def findxoredstring(cyphertext: list[bytes]) -> bytes:
candidates = []
for line in cyphertext:
line = break_single_byte_xor(line)
if line:
candidates.append(line)
return mostprobable(candidates)
def findxoredstring(cyphertext):
candidates = []
for line in cyphertext:
line = break_single_byte_xor(line)
#if line != None:
candidates.append(line)
return mostprobable(candidates)
def key(cyphertext):
keysize = findkeysize(cyphertext)
blocks = [cyphertext[i:i + keysize] for i in range(0, len(cyphertext), keysize)]
blocks = [bytes(x) for x in list(zip(*blocks[0:-1]))]
cleartext = bytes([m03.break_single_byte_xor(x)[0] for x in blocks])
key = m02.fixed_xor(cleartext, cyphertext)
return key
def key(cyphertext: bytes) -> bytes:
keysize = find_keysize(cyphertext)
blocks = [
cyphertext[i:i + keysize] for i in range(0, len(cyphertext), keysize)
]
blocks = [bytes(x) for x in zip(*blocks[0:-1], strict=True)]
plaintext = bytes([break_single_byte_xor(x)[0] for x in blocks])
return fixed_xor(plaintext, cyphertext[:len(plaintext)])
def single_byte_xor_key(c: list[bytes]) -> bytes:
c_t = transpose_bytes(c)
return bytes([fixed_xor(break_single_byte_xor(x), x)[0] for x in c_t])
def single_byte_xor_key(c):
c_T = transpose_bytes(c)
return bytes([fixed_xor(break_single_byte_xor(x), x)[0] for x in c_T])