def get_db_prep_value(self, value, connection=None, prepared=False):
if value is None:
return None
value = smart_str(value)
if not self._is_encrypted(value):
padding = self._get_padding(value)
if padding > 0:
value += "\0" + ''.join([
random.choice(string.printable)
for index in range(padding-1)
])
if self.block_type:
self.cipher = self.cipher_object.new(
self.secret_key,
getattr(self.cipher_object, self.block_type),
self.iv)
if PYTHON3 is True:
value = self.prefix + binascii.b2a_hex(
self.iv + self.cipher.encrypt(value)).decode('utf-8')
else:
value = self.prefix + binascii.b2a_hex(
self.iv + self.cipher.encrypt(value))
else:
if PYTHON3 is True:
print('>>>', value, '-->', len(value)/16)
value = self.prefix + binascii.b2a_hex(
self.cipher.encrypt(value)).decode('utf-8')
else:
value = self.prefix + binascii.b2a_hex(
self.cipher.encrypt(value))
return value
def parse_ntlm_resp(msg3, seq):
'''
Parse the 3rd msg in NTLM handshake
Thanks to psychomario
'''
if seq in challenge_acks:
challenge = challenge_acks[seq]
else:
challenge = 'CHALLENGE NOT FOUND'
if len(msg3) > 43:
# Thx to psychomario for below
lmlen, lmmax, lmoff, ntlen, ntmax, ntoff, domlen, dommax, domoff, userlen, usermax, useroff = struct.unpack("12xhhihhihhihhi", msg3[:44])
lmhash = binascii.b2a_hex(msg3[lmoff:lmoff+lmlen])
nthash = binascii.b2a_hex(msg3[ntoff:ntoff+ntlen])
domain = msg3[domoff:domoff+domlen].replace("\0", "")
user = msg3[useroff:useroff+userlen].replace("\0", "")
# Original check by psychomario, might be incorrect?
#if lmhash != "0"*48: #NTLMv1
if ntlen == 24: #NTLMv1
msg = '%s %s' % ('NETNTLMv1:', user+"::"+domain+":"+lmhash+":"+nthash+":"+challenge)
return msg
elif ntlen > 60: #NTLMv2
msg = '%s %s' % ('NETNTLMv2:', user+"::"+domain+":"+challenge+":"+nthash[:32]+":"+nthash[32:])
return msg
def testEncodeSCCRP():
packet = L2TPV3ControlHeader()
packet.control_id = 0
packet.ns = 0
packet.nr = 0
print binascii.b2a_hex(packet.toBinary())
def update(self,data):
assert(len(data) == self._seedlen_bytes)
#self.v = self.inc_byte_string_array(self.v)
#temp=self.aes.encrypt(self.v)
self.v.incr()
temp=self.aes.encrypt(self.v.get_string())
#print "Key: \t\t", binascii.b2a_hex(self.key), "\nVector: \t", binascii.b2a_hex(self.v), "\nAES: \t\t", binascii.b2a_hex(temp)
print "\nAES: \t\t", binascii.b2a_hex(temp)
#self.v = self.inc_byte_string_array(self.v)
#temp+=self.aes.encrypt(self.v)
self.v.incr()
temp+=self.aes.encrypt(self.v.get_string())
print "\nAES: \t\t", binascii.b2a_hex(self.aes.encrypt(self.v.get_string()))
#print "Key: \t\t", binascii.b2a_hex(self.key), "\nVector: \t", binascii.b2a_hex(self.v), "\nAES: \t\t", binascii.b2a_hex(self.aes.encrypt(self.v))
assert(len(temp) == self._seedlen_bytes)
temp=strxor.strxor(temp,data)
#(self.key,self.v) = (temp[0:self._keylen_bytes], temp[self._keylen_bytes:len(temp)])
(self.key,self.v) = (temp[0:self._keylen_bytes], byte_counter(temp[self._keylen_bytes:len(temp)]))
assert(len(self.key) == self._keylen_bytes)
assert(len(self.v) == self._keylen_bytes)
self.aes = AES.new(self.key,AES.MODE_ECB)
return
def testEncodeAVP():
avp = L2TPV3AVP(True, False, 0, 0,
struct.pack("!H", ControlMessageTypes["SCCRQ"]))
s = avp.toBinary()
print str(avp)
print binascii.b2a_hex(s)
def read_crypto_ia(self, s):
if DEBUG:
self._log_start()
self.log.write('r:'+b2a_hex(s)+'(ia)\n')
if self.buffer:
self.log.write('r:'+b2a_hex(self.buffer)+'(buffer)\n')
return self.read_crypto_block3done(s)
def _task_main(q):
a = Crypto.Random.get_random_bytes(16)
time.sleep(0.1) # wait 100 ms
b = Crypto.Random.get_random_bytes(16)
q.put(binascii.b2a_hex(a))
q.put(binascii.b2a_hex(b))
q.put(None) # Wait for acknowledgment
def disrupt_data(self, dm, target, data):
try:
rnode, consumed_node, orig_node_val, idx = next(self.walker)
except StopIteration:
data.make_unusable()
self.handover()
return data
new_max_runs = self.consumer.max_nb_runs_for(consumed_node)
if self.max_runs != new_max_runs or self.current_node != consumed_node:
self.current_node = consumed_node
self.max_runs = new_max_runs
self.run_num = 1
else:
self.run_num +=1
data.add_info('model walking index: {:d}'.format(idx))
data.add_info(' |_ run: {:d} / {:d} (max)'.format(self.run_num, self.max_runs))
data.add_info('current fuzzed separator: %s' % self.modelwalker.consumed_node_path)
data.add_info(' |_ value type: %s' % consumed_node.cc.get_value_type())
data.add_info(' |_ original separator: %s (ascii: %s)' % \
(binascii.b2a_hex(orig_node_val), orig_node_val))
data.add_info(' |_ replaced by: %s (ascii: %s)' % \
(binascii.b2a_hex(consumed_node.to_bytes()),
consumed_node.to_bytes()))
if self.clone_node:
exported_node = Node(rnode.name, base_node=rnode, new_env=True)
data.update_from_node(exported_node)
else:
data.update_from_node(rnode)
return data
def check_apns_error_response(self):
"""
Check error response.
Use blocking socket.read() and timeout when no response.
This is experimentally workaround.
"""
if self.apns.gateway_server._socket is None:
return
try:
self.apns.gateway_server._socket.settimeout(0.6)
error_bytes = self.apns.gateway_server.read(6)
if len(error_bytes) < 6:
return
command = b2a_hex(unpack('>c', error_bytes[0:1])[0])
if command != '08':
logging.warn('Unknown command received %s', command)
return
status = b2a_hex(unpack('>c', error_bytes[1:2])[0])
identifier = unpack('>I', error_bytes[2:6])[0]
raise APNsError(status, identifier)
except socket.error, e:
if isinstance(e.args, tuple):
if e[0] == 'The read operation timed out':
return # No error response.
logging.warn(e)
def main():
parser = argparse.ArgumentParser(description='py3-kms: KMS Server Emulator written in Python3', epilog="version: py3-kms_2018-03-01")
parser.add_argument("ip", nargs="?", action="store", default="0.0.0.0",
help='The IP address to listen on. The default is \"0.0.0.0\" (all interfaces).', type=str)
parser.add_argument("port", nargs="?", action="store", default=1688,
help='The network port to listen on. The default is \"1688\".', type=int)
parser.add_argument("-e", "--epid", dest="epid", default=None,
help='Use this flag to manually specify an ePID to use. If no ePID is specified, a random ePID will be generated.', type=str)
parser.add_argument("-l", "--lcid", dest="lcid", default=1033,
help='Use this flag to manually specify an LCID for use with randomly generated ePIDs. If an ePID is manually specified,\
this setting is ignored.', type=int)
parser.add_argument("-c", "--client-count", dest="CurrentClientCount", default=26,
help='Use this flag to specify the current client count. Default is 26. A number >25 is required to enable activation.', type=int)
parser.add_argument("-a", "--activation-interval", dest="VLActivationInterval", default=120,
help='Use this flag to specify the activation interval (in minutes). Default is 120 minutes (2 hours).', type=int)
parser.add_argument("-r", "--renewal-interval", dest="VLRenewalInterval", default=1440 * 7,
help='Use this flag to specify the renewal interval (in minutes). Default is 10080 minutes (7 days).', type=int)
parser.add_argument("-s", "--sqlite", dest="sqlite", action="store_const", const=True, default=False,
help='Use this flag to store request information from unique clients in an SQLite database.')
parser.add_argument("-w", "--hwid", dest="hwid", action="store", default='364F463A8863D35F',
help='Use this flag to specify a HWID. The HWID must be an 16-character string of hex characters. \
The default is \"364F463A8863D35F\" or type \"random\" to auto generate the HWID.', type=str)
parser.add_argument("-v", "--loglevel", dest="loglevel", action="store", default="ERROR", choices=["CRITICAL", "ERROR", "WARNING", "INFO", "DEBUG"],
help='Use this flag to set a Loglevel. The default is \"ERROR\".', type=str)
parser.add_argument("-f", "--logfile", dest="logfile", action="store", default=os.path.dirname(os.path.abspath( __file__ )) + "/py3kms_server.log",
help='Use this flag to set an output Logfile. The default is \"pykms_server.log\".', type=str)
config.update(vars(parser.parse_args()))
# Random HWID.
if config['hwid'] == "random":
randomhwid = uuid.uuid4().hex
config['hwid'] = randomhwid[:16]
# Sanitize HWID.
try:
config['hwid'] = binascii.a2b_hex(re.sub(r'[^0-9a-fA-F]', '', config['hwid'].strip('0x')))
if len(binascii.b2a_hex(config['hwid'])) < 16:
logging.error("HWID \"%s\" is invalid. Hex string is too short." % binascii.b2a_hex(config['hwid']).decode('utf-8').upper())
return
elif len(binascii.b2a_hex(config['hwid'])) > 16:
logging.error("HWID \"%s\" is invalid. Hex string is too long." % binascii.b2a_hex(config['hwid']).decode('utf-8').upper())
return
except TypeError:
logging.error("HWID \"%s\" is invalid. Odd-length hex string." % binascii.b2a_hex(config['hwid']).decode('utf-8').upper())
return
logging.basicConfig(level=config['loglevel'], format='%(asctime)s %(levelname)-8s %(message)s',
datefmt='%a, %d %b %Y %H:%M:%S', filename=config['logfile'], filemode='w')
try:
import sqlite3
config['dbSupport'] = True
except:
logging.warning("Module \"sqlite3\" is not installed, database support disabled.")
