def dataReceiver(self):
while True:
start = ''
while start != self._message_prefix:
start = (start + (yield 1))[-len(self._message_prefix):]
command = (yield 12).rstrip('\0')
length, = struct.unpack('<I', (yield 4))
if length > self._max_payload_length:
print 'length too large'
continue
checksum = yield 4
payload = yield length
if hashlib.sha3_256(payload).digest()[:4] != checksum:
print 'invalid hash for', self.transport.getPeer().host, repr(command), length, checksum.encode('hex')
if p2pool.DEBUG:
print hashlib.sha3_256(payload).digest()[:4].encode('hex'), payload.encode('hex')
self.badPeerHappened()
continue
type_ = getattr(self, 'message_' + command, None)
if type_ is None:
if p2pool.DEBUG:
print 'no type for', repr(command)
continue
try:
self.packetReceived(command, type_.unpack(payload, self.ignore_trailing_payload))
except:
print 'RECV', command, payload[:100].encode('hex') + ('...' if len(payload) > 100 else '')
log.err(None, 'Error handling message: (see RECV line)')
self.disconnect()
def hasherFromString(s):
import hashlib
if s == 'sha1':
return hashlib.sha1()
elif s == 'sha224':
return hashlib.sha224()
elif s == 'sha256':
return hashlib.sha256()
elif s == 'sha384':
return hashlib.sha384()
elif s == 'sha512':
return hashlib.sha512()
elif s == 'blake2b':
return hashlib.blake2b()
elif s == 'blake2s':
return hashlib.blake2s()
elif s == 'md5':
return hashlib.md5()
elif s == 'sha3_224':
return hashlib.sha3_224()
elif s == 'sha3_256':
return hashlib.sha3_256()
elif s == 'sha3_384':
return hashlib.sha3_384()
elif s == 'sha3_512':
return hashlib.sha3_512()
elif s == 'shake_128':
return hashlib.shake_128()
elif s == 'shake_256':
return hashlib.shake_256()
else:
return None
def handshake_mac(*args):
_logger.debug('Client handshake MACing %s (%d) with key %s (%d)' % (
ascii_bin(b''.join(args[1:])),
len(b''.join(args[1:])),
ascii_bin(args[0]),
len(args[0])))
return hashlib.sha3_256(b''.join(args)).digest()[:8]
def sha3_256(s):
import hashlib
import sys
if sys.version_info < (3, 4):
import sha3
return hashlib.sha3_256(s).digest()
def verify_tree_sha(self, node, path_to_node, hashtype):
"""
Verify tree elements are hashed correctly, assuming that the node
is a MerkleTree, using a specific SHA hash type.
"""
if node.nodes is None:
self.assertEqual(None, node.bin_hash)
else:
hash_count = 0
# pylint: disable=redefined-variable-type
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint: disable=no-member
sha = hashlib.sha3_256()
for node_ in node.nodes:
path_to_file = os.path.join(path_to_node, node_.name)
if isinstance(node_, MerkleLeaf):
self.verify_leaf_sha(node_, path_to_file, hashtype)
elif isinstance(node_, MerkleTree):
self.verify_tree_sha(node_, path_to_file, hashtype)
else:
self.fail("unknown node type!")
if node_.bin_hash is not None:
hash_count += 1
sha.update(node_.bin_hash)
# take care to compare values of the same type;
# node.binHash is binary, node.hexHash is hex
if hash_count == 0:
self.assertEqual(None, node.bin_hash)
else:
self.assertEqual(sha.digest(), node.bin_hash)
def check_node(self, node, using_sha):
assert node is not None
pub = node.pub_key
id_ = node.node_id
# pylint: disable=redefined-variable-type
if using_sha == QQQ.USING_SHA1:
self.assertEqual(20, len(id_))
sha = hashlib.sha1()
elif using_sha == QQQ.USING_SHA2:
self.assertEqual(32, len(id_))
sha = hashlib.sha256()
elif using_sha == QQQ.USING_SHA3:
self.assertEqual(32, len(id_))
# pylint: disable=no-member
sha = hashlib.sha3_256()
sha.update(pub.exportKey())
expected_id = sha.digest()
self.assertEqual(expected_id, id_)
# make a random array of bytes
count = 16 + RNG.nextInt16(256)
msg = bytearray(count)
RNG.nextBytes(msg)
# sign it and verify that it verifies
sig = node.sign(msg)
self.assertTrue(node.verify(msg, sig))
# flip some bits and verify that it doesn't verify with the same sig
msg[0] = msg[0] ^ 0x36
self.assertFalse(node.verify(msg, sig))
def do_test_simple_constructor(self, hashtype):
""" Test constructor for specific SHA type. """
check_hashtype(hashtype)
# pylint: disable=redefined-variable-type
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
sha = hashlib.sha3_256()
file_name = self.rng.next_file_name(8)
nnn = self.rng.some_bytes(8)
sha.update(nnn)
hash0 = sha.digest()
leaf0 = MerkleLeaf(file_name, hashtype, hash0)
self.assertEqual(file_name, leaf0.name)
self.assertEqual(hash0, leaf0.bin_hash)
file_name2 = file_name
while file_name2 == file_name:
file_name2 = self.rng.next_file_name(8)
nnn = self.rng.some_bytes(8)
self.rng.next_bytes(nnn)
sha.update(nnn)
hash1 = sha.digest()
leaf1 = MerkleLeaf(file_name2, hashtype, hash1)
self.assertEqual(file_name2, leaf1.name)
self.assertEqual(hash1, leaf1.bin_hash)
self.assertTrue(leaf0.equal(leaf0))
self.assertFalse(leaf0.equal(leaf1))
def verify_tree_sha(self, node, path_to_tree, hashtype):
# we assume that the node is a MerkleTree
check_hashtype(hashtype)
if node.nodes is None:
self.assertEqual(None, node.bin_hash)
else:
hash_count = 0
# pylint: disable=redefined-variable-type
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint: disable=no-member
sha = hashlib.sha3_256()
for node_ in node.nodes:
path_to_node = os.path.join(path_to_tree, node_.name)
if isinstance(node_, MerkleLeaf):
self.verify_leaf_sha(node_, path_to_node, hashtype)
elif isinstance(node_, MerkleTree):
self.verify_tree_sha(node_, path_to_node, hashtype)
else:
print("DEBUG: unknown node type!")
self.fail("unknown node type!")
if node_.bin_hash is not None:
hash_count += 1
sha.update(node_.bin_hash)
if hash_count == 0:
self.assertEqual(None, node.bin_hash)
else:
self.assertEqual(sha.digest(), node.bin_hash)
def get_utxoset_merkle_root(self):
"""Returns the merkle root of the utxoset. This implies that
the utxoset is first put into a merkle tree.
