Refactor secret conditions (#350)

* refactor spending conditions and add comments

* fix kind enum deserialization
This commit is contained in:
callebtc
2023-10-21 16:51:12 +02:00
committed by GitHub
parent 0490f20932
commit 48f732e9e7
8 changed files with 301 additions and 227 deletions

View File

@@ -132,17 +132,12 @@ class Proof(BaseModel):
@property
def p2pksigs(self) -> List[str]:
assert self.witness, "Witness is missing"
assert self.witness, "Witness is missing for p2pk signature"
return P2PKWitness.from_witness(self.witness).signatures
@property
def p2shscript(self) -> P2SHWitness:
assert self.witness, "Witness is missing"
return P2SHWitness.from_witness(self.witness)
@property
def htlcpreimage(self) -> Union[str, None]:
assert self.witness, "Witness is missing"
assert self.witness, "Witness is missing for htlc preimage"
return HTLCWitness.from_witness(self.witness).preimage
@@ -162,7 +157,7 @@ class BlindedMessage(BaseModel):
@property
def p2pksigs(self) -> List[str]:
assert self.witness, "Witness is missing"
assert self.witness, "Witness missing in output"
return P2PKWitness.from_witness(self.witness).signatures

View File

@@ -6,7 +6,7 @@ from .secret import Secret, SecretKind
class HTLCSecret(Secret):
@classmethod
def from_secret(cls, secret: Secret):
assert secret.kind == SecretKind.HTLC, "Secret is not a HTLC secret"
assert SecretKind(secret.kind) == SecretKind.HTLC, "Secret is not a HTLC secret"
# NOTE: exclude tags in .dict() because it doesn't deserialize it properly
# need to add it back in manually with tags=secret.tags
return cls(**secret.dict(exclude={"tags"}), tags=secret.tags)

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@@ -1,5 +1,6 @@
import hashlib
import time
from enum import Enum
from typing import List, Union
from loguru import logger
@@ -8,23 +9,26 @@ from .crypto.secp import PrivateKey, PublicKey
from .secret import Secret, SecretKind
class SigFlags:
SIG_INPUTS = ( # require signatures only on the inputs (default signature flag)
"SIG_INPUTS"
)
SIG_ALL = "SIG_ALL" # require signatures on inputs and outputs
class SigFlags(Enum):
# require signatures only on the inputs (default signature flag)
SIG_INPUTS = "SIG_INPUTS"
# require signatures on inputs and outputs
SIG_ALL = "SIG_ALL"
class P2PKSecret(Secret):
@classmethod
def from_secret(cls, secret: Secret):
assert secret.kind == SecretKind.P2PK, "Secret is not a P2PK secret"
assert SecretKind(secret.kind) == SecretKind.P2PK, "Secret is not a P2PK secret"
# NOTE: exclude tags in .dict() because it doesn't deserialize it properly
# need to add it back in manually with tags=secret.tags
return cls(**secret.dict(exclude={"tags"}), tags=secret.tags)
def get_p2pk_pubkey_from_secret(self) -> List[str]:
"""Gets the P2PK pubkey from a Secret depending on the locktime
"""Gets the P2PK pubkey from a Secret depending on the locktime.
If locktime is passed, only the refund pubkeys are returned.
Else, the pubkeys in the data field and in the 'pubkeys' tag are returned.
Args:
secret (Secret): P2PK Secret in ecash token
@@ -54,8 +58,9 @@ class P2PKSecret(Secret):
return int(locktime) if locktime else None
@property
def sigflag(self) -> Union[None, str]:
return self.tags.get_tag("sigflag")
def sigflag(self) -> Union[None, SigFlags]:
sigflag = self.tags.get_tag("sigflag")
return SigFlags(sigflag) if sigflag else None
@property
def n_sigs(self) -> Union[None, int]:

View File

@@ -1,4 +1,5 @@
import json
from enum import Enum
from typing import Any, Dict, List, Optional, Union
from loguru import logger
@@ -7,7 +8,7 @@ from pydantic import BaseModel
from .crypto.secp import PrivateKey
class SecretKind:
class SecretKind(Enum):
P2PK = "P2PK"
HTLC = "HTLC"

