value when
+        * constructing the route.
+        */
        public void set_cltv_expiry_delta(short val) {
                bindings.UnsignedChannelUpdate_set_cltv_expiry_delta(this.ptr, val);
        }
 
+       /**
+        * The minimum HTLC size incoming to sender, in milli-satoshi
+        */
        public long get_htlc_minimum_msat() {
                long ret = bindings.UnsignedChannelUpdate_get_htlc_minimum_msat(this.ptr);
                return ret;
        }
 
+       /**
+        * The minimum HTLC size incoming to sender, in milli-satoshi
+        */
        public void set_htlc_minimum_msat(long val) {
                bindings.UnsignedChannelUpdate_set_htlc_minimum_msat(this.ptr, val);
        }
 
+       /**
+        * The base HTLC fee charged by sender, in milli-satoshi
+        */
        public int get_fee_base_msat() {
                int ret = bindings.UnsignedChannelUpdate_get_fee_base_msat(this.ptr);
                return ret;
        }
 
+       /**
+        * The base HTLC fee charged by sender, in milli-satoshi
+        */
        public void set_fee_base_msat(int val) {
                bindings.UnsignedChannelUpdate_set_fee_base_msat(this.ptr, val);
        }
 
+       /**
+        * The amount to fee multiplier, in micro-satoshi
+        */
        public int get_fee_proportional_millionths() {
                int ret = bindings.UnsignedChannelUpdate_get_fee_proportional_millionths(this.ptr);
                return ret;
        }
 
+       /**
+        * The amount to fee multiplier, in micro-satoshi
+        */
        public void set_fee_proportional_millionths(int val) {
                bindings.UnsignedChannelUpdate_set_fee_proportional_millionths(this.ptr, val);
        }
 
-       public byte[] write(UnsignedChannelUpdate obj) {
-               byte[] ret = bindings.UnsignedChannelUpdate_write(obj == null ? 0 : obj.ptr & ~1);
-               this.ptrs_to.add(obj);
+       /**
+        * Creates a copy of the UnsignedChannelUpdate
+        */
+       public UnsignedChannelUpdate clone() {
+               long ret = bindings.UnsignedChannelUpdate_clone(this.ptr);
+               UnsignedChannelUpdate ret_hu_conv = new UnsignedChannelUpdate(null, ret);
+               ret_hu_conv.ptrs_to.add(this);
+               return ret_hu_conv;
+       }
+
+       /**
+        * Serialize the UnsignedChannelUpdate object into a byte array which can be read by UnsignedChannelUpdate_read
+        */
+       public byte[] write() {
+               byte[] ret = bindings.UnsignedChannelUpdate_write(this.ptr);
                return ret;
        }
 
-       public static UnsignedChannelUpdate constructor_read(byte[] ser) {
+       /**
+        * Read a UnsignedChannelUpdate from a byte array, created by UnsignedChannelUpdate_write
+        */
+       public static Result_UnsignedChannelUpdateDecodeErrorZ read(byte[] ser) {
                long ret = bindings.UnsignedChannelUpdate_read(ser);
-               UnsignedChannelUpdate ret_hu_conv = new UnsignedChannelUpdate(null, ret);
+               Result_UnsignedChannelUpdateDecodeErrorZ ret_hu_conv = Result_UnsignedChannelUpdateDecodeErrorZ.constr_from_ptr(ret);
                return ret_hu_conv;
        }