For now, the merkle tree and its root will be computed each
time. This obviously is not efficient and a better approach
that limits the repetition of the same computation when
unnecesary should be sought. For instance, future optimizations
could simply re-compute the branches of the tree that were
affected by a change.
The transaction hash (id) and output index should be sufficient
to uniquely identify a utxo, and consequently only that
information from a utxo record is needed to compute the merkle
root. Hence, each node of the merkle tree should contain the
tuple (txid, output_index).
.. important:: The leaves of the tree will need to be sorted in
some kind of lexicographical order.
Returns:
str: Merkle root in hexadecimal form.
"""
utxoset = backend.query.get_unspent_outputs(self.connection)
# TODO Once ready, use the already pre-computed utxo_hash field.
# See common/transactions.py for details.
hashes = [
sha3_256(
'{}{}'.format(utxo['transaction_id'], utxo['output_index']).encode()
).digest() for utxo in utxoset
]
# TODO Notice the sorted call!
return merkleroot(sorted(hashes))
def handshake_mac(*args):
print('Test MACing %s (%d) with key %s (%d)' % (
ascii_bin(b''.join(args[1:])),
len(b''.join(args[1:])),
ascii_bin(args[0]),
len(args[0])))
return hashlib.sha3_256(b''.join(args)).digest()[:8]
def test_sha3256(self):
"""
Test SHA3-256 hash.
"""
if "sha3_256" not in hashlib.algorithms_available:
pass
else:
assert bh.hashlib_hash("tempfile.txt", hashlib.sha3_256()) == "a9797b62d8b3573c9134406f42e601219e086150e6c2f32c90c5cee0149b6877"
def sha3_256Encode(self, text):
if not os.path.isfile(str(text)):
if not text:
return "No String passed to method"
else:
m = hashlib.sha3_256()
m.update(text.encode('utf-8'))
return (m.hexdigest())
else:
BLOCKSIZE = 65536
hasher = hashlib.sha3_256()
with open(text, 'rb') as afile:
buf = afile.read(BLOCKSIZE)
while len(buf) > 0:
hasher.update(buf)
buf = afile.read(BLOCKSIZE)
return (hasher.hexdigest())
def mac(k,m):
def htonll(num):
return struct.pack('!q', num)
s = sha3_256()
s.update(htonll(len(k)))
s.update(k)
s.update(m)
return s.digest()
def test_get_seedhash():
assert pyethash.get_seedhash(0).encode('hex') == '0' * 64
import hashlib, sha3
expected = pyethash.get_seedhash(0)
#print "checking seed hashes:",
for i in range(0, 30000*2048, 30000):
#print i // 30000,
assert pyethash.get_seedhash(i) == expected
expected = hashlib.sha3_256(expected).digest()
def bogonsHasChanged(self, newFile):
if sys.version_info < (3, 4):
import sha3
hf = hashlib.sha3_256()
hf.update(newFile)
if hf.hexdigest() == self.bogonsHash:
return False
self.bogonsHash = hf.hexdigest()
return True
def do_test_random_dir(self, hashtype):
""" Test building random directories with specific SHA hash type. """
check_hashtype(hashtype)
depth = 1 + self.rng.next_int16(3) # so 1 to 3
width = 1 + self.rng.next_int16(16) # so 1 to 16
blk_count = 1 + self.rng.next_int16(3) # so 1 to 3
# last block will usually be only partically populated
max_len = BuildList.BLOCK_SIZE * (blk_count - 1) +\
self.rng.next_int16(BuildList.BLOCK_SIZE)
min_len = 1
# we want the directory name to be unique
path_to_dir = os.path.join('tmp', self.rng.next_file_name(8))
while os.path.exists(path_to_dir):
path_to_dir = os.path.join('tmp', self.rng.next_file_name(8))
self.rng.next_data_dir(path_to_dir, depth, width, max_len, min_len)
data = bytearray(max_len) # that many null bytes
self.rng.next_bytes(data) # fill with random data
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint:disable=no-member
sha = hashlib.sha3_256()
elif hashtype == HashTypes.BLAKE2B:
sha = hashlib.blake2b(digest_size=32)
else:
raise NotImplementedError
sha.update(data)
hash_ = sha.hexdigest()
file_name = self.rng.next_file_name(8)
path_to_file = os.path.join('tmp', file_name)
while os.path.exists(path_to_file):
file_name = self.rng.next_file_name(8)
path_to_file = os.path.join('tmp', file_name)
with open(path_to_file, 'wb') as file:
file.write(data)
if hashtype == HashTypes.SHA1:
file_hash = file_sha1hex(path_to_file)
elif hashtype == HashTypes.SHA2:
file_hash = file_sha2hex(path_to_file)
elif hashtype == HashTypes.SHA3:
file_hash = file_sha3hex(path_to_file)
elif hashtype == HashTypes.BLAKE2B:
file_hash = file_blake2b_hex(path_to_file)
else:
raise NotImplementedError
self.assertEqual(hash_, file_hash)
def populate_tree(self, tree, data_path, u_dir, hashtype):
"""
Generate nnn and nnn unique random values, where nnn is at least 16.