config['dbSupport'] = False
server = socketserver.TCPServer((config['ip'], config['port']), kmsServer)
server.timeout = 5
logging.info("TCP server listening at %s on port %d." % (config['ip'], config['port']))
logging.info("HWID: %s" % binascii.b2a_hex(config['hwid']).decode('utf-8').upper())
server.serve_forever()
def decode(self, file_input, file_output):
f = open(file_input, 'r') #apro file di input in lettura
o = open(file_output, 'w') #apro file di output in scrittura
t = f.read() #leggo tutto il file
strout = ""
state = 0
for c in t: #scorro tutti i caratteri contenuti nel file
if state == 0: #state = 0 --> c e' il counter
ba = bitarray()
ba.frombytes(c) #dal byte mi ricavo l'oggetto bitarray
if ba[0]: #ossia se il primo carattere della stringa di bit e' a 1 (numero > di 127) non posso convertire in string
ba[0] = 0 #azzero il primo carattere
counter_int = int(binascii.b2a_hex(ba.tostring()),16) #converto prima in esadecimale e poi in decimale
counter_int += 128 #aggiungo 10000000(bin) = 128(dec) che avevo tolto all'inizio
else:
counter_int = int(binascii.b2a_hex(ba.tostring()),16) #converto prima in esadecimale e poi in decimale
state = 1 #metto lo stato a 1
else: #state = 1 --> c e' il carattere
for i in range(0,counter_int): #per un numero counter_int di volte
strout += c #scrivo il carattere
state = 0
o.write(strout) #scrivo l'output sul file_output
o.close() #chiudo file_output
f.close() #chiudo file_input
def try_imports_lib():
a = imports.lazyModule('base64')
HOOKS={ 'binascii' : ['b2a_hex'],
'base64' : ['b64encode'],
'oboeware.django' : ['OboeDjangoMiddleware']}
def hook(module):
print "hook", module.__name__
def wrap(fn, *args, **kw):
print "wrapped", fn.__name__
return fn
# wrap callables we want to wrap
for attr in HOOKS[module.__name__]:
setattr(module, attr, wrap(getattr(module, attr)))
#print repr(obj)
imports.whenImported('binascii', hook)
imports.whenImported('base64', hook)
from binascii import b2a_hex
print b2a_hex('yo')
from base64 import b64encode
print b64encode("blah")
def binLogData(data, maxlen = 64):
ellipses = " ..."
if len(data) > maxlen - len(ellipses):
dd = binascii.b2a_hex(data[:maxlen]) + ellipses
else:
dd = binascii.b2a_hex(data)
return dd
def __repr__(self):
if isinstance(self._data, C1218Request):
repr_data = repr(self._data)
else:
repr_data = '0x' + binascii.b2a_hex(self._data).decode('utf-8')
crc = binascii.b2a_hex(packet_checksum(self.start + self.identity + self.control + self.sequence + self._length + self._data)).decode('utf-8')
return '<C1218Packet data=' + repr_data + ' data_len=' + str(len(self._data)) + ' crc=0x' + crc + ' >'
def encode(self, blob):
if 'upper' in self.dialect:
return binascii.b2a_hex(blob).upper()
if 'lower' in self.dialect:
return binascii.b2a_hex(blob).lower()
else:
return binascii.b2a_hex(blob)
def test_srtp_auth():
m = b"hello_rtp"
master_key= a2b_hex('00000000000000000000000000000000')
master_salt= a2b_hex('0000000000000000000000000000')
ck,sk,ak= srtp_derive_key_aes_128(master_key, master_salt)
assert b2a_hex(ak) == b'788bcd111ecf73d4e78d2e21bef55460daacdaf7'
ma = srtp_sign_packet(ak, m, 0)
assert b2a_hex(ma[-10:]) == b'e60c68053178ee795142'
assert srtp_verify_and_strip_signature(ak, ma, 0) == m
try:
srtp_verify_and_strip_signature(ak, ma, 1) # wrong roc should fail authentication
assert False
except AuthenticationFailure:
pass
try:
srtp_verify_and_strip_signature(ak, b'\xff' + ma[1:], 1) # modified message should fail auth
assert False
except AuthenticationFailure:
pass
ck,sk,ak= srtp_derive_key_aes_128(master_key, master_salt, rtcp=True)
encrypted_srtcp = True
packet_i_srtcp = 1
data = a2b_hex ('80cc000810feff99466c75782105000310feff990000100200001603000000090000000400000001a0573cb69ef3c96e1253')
data2 = a2b_hex('80cc000810feff99466c75782105000310feff990000100200001603000000090000000480000002e24513e079e366eb82e6')
assert srtcp_sign_packet(ak, data[:-14], packet_i_srtcp, not encrypted_srtcp) == data
assert srtcp_verify_and_strip_signature(ak, data) == (data[:-14], packet_i_srtcp, not encrypted_srtcp)
assert srtcp_sign_packet(ak, data[:-14], packet_i_srtcp+1, encrypted_srtcp) == data2
assert srtcp_verify_and_strip_signature(ak, data2) == (data2[:-14], packet_i_srtcp+1, encrypted_srtcp)
def serialize(obj):
'''JSON serializer function for non-standard Python objects.'''
if isinstance(obj, bytearray):
# TODO: Decide on a single way of dumping blobs
if False:
# Don't dump full blobs, but merely a description of their size and
# CRC32 hash.
crc32 = binascii.crc32(obj)
if crc32 < 0:
crc32 += 0x100000000
return 'blob(size=%u,crc32=0x%08x)' % (len(obj), crc32)
if True:
# Dump blobs as an array of 16byte hexadecimals
res = []
for i in range(0, len(obj), 16):
res.append(binascii.b2a_hex(obj[i: i+16]))
return res
# Dump blobs as a single hexadecimal string
return binascii.b2a_hex(obj)
# If the object has a __json__ method, use it.
try:
method = obj.__json__
except AttributeError:
raise TypeError(obj)
else:
return method()
def __init__(self, fobject):
"""fobject is a file object advanced after the header (8 bytes)."""
_fanout = fobject.read(FANOUT_SIZE * FANOUT_NUMBER)
self.fanout_table = [
struct.unpack('!i', _fanout[4*i:4*i+4])[0] for i in range(FANOUT_NUMBER)]
self.nobjects = self.fanout_table[-1]
self.names = []
def foo(nobj):
return [binascii.b2a_hex(fobject.read(20)) for j in range(nobj)]
nobj = self.fanout_table[0]
self.names.append(foo(nobj))
for i in range(1, FANOUT_NUMBER):
# Number of objects in fanout_table[i]
nobj = self.fanout_table[i] - self.fanout_table[i-1]
self.names.append(foo(nobj))
self.crc32 = [struct.unpack('!i', fobject.read(4))[0] for i in range(self.nobjects)]
self.offsets = [struct.unpack('!i', fobject.read(4))[0] for i in range(self.nobjects)]
self.pack_checksum = binascii.b2a_hex(fobject.read(20))
self.own_checksum = binascii.b2a_hex(fobject.read(20))
if fobject.read():
raise NotImplementedError("64 bits offset not supported yet")
def decrypt_file(fn, offset=0):
key = ''.join(['\xDE', '\x72', '\xBE', '\xA0', '\xDE', '\x04', '\xBE', '\xB1', '\xDE', '\xFE', '\xBE', '\xEF', '\xDE', '\xAD', '\xBE', '\xEF'])
bc = 0
pb = None
from blowfish import Blowfish
from binascii import b2a_hex
bf = Blowfish(key)
printmessage("Decrypting from offset {}".format(offset))
of = fn + ".tmp"
with open(fn, 'rb') as f:
f.seek(offset)
with open(of, 'wb') as out:
while True:
b = f.read(8)
if not b:
break
if len(b) < 8:
b += '\x00' * (8 - len(b)) # pad for correct blocksize
if bc > 0:
db = bf.decrypt(b)
if pb:
db = ''.join([chr(int(b2a_hex(a), 16) ^ int(b2a_hex(b), 16)) for a, b in zip(db, pb)])
pb = db
out.write(db)
bc += 1
return of
return None
def test_no_memory_arg(self):
scram = auth.AuthScram(
nonce='1234567890abcdef',
kdf='argon2id13',
salt=binascii.b2a_hex(b'1234567890abcdef'),
iterations=4096,
memory=512,
password=u'p4ssw0rd',
authid=u'username',
)
scram.authextra
with self.assertRaises(ValueError) as ctx:
challenge = types.Challenge(u'scram', {
'nonce': u'1234567890abcdeffedcba0987654321',
'kdf': u'argon2id-13',
'salt': binascii.b2a_hex(b'1234567890abcdef'),
'iterations': 4096,
# no 'memory' key
})
scram.on_challenge(Mock(), challenge)
self.assertIn(
"requires 'memory' parameter",
str(ctx.exception)
)
def before_send(self, apdu):
self.last_vanilla_c_apdu = C_APDU(apdu)
if (apdu.cla & 0x80 != 0x80) and (apdu.CLA & 0x0C != 0x0C):
# Transform for SM
apdu.CLA = apdu.CLA | 0x0C
apdu_string = binascii.b2a_hex(apdu.render())
new_apdu = [apdu_string[:8]]
new_apdu.append("YY")
if apdu.case() in (3,4):
new_apdu.append("87[01")
new_apdu.append(binascii.b2a_hex(apdu.data))
new_apdu.append("]")
if apdu.case() in (2,4):
if apdu.Le == 0:
apdu.Le = 0xe7 # FIXME: Probably not the right way
new_apdu.append("97(%02x)" % apdu.Le)
new_apdu.append("8E()00")
new_apdu_string = "".join(new_apdu)
apdu = C_APDU.parse_fancy(new_apdu_string)
return TCOS_Security_Environment.before_send(self, apdu)
def runTest(self):
h = self.hashmod.new()
h.update(self.input)
out1 = binascii.b2a_hex(h.digest())
out2 = h.hexdigest()
h = self.hashmod.new(self.input)
out3 = h.hexdigest()
out4 = binascii.b2a_hex(h.digest())
# PY3K: hexdigest() should return str(), and digest() bytes
self.assertEqual(self.expected, out1) # h = .new(); h.update(data); h.digest()
if sys.version_info[0] == 2:
self.assertEqual(self.expected, out2) # h = .new(); h.update(data); h.hexdigest()
self.assertEqual(self.expected, out3) # h = .new(data); h.hexdigest()
else:
self.assertEqual(self.expected.decode(), out2) # h = .new(); h.update(data); h.hexdigest()
self.assertEqual(self.expected.decode(), out3) # h = .new(data); h.hexdigest()
self.assertEqual(self.expected, out4) # h = .new(data); h.digest()