View File

@@ -19,11 +19,184 @@ from ..core.secret import Secret, SecretKind
class LedgerSpendingConditions:
def _verify_p2pk_spending_conditions(self, proof: Proof, secret: Secret) -> bool:
"""
Verify P2PK spending condition for a single input.
We return True:
- if the secret is not a P2PKSecret spending condition
- if the locktime has passed and no refund pubkey is present
We raise an exception:
- if the pubkeys in the secret are not unique
- if no signatures are present
- if the signatures are not unique
- if n_sigs is not positive
- if n_sigs is larger than the number of provided signatures
- if no valid signatures are present
- if the signature threshold is not met
"""
if SecretKind(secret.kind) != SecretKind.P2PK:
# not a P2PK secret
return True
p2pk_secret = P2PKSecret.from_secret(secret)
# extract pubkeys that we require signatures from depending on whether the
# locktime has passed (refund) or not (pubkeys in secret.data and in tags)
# This is implemented in get_p2pk_pubkey_from_secret()
pubkeys = p2pk_secret.get_p2pk_pubkey_from_secret()
# we will get an empty list if the locktime has passed and no refund pubkey is present
if not pubkeys:
return True
assert len(set(pubkeys)) == len(pubkeys), "pubkeys must be unique."
logger.trace(f"pubkeys: {pubkeys}")
# verify that signatures are present
if not proof.p2pksigs:
# no signature present although secret indicates one
logger.error(f"no p2pk signatures in proof: {proof.p2pksigs}")
raise TransactionError("no p2pk signatures in proof.")
# we make sure that there are no duplicate signatures
if len(set(proof.p2pksigs)) != len(proof.p2pksigs):
raise TransactionError("p2pk signatures must be unique.")
# we parse the secret as a P2PK commitment
# assert len(proof.secret.split(":")) == 5, "p2pk secret format invalid."
# INPUTS: check signatures proof.p2pksigs against pubkey
# we expect the signature to be on the pubkey (=message) itself
n_sigs_required = p2pk_secret.n_sigs or 1
assert n_sigs_required > 0, "n_sigs must be positive."
# check if enough signatures are present
assert (
len(proof.p2pksigs) >= n_sigs_required
), f"not enough signatures provided: {len(proof.p2pksigs)} < {n_sigs_required}."
n_valid_sigs_per_output = 0
# loop over all signatures in output
for input_sig in proof.p2pksigs:
for pubkey in pubkeys:
logger.trace(f"verifying signature {input_sig} by pubkey {pubkey}.")
logger.trace(f"Message: {p2pk_secret.serialize().encode('utf-8')}")
if verify_p2pk_signature(
message=p2pk_secret.serialize().encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(input_sig),
):
n_valid_sigs_per_output += 1
logger.trace(
f"p2pk signature on input is valid: {input_sig} on {pubkey}."
)
# check if we have enough valid signatures
assert n_valid_sigs_per_output, "no valid signature provided for input."
assert n_valid_sigs_per_output >= n_sigs_required, (
f"signature threshold not met. {n_valid_sigs_per_output} <"
f" {n_sigs_required}."
)
logger.trace(
f"{n_valid_sigs_per_output} of {n_sigs_required} valid signatures found."
)
logger.trace(proof.p2pksigs)
logger.trace("p2pk signature on inputs is valid.")
return True
def _verify_htlc_spending_conditions(self, proof: Proof, secret: Secret) -> bool:
"""
Verify HTLC spending condition for a single input.
We return True:
- if the secret is not a HTLCSecret spending condition
We first verify the time lock. If the locktime has passed, we require
a valid signature if a 'refund' pubkey is present. If it isn't present,
anyone can spend.
We return True:
- if 'refund' pubkeys are present and a valid signature is provided for one of them
We raise an exception:
- if 'refund' but no valid signature is present
We then verify the hash lock. We require a valid preimage. We require a valid
signature if 'pubkeys' are present. If they aren't present, anyone who provides
a valid preimage can spend.
We raise an exception:
- if no preimage is provided
- if preimage does not match the hash lock in the secret
We return True:
- if 'pubkeys' are present and a valid signature is provided for one of them
We raise an exception:
- if 'pubkeys' are present but no valid signature is provided
"""