"""
nnn = 16 + self.rng.next_int16(16)
# DEBUG
# print("nnn = %d" % nnn)
# EnnnD
values = []
hashes = []
for count in range(nnn):
# generate datum ------------------------------
datum = self.rng.some_bytes(32 + self.rng.next_int16(32))
values.append(datum)
# generate hash = bin_key ----------------------
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
sha = hashlib.sha3_256()
elif hashtype == HashTypes.BLAKE2B:
sha = hashlib.blake2b(digest_size=32)
else:
raise NotImplementedError
sha.update(datum)
bin_key = sha.digest()
hex_key = sha.hexdigest()
hashes.append(bin_key)
# write data file -----------------------------
file_name = 'value%04d' % count
path_to_file = os.path.join(data_path, file_name)
with open(path_to_file, 'wb') as file:
# DEBUG
# print("writing %s to %s" % (hex_key, path_to_file))
# END
file.write(datum)
# insert leaf into tree -----------------------
# path_from_top = os.path.join(top_name, file_name)
leaf = NLHLeaf(file_name, bin_key, hashtype)
tree.insert(leaf)
# DEBUG
# print(" inserting <%s %s>" % (leaf.name, leaf.hex_hash))
# END
# write data into uDir ------------------------
u_dir.put_data(datum, hex_key)
return values, hashes
def sendPacket(self, command, payload2):
if len(command) >= 12:
raise ValueError('command too long')
type_ = getattr(self, 'message_' + command, None)
if type_ is None:
raise ValueError('invalid command')
#print 'SEND', command, repr(payload2)[:500]
payload = type_.pack(payload2)
if len(payload) > self._max_payload_length:
raise TooLong('payload too long')
data = self._message_prefix + struct.pack('<12sI', command, len(payload)) + hashlib.sha3_256(payload).digest()[:4] + payload
self.traffic_happened.happened('p2p/out', len(data))
self.transport.write(data)
def sha3_convert(function_name, param_types):
data = function_name + "("
param_string = param_types[0]
for i in range(1, len(param_types)):
param_string += ","
param_string += param_types[i]
data += param_string
data += ")"
# Do conversion send first 8 characters [0:8] (+ 0x)
s = hashlib.sha3_256() # alternative
s.update(data)
return s.hexdigest()[0:8]
def __init__(self, path, hashtype=HashTypes.SHA2, binding=False,
tree=None,
ex_re=None, # exclusions, which are Regular Expressions
match_re=None): # matches, also Regular Expressions
check_hashtype(hashtype)
if path is None:
raise RuntimeError("null MerkleDoc path")
if tree:
if not isinstance(tree, MerkleTree):
raise RuntimeError('tree is not a MerkleTree')
self._name = name = tree.name
elif not binding:
raise RuntimeError('null MerkleTree and not binding')
else:
raise RuntimeError("MerkleDoc binding not yet implemented")
super().__init__(name, is_leaf=False, hashtype=hashtype)
path = path.strip()
if len(path) == 0:
raise RuntimeError("empty path")
if not path.endswith('/'):
path += '/'
self._path = path
self._tree = tree
if tree:
# DEBUG
#print("MerkleDoc.__init__: usingSHA = %s" % str(usingSHA))
# END
# pylint:disable=redefined-variable-type
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint: disable=no-member
sha = hashlib.sha3_256()
sha.update(bytes(tree.bin_hash))
sha.update(path.encode('utf-8'))
self._bin_hash = bytes(sha.digest()) # a binary value
self._ex_re = ex_re
self._match_re = match_re
if binding:
path_to_dir = os.path.join(path, tree.name)
if not os.path.exists(path_to_dir):
raise RuntimeError('no directory found at ' + path_to_dir)
else:
# XXX STUB: BIND THE TREE
self._bound = True
def generate_unique_download_key(torrent_info_hash, user_download_key):
if isinstance(torrent_info_hash, str):
torrent_info_hash = a2b_hex(torrent_info_hash)
if isinstance(user_download_key, UUID):
user_download_key = user_download_key.bytes
elif isinstance(user_download_key, str):
user_download_key = a2b_hex(user_download_key.replace('-', ''))
m = sha3_256()
m.update(torrent_info_hash)
m.update(user_download_key)
return m.hexdigest()
def do_test_with_simple_tree(self, hashtype):
""" XXX STUB: test simple tree with specific hash. """
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint:disable=no-member
sha = hashlib.sha3_256()
elif hashtype == HashTypes.BLAKE2B:
sha = hashlib.blake2b(digest_size=32)
else:
raise NotImplementedError
assert sha # suppress warning
def verify_leaf_sha(self, node, path_to_file, hashtype):
check_hashtype(hashtype)
self.assertTrue(os.path.exists(path_to_file))
with open(path_to_file, "rb") as file:
data = file.read()
self.assertFalse(data is None)
# pylint: disable=redefined-variable-type
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
# pylint: disable=no-member
sha = hashlib.sha3_256()
sha.update(data)
hash_ = sha.digest()
self.assertEqual(hash_, node.bin_hash)
def test_sha3():
sender = b'\x00\xb625+E\x06\x96\xbe\x10\x0e\xdc!58?\x00\x83\xa4\x99'
nonce = b''
b = rlp.encode([sender, nonce])
assert b == b'\xd6\x94\x00\xb625+E\x06\x96\xbe\x10\x0e\xdc!58?\x00\x83\xa4\x99\x80'
contract_id = hashlib.sha3_256(b).digest()
assert contract_id == b'"Y[\xe7^\xe8\xba\r\xcc\xc2\xe5(\xe6\xc9\xed\xa9\x81w\x1a2\x17\xed\xa4\xf9?\x9c\xe3\xc3)\x16\x13\x99'
contract_id = contract_id[12:]
assert contract_id == b'\xe6\xc9\xed\xa9\x81w\x1a2\x17\xed\xa4\xf9?\x9c\xe3\xc3)\x16\x13\x99'
contract_id = binascii.hexlify(contract_id).decode('ascii')
assert contract_id == 'e6c9eda981771a3217eda4f93f9ce3c329161399'
assert utils.contract_sha3(b) == 'e6c9eda981771a3217eda4f93f9ce3c329161399'
def make_leaf(self, names_so_far, hashtype):
""" Build a leaf with random name and data using specific hash. """
while True:
name = self.rng.next_file_name(8)
if name not in names_so_far:
names_so_far.add(name)
break
nnn = self.rng.some_bytes(8) # 8 quasi-random bytes
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
sha = hashlib.sha3_256()
sha.update(nnn)
return NLHLeaf(name, sha.digest(), hashtype)
def do_test_simple_constructor(self, hashtype):
""" Test constructor for specific hash. """
check_hashtype(hashtype)
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
sha = hashlib.sha3_256()
elif hashtype == HashTypes.BLAKE2B:
sha = hashlib.blake2b(digest_size=32)
else:
raise NotImplementedError
name = self.rng.next_file_name(8)
nnn = self.rng.some_bytes(8)
self.rng.next_bytes(nnn)
sha.update(nnn)
hash0 = sha.digest()
leaf0 = NLHLeaf(name, hash0, hashtype)
self.assertEqual(name, leaf0.name)
self.assertEqual(hash0, leaf0.bin_hash)
name2 = name
while name2 == name:
name2 = self.rng.next_file_name(8)
nnn = self.rng.some_bytes(8)
self.rng.next_bytes(nnn)
sha.update(nnn)
hash1 = sha.digest()
leaf1 = NLHLeaf(name2, hash1, hashtype)
self.assertEqual(name2, leaf1.name)
self.assertEqual(hash1, leaf1.bin_hash)
self.assertEqual(leaf0, leaf0)
self.assertEqual(leaf1, leaf1)
self.assertFalse(leaf0 == leaf1)
leaf0c = leaf0.clone()
self.assertEqual(leaf0c, leaf0)
leaf1c = leaf1.clone()
self.assertEqual(leaf1c, leaf1)
def get_engine(hashtype):
"""
Get hashlib engine from hash type.