# Verify that the .new() method produces a fresh hash object, except
# for MD5 and SHA1, which are hashlib objects. (But test any .new()
# method that does exist.)
if self.hashmod.__name__ not in ('Crypto.Hash.MD5', 'Crypto.Hash.SHA1') or hasattr(h, 'new'):
h2 = h.new()
h2.update(self.input)
out5 = binascii.b2a_hex(h2.digest())
self.assertEqual(self.expected, out5)
def mssql(self, ip):
for pwd in passwd:
try:
pwd = pwd.replace('{user}', 'sa')
s = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
s.connect((ip, 1433))
husername = binascii.b2a_hex('sa')
lusername = len('sa')
lpassword = len(pwd)
hpwd = binascii.b2a_hex(pwd)
address = binascii.b2a_hex(ip) +'3a'+ binascii.b2a_hex(str(1433))
data1 = data.replace(data[16:16+len(address)], address)
data2 = data1.replace(data1[78:78+len(husername)], husername)
data3 = data2.replace(data2[140:140+len(hpwd)], hpwd)
if lusername >= 16:
data4 = data3.replace('0X', str(hex(lusername)).replace('0x', ''))
else:
data4 = data3.replace('X', str(hex(lusername)).replace('0x', ''))
if lpassword >= 16:
data5 = data4.replace('0Y', str(hex(lpassword)).replace('0x', ''))
else:
data5 = data4.replace('Y', str(hex(lpassword)).replace('0x', ''))
hladd = hex(len(ip) + len(str(1433))+1).replace('0x', '')
data6 = data5.replace('ZZ', str(hladd))
data7 = binascii.a2b_hex(data6)
s.send(data7)
if 'master' in s.recv(1024):
print u'{}[+] {}:1433 SQLserver存在弱口令: sa {}{}'.format(G, ip, pwd, W)
break
except Exception as e:
pass
finally:
s.close()
def _test():
import binascii
import time
mt = MerkleTree([None] + [binascii.unhexlify(a) for a in [
'999d2c8bb6bda0bf784d9ebeb631d711dbbbfe1bc006ea13d6ad0d6a2649a971',
'3f92594d5a3d7b4df29d7dd7c46a0dac39a96e751ba0fc9bab5435ea5e22a19d',
'a5633f03855f541d8e60a6340fc491d49709dc821f3acb571956a856637adcb6',
'28d97c850eaf917a4c76c02474b05b70a197eaefb468d21c22ed110afe8ec9e0',
]])
assert(
b'82293f182d5db07d08acf334a5a907012bbb9990851557ac0ec028116081bd5a' ==
binascii.b2a_hex(mt.withFirst(binascii.unhexlify('d43b669fb42cfa84695b844c0402d410213faa4f3e66cb7248f688ff19d5e5f7')))
)
print '82293f182d5db07d08acf334a5a907012bbb9990851557ac0ec028116081bd5a'
txes = [binascii.unhexlify(a) for a in [
'd43b669fb42cfa84695b844c0402d410213faa4f3e66cb7248f688ff19d5e5f7',
'999d2c8bb6bda0bf784d9ebeb631d711dbbbfe1bc006ea13d6ad0d6a2649a971',
'3f92594d5a3d7b4df29d7dd7c46a0dac39a96e751ba0fc9bab5435ea5e22a19d',
'a5633f03855f541d8e60a6340fc491d49709dc821f3acb571956a856637adcb6',
'28d97c850eaf917a4c76c02474b05b70a197eaefb468d21c22ed110afe8ec9e0',
]]
s = time.time()
mt = MerkleTree(txes)
for x in range(100):
y = int('d43b669fb42cfa84695b844c0402d410213faa4f3e66cb7248f688ff19d5e5f7', 16)
#y += x
coinbasehash = binascii.unhexlify("%x" % y)
x = binascii.b2a_hex(mt.withFirst(coinbasehash))
print x
print time.time() - s
def read_mapped_address(attr_type, attr_body, attr_len):
assert attr_type in (MAPPED_ADDRESS, XOR_MAPPED_ADDRESS, '\x00\x20')
assert attr_body[:1] == '\x00' # 最初の 8bit (1bytes) は 0 に設定しなければならない
family_bytes = attr_body[1:2]
port_bytes = attr_body[2:4]
addr_bytes = attr_body[4:attr_len]
xor = attr_type in (XOR_MAPPED_ADDRESS, '\x00\x20')
family_text = ''
assert family_bytes in (FAMILY_IPv4, FAMILY_IPv6)
if family_bytes == FAMILY_IPv4:
family_text = 'IPv4'
elif family_bytes == FAMILY_IPv6:
family_text = 'IPv6'
# TODO: IPv6 に対応
port = int(binascii.b2a_hex(port_bytes), 16)
addr_int = int(binascii.b2a_hex(addr_bytes), 16)
if xor:
# port
magicCookieHighBytesInt = int(binascii.b2a_hex(MAGIC_COOKIE[:2]), 16)
port = magicCookieHighBytesInt ^ port
# addr
magicCookieBytesInt = int(binascii.b2a_hex(MAGIC_COOKIE), 16)
addr_int = magicCookieBytesInt ^ addr_int
octets = struct.pack('!I', addr_int)
ip = '.'.join([str(ord(c)) for c in octets])
return dict(name=STUN_ATTRIBUTE_NAMES[attr_type], ip=ip, port=port, family=family_text)
def FromSock(self):
Str = self.__Sock.recv(4);
if not len(Str) == 4:
#self.__Logger.warning("To less data recv");
return(False);
self.__Logger.debug("Got Hader: %s"%binascii.b2a_hex(Str));
self.HDRFromString(Str);
self.__Logger.debug("Get Packet %i"%self.GetLen());
Str = self.__Sock.recv(self.GetLen()-4);
if not len(Str) == (self.GetLen()-4):
self.__Logger.warning("To less data");
return(False);
if self.GetCMD() == JVISU_CMD_REGVAR:
self.__Logger.debug("CMD: register var");
FMT = "II%is"%(self.GetLen()-12);
(self.__ID,
self.__Rate,
self.__DATA) = struct.unpack(FMT,Str);
self.__Logger.debug("Add var with id %i"%self.__ID);
return(True);
elif self.GetCMD() == JVISU_CMD_DELVAR:
self.__Logger.debug("CMD: unregister var");
(self.__ID,) = struct.unpack("I",Str);
return(True);
elif self.GetCMD() == JVISU_CMD_SNDVAR:
self.__Logger.debug("CMD: set value");
FMT = "I%is"%(self.GetLen()-8);
(self.__ID,self.__DATA) = struct.unpack(FMT,Str);
else:
self.__Logger.warning("Command %x not implemented"%self.GetCMD());
self.__Logger.debug("LINE: %s"%binascii.b2a_hex(Str));
return(False);
def readtoc(f):
hdr = HEADER.fromfile(f)
if hdr['magic'] != MAGIC:
raise XARFormatError('magic %r != %r' %
(hdr['magic'], MAGIC))
if hdr['version'] not in VERSIONS:
raise XARFormatError('version %r not supported' %
(hdr['version'],))
if hdr['cksum_alg'] not in CHECKSUM:
raise XARFormatError('cksum_alg %r not supported' %
(hdr['cksum_alg'],))
ztocdata = f.read(hdr['toc_length_compressed'])
tocdata = zlib.decompress(ztocdata)
if hdr['toc_length_uncompressed'] != len(tocdata):
raise XARFormatError('toc_length_uncompressed %r != %r' %
(hdr['toc_length_uncompressed'],
len(tocdata)))
digest = toc_digest(hdr, ztocdata)
if digest:
orig_digest = f.read(len(digest))
if digest != orig_digest:
raise XARFormatError('digest %r != %r' %
(b2a_hex(digest),
b2a_hex(orig_digest)))
return hdr, tocdata
def _compute_response_auth(urp_hash, nonce, cnonce, nonce_count, authzid,
digest_uri):
"""Compute DIGEST-MD5 rspauth value.
:Parameters:
- `urp_hash`: MD5 sum of username:realm:password.
- `nonce`: nonce value from a server challenge.
- `cnonce`: cnonce value from the client response.
- `nonce_count`: nonce count value.
- `authzid`: authorization id.
- `digest_uri`: digest-uri value.
:Types:
- `urp_hash`: `bytes`
- `nonce`: `bytes`
- `nonce_count`: `int`
- `authzid`: `bytes`
- `digest_uri`: `bytes`
:return: the computed rspauth value.