if SecretKind(secret.kind) != SecretKind.HTLC:
# not a P2PK secret
return True
htlc_secret = HTLCSecret.from_secret(secret)
# time lock
# check if locktime is in the past
if htlc_secret.locktime and htlc_secret.locktime < time.time():
refund_pubkeys = htlc_secret.tags.get_tag_all("refund")
if refund_pubkeys:
assert proof.witness, TransactionError("no HTLC refund signature.")
signature = HTLCWitness.from_witness(proof.witness).signature
assert signature, TransactionError("no HTLC refund signature provided")
for pubkey in refund_pubkeys:
if verify_p2pk_signature(
message=htlc_secret.serialize().encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(signature),
):
# a signature matches
return True
raise TransactionError("HTLC refund signatures did not match.")
# no pubkeys given in secret, anyone can spend
return True
# hash lock
assert proof.htlcpreimage, TransactionError("no HTLC preimage provided")
# first we check whether a correct preimage was included
if not hashlib.sha256(
bytes.fromhex(proof.htlcpreimage)
).digest() == bytes.fromhex(htlc_secret.data):
raise TransactionError("HTLC preimage does not match.")
# then we check whether a signature is required
hashlock_pubkeys = htlc_secret.tags.get_tag_all("pubkeys")
if hashlock_pubkeys:
assert proof.witness, TransactionError("no HTLC hash lock signature.")
signature = HTLCWitness.from_witness(proof.witness).signature
assert signature, TransactionError("HTLC no hash lock signatures provided.")
for pubkey in hashlock_pubkeys:
if verify_p2pk_signature(
message=htlc_secret.serialize().encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(signature),
):
# a signature matches
return True
# none of the pubkeys had a match
raise TransactionError("HTLC hash lock signatures did not match.")
# no pubkeys were included, anyone can spend
return True
def _verify_input_spending_conditions(self, proof: Proof) -> bool:
"""
Verify spending conditions:
Condition: P2PK - Witness: proof.p2pksigs
Condition: HTLC - Witness: proof.htlcpreimage, proof.htlcsignature
Condition: P2PK - Checks if signature in proof.witness is valid for pubkey in proof.secret
Condition: HTLC - Checks if preimage in proof.witness is valid for hash in proof.secret
"""
try:
@@ -35,134 +208,118 @@ class LedgerSpendingConditions:
return True
# P2PK
if secret.kind == SecretKind.P2PK:
p2pk_secret = P2PKSecret.from_secret(secret)
# check if locktime is in the past
pubkeys = p2pk_secret.get_p2pk_pubkey_from_secret()
assert len(set(pubkeys)) == len(pubkeys), "pubkeys must be unique."
logger.trace(f"pubkeys: {pubkeys}")
# we will get an empty list if the locktime has passed and no refund pubkey is present
if not pubkeys:
return True
if SecretKind(secret.kind) == SecretKind.P2PK:
return self._verify_p2pk_spending_conditions(proof, secret)
# now we check the signature
if not proof.p2pksigs:
# no signature present although secret indicates one
logger.error(f"no p2pk signatures in proof: {proof.p2pksigs}")
raise TransactionError("no p2pk signatures in proof.")
# HTLC
if SecretKind(secret.kind) == SecretKind.HTLC:
return self._verify_htlc_spending_conditions(proof, secret)
# we make sure that there are no duplicate signatures
if len(set(proof.p2pksigs)) != len(proof.p2pksigs):
raise TransactionError("p2pk signatures must be unique.")
# no spending condition present
return True
# we parse the secret as a P2PK commitment
# assert len(proof.secret.split(":")) == 5, "p2pk secret format invalid."
# ------ output spending conditions ------
# INPUTS: check signatures proof.p2pksigs against pubkey
def _verify_output_p2pk_spending_conditions(
self, proofs: List[Proof], outputs: List[BlindedMessage]
) -> bool:
"""
If sigflag==SIG_ALL in proof.secret, check if outputs
contain valid signatures for pubkeys in proof.secret.
We return True
- if not all proof.secret are Secret spending condition
- if not all secrets are P2PKSecret spending condition
- if not all signature.sigflag are SIG_ALL
We raise an exception:
- if not all pubkeys in all secrets are the same
- if not all n_sigs in all secrets are the same
- if not all signatures in all outputs are unique