:param hashtype: Hash type.
:type hashtype: str
"""
hashengines = {"md5": hashlib.md5(),
"sha1": hashlib.sha1(),
"sha224": hashlib.sha224(),
"sha256": hashlib.sha256(),
"sha384": hashlib.sha384(),
"sha512": hashlib.sha512()}
if utilities.new_enough(6):
hashengines.update({"sha3224": hashlib.sha3_224(),
"sha3256": hashlib.sha3_256(),
"sha3384": hashlib.sha3_384(),
"sha3512": hashlib.sha3_512()})
return hashengines[hashtype]
def genMeta(path, formdata,filename):
start = timeit.default_timer()
size = os.path.getsize(path)
#filename = os.path.basename(path)
dataid = str(uuid.uuid4())
checksum = hashlib.new("sha3_256")
checksum = hashlib.sha3_256()
with open(path, 'rb') as f:
checksum.update(f.read())
f.close()
if 'timestamp' in formdata.keys():
timestamp = formdata['timestamp']
else:
timestamp = str(int(time.time()))
if 'often' in formdata.keys():
often = 'true'
else:
often = 'false'
if 'description' in formdata.keys():
description = formdata['description']
else:
description = ''
rowkey = formdata['sysid']+'-'+formdata['userid']+'-'+timestamp+'-'+dataid
stop=timeit.default_timer()
app.logger.debug('Time to genMeta is %f' % (stop-start))
return {
'sysid': formdata['sysid'],
'userid': formdata['userid'],
'timestamp': timestamp,
'dataid': dataid,
'filename': filename,
'size': size,
'checksum': checksum.hexdigest(),
'rowkey': rowkey,
'often': often,
'description': description,
}
def make_committer_id(pubkey, hashtype=HashTypes.SHA2):
"""
Create a unique committer ID derived from the user's RSA public key
using this SHA type.
This implementation adds the current time to the hash.
Returns a 40- or 64-character hex value.
"""
if hashtype == HashTypes.SHA1:
sha = hashlib.sha1()
elif hashtype == HashTypes.SHA2:
sha = hashlib.sha256()
elif hashtype == HashTypes.SHA3:
sha = hashlib.sha3_256()
elif hashtype == HashTypes.BLAKE2B:
sha = hashlib.blake2b(digest_size=32)
else:
raise NotImplementedError
sha.update(pubkey.exportKey()) # PEM format
sha.update(str(time.time()).encode('utf-8'))
return sha.hexdigest()
def GetHash(self):
protobuf = infiniti_pb2.Identity()
protobuf.version = self.Version()
protobuf.fingerprint = self.Fingerprint()
return hashlib.sha3_256(protobuf.SerializeToString()).digest()
def GetHash(self):
tmp = self.Signature()
self.protobuf.signature = ''
h = hashlib.sha3_256(self.protobuf.SerializeToString()).digest()
self.protobuf.signature = tmp
return h
def hash(message):
h = hashlib.sha3_256 ()
h.update ( message )
return h.hexdigest()
def set_token_and_expiration(self, expiration=60 * 60 * 1) -> None:
self._expiration_timestamp = int(time.time() + expiration)
self._token = hashlib.sha3_256(
(uuid.uuid4().hex +
self._user.user_id()).encode('utf-8')).hexdigest()
def hash(block):
block_string = json.dumps(block, sort_keys=True).encode()
return hashlib.sha3_256(block_string).hexdigest()
def addUserFromUrl(first_name, age, password):
passhash = hashlib.sha3_256(password.encode('utf-8')).hexdigest()
Db.session.add(User(first_name=first_name, age=age, passhash=passhash))
Db.session.commit()
return redirect(url_for('index'))
def setup(self, arg):
self.h = hashlib.sha3_256()
def get_filename(query):
q_hash = hashlib.sha3_256(bytearray(query, encoding="UTF-8")).hexdigest()
filename = join(constants.RESULT_DIR, q_hash)
return filename
def main():
seed("entourage") # to obtain the same results
balances = open(
"AccountBalances.txt", "w"
) # will contain the balances of the all the accounts after every transaction
chain = open(
"LongestChain_UNIX-Linux.txt", "w"
) # will contain the bitcoin transactions as stated in the homework document
accounts = initiate() # initiate the accounts
listAccounts("Before Any Transaction", accounts,
balances) # list accounts before any transaction
prevHash = "First transaction"
# 10 transactions in total
for i in range(10):
s = "*** Bitcoin transaction ***\n"
# serial is a random 128-bit integer
serial = randint(0, 2**128 - 1)
s += "Serial number: " + str(serial) + "\n"
# select a payer, payee and an amount, all randomly
payer_index, payee_index = -1, -1
while payer_index == payee_index or accounts[payer_index][
"balance"] == 0:
payer_index = randint(0, len(accounts) - 1)
payee_index = randint(0, len(accounts) - 1)
payer, payee, amount = accounts[payer_index]["name"], accounts[
payee_index]["name"], randint(1, accounts[payer_index]["balance"])
s += "Payer: " + str(payer) + "\n"
s += "Payee: " + str(payee) + "\n"
s += "Amount: " + str(amount) + " Satoshi" + "\n"
s += "Previous hash in the chain: " + prevHash + "\n"
# find a suitable nonce and compute proof of work
while True:
# nonce is obtained with a random 128-bit integer
nonce = "Nonce: " + str(randint(0, 2**128 - 1)) + "\n"
possible = s + nonce
hashed = hashlib.sha3_256(possible).hexdigest()
# check if it meets the criteria
if hashed[:6] == "000000":
break
s = possible
s += "Proof of Work: " + hashed + "\n"
chain.write(s)
# perform transaction
accounts[payer_index]["balance"] -= amount
accounts[payee_index]["balance"] += amount
# list accounts after each transaction
listAccounts("After Transaction #" + str(i + 1), accounts, balances)
prevHash = hashed
# list accounts after all transactions
listAccounts("After All Transactions", accounts, balances)
balances.close()
chain.close()
if pk == b'':
sys.exit("Error: Not registered on the smart contract, contact operator to register.")
