def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
# Errors and other user interaction is done through the wallet's
# handler. The handler is per-window and preserved across
# device reconnects
self.force_watching_only = False
self.ux_busy = False
# for multisig I need to know what wallet this keystore is part of
# will be set by link_wallet
self.my_wallet = None
# Seems like only the derivation path and resulting **derived** xpub is stored in
# the wallet file... however, we need to know at least the fingerprint of the master
# xpub to verify against MiTM, and also so we can put the right value into the subkey paths
# of PSBT files that might be generated offline.
# - save the fingerprint of the master xpub, as "xfp"
# - it's a LE32 int, but hex BE32 is more natural way to view it
# - device reports these value during encryption setup process
# - full xpub value now optional
lab = d['label']
if hasattr(lab, 'xfp'):
# initial setup
self.ckcc_xfp = lab.xfp
self.ckcc_xpub = getattr(lab, 'xpub', None)
else:
# wallet load: fatal if missing, we need them!
self.ckcc_xfp = d['ckcc_xfp']
self.ckcc_xpub = d.get('ckcc_xpub', None)
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
# Errors and other user interaction is done through the wallet's
# handler. The handler is per-window and preserved across
# device reconnects
self.force_watching_only = False
self.signing = False
self.cfg = d.get('cfg', {'mode':0,'pair':''})
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
# Errors and other user interaction is done through the wallet's
# handler. The handler is per-window and preserved across
# device reconnects
self.force_watching_only = False
self.signing = False
self.cfg = d.get('cfg', {'mode': 0})
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
# Errors and other user interaction is done through the wallet's
# handler. The handler is per-window and preserved across
# device reconnects
self.force_watching_only = False
self.ux_busy = False
# we need to know at least the fingerprint of the master xpub to verify against MiTM
# - device reports these value during encryption setup process
# - full xpub value now optional
self.ckcc_xpub = d.get('ckcc_xpub', None)
def dump(self):
# our additions to the stored data about keystore -- only during creation?
d = Hardware_KeyStore.dump(self)
d['ckcc_xfp'] = self.ckcc_xfp
d['ckcc_xpub'] = self.ckcc_xpub
return d
def dump(self):
# our additions to the stored data about keystore -- only during creation?
d = Hardware_KeyStore.dump(self)
d['ckcc_xfp'] = self.ckcc_xfp
d['ckcc_xpub'] = self.ckcc_xpub
return d
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
# Errors and other user interaction is done through the wallet's
# handler. The handler is per-window and preserved across
# device reconnects
self.force_watching_only = False
self.ux_busy = False
# Seems like only the derivation path and resulting **derived** xpub is stored in
# the wallet file... however, we need to know at least the fingerprint of the master
# xpub to verify against MiTM, and also so we can put the right value into the subkey paths
# of PSBT files that might be generated offline.
# - save the fingerprint of the master xpub, as "xfp"
# - it's a LE32 int, but hex more natural way to see it
# - device reports these value during encryption setup process
lab = d['label']
if hasattr(lab, 'xfp'):
# initial setup
self.ckcc_xfp = lab.xfp
self.ckcc_xpub = lab.xpub
else:
# wallet load: fatal if missing, we need them!
self.ckcc_xfp = d['ckcc_xfp']
self.ckcc_xpub = d['ckcc_xpub']
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
self.force_watching_only = False
self.maxInputs = 14 # maximum inputs per single sign command
def dump(self):
obj = Hardware_KeyStore.dump(self)
obj['cfg'] = self.cfg
return obj
def dump(self):
obj = Hardware_KeyStore.dump(self)
obj['cfg'] = self.cfg
return obj
def sign_transaction(
self,
keystore: Hardware_KeyStore,
tx: PartialTransaction,
wallet: Deterministic_Wallet,
):
if tx.is_complete():
return
if self.bitbox02_device is None:
raise Exception(
"Need to setup communication first before attempting any BitBox02 calls"
)
coin = bitbox02.btc.LTC
if constants.net.TESTNET:
coin = bitbox02.btc.TLTC
tx_script_type = None
# Build BTCInputType list
inputs = []
for txin in tx.inputs():
_, full_path = keystore.find_my_pubkey_in_txinout(txin)
if full_path is None:
raise Exception(
"A wallet owned pubkey was not found in the transaction input to be signed"
)
inputs.append(
{
"prev_out_hash": txin.prevout.txid[::-1],
"prev_out_index": txin.prevout.out_idx,
"prev_out_value": txin.value_sats(),
"sequence": txin.nsequence,
"keypath": full_path,
}
)
if tx_script_type == None:
tx_script_type = txin.script_type
elif tx_script_type != txin.script_type:
raise Exception("Cannot mix different input script types")
if tx_script_type == "p2wpkh":
tx_script_type = bitbox02.btc.BTCScriptConfig(
simple_type=bitbox02.btc.BTCScriptConfig.P2WPKH
)
elif tx_script_type == "p2wpkh-p2sh":
tx_script_type = bitbox02.btc.BTCScriptConfig(
simple_type=bitbox02.btc.BTCScriptConfig.P2WPKH_P2SH
)
elif tx_script_type == "p2wsh":
if type(wallet) is Multisig_Wallet:
tx_script_type = self.btc_multisig_config(coin, full_path, wallet)
else:
raise Exception("Can only use p2wsh with multisig wallets")
else:
raise UserFacingException(
"invalid input script type: {} is not supported by the BitBox02".format(
tx_script_type
)
)
# Build BTCOutputType list
outputs = []
for txout in tx.outputs():
assert txout.address
# check for change
if txout.is_change:
_, change_pubkey_path = keystore.find_my_pubkey_in_txinout(txout)
outputs.append(
bitbox02.BTCOutputInternal(
keypath=change_pubkey_path, value=txout.value,
)
)
else:
addrtype, pubkey_hash = bitcoin.address_to_hash(txout.address)
if addrtype == OnchainOutputType.P2PKH:
output_type = bitbox02.btc.P2PKH
elif addrtype == OnchainOutputType.P2SH:
output_type = bitbox02.btc.P2SH
elif addrtype == OnchainOutputType.WITVER0_P2WPKH:
output_type = bitbox02.btc.P2WPKH
elif addrtype == OnchainOutputType.WITVER0_P2WSH:
output_type = bitbox02.btc.P2WSH
else:
raise UserFacingException(
"Received unsupported output type during transaction signing: {} is not supported by the BitBox02".format(
addrtype
)
)
outputs.append(
bitbox02.BTCOutputExternal(
output_type=output_type,
output_hash=pubkey_hash,
value=txout.value,
)
)
if type(wallet) is Standard_Wallet:
keypath_account = full_path[:3]
elif type(wallet) is Multisig_Wallet:
keypath_account = full_path[:4]
else:
raise Exception(
"BitBox02 does not support this wallet type: {}".format(type(wallet))
)
sigs = self.bitbox02_device.btc_sign(
coin,
tx_script_type,
keypath_account=keypath_account,
inputs=inputs,
outputs=outputs,
locktime=tx.locktime,
version=tx.version,
)
# Fill signatures
if len(sigs) != len(tx.inputs()):
raise Exception("Incorrect number of inputs signed.") # Should never occur
signatures = [bh2u(ecc.der_sig_from_sig_string(x[1])) + "01" for x in sigs]
tx.update_signatures(signatures)
def dump(self):
# our additions to the stored data about keystore -- only during creation?
d = Hardware_KeyStore.dump(self)
return d
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
#_logger.info(f"[Satochip_KeyStore] __init__(): xpub:{str(d.get('xpub'))}")#debugSatochip
#_logger.info(f"[Satochip_KeyStore] __init__(): derivation:{str(d.get('derivation'))}")#debugSatochip
self.force_watching_only = False
self.ux_busy = False
def __init__(self, d):
Hardware_KeyStore.__init__(self, d)
self.force_watching_only = False
self.maxInputs = 14 # maximum inputs per single sign command
