/// Creates a digital signature of a message given a SecretKey, like the node's secret.
/// A receiver knowing the PublicKey (e.g. the node's id) and the message can be sure that the signature was generated by the caller.
/// Signatures are EC recoverable, meaning that given the message and the signature the PublicKey of the signer can be extracted.
-pub fn sign(msg: &[u8], sk: SecretKey) -> Result<String, Error> {
+pub fn sign(msg: &[u8], sk: &SecretKey) -> Result<String, Error> {
let secp_ctx = Secp256k1::signing_only();
let msg_hash = sha256d::Hash::hash(&[LN_MESSAGE_PREFIX, msg].concat());
- let sig = secp_ctx.sign_recoverable(&Message::from_slice(&msg_hash)?, &sk);
+ let sig = secp_ctx.sign_recoverable(&Message::from_slice(&msg_hash)?, sk);
Ok(zbase32::encode(&sigrec_encode(sig)))
}
/// Verifies a message was signed by a PrivateKey that derives to a given PublicKey, given a message, a signature,
/// and the PublicKey.
-pub fn verify(msg: &[u8], sig: &str, pk: PublicKey) -> bool {
+pub fn verify(msg: &[u8], sig: &str, pk: &PublicKey) -> bool {
match recover_pk(msg, sig) {
- Ok(x) => x == pk,
+ Ok(x) => x == *pk,
Err(_) => false
}
}
#[test]
fn test_sign() {
let message = "test message";
- let zbase32_sig = sign(message.as_bytes(), ONE_KEY);
+ let zbase32_sig = sign(message.as_bytes(), &ONE_KEY);
assert_eq!(zbase32_sig.unwrap(), "d9tibmnic9t5y41hg7hkakdcra94akas9ku3rmmj4ag9mritc8ok4p5qzefs78c9pqfhpuftqqzhydbdwfg7u6w6wdxcqpqn4sj4e73e")
}
#[test]
fn test_verify() {
let message = "another message";
- let sig = sign(message.as_bytes(), ONE_KEY).unwrap();
+ let sig = sign(message.as_bytes(), &ONE_KEY).unwrap();
let pk = PublicKey::from_secret_key(&Secp256k1::signing_only(), &ONE_KEY);
- assert!(verify(message.as_bytes(), &sig, pk))
+ assert!(verify(message.as_bytes(), &sig, &pk))
}
#[test]
];
for c in &corpus {
- assert!(verify(c[1].as_bytes(), c[2], PublicKey::from_str(c[3]).unwrap()))
+ assert!(verify(c[1].as_bytes(), c[2], &PublicKey::from_str(c[3]).unwrap()))
}
}
}