:returntype: `bytes`"""
# pylint: disable-msg=C0103,R0913
logger.debug("_compute_response_auth{0!r}".format((urp_hash, nonce, cnonce,
nonce_count, authzid, digest_uri)))
if authzid:
a1 = b":".join((urp_hash, nonce, cnonce, authzid))
else:
a1 = b":".join((urp_hash, nonce, cnonce))
a2 = b":" + digest_uri
return b2a_hex(_kd_value(b2a_hex(_h_value(a1)), b":".join((
nonce, nonce_count, cnonce, b"auth", b2a_hex(_h_value(a2))))))
def start(shellcode, job):
for line in shellcode.rsplit('\n'):
if 'push' in line and '$0x' in line and ',' not in line and len(
line) > 14:
data = line.rsplit('push')[1].rsplit('$0x')[1]
t = True
while t:
if _version is 2:
ebx_1 = binascii.b2a_hex(''.join(random.choice(chars)
for i in range(4)))
if _version is 3:
ebx_1 = (binascii.b2a_hex((''.join(random.choice(
chars) for i in range(4))).encode('latin-1'))
).decode('latin-1')
ebx_2 = "%x" % (int(data, 16) ^ int(ebx_1, 16))
if str('00') not in str(ebx_1) and str('00') not in str(
ebx_2) and len(ebx_2.replace('-', '')) > 7 and len(
ebx_1) > 7 and '-' not in ebx_1:
ebx_2 = ebx_2.replace('-', '')
if job == 'exec':
command = '\npush %%ebx\npush $0x%s\npop %%ebx\npush $0x%s\npop %%ecx\nxor %%ebx,%%ecx\npop %%ebx\npush %%ecx\n' % (
str(ebx_1), str(ebx_2))
elif job == 'add_admin' or job == 'dir_create' or job == 'download_exec':
command = '\npush %%ebx\npush $0x%s\npop %%ebx\npush $0x%s\npop %%ecx\nxor %%ebx,%%ecx\npop %%ebx\npush %%ecx\n' % (
str(ebx_1), str(ebx_2))
elif job == 'create_file' or job == 'disable_firewall' or job == 'download_tofile':
command = '\npush %%eax\npush $0x%s\npop %%eax\npush $0x%s\npop %%ecx\nxor %%eax,%%ecx\npop %%eax\npush %%ecx\n' % (
str(ebx_1), str(ebx_2))
shellcode = shellcode.replace(line, command)
t = False
return shellcode
def new(self, random_iv=True): # if random_iv==False, set iv to 0
self.key_str = binascii.b2a_hex(M2Crypto.Rand.rand_bytes(self.key_len))
if random_iv:
self.iv_str = binascii.b2a_hex(M2Crypto.Rand.rand_bytes(self.iv_len))
else:
self.iv_str = '0'*(self.iv_len*2)
return
def updateBlock(self, newBlock, height = None, bits = None, _HBH = None):
if newBlock == self.currentBlock[0]:
if height in (None, self.currentBlock[1]) and bits in (None, self.currentBlock[2]):
return
if not self.currentBlock[2] is None:
self.logger.error('Was working on block with wrong specs: %s (height: %d->%d; bits: %s->%s' % (
b2a_hex(newBlock[::-1]).decode('utf8'),
self.currentBlock[1],
height,
b2a_hex(self.currentBlock[2][::-1]).decode('utf8'),
b2a_hex(bits[::-1]).decode('utf8'),
))
# Old block is invalid
if self.currentBlock[0] != newBlock:
self.lastBlock = self.currentBlock
lastHeight = self.currentBlock[1]
if height is None:
height = self.currentBlock[1] + 1
if bits is None:
if height % self.DifficultyChangeMod == 1 or self.currentBlock[2] is None:
self.logger.warning('New block: %s (height %d; bits: UNKNOWN)' % (b2a_hex(newBlock[::-1]).decode('utf8'), height))
# Pretend to be 1 lower height, so we possibly retain nextMerkleRoots
self.currentBlock = (None, height - 1, None)
self.clearMerkleRoots = Queue(0)
self.merkleRoots.clear()
self.ready = False
return
else:
bits = self.currentBlock[2]
if _HBH is None:
_HBH = (b2a_hex(newBlock[::-1]).decode('utf8'), b2a_hex(bits[::-1]).decode('utf8'))
self.logger.info('New block: %s (height: %d; bits: %s)' % (_HBH[0], height, _HBH[1]))
self.currentBlock = (newBlock, height, bits)
if lastHeight != height:
# TODO: Perhaps reuse clear merkle trees more intelligently
if lastHeight == height - 1:
self.curClearMerkleTree = self.nextMerkleTree
self.clearMerkleRoots = self.nextMerkleRoots
self.logger.debug('Adopting next-height clear merkleroots :)')
else:
if lastHeight:
self.logger.warning('Change from height %d->%d; no longpoll merkleroots available!' % (lastHeight, height))
self.curClearMerkleTree = self.createClearMerkleTree(height)
self.clearMerkleRoots = Queue(self.WorkQueueSizeClear[1])
self.nextMerkleTree = self.createClearMerkleTree(height + 1)
self.nextMerkleRoots = Queue(self._MaxClearSize)
else:
self.logger.debug('Already using clear merkleroots for this height')
self.currentMerkleTree = self.curClearMerkleTree
self.merkleRoots.clear()
if not self.ready:
self.ready = True
with self.readyCV:
self.readyCV.notify_all()
self.needMerkle = 2
self.onBlockChange()
def b2x(b):
return b2a_hex(b).decode('ascii')
def gen_order_id(self):
return str(int(time())) + b2a_hex(urandom(4)).decode
def test_wkb(self):
"Testing WKB output."
for g in self.geometries.hex_wkt:
geom = fromstr(g.wkt)
wkb = geom.wkb
self.assertEqual(b2a_hex(wkb).decode().upper(), g.hex)
def b2a_hex(b):
return binascii.b2a_hex(compat26Str(b))
def b2a_hex(b):
return binascii.b2a_hex(b).decode("ascii")
def updateMerkleTree(self):
global now
self.logger.debug('Polling bitcoind for memorypool')
self.nextMerkleUpdate = now + self.TxnUpdateRetryWait
try:
# First, try BIP 22 standard getblocktemplate :)
MP = self.access.getblocktemplate(self.GBTReq)
self.OldGMP = False
except:
try:
# Failing that, give BIP 22 draft (2012-02 through 2012-07) getmemorypool a chance
MP = self.access.getmemorypool(self.GMPReq)
except:
try:
# Finally, fall back to bitcoind 0.5/0.6 getmemorypool
MP = self.access.getmemorypool()
except:
MP = False
if MP is False:
# This way, we get the error from the BIP22 call if the old one fails too
raise
# Pre-BIP22 server (bitcoind <0.7 or Eloipool <20120513)
if not self.OldGMP:
self.OldGMP = True
self.logger.warning('Upstream server is not BIP 22 compatible')
oMP = deepcopy(MP)
prevBlock = bytes.fromhex(MP['previousblockhash'])[::-1]
if 'height' in MP:
height = MP['height']
else:
height = self.access.getinfo()['blocks'] + 1
bits = bytes.fromhex(MP['bits'])[::-1]
if (prevBlock, height, bits) != self.currentBlock:
self.updateBlock(prevBlock, height, bits, _HBH=(MP['previousblockhash'], MP['bits']))
txnlist = MP['transactions']
if len(txnlist) and isinstance(txnlist[0], dict):
txninfo = txnlist
txnlist = tuple(a['data'] for a in txnlist)
txninfo.insert(0, {
})
elif 'transactionfees' in MP:
# Backward compatibility with pre-BIP22 gmp_fees branch
txninfo = [{'fee':a} for a in MP['transactionfees']]
else:
# Backward compatibility with pre-BIP22 hex-only (bitcoind <0.7, Eloipool <future)
txninfo = [{}] * len(txnlist)
# TODO: cache Txn or at least txid from previous merkle roots?
txnlist = [a for a in map(bytes.fromhex, txnlist)]
self._makeBlockSafe(MP, txnlist, txninfo)
cbtxn = self.makeCoinbaseTxn(MP['coinbasevalue'])
cbtxn.setCoinbase(b'\0\0')
cbtxn.assemble()
txnlist.insert(0, cbtxn.data)
txnlist = [a for a in map(Txn, txnlist[1:])]
txnlist.insert(0, cbtxn)
txnlist = list(txnlist)
newMerkleTree = MerkleTree(txnlist)
if newMerkleTree.merkleRoot() != self.currentMerkleTree.merkleRoot():
newMerkleTree.POTInfo = MP.get('POTInfo')
newMerkleTree.oMP = oMP
if (not self.OldGMP) and 'proposal' in MP.get('capabilities', ()):
(prevBlock, height, bits) = self.currentBlock
coinbase = self.makeCoinbase(height=height)
cbtxn.setCoinbase(coinbase)
cbtxn.assemble()
merkleRoot = newMerkleTree.merkleRoot()
MRD = (merkleRoot, newMerkleTree, coinbase, prevBlock, bits)
blkhdr = MakeBlockHeader(MRD)
data = assembleBlock(blkhdr, txnlist)
propose = self.access.getblocktemplate({
"mode": "proposal",
"data": b2a_hex(data).decode('utf8'),
})
if propose is None:
self.logger.debug('Updating merkle tree (upstream accepted proposal)')
self.currentMerkleTree = newMerkleTree
else:
self.RejectedProposal = (newMerkleTree, propose)
try:
propose = propose['reject-reason']
except:
pass
self.logger.error('Upstream rejected proposed block: %s' % (propose,))
else:
self.logger.debug('Updating merkle tree (no proposal support)')
self.currentMerkleTree = newMerkleTree
self.lastMerkleUpdate = now
self.nextMerkleUpdate = now + self.MinimumTxnUpdateWait
if self.needMerkle == 2:
self.needMerkle = 1
self.needMerkleSince = now
def parse_nlri(cls, data, nlri_type):
"""parse nlri: node, link, prefix
"""
# 0 1 2 3
# 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1 2 3 4 5 6 7 8 9 0 1
# +-+-+-+-+-+-+-+-+
# | Protocol-ID |
# +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
# | Identifier |
# | (64 bits) |
# +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
# // Local Node Descriptors (variable) //
# +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
# // Remote Node Descriptors (variable) //
# +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
# // Link Descriptors (variable) //
# +-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+-+
# Figure 8: The Link NLRI format
# The Protocol-ID field can contain one of the following values:
# +-------------+----------------------------------+
# | Protocol-ID | NLRI information source protocol |
# +-------------+----------------------------------+
# | 1 | IS-IS Level 1 |
# | 2 | IS-IS Level 2 |
# | 3 | OSPFv2 |
# | 4 | Direct |
# | 5 | Static configuration |
# | 6 | OSPFv3 |
# | 7 | BGP |
# +-------------+----------------------------------+
# Table 2: Protocol Identifiers
# +------------+----------------------------------+
# | Identifier | Routing Universe |
# +------------+----------------------------------+
# | 0 | Default Layer 3 Routing topology |
# +------------+----------------------------------+
# Table 3: Well-Known Instance Identifiers
proto_id = ord(data[0:1])
identifier = int(binascii.b2a_hex(data[1:9]), 16)
descriptor_list = []
descriptors = data[9:]
while descriptors:
_type, length = struct.unpack('!HH', descriptors[0:4])
value = descriptors[4: 4+length]
descriptors = descriptors[4+length:]
descriptor = dict()
if _type == 256: # local node
descriptor['type'] = 'local_node'
descriptor['value'] = cls.parse_node_descriptor(value, proto_id)
elif _type == 257: # remote node
descriptor['type'] = 'remote_node'
descriptor['value'] = cls.parse_node_descriptor(value, proto_id)
# elif _type == 258: # link local/remote identifier
# pass
elif _type == 259: # ipv4 interface address
ipv4_addr = str(netaddr.IPAddress(int(binascii.b2a_hex(value), 16)))
descriptor['type'] = 'link_local_ipv4'
descriptor['value'] = ipv4_addr
elif _type == 260: # ipv4 neighbor address
ipv4_neighbor_addr = str(netaddr.IPAddress(int(binascii.b2a_hex(value), 16)))
descriptor['type'] = 'link_remote_ipv4'
descriptor['value'] = ipv4_neighbor_addr
# elif _type == 263: # Multi-Topology Identifier
# pass
elif _type == 263: # Multi-Topology Identifier
descriptor['type'] = 'mt_id'
descriptor['value'] = []
while value:
descriptor['value'].append(struct.unpack('!H', value[:2])[0])
value = value[2:]
elif _type == 264: # OSPF Route Type
descriptor['type'] = 'prefix_ospf_route_type'
descriptor['value'] = ord(value[0:1])
elif _type == 265: # IP Reachability Information
descriptor['type'] = 'prefix'
mask = ord(value[0:1])
if nlri_type == cls.IPv4_TOPO_PREFIX_NLRI:
prefix_value = value[1:] + b'\x00' * (4 - len(value[1:]))
ip_str = str(netaddr.IPAddress(int(binascii.b2a_hex(prefix_value), 16)))
else:
ip_str = str(netaddr.IPAddress(int(binascii.b2a_hex(value[1:]), 16)))
descriptor['value'] = "%s/%s" % (ip_str, mask)
else:
descriptor['type'] = _type
descriptor['value'] = binascii.b2a_hex(value)
descriptor_list.append(descriptor)
return proto_id, identifier, descriptor_list
def _bToStr(self, val):
return binascii.b2a_hex(val).decode('utf-8')
import binascii
# 128 bit CFB
key = ("\x2b\x7e\x15\x16\x28\xae\xd2\xa6" "\xab\xf7\x15\x88\x09\xcf\x4f\x3c")
iv = ("\x00\x01\x02\x03\x04\x05\x06\x07" "\x08\x09\x0a\x0b\x0c\x0d\x0e\x0f")
raw_buf = ("\x6b\xc1\xbe\xe2\x2e\x40\x9f\x96"
"\xe9\x3d\x7e\x11\x73\x93\x17\x2a"
"\xae\x2d")
iv_length = len(iv)
key_length = len(key)
plain_length = len(raw_buf)
print 'The length of IV is:', iv_length
print 'The length of Key is:', key_length
print 'The length of Plain is:', plain_length
real_plain = binascii.b2a_hex(raw_buf)
print 'The result of plain is:', real_plain
# Encrypt part
aes_obj = AES.new(key, AES.MODE_CFB, iv)
encrypt_buf = aes_obj.encrypt(raw_buf)
real_encrypt = binascii.b2a_hex(encrypt_buf)
print 'The result of encrypt is:', real_encrypt
encrypt_text = real_encrypt.decode('hex')
# Decrypt part
aes_obj = AES.new(key, AES.MODE_CFB, iv)
decrypt_buf = aes_obj.decrypt(encrypt_text)
real_decrypt = binascii.b2a_hex(decrypt_buf)
print 'The result of decrypt is:', real_decrypt
if real_decrypt == real_plain:
print 'Encrypt and Decrypt test success!'