- if not all signatures in all outputs are valid
- if no valid signatures are present
- if the signature threshold is not met
We return True if we successfully validated the spending condition.
"""
try:
secrets_generic = [Secret.deserialize(p.secret) for p in proofs]
p2pk_secrets = [
P2PKSecret.from_secret(secret) for secret in secrets_generic
]
except Exception:
# secret is not a spending condition so we treat is a normal secret
return True
# check if all secrets are P2PK
# NOTE: This is redundant, because P2PKSecret.from_secret() already checks for the kind
# Leaving it in for explicitness
if not all(
[SecretKind(secret.kind) == SecretKind.P2PK for secret in p2pk_secrets]
):
# not all secrets are P2PK
return True
# check if all secrets are sigflag==SIG_ALL
if not all([secret.sigflag == SigFlags.SIG_ALL for secret in p2pk_secrets]):
# not all secrets have sigflag==SIG_ALL
return True
# extract all pubkeys and n_sigs from secrets
pubkeys_per_proof = [
secret.get_p2pk_pubkey_from_secret() for secret in p2pk_secrets
]
n_sigs_per_proof = [secret.n_sigs for secret in p2pk_secrets]
# all pubkeys and n_sigs must be the same
assert (
len(set([tuple(pubs_output) for pubs_output in pubkeys_per_proof])) == 1
), "pubkeys in all proofs must match."
assert len(set(n_sigs_per_proof)) == 1, "n_sigs in all proofs must match."
# TODO: add limit for maximum number of pubkeys
# validation successful
pubkeys: List[str] = pubkeys_per_proof[0]
# if n_sigs is None, we set it to 1
n_sigs: int = n_sigs_per_proof[0] or 1
logger.trace(f"pubkeys: {pubkeys}")
# loop over all outputs and check if the signatures are valid for pubkeys with a threshold of n_sig
for output in outputs:
# we expect the signature to be on the pubkey (=message) itself
n_sigs_required = p2pk_secret.n_sigs or 1
assert n_sigs_required > 0, "n_sigs must be positive."
p2pksigs = output.p2pksigs
assert p2pksigs, "no signatures in output."
# TODO: add limit for maximum number of signatures
# check if enough signatures are present
assert len(proof.p2pksigs) >= n_sigs_required, (
f"not enough signatures provided: {len(proof.p2pksigs)} <"
f" {n_sigs_required}."
)
# we check whether any signature is duplicate
assert len(set(p2pksigs)) == len(
p2pksigs
), "duplicate signatures in output."
n_valid_sigs_per_output = 0
# loop over all signatures in output
for input_sig in proof.p2pksigs:
for sig in p2pksigs:
for pubkey in pubkeys:
logger.trace(f"verifying signature {input_sig} by pubkey {pubkey}.")
logger.trace(f"Message: {p2pk_secret.serialize().encode('utf-8')}")
if verify_p2pk_signature(
message=p2pk_secret.serialize().encode("utf-8"),
message=output.B_.encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(input_sig),
signature=bytes.fromhex(sig),
):
n_valid_sigs_per_output += 1
logger.trace(
f"p2pk signature on input is valid: {input_sig} on"
f" {pubkey}."
)
continue
else:
logger.trace(
f"p2pk signature on input is invalid: {input_sig} on"
f" {pubkey}."
)
# check if we have enough valid signatures
assert n_valid_sigs_per_output, "no valid signature provided for input."
assert n_valid_sigs_per_output >= n_sigs_required, (
f"signature threshold not met. {n_valid_sigs_per_output} <"
f" {n_sigs_required}."
)
assert n_valid_sigs_per_output, "no valid signature provided for output."
assert (
n_valid_sigs_per_output >= n_sigs
), f"signature threshold not met. {n_valid_sigs_per_output} < {n_sigs}."
logger.trace(
f"{n_valid_sigs_per_output} of {n_sigs_required} valid signatures"
" found."
f"{n_valid_sigs_per_output} of {n_sigs} valid signatures found."
)
logger.trace(proof.p2pksigs)
logger.trace("p2pk signature on inputs is valid.")
return True
# HTLC
if secret.kind == SecretKind.HTLC:
htlc_secret = HTLCSecret.from_secret(secret)
# time lock
# check if locktime is in the past
if htlc_secret.locktime and htlc_secret.locktime < time.time():
refund_pubkeys = htlc_secret.tags.get_tag_all("refund")
if refund_pubkeys:
assert proof.witness, TransactionError("no HTLC refund signature.")
signature = HTLCWitness.from_witness(proof.witness).signature
assert signature, TransactionError(
"no HTLC refund signature provided"
)
for pubkey in refund_pubkeys:
if verify_p2pk_signature(
message=htlc_secret.serialize().encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(signature),
):
# a signature matches
return True
raise TransactionError("HTLC refund signatures did not match.")
# no pubkeys given in secret, anyone can spend
return True
# hash lock
assert proof.htlcpreimage, TransactionError("no HTLC preimage provided")
# first we check whether a correct preimage was included
if not hashlib.sha256(
bytes.fromhex(proof.htlcpreimage)
).digest() == bytes.fromhex(htlc_secret.data):
raise TransactionError("HTLC preimage does not match.")
# then we check whether a signature is required
hashlock_pubkeys = htlc_secret.tags.get_tag_all("pubkeys")
if hashlock_pubkeys:
assert proof.witness, TransactionError("no HTLC hash lock signature.")
signature = HTLCWitness.from_witness(proof.witness).signature
assert signature, TransactionError(
"HTLC no hash lock signatures provided."
)
for pubkey in hashlock_pubkeys:
if verify_p2pk_signature(
message=htlc_secret.serialize().encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(signature),
):
# a signature matches
return True
# none of the pubkeys had a match
raise TransactionError("HTLC hash lock signatures did not match.")
# no pubkeys were included, anyone can spend
return True
# no spending condition present
logger.trace(p2pksigs)
logger.trace("p2pk signatures on output is valid.")
return True
def _verify_output_spending_conditions(
@@ -170,86 +327,7 @@ class LedgerSpendingConditions:
) -> bool:
"""
Verify spending conditions:
Condition: P2PK - Witness: output.p2pksigs
Condition: P2PK - If sigflag==SIG_ALL in proof.secret, check if outputs contain valid signatures for pubkeys in proof.secret.
"""
# P2PK
pubkeys_per_proof = []
n_sigs = []
for proof in proofs:
try:
secret = P2PKSecret.deserialize(proof.secret)
# get all p2pk pubkeys from secrets
pubkeys_per_proof.append(secret.get_p2pk_pubkey_from_secret())
# get signature threshold from secrets
n_sigs.append(secret.n_sigs)
except Exception:
# secret is not a spending condition so we treat is a normal secret
return True
# for all proofs all pubkeys must be the same
assert (
len(set([tuple(pubs_output) for pubs_output in pubkeys_per_proof])) == 1
), "pubkeys in all proofs must match."
pubkeys = pubkeys_per_proof[0]
if not pubkeys:
# no pubkeys present
return True
logger.trace(f"pubkeys: {pubkeys}")
# TODO: add limit for maximum number of pubkeys
# for all proofs all n_sigs must be the same
assert len(set(n_sigs)) == 1, "n_sigs in all proofs must match."
n_sigs_required = n_sigs[0] or 1
# first we check if all secrets are P2PK
if not all(
[Secret.deserialize(p.secret).kind == SecretKind.P2PK for p in proofs]
):
# not all secrets are P2PK
return True
# now we check if any of the secrets has sigflag==SIG_ALL
if not any(
[
P2PKSecret.deserialize(p.secret).sigflag == SigFlags.SIG_ALL
for p in proofs
]
):
# no secret has sigflag==SIG_ALL
return True
# loop over all outputs and check if the signatures are valid for pubkeys with a threshold of n_sig
for output in outputs:
# we expect the signature to be on the pubkey (=message) itself
assert output.p2pksigs, "no signatures in output."
# TODO: add limit for maximum number of signatures
# we check whether any signature is duplicate
assert len(set(output.p2pksigs)) == len(
output.p2pksigs
), "duplicate signatures in output."
n_valid_sigs_per_output = 0
# loop over all signatures in output
for output_sig in output.p2pksigs:
for pubkey in pubkeys:
if verify_p2pk_signature(
message=output.B_.encode("utf-8"),
pubkey=PublicKey(bytes.fromhex(pubkey), raw=True),
signature=bytes.fromhex(output_sig),
):
n_valid_sigs_per_output += 1
assert n_valid_sigs_per_output, "no valid signature provided for output."
assert n_valid_sigs_per_output >= n_sigs_required, (
f"signature threshold not met. {n_valid_sigs_per_output} <"
f" {n_sigs_required}."
)
logger.trace(
f"{n_valid_sigs_per_output} of {n_sigs_required} valid signatures"
" found."
)
logger.trace(output.p2pksigs)
logger.trace("p2pk signatures on output is valid.")
return True
return self._verify_output_p2pk_spending_conditions(proofs, outputs)