elif verbose:
print("My assigned public key is:", pk)
if verbose:
print("My order is:", order_string)
# generate random 32 byte nonce
nonce = os.urandom(32)
# append nonce and encode order string
order_bytes = order_string.encode('utf-8') + nonce
# encrypt order bytes
order_ciphertext = encrypt(pk, order_bytes)
# hash ciphertext
order_hash = hashlib.sha3_256(order_ciphertext).digest()
# send commitment
# build transaction
tx = darkPool.functions.commit_order(order_hash).buildTransaction({
'from': addr,
'nonce': w3.eth.getTransactionCount(addr),
'gas': 6721975, # from truffle docs
'gasPrice': 100000000000 # from truffle docs
})
# sign transaction
sign_tx = w3.eth.account.signTransaction(tx, key)
# send the transaction
tx_hash = w3.eth.sendRawTransaction(sign_tx.rawTransaction)
# wait for transaction receipt
tx_receipt = w3.eth.waitForTransactionReceipt(tx_hash, timeout=300)
def _sha3_256_clicked(self):
self.hash_function = hashlib.sha3_256()
self._update_label1("SHA3-256")
def sha3_256(cls, bytestr: bytes) -> bytes:
return hashlib.sha3_256(bytestr).digest()
import binascii
import hashlib
text = 'Hello world!'
data = text.encode('utf-8')
sha256hash = hashlib.sha256(data).digest()
print(f'SHA-256:\t{binascii.hexlify(sha256hash).decode()}')
sha3_256 = hashlib.sha3_256(data).digest()
print(f'SHA3-256:\t{binascii.hexlify(sha3_256).decode()}')
blake2s = hashlib.new('blake2s', data).digest()
print(f'BLAKE2s:\t{binascii.hexlify(blake2s).decode()}')
ripemd160 = hashlib.new('ripemd160', data).digest()
print(f'RIPEMD-160:\t{binascii.hexlify(ripemd160).decode()}')
input_username = argv[1]
if input_username == "guest":
enable_cli = control.read_record("enable_cli", "/etc/guest")
if enable_cli == "Yes":
## Set variables ##
user = "******"
code = "*"
## Create info ##
files.write("/proc/info/su", input_username)
shell()
sys.exit(0)
else:
colors.show(input_username, "fail", "user not found.")
else:
input_password = argv[2]
hashname = hashlib.sha3_256(str(input_username).encode()).hexdigest()
hashcode = hashlib.sha3_512(str(input_password).encode()).hexdigest()
if files.isfile("/etc/users/" + input_username):
username = control.read_record("username",
"/etc/users/" + input_username)
password = control.read_record("code",
"/etc/users/" + input_username)
if username == hashname and password == hashcode:
## Set variables ##
user = input_username
code = input_password
## Create info ##
files.write("/proc/info/su", input_username)
permissions.user = user
permissions.code = code
def _get_hash(data):
hasher = hashlib.sha3_256()
hasher.update(data)
# always returns string of len 1+64
return 'H' + hasher.hexdigest()
def SHA3(value):
return sha3_256(value.encode('utf-8')).hexdigest()
# built-in hash lib import hashlib from cryptography.fernet import Fernet # print(hashlib.algorithms_available) hash_obj = hashlib.sha3_256() # b - byte string Hello hash_obj.update(b"Hello") print(hash_obj.hexdigest()) key = Fernet.generate_key() cipher = Fernet(key) print(cipher.encrypt(b"Hello")) # Message can be descrypted using the key
def valid_proof(last_proof, proof, last_hash):
guess = f'{last_proof}{proof}{last_hash}'.encode()
hashGuess = hashlib.sha3_256(guess).hexdigest()
return hashGuess[0:4] == "0000"
def get_message_id(
parsed_message: Message,
options_use_checksum=False,
options_use_id_in_checksum=False,
) -> Optional[str]:
"""
Normally, return the Message-ID header (or print a warning if it doesn't
exist and return None).
If options_use_checksum is specified, use md5 hash of several headers
instead.
For more safety, user should first do a dry run, reviewing them before
deletion. Problems are extremely unlikely, but md5 is not collision-free.
If options_use_id_in_checksum is specified, then the Message-ID will be
included in the header checksum, otherwise it is excluded.
