/**
* Get node secret key based on the provided [`Recipient`].
*
- * The node_id/network_key is the public key that corresponds to this secret key.
+ * The `node_id`/`network_key` is the public key that corresponds to this secret key.
*
- * This method must return the same value each time it is called with a given `Recipient`
+ * This method must return the same value each time it is called with a given [`Recipient`]
* parameter.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*/
Result_SecretKeyNoneZ get_node_secret(Recipient recipient);
/**
* Get node id based on the provided [`Recipient`]. This public key corresponds to the secret in
* [`get_node_secret`].
*
- * This method must return the same value each time it is called with a given `Recipient`
+ * This method must return the same value each time it is called with a given [`Recipient`]
* parameter.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*
- * [`get_node_secret`]: KeysInterface::get_node_secret
+ * [`get_node_secret`]: Self::get_node_secret
*/
Result_PublicKeyNoneZ get_node_id(Recipient recipient);
/**
* one is provided. Note that this tweak can be applied to `other_key` instead of our node
* secret, though this is less efficient.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*
* [`node secret`]: Self::get_node_secret
*/
*/
ShutdownScript get_shutdown_scriptpubkey();
/**
- * Get a new set of Sign for per-channel secrets. These MUST be unique even if you
+ * Get a new set of [`Sign`] for per-channel secrets. These MUST be unique even if you
* restarted with some stale data!
*
* This method must return a different value each time it is called.
*/
- Sign get_channel_signer(boolean inbound, long channel_value_satoshis);
+ byte[] generate_channel_keys_id(boolean inbound, long channel_value_satoshis, UInt128 user_channel_id);
+ /**
+ * Derives the private key material backing a `Signer`.
+ *
+ * To derive a new `Signer`, a fresh `channel_keys_id` should be obtained through
+ * [`KeysInterface::generate_channel_keys_id`]. Otherwise, an existing `Signer` can be
+ * re-derived from its `channel_keys_id`, which can be obtained through its trait method
+ * [`BaseSign::channel_keys_id`].
+ */
+ Sign derive_channel_signer(long channel_value_satoshis, byte[] channel_keys_id);
/**
* Gets a unique, cryptographically-secure, random 32 byte value. This is used for encrypting
* onion packets and for temporary channel IDs. There is no requirement that these be
*/
byte[] get_secure_random_bytes();
/**
- * Reads a `Signer` for this `KeysInterface` from the given input stream.
+ * Reads a [`Signer`] for this [`KeysInterface`] from the given input stream.
* This is only called during deserialization of other objects which contain
- * `Sign`-implementing objects (ie `ChannelMonitor`s and `ChannelManager`s).
+ * [`Sign`]-implementing objects (i.e., [`ChannelMonitor`]s and [`ChannelManager`]s).
* The bytes are exactly those which `<Self::Signer as Writeable>::write()` writes, and
* contain no versioning scheme. You may wish to include your own version prefix and ensure
* you've read all of the provided bytes to ensure no corruption occurred.
+ *
+ * This method is slowly being phased out -- it will only be called when reading objects
+ * written by LDK versions prior to 0.0.113.
+ *
+ * [`Signer`]: Self::Signer
+ * [`ChannelMonitor`]: crate::chain::channelmonitor::ChannelMonitor
+ * [`ChannelManager`]: crate::ln::channelmanager::ChannelManager
*/
Result_SignDecodeErrorZ read_chan_signer(byte[] reader);
/**
* By parameterizing by the raw invoice bytes instead of the hash, we allow implementors of
* this trait to parse the invoice and make sure they're signing what they expect, rather than
* blindly signing the hash.
- * The hrp is ascii bytes, while the invoice data is base32.
+ * The `hrp` is ASCII bytes, while the invoice data is base32-encoded.
*
* The secret key used to sign the invoice is dependent on the [`Recipient`].
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*/
Result_RecoverableSignatureNoneZ sign_invoice(byte[] hrp_bytes, UInt5[] invoice_data, Recipient receipient);
/**
long result = ret == null ? 0 : ret.clone_ptr();
return result;
}
- @Override public long get_channel_signer(boolean inbound, long channel_value_satoshis) {
- Sign ret = arg.get_channel_signer(inbound, channel_value_satoshis);
+ @Override public byte[] generate_channel_keys_id(boolean inbound, long channel_value_satoshis, byte[] user_channel_id) {
+ org.ldk.util.UInt128 user_channel_id_conv = new org.ldk.util.UInt128(user_channel_id);
+ byte[] ret = arg.generate_channel_keys_id(inbound, channel_value_satoshis, user_channel_id_conv);
+ Reference.reachabilityFence(arg);
+ byte[] result = InternalUtils.check_arr_len(ret, 32);
+ return result;
+ }
+ @Override public long derive_channel_signer(long channel_value_satoshis, byte[] channel_keys_id) {
+ Sign ret = arg.derive_channel_signer(channel_value_satoshis, channel_keys_id);
Reference.reachabilityFence(arg);
long result = ret == null ? 0 : ret.clone_ptr();
if (impl_holder.held != null) { impl_holder.held.ptrs_to.add(ret); };
/**
* Get node secret key based on the provided [`Recipient`].
*
- * The node_id/network_key is the public key that corresponds to this secret key.
+ * The `node_id`/`network_key` is the public key that corresponds to this secret key.
*
- * This method must return the same value each time it is called with a given `Recipient`
+ * This method must return the same value each time it is called with a given [`Recipient`]
* parameter.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*/
public Result_SecretKeyNoneZ get_node_secret(org.ldk.enums.Recipient recipient) {
long ret = bindings.KeysInterface_get_node_secret(this.ptr, recipient);
* Get node id based on the provided [`Recipient`]. This public key corresponds to the secret in
* [`get_node_secret`].
