def __init__(self, hex_privkey=None, enable_cache=False):
"""
If @hex_privkey is given, use that to derive keychain
otherwise, use a new random seed
"""
if hex_privkey:
self.priv_keychain = PrivateKeychain.from_private_key(hex_privkey)
else:
#log.debug("No privatekey given, starting new wallet")
self.priv_keychain = PrivateKeychain()
self.master_address = self.get_master_address()
self.child_addresses = None
if enable_cache:
cache = self.get_cache()
if cache is not None:
if cache['master_address'] == self.master_address:
self.child_addresses = cache['child_addresses']
else:
log.debug("Wallet already exists with master address: %s" %
cache['master_address'])
else:
#log.debug("Creating cache of HD wallet addresses ...")
self.create_addresses_cache()
def __init__(self, hex_privkey=None, enable_cache=False):
"""
If @hex_privkey is given, use that to derive keychain
otherwise, use a new random seed
"""
if hex_privkey:
self.priv_keychain = PrivateKeychain.from_private_key(hex_privkey)
else:
#log.debug("No privatekey given, starting new wallet")
self.priv_keychain = PrivateKeychain()
self.master_address = self.get_master_address()
self.child_addresses = None
if enable_cache:
cache = self.get_cache()
if cache is not None:
if cache['master_address'] == self.master_address:
self.child_addresses = cache['child_addresses']
else:
log.debug("Wallet already exists with master address: %s" % cache['master_address'])
else:
#log.debug("Creating cache of HD wallet addresses ...")
self.create_addresses_cache()
def get_priv_keychain(self, hex_privkey, chaincode):
if hex_privkey:
return PrivateKeychain.from_private_key(hex_privkey,
chain_path=chaincode)
log.debug('No privatekey given, starting new wallet')
return PrivateKeychain()
def test_derivation_from_raw_keys(self):
public_keychain = PublicKeychain.from_public_key(self.public_key_hex)
private_keychain = PrivateKeychain.from_private_key(
self.private_key_hex)
public_keychain_2 = private_keychain.public_keychain()
self.assertEqual(str(public_keychain), str(public_keychain_2))
self.assertEqual(str(public_keychain), self.reference_public_keychain)
def __init__(self, hex_privkey=None):
"""
If @hex_privkey is given, use that to derive keychain
otherwise, use a new random seed
"""
if hex_privkey:
self.priv_keychain = PrivateKeychain.from_private_key(hex_privkey)
else:
self.priv_keychain = PrivateKeychain()
def __init__(self, hex_privkey=None):
"""
If @hex_privkey is given, use that to derive keychain
otherwise, use a new random seed
"""
if hex_privkey:
self.priv_keychain = PrivateKeychain.from_private_key(hex_privkey)
else:
log.debug("No privatekey given, starting new wallet")
self.priv_keychain = PrivateKeychain()
self.master_address = self.get_master_address()
self.child_addresses = None
def __init__(self, hex_privkey=None, config_path=CONFIG_PATH):
"""
If @hex_privkey is given, use that to derive keychain
otherwise, use a new random seed
"""
if hex_privkey:
self.priv_keychain = PrivateKeychain.from_private_key(hex_privkey)
else:
log.debug("No privatekey given, starting new wallet")
self.priv_keychain = PrivateKeychain()
self.master_address = self.get_master_address()
self.child_addresses = None
self.config_path = config_path
def test_high_volume_derivation(self):
number_of_keys = 10
public_keychain = PublicKeychain.from_public_key(self.public_key_hex)
private_keychain = PrivateKeychain.from_private_key(self.private_key_hex)
keypairs = []
print ""
for i in range(number_of_keys):
print "making key %i of %i" % (i+1, number_of_keys)
public_key = public_keychain.child(i).public_key()
private_key = private_keychain.child(i).private_key()
keypairs.append({ 'public': public_key, 'private': private_key })
for i in range(len(keypairs)):
keypair = keypairs[i]
print "checking key %i of %i" % (i+1, number_of_keys)
self.assertEqual(privkey_to_pubkey(keypair['private']), keypair['public'])
def test_high_volume_derivation(self):
number_of_keys = 10
public_keychain = PublicKeychain.from_public_key(self.public_key_hex)
private_keychain = PrivateKeychain.from_private_key(self.private_key_hex)
keypairs = []
print ""
for i in range(number_of_keys):
print "making key %i of %i" % (i+1, number_of_keys)
public_key = public_keychain.child(i).public_key()
private_key = private_keychain.child(i).private_key()
keypairs.append({ 'public': public_key, 'private': private_key })
for i in range(len(keypairs)):
keypair = keypairs[i]
print "checking key %i of %i" % (i+1, number_of_keys)
# self.assertEqual(privkey_to_pubkey(keypair['private']), keypair['public'])
self.assertEqual(keylib.ECPrivateKey(keypair['private']).public_key().to_hex(), keylib.ECPublicKey(keypair['public']).to_hex())
def get_priv_keychain(self, hex_privkey, chaincode):
if hex_privkey:
return PrivateKeychain.from_private_key(hex_privkey, chain_path=chaincode)
log.debug('No privatekey given, starting new wallet')
return PrivateKeychain()
def test_derivation_from_raw_keys(self):
public_keychain = PublicKeychain.from_public_key(self.public_key_hex)
private_keychain = PrivateKeychain.from_private_key(self.private_key_hex)
public_keychain_2 = private_keychain.public_keychain()
self.assertEqual(str(public_keychain), str(public_keychain_2))
self.assertEqual(str(public_keychain), self.reference_public_keychain)