"""
try:
if options_use_checksum:
md5 = hashlib.md5()
sha = hashlib.sha256()
sha3 = hashlib.sha3_256()
def update(x):
md5.update(x)
sha.update(x)
sha3.update(x)
update(("From:" + str_header(parsed_message, "From")).encode())
update(("To:" + str_header(parsed_message, "To")).encode())
update(
("Subject:" + str_header(parsed_message, "Subject")).encode())
update(("Date:" + str_header(parsed_message, "Date")).encode())
update(("Cc:" + str_header(parsed_message, "Cc")).encode())
update(("Bcc:" + str_header(parsed_message, "Bcc")).encode())
if options_use_id_in_checksum:
update(("Message-ID:" +
str_header(parsed_message, "Message-ID")).encode())
msg_id = md5.hexdigest() + "|" + sha.hexdigest(
) + "|" + sha3.hexdigest()
# print(msg_id)
else:
msg_id = str_header(parsed_message, "Message-ID")
if not msg_id:
print(("Message '%s' dated '%s' has no Message-ID header." % (
str_header(parsed_message, "Subject"),
str_header(parsed_message, "Date"),
)))
print("You might want to use the -c option.")
return None
return msg_id.lstrip()
except (ValueError, HeaderParseError):
print(
"WARNING: There was an exception trying to parse the headers of this message."
)
print("It may be corrupt, and you might consider deleting it.")
print(("Subject: %s\nFrom: %s\nDate: %s\n" % (
parsed_message["Subject"],
parsed_message["From"],
parsed_message["Date"],
)))
print("Message skipped.")
return None
def log_in(user, pas):
global username, password
global conn, sha, fo
print("_______Login Database________") # Logging in to database
username = user
password = pas
conn = sqlite3.connect('test.db')
print("opened database successfully")
sha = hashlib.sha3_256((username + password).encode(
'utf-8')).hexdigest() # Finding hash of entered username and password
fo = open("hash.txt", "r")
if sha == fo.read(
): # Comparing calculated hash with hash value stored in file
print("Logged In successfully!")
fo = open("iv", "rb")
iv = fo.read(
) # Reading initialization vector for decrypting by using 3 DES
fo.close()
decrypt_file('privkey.enc', 'privkey.dec', 8192, pad(password),
iv) # Decrypting private key by using 3 DES
fo = open('privkey.dec', 'rb')
privkey = fo.read() # Reading decrypted private key to variable
fo.close()
os.remove(
"privkey.dec"
) # Deleting decrypted key file inorder to prevent key leakage
privkey = RSA.importKey(privkey) # Importing key to algorithm
cursor = conn.execute(
"SELECT id, title, url, username, password FROM INTERNET")
i = 0
for row in cursor:
i += 1
print("ID = ", row[0])
print("Title = ", row[1])
print("URL= ", row[2])
print("Username = "******"Password = "******"\n") # Printing Decrypted password
# pas_list.append(pas.decode('utf-8'))
sql = (' UPDATE INTERNET\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
##############################################################################
cursor = conn.execute(
"SELECT id, title, url, username, password FROM EMAILS")
i = 0
for row in cursor:
i += 1
print("ID = ", row[0])
print("Title = ", row[1])
print("URL= ", row[2])
print("Username = "******"Password = "******"\n") # Printing Decrypted password
# pas_list.append(pas.decode('utf-8'))
sql = (' UPDATE EMAILS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
##############################################################################
cursor = conn.execute("SELECT id, title, url, password FROM PINS")
i = 0
for row in cursor:
i += 1
print("ID = ", row[0])
print("Title = ", row[1])
print("URL= ", row[2])
pas = row[3]
# pas = privkey.decrypt(pas) # Decrypting password using RSA
pas_tuple = ast.literal_eval(
pas) # Converting encrypted string to tuple
pas = privkey.decrypt(pas_tuple) # Decrypting password using RSA
# pas = privkey.decrypt(pas) # Decrypting password using RSA
pas = pas.decode('utf-8')
print("Password = "******"\n") # Printing Decrypted password
# pas_list.append(pas.decode('utf-8'))
sql = (' UPDATE PINS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
##############################################################################
cursor = conn.execute(
"SELECT id, title, url, username, password FROM OTHERS")
i = 0
for row in cursor:
i += 1
print("ID = ", row[0])
print("Title = ", row[1])
print("URL= ", row[2])
print("Username = "******"Password = "******"\n") # Printing Decrypted password
# pas_list.append(pas.decode('utf-8'))
sql = (' UPDATE OTHERS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
##############################################################################
conn.commit()
conn.close()
return 1
else: # If enteres password is wrong deny access by generating honeywords
print("Access Denied")
copyfile('test.db', 'fake.db')
bstring = sha[0:30]
adder = sha[30:57]
hex_str = bstring
hex_int = int(hex_str, 16)
bstring2 = hex_int + 0x200
hex_str = adder
hex_int = int(hex_str, 16)
adder2 = hex_int + 0x200
conn = sqlite3.connect('fake.db')
cursor = conn.execute("SELECT id, password FROM INTERNET")
add = bstring2
i = 0
for row in cursor:
i += 1
pas = gen_honey(add)
add = add + adder2
sql = (' UPDATE INTERNET\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
####################################################################################
cursor = conn.execute("SELECT id, password FROM EMAILS")
i = 0
for row in cursor:
i += 1
pas = gen_honey(add)
add = add + adder2
sql = (' UPDATE EMAILS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
####################################################################################
cursor = conn.execute("SELECT id, password FROM PINS")
i = 0
for row in cursor:
i += 1
pas = gen_honey(add)
add = add + adder2
sql = (' UPDATE PINS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
####################################################################################
cursor = conn.execute("SELECT id,password FROM OTHERS")
i = 0
for row in cursor:
i += 1
pas = gen_honey(add)
add = add + adder2
sql = (' UPDATE OTHERS\n'
' SET password = ?\n'
' WHERE id = ?')
cur = conn.cursor()
cur.execute(sql, (
pas,
i,
))
####################################################################################
conn.commit()
conn.close()
return 0
def sha3_256Hash(msg):
hashBytes = hashlib.sha3_256(msg.encode("utf8")).digest()
return int.from_bytes(hashBytes, byteorder="big")
with open(filename, 'w') as f:
f.write(b''.join(vector).decode('utf-8').lstrip())
else:
binpath = os.path.join("bin-host", binary)
print("Running {}..".format(binpath))
filename = os.path.join('testvectors/', primitive, scheme, "host")
os.makedirs(os.path.dirname(filename), exist_ok=True)
with open(filename, 'w') as f:
subprocess.run([binpath], stdout=f, stderr=subprocess.DEVNULL)
print(" .. wrote test vectors!")