*
- * This method must return the same value each time it is called with a given `Recipient`
+ * This method must return the same value each time it is called with a given [`Recipient`]
* parameter.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*
- * [`get_node_secret`]: KeysInterface::get_node_secret
+ * [`get_node_secret`]: Self::get_node_secret
*/
public Result_PublicKeyNoneZ get_node_id(org.ldk.enums.Recipient recipient) {
long ret = bindings.KeysInterface_get_node_id(this.ptr, recipient);
* one is provided. Note that this tweak can be applied to `other_key` instead of our node
* secret, though this is less efficient.
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*
* [`node secret`]: Self::get_node_secret
*/
- public Result_SharedSecretNoneZ ecdh(org.ldk.enums.Recipient recipient, byte[] other_key, Option_ScalarZ tweak) {
+ public Result_SharedSecretNoneZ ecdh(org.ldk.enums.Recipient recipient, byte[] other_key, org.ldk.structs.Option_ScalarZ tweak) {
long ret = bindings.KeysInterface_ecdh(this.ptr, recipient, InternalUtils.check_arr_len(other_key, 33), tweak.ptr);
Reference.reachabilityFence(this);
Reference.reachabilityFence(recipient);
}
/**
- * Get a new set of Sign for per-channel secrets. These MUST be unique even if you
+ * Get a new set of [`Sign`] for per-channel secrets. These MUST be unique even if you
* restarted with some stale data!
*
* This method must return a different value each time it is called.
*/
- public Sign get_channel_signer(boolean inbound, long channel_value_satoshis) {
- long ret = bindings.KeysInterface_get_channel_signer(this.ptr, inbound, channel_value_satoshis);
+ public byte[] generate_channel_keys_id(boolean inbound, long channel_value_satoshis, org.ldk.util.UInt128 user_channel_id) {
+ byte[] ret = bindings.KeysInterface_generate_channel_keys_id(this.ptr, inbound, channel_value_satoshis, user_channel_id.getLEBytes());
Reference.reachabilityFence(this);
Reference.reachabilityFence(inbound);
Reference.reachabilityFence(channel_value_satoshis);
+ Reference.reachabilityFence(user_channel_id);
+ return ret;
+ }
+
+ /**
+ * Derives the private key material backing a `Signer`.
+ *
+ * To derive a new `Signer`, a fresh `channel_keys_id` should be obtained through
+ * [`KeysInterface::generate_channel_keys_id`]. Otherwise, an existing `Signer` can be
+ * re-derived from its `channel_keys_id`, which can be obtained through its trait method
+ * [`BaseSign::channel_keys_id`].
+ */
+ public Sign derive_channel_signer(long channel_value_satoshis, byte[] channel_keys_id) {
+ long ret = bindings.KeysInterface_derive_channel_signer(this.ptr, channel_value_satoshis, InternalUtils.check_arr_len(channel_keys_id, 32));
+ Reference.reachabilityFence(this);
+ Reference.reachabilityFence(channel_value_satoshis);
+ Reference.reachabilityFence(channel_keys_id);
if (ret >= 0 && ret <= 4096) { return null; }
Sign ret_hu_conv = new Sign(null, ret);
if (ret_hu_conv != null) { ret_hu_conv.ptrs_to.add(this); };
}
/**
- * Reads a `Signer` for this `KeysInterface` from the given input stream.
+ * Reads a [`Signer`] for this [`KeysInterface`] from the given input stream.
* This is only called during deserialization of other objects which contain
- * `Sign`-implementing objects (ie `ChannelMonitor`s and `ChannelManager`s).
+ * [`Sign`]-implementing objects (i.e., [`ChannelMonitor`]s and [`ChannelManager`]s).
* The bytes are exactly those which `<Self::Signer as Writeable>::write()` writes, and
* contain no versioning scheme. You may wish to include your own version prefix and ensure
* you've read all of the provided bytes to ensure no corruption occurred.
+ *
+ * This method is slowly being phased out -- it will only be called when reading objects
+ * written by LDK versions prior to 0.0.113.
+ *
+ * [`Signer`]: Self::Signer
+ * [`ChannelMonitor`]: crate::chain::channelmonitor::ChannelMonitor
+ * [`ChannelManager`]: crate::ln::channelmanager::ChannelManager
*/
public Result_SignDecodeErrorZ read_chan_signer(byte[] reader) {
long ret = bindings.KeysInterface_read_chan_signer(this.ptr, reader);
* By parameterizing by the raw invoice bytes instead of the hash, we allow implementors of
* this trait to parse the invoice and make sure they're signing what they expect, rather than
* blindly signing the hash.
- * The hrp is ascii bytes, while the invoice data is base32.
+ * The `hrp` is ASCII bytes, while the invoice data is base32-encoded.
*
* The secret key used to sign the invoice is dependent on the [`Recipient`].
*
- * Errors if the `Recipient` variant is not supported by the implementation.
+ * Errors if the [`Recipient`] variant is not supported by the implementation.
*/
public Result_RecoverableSignatureNoneZ sign_invoice(byte[] hrp_bytes, UInt5[] invoice_data, org.ldk.enums.Recipient receipient) {
long ret = bindings.KeysInterface_sign_invoice(this.ptr, hrp_bytes, invoice_data != null ? InternalUtils.convUInt5Array(invoice_data) : null, receipient);
projects / ldk-java / blobdiff