def thg_encode(self, args):
"""modulo referente a encode de estrings"""
arg_mensage = args.split(" ")
if arg_mensage[0] == "":
print("""suporte encode:
Este módulo fornece funções para codificar dados binários em caracteres ASCII
imprimíveis e decodificar essas codificações de volta para dados binários.
Ele fornece funções de codificação e decodificação para as codificações
especificadas em RFC 3548 ,que define os algoritmos Base16, Base32 e Base64,
e para as codificações Ascii85 e Base85 padrão de fato.
a2b_uu
b2a_uu
a2b_base64
b2a_base64
a2b_qp
b2a_qp
a2b_hqx
rledecode_hqx
rlecode_hqx
b2a_hqx
crc_hqx
crc32
b2a_hex
a2b_hex
hexlify
unhexlify
Charcode
binary
base62
basen
bcd
ur
unicode_normalize
qp_encoding
encode type[2,16,32,64] str
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
elif arg_mensage[0] == "64":
arg_mensage[1] = arg_mensage[1].encode("ascii")
base64_bytes = base64.b64encode(arg_mensage[1])
by_to_st(base64_bytes)
elif arg_mensage[0] == "32":
arg_mensage[1] = arg_mensage[1].encode("ascii")
b32encode_bytes = base64.b32encode(arg_mensage[1])
by_to_st(b32encode_bytes)
elif arg_mensage[0] == "16":
arg_mensage[1] = arg_mensage[1].encode("ascii")
b16encode_bytes = base64.b16encode(arg_mensage[1])
by_to_st(b16encode_bytes)
elif arg_mensage[0] == "a85encode":
arg_mensage[1] = arg_mensage[1].encode("ascii")
a85encode_bytes = base64.a85encode(arg_mensage[1])
by_to_st(a85encode_bytes)
elif arg_mensage[0] == "b85encode":
arg_mensage[1] = arg_mensage[1].encode("ascii")
b85encode_bytes = base64.b85encode(arg_mensage[1])
by_to_st(b85encode_bytes)
elif arg_mensage[0] == "a2b_uu":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Converta uma única linha de dados uuencodificados de volta em binários e retorne os dados binários. As linhas normalmente contêm 45 bytes (binários), exceto a última linha. Os dados da linha podem ser seguidos de espaços em branco."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st((binascii.a2b_uu(arg_mensage[1])))
elif arg_mensage[0] == "a2b_base64":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED}Converta dados binários em uma linha de caracteres ASCII na codificação base64. O valor de retorno é a linha convertida, incluindo um caractere de nova linha. O comprimento dos dados deve ser de no máximo 57 para aderir ao padrão base64."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st(binascii.a2b_base64(arg_mensage[1]))
elif arg_mensage[0] == "b2a_base64":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Converta dados binários em uma linha de caracteres ASCII na codificação base64. O valor de retorno é a linha convertida, incluindo um caractere de nova linha. O comprimento dos dados deve ser de no máximo 57 para aderir ao padrão base64."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st(binascii.b2a_base64(b"arg_mensage[1]"))
elif arg_mensage[0] == "a2b_qp":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED}Converta um bloco de dados imprimíveis entre aspas de volta em binários e retorne os dados binários. Mais de uma linha pode ser passada por vez. Se o cabeçalho do argumento opcional estiver presente e verdadeiro, os sublinhados serão decodificados como espaços."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st(binascii.a2b_qp(arg_mensage[1]))
elif arg_mensage[0] == "b2a_qp":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED}Converta dados binários em uma (s) linha (s) de caracteres ASCII em codificação imprimível entre aspas. O valor de retorno é a (s) linha (s) convertida (s). Se o argumento opcional quotetabs estiver presente e verdadeiro, todas as tabulações e espaços serão codificados. Se o argumento opcional istext estiver presente e verdadeiro, as novas linhas não serão codificadas, mas os espaços em branco finais serão codificados. Se o cabeçalho do argumento opcional estiver presente e verdadeiro, os espaços serão codificados como sublinhados de acordo com RFC1522. Se o cabeçalho do argumento opcional estiver presente e for falso, os caracteres de nova linha também serão codificados; caso contrário, a conversão de alimentação de linha pode corromper o fluxo de dados binários."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st(binascii.a2b_qp(arg_mensage[1].encode()))
elif arg_mensage[0] == "a2b_hqx":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED}Converta dados ASCII formatados de binhex4 em binários, sem fazer a descompressão RLE. A string deve conter um número completo de bytes binários ou (no caso da última parte dos dados binhex4) ter os bits restantes zero.
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st(binascii.a2b_hqx(arg_mensage[1]))
elif arg_mensage[0] == "rledecode_hqx":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Execute a descompressão RLE nos dados, de acordo com o padrão binhex4. O algoritmo usa 0x90 após um byte como um indicador de repetição, seguido por uma contagem. Uma contagem de 0 especifica um valor de byte de 0x90 . A rotina retorna os dados descompactados, a menos que os dados de entrada de dados terminem em um indicador de repetição órfão, caso em que a exceção Incompleta é levantada."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st((binascii.rledecode_hqx(arg_mensage[1].encode())))
elif arg_mensage[0] == "rlecode_hqx":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Execute a compactação RLE no estilo binhex4 nos dados e retorne o resultado."""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
by_to_st((binascii.rlecode_hqx(arg_mensage[1].encode())))
elif arg_mensage[0] == "b2a_hqx":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Execute a conversão hexbin4 binário para ASCII e retorne a string resultante. O argumento já deve ser codificado por RLE e ter um comprimento divisível por 3 (exceto possivelmente o último fragmento).
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.b2a_hqx(arg_mensage[1].encode())))
elif arg_mensage[0] == "crc_hqx":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Calcule o valor binhex4 crc dos dados , começando com um crc inicial e retornando o resultado.
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.crc_hqx(arg_mensage[1].encode(),
int(arg_mensage[2]))))
elif arg_mensage[0] == "crc32":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Calcule CRC-32, a soma de verificação de dados de
32 bits, começando com um crc inicial. Isso é consistente com a soma de verificação do arquivo ZIP.
Uma vez que o algoritmo é projetado para uso como um algoritmo de soma de verificação, não é adequado
para uso como um algoritmo de hash geral.
{YELLOW}Nota{YELLOW}{RED} Para gerar o mesmo valor numérico em todas as versões e plataformas Python, {RED}{BLUE}use crc32 (dados) & 0xffffffff{BLUE}{RED}. Se você estiver usando apenas a soma de verificação no formato binário compactado, isso não é necessário, pois o valor de retorno é a representação binária correta de 32 bits, independentemente do sinal.
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.crc32(arg_mensage[1].encode())))
elif arg_mensage[0] == "hexlify":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Retorna a representação hexadecimal dos dados
binários . Cada byte de dados é convertido na representação hexadecimal de 2 dígitos correspondente.
A string resultante é, portanto, o dobro do comprimento dos dados .
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.hexlify(arg_mensage[1].encode(),
arg_mensage[2].encode())))
elif arg_mensage[0] == "b2a_hex":
if arg_mensage[1] == "help":
print("""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} hex
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.b2a_hex(arg_mensage[1].encode(),
int(arg_mensage[2]))))
elif arg_mensage[0] == "unhexlify":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Retorna os dados binários representados pela string hexadecimal hexstr . Esta função é o inverso de b2a_hex () . hexstr deve conter um número par de dígitos hexadecimais (que podem ser maiúsculas ou minúsculas), caso contrário, um TypeError é gerado.
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.unhexlify(arg_mensage[1].encode())))
elif arg_mensage[0] == "b2a_uu":
if arg_mensage[1] == "help":
print(
"""{YELLOW}a2b_uu{YELLOW}{BLUE} =>{BLUE}{RED} Converta dados binários em uma linha de caracteres ASCII, o valor de retorno é a linha convertida, incluindo um caractere de nova linha. O comprimento dos dados deve ser de no máximo 45.