if not os.path.isdir('testvectors'):
sys.exit(0)
print("Testing if test vectors are consistent..")
for primitive in os.listdir('testvectors'):
for scheme in os.listdir(os.path.join('testvectors', primitive)):
print(" .. {}: ".format(os.path.join(primitive, scheme)), end='')
hashes = dict()
for impl in os.listdir(os.path.join('testvectors', primitive, scheme)):
path = os.path.join('testvectors', primitive, scheme, impl)
with open(path, 'rb') as file:
hashes[file.name] = hashlib.sha3_256(file.read()).hexdigest()
if len(set(hashes.values())) <= 1:
print("passed.")
else:
print("FAILED!")
for file, checksum in hashes.items():
print((" {: <{width}} sha3:{}").format(
file, checksum, width=max(len(file) for file in hashes)))
#!/usr/bin/env python3
"""
@ Desc:
@ Author: Byron
@ Date:
"""
# import the library module
import hashlib
# initialize a string
str = "www.MyTecBits.com"
# encode the string
encoded_str = str.encode()
# create sha3 hash objects initialized with the encoded string
obj_sha3_224 = hashlib.sha3_224(encoded_str) # SHA3-224
obj_sha3_256 = hashlib.sha3_256(encoded_str) # SHA3-256
obj_sha3_384 = hashlib.sha3_384(encoded_str) # SHA3-384
obj_sha3_512 = hashlib.sha3_512(encoded_str) # SHA3-512
# print in hexadecimal
print("\nSHA3-224 Hash: ", obj_sha3_224.hexdigest())
print("\nSHA3-256 Hash: ", obj_sha3_256.hexdigest())
print("\nSHA3-384 Hash: ", obj_sha3_384.hexdigest())
print("\nSHA3-512 Hash: ", obj_sha3_512.hexdigest())
def test_get_utxoset_merkle_root_when_no_utxo(b):
assert b.get_utxoset_merkle_root() == sha3_256(b'').hexdigest()
'range': range, 'repr': repr, 'reversed': reversed, 'round': round, 'sorted': sorted, 'zip': zip, # decimal 'Decimal': Decimal, # hash algorithm 'sha1': lambda *x: hashlib.sha1(*x).hexdigest(), 'sha224': lambda *x: hashlib.sha224(*x).hexdigest(), 'sha256': lambda *x: hashlib.sha256(*x).hexdigest(), 'sha384': lambda *x: hashlib.sha384(*x).hexdigest(), 'sha512': lambda *x: hashlib.sha512(*x).hexdigest(), 'sha3_224': lambda *x: hashlib.sha3_224(*x).hexdigest(), 'sha3_256': lambda *x: hashlib.sha3_256(*x).hexdigest(), 'sha3_384': lambda *x: hashlib.sha3_384(*x).hexdigest(), 'sha3_512': lambda *x: hashlib.sha3_512(*x).hexdigest(), 'md5': lambda *x: hashlib.md5(*x).hexdigest(), # datetime 'date': datetime.date, 'time': datetime.time, 'datetime': datetime.datetime, 'timedelta': datetime.timedelta, 'tzinfo': datetime.tzinfo, 'timezone': datetime.timezone, # module level injection 'functools': functools, 'itertools': itertools, 'math': math, 'operator': operator,
def GetHash(self):
return hashlib.sha3_256(self.protobuf.SerializeToString()).digest()
def shell():
print()
if user == "root":
files.write("/proc/info/pwd", "/root")
else:
files.write("/proc/info/pwd", "/desk/" + user)
select = files.readall("/proc/info/sel") # Change selected database
while True:
if not files.isfile("/proc/selected"):
files.write("/proc/info/sel",
"/proc/" + str(switch)) ## Write this controller
## Check the switched process ##
process.check(switch) # Check the switched process
files.write("/proc/info/sp", str(switch)) # Write switched process
if files.isfile("/tmp/su.tmp"): files.remove("/tmp/su.tmp")
## User configure check ##
files.write("/proc/info/su", user) # Write user name in info processor
if not user == "guest":
hashname = hashlib.sha3_256(str(user).encode()).hexdigest()
username = control.read_record("username", "/etc/users/" + user)
hashcode = hashlib.sha3_512(str(code).encode()).hexdigest()
password = control.read_record("code", "/etc/users/" + user)
if not (hostname == username) and not (password == hashcode):
colors.show("shell", "fail-start", "")
colors.show("kernel", "stop", "")
sys.exit(0)
## PWD path setting up at all ##
if not user == "root":
if not files.isdir("/desk/" + user):
files.mkdir("/desk/" + user) # Create home folder
## Prompt data base ##
show_username = control.read_record("show_username", "/etc/prompt")
show_hostname = control.read_record("show_hostname", "/etc/prompt")
show_path = control.read_record("show_path", "/etc/prompt")
root_symbol = control.read_record("root", "/etc/prompt")
user_symbol = control.read_record("user", "/etc/prompt")
## Setting up prompt data base 2 ##
color_uh = ""
color_path = ""
prompt_symbol = ""
if user == "root":
prompt_symbol = root_symbol
color_uh = colors.get_colors()
color_path = colors.get_colors()
else:
prompt_symbol = user_symbol
color_uh = colors.get_ok()
color_path = colors.get_path()
## Setting up space of prompt ##
if show_username == "Yes":
space_username = user
else:
space_username = ""
if show_hostname == "Yes":
space_hostname = hostname
else:
space_hostname = ""
if show_path == "Yes":
space_path = files.readall("/proc/info/pwd")
else:
space_path = ""
if show_hostname == "Yes" and show_username == "Yes":
space1 = "@"
else:
space1 = ""
if (show_hostname == "Yes"
or show_username == "Yes") and show_path == "Yes":
space2 = ":"
else:
space2 = ""
## Shell prompt ##
cmd = input(color_uh + space_username + space1 + space_hostname +
colors.get_colors() + space2 + color_path + space_path +
colors.get_colors() + prompt_symbol + " ")
cmdln = cmd.split(" ")
strcmdln = ""
for i in cmdln:
if str(i).startswith("$"):
select = files.readall("/proc/info/sel")
var = control.read_record(str(i).replace("$", ""), select)
if var == None:
strcmdln = strcmdln + " " + i
else:
strcmdln = strcmdln + " " + var
else:
strcmdln = strcmdln + " " + i
## Command line ##
cmdln = strcmdln.split(" ")
cmdln.remove('')
## All commands run in here ##
## New command ##
if cmdln[0] == "new":
files.create("/tmp/su.tmp")
control.write_record("username", user, "/tmp/su.tmp")
control.write_record("code", code, "/tmp/su.tmp")
## Other commands ##
if (cmdln == [] or cmdln[0] == "" or cmdln[0] == " "
or cmd.startswith("#") or cmd.startswith("//")
or (cmd.startswith("/*") and cmd.endswith("*/"))
or (cmd.startswith("\'\'\'") and cmd.endswith("\'\'\'"))
or cmd.startswith(";")):
continue
else:
## Run commands ##
# os.system('./'+kernel_file+" exec "+cmd)# Credit learned with https://pymotw.com/2/subprocess/
## Prompt ##
prompt = ['./' + kernel_file, 'exec', cmdln[0]]
## Arguments ##
for i in cmdln[1:]:
prompt.append(i)
## Call the kernel ##
sub.call(prompt)
def address_from_pubkey(cls, pubkey: bytes):
hash_pub = hashlib.sha3_256(pubkey[1:]).hexdigest()
return f"hx{hash_pub[-40:]}"