View File

@@ -40,7 +40,7 @@ class WalletHTLC(SupportsDb):
tags["pubkeys"] = hashlock_pubkey
return HTLCSecret(
kind=SecretKind.HTLC,
kind=SecretKind.HTLC.value,
data=preimage_hash,
tags=tags,
)

View File

@@ -49,12 +49,14 @@ class WalletP2PK(SupportsPrivateKey, SupportsDb):
tags["locktime"] = str(
int((datetime.now() + timedelta(seconds=locktime_seconds)).timestamp())
)
tags["sigflag"] = SigFlags.SIG_ALL if sig_all else SigFlags.SIG_INPUTS
tags["sigflag"] = (
SigFlags.SIG_ALL.value if sig_all else SigFlags.SIG_INPUTS.value
)
if n_sigs > 1:
tags["n_sigs"] = str(n_sigs)
logger.debug(f"After tags: {tags}")
return P2PKSecret(
kind=SecretKind.P2PK,
kind=SecretKind.P2PK.value,
data=pubkey,
tags=tags,
)
@@ -182,7 +184,9 @@ class WalletP2PK(SupportsPrivateKey, SupportsDb):
return proofs
logger.debug("Spending conditions detected.")
# P2PK signatures
if all([Secret.deserialize(p.secret).kind == SecretKind.P2PK for p in proofs]):
if all(
[Secret.deserialize(p.secret).kind == SecretKind.P2PK.value for p in proofs]
):
logger.debug("P2PK redemption detected.")
proofs = await self.add_p2pk_witnesses_to_proofs(proofs)

View File

@@ -73,7 +73,6 @@ async def test_htlc_split(wallet1: Wallet, wallet2: Wallet):
preimage = "00000000000000000000000000000000"
preimage_hash = hashlib.sha256(bytes.fromhex(preimage)).hexdigest()
secret = await wallet1.create_htlc_lock(preimage=preimage)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
for p in send_proofs:
assert HTLCSecret.deserialize(p.secret).data == preimage_hash
@@ -86,7 +85,6 @@ async def test_htlc_redeem_with_preimage(wallet1: Wallet, wallet2: Wallet):
preimage = "00000000000000000000000000000000"
# preimage_hash = hashlib.sha256(bytes.fromhex(preimage)).hexdigest()
secret = await wallet1.create_htlc_lock(preimage=preimage)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
for p in send_proofs:
p.witness = HTLCWitness(preimage=preimage).json()
@@ -102,7 +100,6 @@ async def test_htlc_redeem_with_wrong_preimage(wallet1: Wallet, wallet2: Wallet)
secret = await wallet1.create_htlc_lock(
preimage=preimage[:-5] + "11111"
) # wrong preimage
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
for p in send_proofs:
p.witness = HTLCWitness(preimage=preimage).json()
@@ -121,7 +118,6 @@ async def test_htlc_redeem_with_no_signature(wallet1: Wallet, wallet2: Wallet):
secret = await wallet1.create_htlc_lock(
preimage=preimage, hashlock_pubkey=pubkey_wallet1
)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
for p in send_proofs:
p.witness = HTLCWitness(preimage=preimage).json()
@@ -141,8 +137,6 @@ async def test_htlc_redeem_with_wrong_signature(wallet1: Wallet, wallet2: Wallet
secret = await wallet1.create_htlc_lock(
preimage=preimage, hashlock_pubkey=pubkey_wallet1
)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
signatures = await wallet1.sign_p2pk_proofs(send_proofs)
for p, s in zip(send_proofs, signatures):
@@ -166,7 +160,6 @@ async def test_htlc_redeem_with_correct_signature(wallet1: Wallet, wallet2: Wall
secret = await wallet1.create_htlc_lock(
preimage=preimage, hashlock_pubkey=pubkey_wallet1
)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
signatures = await wallet1.sign_p2pk_proofs(send_proofs)
@@ -192,7 +185,6 @@ async def test_htlc_redeem_hashlock_wrong_signature_timelock_correct_signature(
locktime_seconds=5,
locktime_pubkey=pubkey_wallet1,
)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
signatures = await wallet1.sign_p2pk_proofs(send_proofs)
@@ -226,7 +218,6 @@ async def test_htlc_redeem_hashlock_wrong_signature_timelock_wrong_signature(
locktime_seconds=5,
locktime_pubkey=pubkey_wallet1,
)
# p2pk test
_, send_proofs = await wallet1.split_to_send(wallet1.proofs, 8, secret_lock=secret)
signatures = await wallet1.sign_p2pk_proofs(send_proofs)