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
by_to_st((binascii.b2a_uu(arg_mensage[1].encode(),
int(arg_mensage[2]))))
elif arg_mensage[0] == "charcode":
if arg_mensage[1] == "help":
print(
"""{YELLOW}charcode{YELLOW}{BLUE} =>{BLUE}{RED}converte string em charcode
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
print(ord(arg_mensage[1].encode()))
elif arg_mensage[0] == "binary":
if arg_mensage[1] == "help":
print(
"""{YELLOW}binary{YELLOW}{BLUE} =>{BLUE}{RED}converte string em binary
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
print(" ".join(
format(ord(x), "b") for x in arg_mensage[1]))
elif arg_mensage[0] == "base62":
if arg_mensage[1] == "help":
print(
"""{YELLOW}base62{YELLOW}{BLUE} =>{BLUE}{RED}converte string em base62
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
print(decode62(arg_mensage[1]))
elif arg_mensage[0] == "basen":
if arg_mensage[1] == "help":
print(
"""{YELLOW}basen{YELLOW}{BLUE} =>{BLUE}{RED}converte decimal em basen
""".format(YELLOW=Fore.YELLOW, BLUE=Fore.BLUE, RED=Fore.RED))
else:
print(
numpy.base_repr(int(arg_mensage[1]),
base=int(arg_mensage[2])))
elif arg_mensage[0] == "url":
try:
if arg_mensage[1] == "help":
print(
"""{YELLOW}url_encode{YELLOW}{BLUE} =>{BLUE}{RED}encode personalidado para url\nencode url_encode safa[] encoding"""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
print(
quote(arg_mensage[1],
safe=arg_mensage[2],
encoding=arg_mensage[3]))
except IndexError:
print(
"digite a sintaxe correta\nncode url_encode safa[] encoding\n ou use o comando help"
)
elif arg_mensage[0] == "unicode_normalize":
try:
if arg_mensage[1] == "help":
print(
"""{YELLOW}unicode_normalize{YELLOW}{BLUE} =>{BLUE}{RED}Transforme caracteres Unicode em uma das formas de normalização['NFC', 'NFKC', 'NFD','NFKD']\n
{YELLOW}NFD{YELLOW}{BLUE} =>{BLUE}{RED}Normalisation Form Canonical Decomposition
{YELLOW}NFC{YELLOW}{BLUE} =>{BLUE}{RED}Normalisation Form Canonical Composition
{YELLOW}NFKD{YELLOW}{BLUE} =>{BLUE}{RED}Normalisation Form Compatibility Decomposition
{YELLOW}NFKC{YELLOW}{BLUE} =>{BLUE}{RED}Normalisation Form Compatibility Composition
encode unicode_normalize str encoding['NFC', 'NFKC', 'NFD','NFKD']\n""".
format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
print(
unicodedata.normalize(arg_mensage[1],
arg_mensage[2]))
except IndexError:
print(
"digite a sintaxe correta\nncode url_encode safa[] encoding\n ou use o comando help"
)
elif arg_mensage[0] == "qp_encoding":
try:
if arg_mensage[1] == "help":
print(
"""{YELLOW}qp_encoding{YELLOW}{BLUE} =>{BLUE}{RED}
Quoted-Printable, ou QP encoding,
é uma codificação que usa caracteres ASCII imprimíveis (alfanuméricos e o sinal de igual '=')
para transmitir dados de 8 bits em um caminho de dados de 7 bits ou, geralmente, em um meio que não é 8- um pouco limpo.
É definido como uma codificação de transferência de conteúdo MIME para uso em e-mail.
QP funciona usando o sinal de igual '=' como um caractere de escape. Ele também limita o comprimento da linha a 76, pois alguns softwares têm limites no comprimento da linha\nencode qp_encoding TXT encode"""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
encoded = quopri.encodestring(arg_mensage[1].encode(
arg_mensage[2]))
print(encoded.decode())
except IndexError:
print(
"digite a sintaxe correta\nencode qp_encoding é utf-16\n ou use o comando help"
)
elif arg_mensage[0] == "idna":
try:
if arg_mensage[1] == "help":
print(
"""{YELLOW}idna{YELLOW}{BLUE} =>{BLUE}{RED}encode personalidado para url\nencode url_encode safa[] encoding"""
.format(YELLOW=Fore.YELLOW,
BLUE=Fore.BLUE,
RED=Fore.RED))
else:
print(
idna.encode(arg_mensage[1]).decode(arg_mensage[2]))
except IndexError:
print(
"digite a sintaxe correta\nncode idna string encoding\n ou use o comando help"
)
else:
pass
try:
pass
except IndexError:
print("verificar a saida")
def parse_iso_node_id(cls, data):
tmp = binascii.b2a_hex(data).decode('utf-8')
chunks, chunk_size = len(tmp), len(tmp) // 3
return '.'.join([str(tmp[i:i+chunk_size]) for i in range(0, chunks, chunk_size)])
gb.set_brush_ramps(BOARD_A, BRS_A, RAMP, RAMP, 0)
gb.set_mode(BOARD_A, STEPPER_A, MODE)
gb.freq_stepper(BOARD_A, STEPPER_A, FREQ)
gb.set_mode(BOARD_B, STEPPER_B, MODE)
gb.freq_stepper(BOARD_B, STEPPER_B, FREQ)
gb.set_mode(BOARD_B, STEPPER_C, MODE)
gb.freq_stepper(BOARD_B, STEPPER_C, FREQ)
gb.set_endstop(BOARD_A, BRS_A, 2, 2)
gb.set_endstop(BOARD_A, STEPPER_A, 2, 2)
#gb.set_endstop(BOARD_B, STEPPER_B, 2, 2)
#gb.set_endstop(BOARD_B, STEPPER_C, 2, 2)
while True:
dlen = binascii.b2a_hex(ser.read()).decode('utf-8')
if dlen=='08' or dlen=='05' or dlen=='04':
dsep = binascii.b2a_hex(ser.read()).decode('utf-8')
if dsep=='a1':
dtyp = binascii.b2a_hex(ser.read()).decode('utf-8')
if dtyp=='07':
for i in range(len(btn)):
btn[i] = 0
for i in range(len(btn)):
dbtn = int(binascii.b2a_hex(ser.read()).decode('utf-8'),16)
if dbtn==0 or dbtn==1 or dbtn==2 or dbtn==3:
btn[dbtn] = 1
# Stop/Up/Down
if btn[0]==0 and btn[1]==0:
print('Stop')
gb.move_brushed(BOARD_A,BRS_A,STOP)
def str_to_hex(str):
return binascii.b2a_hex(str.encode('ascii')).decode('ascii')
import binascii
#Opcodes
WRITE_REQUEST = '12'
WRITE_RESPONSE = '13'
READ_REQUEST = '0a'
READ_RESPONSE = '0b'
btsnoop = open('/home/anon/nest/btsnoop_hci.pcap', 'rb')
capfile = savefile.load_savefile(btsnoop, verbose=True)
print(capfile)
i = 1
for pkt in capfile.packets:
raw = binascii.b2a_hex(pkt.raw())
op = ""
gattHnd = ""
payload = ""
detailStr = ""
if raw[8:10] == '02' and raw[
22:
26] == '0400': #HCI Packet Type: ACL Data (0x02) / L2CAP Protocol ATT (0x0004 little endian)
opcode = raw[26:28]
if opcode == WRITE_REQUEST:
op = "Write Request"
gattHnd = bytearray(raw[28:32])
payload = raw[32:]
if i == 476: op += "!" # remove
detailStr = ": Handle 0x" + str(
gattHnd
class Tracker:
def __init__(self, config, rawserver):
self.response_size = config['response_size']
self.dfile = config['dfile']
self.natcheck = config['nat_check']
self.max_give = config['max_give']
self.reannounce_interval = config['reannounce_interval']
self.save_dfile_interval = config['save_dfile_interval']
self.show_names = config['show_names']
self.only_local_override_ip = config['only_local_override_ip']
favicon = config['favicon']
self.favicon = None
if favicon:
if isfile(favicon):
h = open(favicon, 'rb')
self.favicon = h.read()
h.close()
else:
print "**warning** specified favicon file -- %s -- does not exist." % favicon
self.rawserver = rawserver
self.becache1 = {}
self.becache2 = {}
self.cache1 = {}
self.cache2 = {}
self.times = {}
if exists(self.dfile):
h = open(self.dfile, 'rb')
ds = h.read()
h.close()
tempstate = bdecode(ds)
else:
tempstate = {}
if tempstate.has_key('peers'):
self.state = tempstate
else:
self.state = {}
self.state['peers'] = tempstate
self.downloads = self.state.setdefault('peers', {})
self.completed = self.state.setdefault('completed', {})
statefiletemplate(self.state)
for x, dl in self.downloads.items():
self.times[x] = {}
for y, dat in dl.items():
self.times[x][y] = 0
if not dat.get('nat',1):
ip = dat['ip']
gip = dat.get('given ip')
if gip and is_valid_ipv4(gip) and (not self.only_local_override_ip or is_local_ip(ip)):
ip = gip
self.becache1.setdefault(x,{})[y] = Bencached(bencode({'ip': ip,
'port': dat['port'], 'peer id': y}))
self.becache2.setdefault(x,{})[y] = compact_peer_info(ip, dat['port'])
rawserver.add_task(self.save_dfile, self.save_dfile_interval)
self.prevtime = time()
self.timeout_downloaders_interval = config['timeout_downloaders_interval']
rawserver.add_task(self.expire_downloaders, self.timeout_downloaders_interval)
self.logfile = None
self.log = None
if (config['logfile'] != '') and (config['logfile'] != '-'):
try:
self.logfile = config['logfile']
self.log = open(self.logfile,'a')
sys.stdout = self.log
print "# Log Started: ", isotime()
except:
print "Error trying to redirect stdout to log file:", sys.exc_info()[0]
self.allow_get = config['allow_get']
if config['allowed_dir'] != '':
self.allowed_dir = config['allowed_dir']
self.parse_allowed_interval = config['parse_allowed_interval']
self.parse_allowed()
else:
self.allowed = None
if unquote('+') != ' ':
self.uq_broken = 1
else:
self.uq_broken = 0
self.keep_dead = config['keep_dead']
def get(self, connection, path, headers):
try:
(scheme, netloc, path, pars, query, fragment) = urlparse(path)
if self.uq_broken == 1:
path = path.replace('+',' ')
query = query.replace('+',' ')
path = unquote(path)[1:]
params = {}
for s in query.split('&'):
if s != '':
i = s.index('=')
params[unquote(s[:i])] = unquote(s[i+1:])
except ValueError, e:
return (400, 'Bad Request', {'Content-Type': 'text/plain'},
'you sent me garbage - ' + str(e))
if path == '' or path == 'index.html':
s = StringIO()
s.write('<!DOCTYPE html PUBLIC "-//W3C//DTD XHTML 1.1//EN" "http://www.w3.org/TR/xhtml11/DTD/xhtml11.dtd">\n' \
'<html><head><title>BitTorrent download info</title>\n')
if self.favicon != None:
s.write('<link rel="shortcut icon" href="/favicon.ico" />\n')
s.write('</head>\n<body>\n' \
'<h3>BitTorrent download info</h3>\n'\
'<ul>\n'
'<li><strong>tracker version:</strong> %s</li>\n' \
'<li><strong>server time:</strong> %s</li>\n' \
'</ul>\n' % (version, isotime()))
names = self.downloads.keys()
if names:
names.sort()
tn = 0
tc = 0
td = 0
tt = 0 # Total transferred
ts = 0 # Total size
nf = 0 # Number of files displayed
uc = {}
ud = {}
if self.allowed != None and self.show_names:
s.write('<table summary="files" border="1">\n' \