import hashlib
# --------------------------------------
# This script packages tablite for pypi
# --------------------------------------
folder = Path(__file__).parent
# Step 1. find the sha256 of the files used for this build.
packages = [
folder / 'tablite' / "__init__.py",
folder / 'LICENSE',
folder / 'README.md',
]
sha = hashlib.sha3_256()
for package_path in packages:
assert package_path.exists(), str(package_path)
with open(str(package_path), mode='rb') as fi:
data = fi.read()
sha.update(data)
current_build_tag = sha.hexdigest()
# Step 2. get the sha256 of the existing build.
setup = folder / "setup.py"
build_tag_idx, version_idx = None, None
with open(str(setup), encoding='utf-8') as f:
lines = f.readlines()
for idx, row in enumerate(lines):
if "build_tag" in row:
import sys
import hashlib
from sha3 import sha3_256, sha3_512
import string
mystring = raw_input ('Enter String to hash: ')
hash_object1 = hashlib.sha1(mystring.encode())
hash_object2 = hashlib.sha256(mystring.encode())
hash_object3 = hashlib.sha512(mystring.encode())
hash_object4 = hashlib.sha3_256(mystring.encode())
hash_object5 = hashlib.sha3_512(mystring.encode())
print ("String entered: %s" % mystring)
print ("SHA-1: " + hash_object1.hexdigest())
print ("SHA-256: " + hash_object2.hexdigest())
print ("SHA-512: " + hash_object3.hexdigest())
print ("SHA-3(256): " + hash_object4.hexdigest())
print ("SHA-3(512): " + hash_object5.hexdigest())
def test_crop(set_output_dir):
output_dir = set_output_dir
conn = {
'domain': os.getenv("HOST"),
'username': os.getenv("API_USER"),
'access_token': os.getenv("API_TOKEN"),
}
cutting_geom_osgbwkt = 'POLYGON((372400 213749, 372400 209750, 376487 209750, 376487 213749, 372400 213749))'
eods_params = {
'output_dir': output_dir,
'title': 'keep_api_test_create_group',
'verify': False,
}
list_of_layers, df = eodslib.query_catalog(conn, **eods_params)
wkt = df.loc[(
df['alternate'] == list_of_layers[0])]['csw_wkt_geometry'].item()
lower_left, upper_right = eodslib.get_bbox_corners_from_wkt(wkt, 27700)
errors = []
list_of_results = []
config_wpsprocess = {
'template_xml': 'rascropcoverage_template.xml',
'xml_config': {
'template_layer_name': list_of_layers[0],
'template_mimetype': 'image/tiff',
'template_ll': str(lower_left.x) + ' ' + str(lower_left.y),
'template_ur': str(upper_right.x) + ' ' + str(upper_right.y),
'template_clip_geom': cutting_geom_osgbwkt
},
'dl_bool': True
}
execution_dict = eodslib.run_wps(conn,
config_wpsprocess,
output_dir=output_dir,
verify=False)
list_of_results.append(execution_dict)
eodslib.output_log(list_of_results)
os.rename(output_dir / 'wps-log.csv',
output_dir / 'wps-log-gs-rcrop-test.csv')
os.rename(output_dir / 'eods-query-all-results.csv',
output_dir / 'eods-query-all-results-gs-rcrop-test.csv')
os.rename(output_dir / 'keep_api_test_create_group.tiff',
output_dir / 'keep_api_test_create_group_gs_rcrop.tiff')
log_df = pd.read_csv(output_dir / 'wps-log-gs-rcrop-test.csv')
if len(log_df.index) != 1:
errors.append(
f'Content Error: output log should contain only 1 row, got {len(log_df.index)} rows'
)
if log_df.iloc[0]['layer_name'] != 'geonode:keep_api_test_create_group':
errors.append(
f"Content Error: 1st row of output log should have \'layer_name\' of \'geonode:keep_api_test_create_group\', it was \'{log_df.iloc[0]['layer_name']}\'"
)
if log_df.iloc[0]['filename_stub'] != 'keep_api_test_create_group':
errors.append(
f"Content Error: 1st row of df should have \'filename_stub\' of \'keep_api_test_create_group\', it was \'{log_df.iloc[0]['filename_stub']}\'"
)
hash = hashlib.sha3_256()
with open(output_dir / 'keep_api_test_create_group_gs_rcrop.tiff',
"rb") as f:
for chunk in iter(lambda: f.read(4096), b""):
hash.update(chunk)
hash_out = hash.hexdigest()
checksum = 'e62d562ca491d56c0b2a6c327a612f30390a3bbe103c8e72d9e874e6609651d4'
if hash_out != checksum:
errors.append("Checksum Error: Expected " + checksum + ", got " +
hash_out)
assert not errors
