use bitcoin::secp256k1::ecdsa::RecoverableSignature;
use bitcoin::{PackedLockTime, secp256k1, Sequence, Witness};
-use util::{byte_utils, transaction_utils};
-use util::crypto::{hkdf_extract_expand_twice, sign};
-use util::ser::{Writeable, Writer, Readable, ReadableArgs};
-
-use chain::transaction::OutPoint;
-use ln::channel::ANCHOR_OUTPUT_VALUE_SATOSHI;
-use ln::{chan_utils, PaymentPreimage};
-use ln::chan_utils::{HTLCOutputInCommitment, make_funding_redeemscript, ChannelPublicKeys, HolderCommitmentTransaction, ChannelTransactionParameters, CommitmentTransaction, ClosingTransaction};
-use ln::msgs::UnsignedChannelAnnouncement;
-use ln::script::ShutdownScript;
-
-use prelude::*;
+use crate::util::{byte_utils, transaction_utils};
+use crate::util::crypto::{hkdf_extract_expand_twice, sign};
+use crate::util::ser::{Writeable, Writer, Readable, ReadableArgs};
+
+use crate::chain::transaction::OutPoint;
+use crate::ln::channel::ANCHOR_OUTPUT_VALUE_SATOSHI;
+use crate::ln::{chan_utils, PaymentPreimage};
+use crate::ln::chan_utils::{HTLCOutputInCommitment, make_funding_redeemscript, ChannelPublicKeys, HolderCommitmentTransaction, ChannelTransactionParameters, CommitmentTransaction, ClosingTransaction};
+use crate::ln::msgs::UnsignedChannelAnnouncement;
+use crate::ln::script::ShutdownScript;
+
+use crate::prelude::*;
use core::sync::atomic::{AtomicUsize, Ordering};
-use io::{self, Error};
-use ln::msgs::{DecodeError, MAX_VALUE_MSAT};
-use util::invoice::construct_invoice_preimage;
+use crate::io::{self, Error};
+use crate::ln::msgs::{DecodeError, MAX_VALUE_MSAT};
+use crate::util::invoice::construct_invoice_preimage;
/// Used as initial key material, to be expanded into multiple secret keys (but not to be used
/// directly). This is used within LDK to encrypt/decrypt inbound payment data.
/// Computes the signature for a commitment transaction's anchor output used as an
/// input within `anchor_tx`, which spends the commitment transaction, at index `input`.
fn sign_holder_anchor_input(
- &self, anchor_tx: &mut Transaction, input: usize, secp_ctx: &Secp256k1<secp256k1::All>,
+ &self, anchor_tx: &Transaction, input: usize, secp_ctx: &Secp256k1<secp256k1::All>,
) -> Result<Signature, ()>;
/// Signs a channel announcement message with our funding key and our node secret key (aka
///
/// 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.
fn get_node_secret(&self, recipient: Recipient) -> Result<SecretKey, ()>;
/// 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`
/// parameter.
///
+ /// Errors if the `Recipient` variant is not supported by the implementation.
+ ///
/// [`get_node_secret`]: KeysInterface::get_node_secret
fn get_node_id(&self, recipient: Recipient) -> Result<PublicKey, ()> {
let secp_ctx = Secp256k1::signing_only();
/// 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.
+ ///
/// [`node secret`]: Self::get_node_secret
fn ecdh(&self, recipient: Recipient, other_key: &PublicKey, tweak: Option<&Scalar>) -> Result<SharedSecret, ()>;
/// Get a script pubkey which we send funds to when claiming on-chain contestable outputs.
/// The hrp is ascii bytes, while the invoice data is base32.
///
/// The secret key used to sign the invoice is dependent on the [`Recipient`].
+ ///
+ /// Errors if the `Recipient` variant is not supported by the implementation.
fn sign_invoice(&self, hrp_bytes: &[u8], invoice_data: &[u5], receipient: Recipient) -> Result<RecoverableSignature, ()>;
/// Get secret key material as bytes for use in encrypting and decrypting inbound payment data.
htlc_base_key: SecretKey,
commitment_seed: [u8; 32],
channel_value_satoshis: u64,
- channel_keys_id: [u8; 32]) -> InMemorySigner {
+ channel_keys_id: [u8; 32],
+ ) -> InMemorySigner {
let holder_channel_pubkeys =
InMemorySigner::make_holder_keys(secp_ctx, &funding_key, &revocation_base_key,
&payment_key, &delayed_payment_base_key,
let mut htlc_sigs = Vec::with_capacity(commitment_tx.htlcs().len());
for htlc in commitment_tx.htlcs() {
- let htlc_tx = chan_utils::build_htlc_transaction(&commitment_txid, commitment_tx.feerate_per_kw(), self.holder_selected_contest_delay(), htlc, self.opt_anchors(), &keys.broadcaster_delayed_payment_key, &keys.revocation_key);
+ let channel_parameters = self.get_channel_parameters();
+ let htlc_tx = chan_utils::build_htlc_transaction(&commitment_txid, commitment_tx.feerate_per_kw(), self.holder_selected_contest_delay(), htlc, self.opt_anchors(), channel_parameters.opt_non_zero_fee_anchors.is_some(), &keys.broadcaster_delayed_payment_key, &keys.revocation_key);
let htlc_redeemscript = chan_utils::get_htlc_redeemscript(&htlc, self.opt_anchors(), &keys);
let htlc_sighashtype = if self.opt_anchors() { EcdsaSighashType::SinglePlusAnyoneCanPay } else { EcdsaSighashType::All };
let htlc_sighash = hash_to_message!(&sighash::SighashCache::new(&htlc_tx).segwit_signature_hash(0, &htlc_redeemscript, htlc.amount_msat / 1000, htlc_sighashtype).unwrap()[..]);
}
fn sign_holder_anchor_input(
- &self, anchor_tx: &mut Transaction, input: usize, secp_ctx: &Secp256k1<secp256k1::All>,
+ &self, anchor_tx: &Transaction, input: usize, secp_ctx: &Secp256k1<secp256k1::All>,
) -> Result<Signature, ()> {
let witness_script = chan_utils::get_anchor_redeemscript(&self.holder_channel_pubkeys.funding_pubkey);
let sighash = sighash::SighashCache::new(&*anchor_tx).segwit_signature_hash(
htlc_base_key,
commitment_seed,
channel_value_satoshis,
- params.clone()
+ params.clone(),
)
}
projects / rust-lightning / blobdiff