'<tr><th>info hash</th><th>torrent name</th><th align="right">size</th><th align="right">complete</th><th align="right">downloading</th><th align="right">downloaded</th><th align="right">transferred</th></tr>\n')
else:
s.write('<table summary="files">\n' \
'<tr><th>info hash</th><th align="right">complete</th><th align="right">downloading</th><th align="right">downloaded</th></tr>\n')
for name in names:
l = self.downloads[name]
n = self.completed.get(name, 0)
tn = tn + n
lc = []
for i in l.values():
if type(i) == DictType:
if i['left'] == 0:
lc.append(1)
uc[i['ip']] = 1
else:
ud[i['ip']] = 1
c = len(lc)
tc = tc + c
d = len(l) - c
td = td + d
if self.allowed != None and self.show_names:
if self.allowed.has_key(name):
nf = nf + 1
sz = self.allowed[name]['length'] # size
ts = ts + sz
szt = sz * n # Transferred for this torrent
tt = tt + szt
if self.allow_get == 1:
linkname = '<a href="/file?info_hash=' + b2a_hex(name) + '">' + self.allowed[name]['name'] + '</a>'
else:
linkname = self.allowed[name]['name']
s.write('<tr><td><code>%s</code></td><td>%s</td><td align="right">%s</td><td align="right">%i</td><td align="right">%i</td><td align="right">%i</td><td align="right">%s</td></tr>\n' \
% (b2a_hex(name), linkname, size_format(sz), c, d, n, size_format(szt)))
else:
s.write('<tr><td><code>%s</code></td><td align="right"><code>%i</code></td><td align="right"><code>%i</code></td><td align="right"><code>%i</code></td></tr>\n' \
% (b2a_hex(name), c, d, n))
ttn = 0
for i in self.completed.values():
ttn = ttn + i
if self.allowed != None and self.show_names:
s.write('<tr><td align="right" colspan="2">%i files</td><td align="right">%s</td><td align="right">%i/%i</td><td align="right">%i/%i</td><td align="right">%i/%i</td><td align="right">%s</td></tr>\n'
% (nf, size_format(ts), len(uc), tc, len(ud), td, tn, ttn, size_format(tt)))
else:
s.write('<tr><td align="right">%i files</td><td align="right">%i/%i</td><td align="right">%i/%i</td><td align="right">%i/%i</td></tr>\n'
% (nf, len(uc), tc, len(ud), td, tn, ttn))
s.write('</table>\n' \
'<ul>\n' \
'<li><em>info hash:</em> SHA1 hash of the "info" section of the metainfo (*.torrent)</li>\n' \
'<li><em>complete:</em> number of connected clients with the complete file (total: unique IPs/total connections)</li>\n' \
'<li><em>downloading:</em> number of connected clients still downloading (total: unique IPs/total connections)</li>\n' \
'<li><em>downloaded:</em> reported complete downloads (total: current/all)</li>\n' \
'<li><em>transferred:</em> torrent size * total downloaded (does not include partial transfers)</li>\n' \
'</ul>\n')
else:
s.write('<p>not tracking any files yet...</p>\n')
s.write('</body>\n' \
'</html>\n')
return (200, 'OK', {'Content-Type': 'text/html; charset=iso-8859-1'}, s.getvalue())
elif path == 'scrape':
fs = {}
names = []
if params.has_key('info_hash'):
if self.downloads.has_key(params['info_hash']):
names = [ params['info_hash'] ]
# else return nothing
else:
names = self.downloads.keys()
names.sort()
for name in names:
l = self.downloads[name]
n = self.completed.get(name, 0)
c = len([1 for i in l.values() if type(i) == DictType and i['left'] == 0])
d = len(l) - c
fs[name] = {'complete': c, 'incomplete': d, 'downloaded': n}
if (self.allowed is not None) and self.allowed.has_key(name) and self.show_names:
fs[name]['name'] = self.allowed[name]['name']
r = {'files': fs}
return (200, 'OK', {'Content-Type': 'text/plain'}, bencode(r))
elif (path == 'file') and (self.allow_get == 1) and params.has_key('info_hash') and self.allowed.has_key(a2b_hex(params['info_hash'])):
hash = a2b_hex(params['info_hash'])
fname = self.allowed[hash]['file']
fpath = self.allowed[hash]['path']
return (200, 'OK', {'Content-Type': 'application/x-bittorrent', 'Content-Disposition': 'attachment; filename=' + fname}, open(fpath, 'rb').read())
elif path == 'favicon.ico' and self.favicon != None:
return (200, 'OK', {'Content-Type' : 'image/x-icon'}, self.favicon)
if path != 'announce':
return (404, 'Not Found', {'Content-Type': 'text/plain', 'Pragma': 'no-cache'}, alas)
try:
if not params.has_key('info_hash'):
raise ValueError, 'no info hash'
if params.has_key('ip') and not is_valid_ipv4(params['ip']):
raise ValueError('DNS name or invalid IP address given for IP')
infohash = params['info_hash']
if self.allowed != None:
if not self.allowed.has_key(infohash):
return (200, 'OK', {'Content-Type': 'text/plain', 'Pragma': 'no-cache'}, bencode({'failure reason':
'Requested download is not authorized for use with this tracker.'}))
ip = connection.get_ip()
ip_override = 0
if params.has_key('ip') and is_valid_ipv4(params['ip']) and (
not self.only_local_override_ip or is_local_ip(ip)):
ip_override = 1
if params.has_key('event') and params['event'] not in ['started', 'completed', 'stopped']:
raise ValueError, 'invalid event'
port = long(params.get('port', ''))
uploaded = long(params.get('uploaded', ''))
downloaded = long(params.get('downloaded', ''))
left = long(params.get('left', ''))
myid = params.get('peer_id', '')
if len(myid) != 20:
raise ValueError, 'id not of length 20'
rsize = self.response_size
if params.has_key('numwant'):
rsize = min(long(params['numwant']), self.max_give)
except ValueError, e:
return (400, 'Bad Request', {'Content-Type': 'text/plain'},
'you sent me garbage - ' + str(e))
for each in chunkname:
pos = 0
while (text.find(each, pos + 1) != -1):
pos = text.find(each, pos + 1)
if (pos != -1):
print "%s:0x%x" % (each, pos)
if (each == 'IHDR'):
print " Length:0x%s" % (binascii.b2a_hex(text[pos - 4:pos]))
print " Chunk:0x%s" % (binascii.b2a_hex(text[pos:pos + 4]))
print " Width:0x%s" % (binascii.b2a_hex(text[pos + 4:pos + 8]))
print " Height:0x%s" % (binascii.b2a_hex(text[pos + 8:pos + 12]))
print " BitDepth:0x%s" % (binascii.b2a_hex(
text[pos + 12:pos + 13]))
print " ColorType:0x%s" % (binascii.b2a_hex(
text[pos + 13:pos + 14]))
print " ComdivssionMethod:0x%s" % (binascii.b2a_hex(
text[pos + 14:pos + 15]))
def _new_id():
"""Generate a new random text id with urandom"""
return b2a_hex(os.urandom(16)).decode('ascii')
def proxy_wire(server_name, server_port, listen_host, listen_port):
sock = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
sock.bind((listen_host, listen_port))
sock.listen(1)
client_sock, addr = sock.accept()
server_sock = socket.socket(socket.AF_INET, socket.SOCK_STREAM)
server_sock.connect((server_name, server_port))
# http://dev.mysql.com/doc/internals/en/connection-phase-packets.html
# initial packet
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C initial packets', binascii.b2a_hex(server_data).decode('ascii'))
r = print_response_type(server_data[4])
print(' [' + to_ascii(server_data) + ']')
# initial response (authentication)
client_data = recv_mysql_packet(client_sock)
server_sock.send(client_data)
print('C->S initial response', binascii.b2a_hex(client_data).decode('ascii'))
print_command_type(client_data[4])
print(' [' + to_ascii(client_data) + ']')
# auth result
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C auth result', binascii.b2a_hex(server_data).decode('ascii'))
r = print_response_type(server_data[4])
print(' [' + to_ascii(server_data) + ']')
# http://dev.mysql.com/doc/internals/en/packet-OK_Packet.html
# payload first byte eq 0.
if server_data[4:6] == b'\x01\x03':
print("fast auth")
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C auth result', binascii.b2a_hex(server_data).decode('ascii'))
if server_data[4:6] == b'\x01\x04':
print("full auth")
client_data = recv_mysql_packet(client_sock)
server_sock.send(client_data)
print('C->S', binascii.b2a_hex(client_data).decode('ascii'))
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C', binascii.b2a_hex(server_data).decode('ascii'))
client_data = recv_mysql_packet(client_sock)
server_sock.send(client_data)
print('C->S', binascii.b2a_hex(client_data).decode('ascii'))
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C auth result', binascii.b2a_hex(server_data).decode('ascii'))
else:
assert server_data[4] == 0
while True:
client_data = recv_mysql_packet(client_sock)
server_sock.send(client_data)
print('C->S', binascii.b2a_hex(client_data).decode('ascii'))
print_command_type(client_data[4])
print(' [' + to_ascii(client_data) + ']')
if client_data[4] == 0x01: # COM_QUIT
break
assert client_data[4] == 0x03 # COM_QUERY
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C', binascii.b2a_hex(server_data).decode('ascii'))
r = print_response_type(server_data[4])
print(' [' + to_ascii(server_data) + ']')
if r:
continue
print('[Column definition]')
while True:
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C', binascii.b2a_hex(server_data).decode('ascii'))
r = print_response_type(server_data[4])
print(' [' + to_ascii(server_data) + ']')
if r:
break
print('[Result Rows]')
while True:
server_data = recv_mysql_packet(server_sock)
client_sock.send(server_data)
print('S->C', binascii.b2a_hex(server_data).decode('ascii'))
r = print_response_type(server_data[4])
print(' [' + to_ascii(server_data) + ']')
if r:
break
def kdf_vec(inp):
k = kdf_rfc5869(inp, T_KEY, M_EXPAND, 100)
print(repr(inp), "\n\""+ binascii.b2a_hex(k)+ "\"")
def encrypt_RC2_CBC(str, key):
str = align(str)
iv = Random.new().read(ARC2.block_size)
cipher1 = ARC2.new(key, ARC2.MODE_CBC, iv)
cipher = iv + cipher1.encrypt(str)
return b2a_hex(cipher)
def gen_id():
"""
Generates and returns a random hex-encoded 256-bit unique ID.
"""
return binascii.b2a_hex(os.urandom(32)).decode('utf8')
def encrypt_Blowfish_CBC(str, key):
str = align(str)
iv = Random.new().read(Blowfish.block_size)
cipher1 = Blowfish.new(key, Blowfish.MODE_CBC, iv)
cipher = iv + cipher1.encrypt(str)
return b2a_hex(cipher)
def HEX(n):
return binascii.b2a_hex(n)
def about_mobs(dic1 = mobs_pass_dict, dic2 = mobs_agress_dict):
for i in dic1:
print str(i) + ' -> ' + binascii.b2a_hex(dic1.get(i))
for i in dic2:
print str(i) + ' -> ' + binascii.b2a_hex(dic2.get(i))
return
def encrypt_CAST_CBC(str, key):
str = align(str)
iv = Random.new().read(CAST.block_size)
cipher1 = CAST.new(key, CAST.MODE_CBC, iv)
cipher = iv + cipher1.encrypt(str)
return b2a_hex(cipher)
def MRUFOLDER(reg_nt):
mru_folder_list = []
mru_folder_count = 0
mru_folder_order = []
check_first_third_ch_list = [
b'\x19\x00\x1F', b'\x3A\x00\x1F', b'\x14\x00\\', b'\x55\x00\x1F'
]
reg_key = reg_nt.find_key(
r"SOFTWARE\Microsoft\Windows\CurrentVersion\Explorer\ComDlg32\LastVisitedPidlMRU"
)
try:
if reg_key != None:
for reg_value in reg_key.values():
if reg_value.name() == 'MRUListEx':
for i in range(0, len(list(reg_key.values())) - 1):
mru_folder_order.append(
int(
binascii.b2a_hex(reg_value.data()[4 * i:4 * i +
4][::-1]),
16))
for order in mru_folder_order:
for reg_value in reg_key.values():
if reg_value.name() == str(order):
mru_folder_information = MRU_Folder_Information()
mru_folder_list.append(mru_folder_information)
mru_folder_list[mru_folder_count].source_location = []
mru_folder_list[mru_folder_count].source_location.append(
'NTUSER-SOFTWARE/Microsoft/Windows/CurrentVersion/Explorer/ComDlg32/LastVisitedPidlMRU'
)
mru_folder_list[
mru_folder_count].program_name = reg_value.data(
)[0:reg_value.data().find(b'\x00\x00\x00') +
1].decode('utf-16')
start_data = reg_value.data().find(b'\x00\x00\x00') + 3
file = reg_value.data()
saved_file = file[start_data:len(file)]
(saved_file, first_component, len_of_file,
check_first_third_ch, hasAutoPlay, hasDriveLetterSign,
hasNetworkDrive,
hasFileName) = MRU_Parser().AssignToType(saved_file)
if first_component == len_of_file - 2:
result = MRU_Parser().RunType4(saved_file)
if check_first_third_ch == b'\x19\x00\x1F':
start_point = hasDriveLetterSign
if start_point < 0:
pass
else:
result = MRU_Parser().RunType2(
saved_file, start_point)
if check_first_third_ch == b'\x14\x00\x1F' or check_first_third_ch == b'\x14\x00\\':
if hasDriveLetterSign < 0 and hasNetworkDrive < 0:
result = MRU_Parser().RunType1(saved_file)
elif hasDriveLetterSign < 0 and hasNetworkDrive > 0:
result = MRU_Parser().RunType3(saved_file)
elif hasDriveLetterSign > 0 and hasNetworkDrive < 0:
start_point = hasDriveLetterSign
result = MRU_Parser().RunType2(
saved_file, start_point)
else:
MRU_Parser().isGUIDFolder(saved_file)
if check_first_third_ch == b'\x3A\x00\x1F':
if MRU_Parser().isGUIDFolder(saved_file) is True:
result = MRU_Parser().RunType1(saved_file)
else:
try:
result = MRU_Parser().RunType1(saved_file)
except:
pass
if check_first_third_ch == b'\x55\x00\x1F':
start_point = hasDriveLetterSign
if start_point < 0:
pass
else:
result = MRU_Parser().RunType2(
saved_file, start_point)
if MRU_Parser().hasUniqueFileFormat(
saved_file) > 0 and hasFileName < 0:
result = MRU_Parser().RunType5(saved_file)
mru_folder_list[
mru_folder_count].accessed_folder = result
if mru_folder_count == 0:
mru_folder_list[
mru_folder_count].modified_time = reg_key.last_written_timestamp(
).isoformat() + 'Z'
mru_folder_list[
mru_folder_count].registry_order = mru_folder_count + 1
mru_folder_list[
mru_folder_count].value = reg_value.name()
mru_folder_count = mru_folder_count + 1
break
except:
print('-----MRU Folder Error')
return mru_folder_list
def encrypt_SM4_CBC(str, key):
str = align(str)
iv = ''.join(random.sample(string.ascii_letters + string.digits, 8)) #8位
cipher1 = encrypt_cbc(str, key, iv)
cipher = bytes(cipher1, "utf-8")
return b2a_hex(cipher)
def mock_encrypt_secret(cert, secret):
# Encode secret w/ binascii.hex() to avoid invalid chars in XML.
# The actual/real return value of the non-mocked encrypt_secret() is in that form.
# We still keep the "ENCRYPTED(...)" part here to show that clearly in our test outputs.
secret = binascii.b2a_hex(secret).upper()
return "ENCRYPTED({0},{1})".format(cert, secret)
def parse(cls, value):
try:
afi, safi, nexthop_length = struct.unpack('!HBB', value[0:4])
nexthop_bin = value[4:4 + nexthop_length]
nlri_bin = value[5 + nexthop_length:]
except Exception:
# error when lenght is wrong
raise excep.UpdateMessageError(
sub_error=bgp_cons.ERR_MSG_UPDATE_ATTR_LEN, data=repr(value))
# Address Family IPv4
if afi == afn.AFNUM_INET:
if safi == safn.SAFNUM_LAB_VPNUNICAST:
# MPLS VPN
# parse nexthop
rd_bin = nexthop_bin[0:8]
rd_type = struct.unpack('!H', rd_bin[0:2])[0]
rd_value_bin = rd_bin[2:]
if rd_type == 0:
asn, an = struct.unpack('!HI', rd_value_bin)
ipv4 = str(
netaddr.IPAddress(
int(binascii.b2a_hex(nexthop_bin[8:]), 16)))
nexthop = {'rd': '%s:%s' % (asn, an), 'str': ipv4}
# TODO(xiaoquwl) for other RD type decoding
else:
nexthop = repr(nexthop_bin[8:])
# parse nlri
nlri = IPv4MPLSVPN.parse(nlri_bin)
return dict(afi_safi=(afi, safi), nexthop=nexthop, nlri=nlri)
elif safi == safn.SAFNUM_FSPEC_RULE:
# if nlri length is greater than 240 bytes, it is encoded over 2 bytes
nlri_list = []
while nlri_bin:
length = ord(nlri_bin[0])
if length >> 4 == 0xf and len(nlri_bin) > 2:
length = struct.unpack('!H', nlri_bin[:2])[0]
nlri_tmp = nlri_bin[2:length + 2]
nlri_bin = nlri_bin[length + 2:]
else:
nlri_tmp = nlri_bin[1:length + 1]
nlri_bin = nlri_bin[length + 1:]
nlri = IPv4FlowSpec.parse(nlri_tmp)
if nlri:
nlri_list.append(nlri)
if nexthop_bin:
nexthop = str(
netaddr.IPAddress(
int(binascii.b2a_hex(nexthop_bin), 16)))
else:
nexthop = ''
return dict(afi_safi=(afi, safi),
nexthop=nexthop,
nlri=nlri_list)
else:
nlri = repr(nlri_bin)
# # Address Family IPv6
elif afi == afn.AFNUM_INET6:
# IPv6 unicast
if safi == safn.SAFNUM_UNICAST:
# decode nexthop
# RFC 2545
# The value of the Length of Next Hop Network Address field on a
# MP_REACH_NLRI attribute shall be set to 16, when only a global
# address is present, or 32 if a link-local address is also included in
# the Next Hop field.
#
# The link-local address shall be included in the Next Hop field if and
# only if the BGP speaker shares a common subnet with the entity
# identified by the global IPv6 address carried in the Network Address
# of Next Hop field and the peer the route is being advertised to.
nexthop_addrlen = 16
has_link_local = False
nexthop = str(
netaddr.IPAddress(
int(binascii.b2a_hex(nexthop_bin[:nexthop_addrlen]),
16)))
if len(nexthop_bin) == 2 * nexthop_addrlen:
# has link local address
has_link_local = True
linklocal_nexthop = str(
netaddr.IPAddress(
int(
binascii.b2a_hex(
nexthop_bin[nexthop_addrlen:]), 16)))
nlri = IPv6Unicast.parse(nlri_bin)
if has_link_local:
return dict(afi_safi=(afi, safi),
nexthop=nexthop,
linklocal_nexthop=linklocal_nexthop,
nlri=nlri)
else:
return dict(afi_safi=(afi, safi),
nexthop=nexthop,
nlri=nlri)
elif safi == safn.SAFNUM_LAB_VPNUNICAST:
# IPv6 MPLS VPN
# parse nexthop
rd_bin = nexthop_bin[0:8]
rd_type = struct.unpack('!H', rd_bin[0:2])[0]
rd_value_bin = rd_bin[2:]
if rd_type == 0:
asn, an = struct.unpack('!HI', rd_value_bin)
ipv6 = str(
netaddr.IPAddress(
int(binascii.b2a_hex(nexthop_bin[8:]), 16)))
nexthop = {'rd': '%s:%s' % (asn, an), 'str': ipv6}
# TODO(xiaoquwl) for other RD type decoding
else:
nexthop = repr(nexthop_bin[8:])
# parse nlri
nlri = IPv6MPLSVPN.parse(nlri_bin)
return dict(afi_safi=(afi, safi), nexthop=nexthop, nlri=nlri)
else:
return dict(afi_safi=(afi, safi),
nexthop=nexthop_bin,
nlri=nlri_bin)
# for l2vpn
elif afi == afn.AFNUM_L2VPN:
if safi == safn.SAFNUM_EVPN:
nexthop = str(
netaddr.IPAddress(int(binascii.b2a_hex(nexthop_bin), 16)))
nlri = EVPN.parse(nlri_bin)
return dict(afi_safi=(afi, safi), nexthop=nexthop, nlri=nlri)
else:
nlri = repr(nlri_bin)
else:
nlri = repr(nlri_bin)
return dict(afi_safi=(afi, safi), nexthop=nexthop_bin, nlri=nlri_bin)
