def test_encode_decode_pw_trained_grammar(self):
H, G, tr_pcfg = self.H, self.G, self.tr_pcfg
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 30)):
pwprime = tr_pcfg.decode_pw(tr_pcfg.encode_pw(pw))
self.assertEqual(
pwprime, pw, "Password encode-decode error!\n"
"EncodedPw={}, DecodedPw={}".format(pw, pwprime))
def initialize_vault(self, mp):
vd = VaultDistPCFG()
if not os.path.exists(self.vault_fl):
print_production("\nCould not find the vault file @ {}, so, sit tight, " \
"creating a dummy vault for you." \
"\nShould not take too long...\n".format(self.vault_fl))
t_s = random.randints(0, MAX_INT,
hny_config.HONEY_VAULT_ENCODING_SIZE)
self.H = t_s[:hny_config.HONEY_VAULT_GRAMMAR_SIZE]
t_s = t_s[hny_config.HONEY_VAULT_GRAMMAR_SIZE:]
self.S = [
t_s[i:i + hny_config.PASSWORD_LENGTH]
for i in range(0, self.s * hny_config.PASSWORD_LENGTH,
hny_config.PASSWORD_LENGTH)
]
assert all(
len(s) == hny_config.PASSWORD_LENGTH for s in self.S
), "All passwords encodings are not of correct length.\n {}".format(
(len(s), hny_config.PASSWORD_LENGTH) for s in self.S)
self.machine_pass_set = list('0' * (self.mpass_set_size * 8))
k = int(math.ceil(hny_config.HONEY_VAULT_STORAGE_SIZE * \
hny_config.MACHINE_GENRATED_PASS_PROB / 1000.0))
for i in random.sample(
list(range(hny_config.HONEY_VAULT_STORAGE_SIZE)), k):
self.machine_pass_set[i] = '1'
self.salt = os.urandom(8)
self.save(mp)
else:
self.load(mp)
def test_encode_decode_pw(self):
H = random.randints(0, MAX_INT, hny_config.HONEY_VAULT_GRAMMAR_SIZE)
tr_pcfg = pcfg.TrainedGrammar()
G = tr_pcfg.decode_grammar(H)
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 30)):
pwprime = G.decode_pw(G.encode_pw(pw))
self.assertEqual(pwprime, pw, "Password encode-decode error!\n"\
"EncodedPw={}, DecodedPw={}".format(pw, pwprime))
def test_encode_decode_pw(self):
H = random.randints(0, MAX_INT, hny_config.HONEY_VAULT_GRAMMAR_SIZE)
tr_pcfg = pcfg.TrainedGrammar()
G = tr_pcfg.decode_grammar(H)
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 30)):
pwprime = G.decode_pw(G.encode_pw(pw))
self.assertEqual(pwprime, pw, "Password encode-decode error!\n"\
"EncodedPw={}, DecodedPw={}".format(pw, pwprime))
def test_encode_decode_rule(self):
H, G, tr_pcfg = self.H, self.G, self.tr_pcfg
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 10)):
pt = tr_pcfg.l_parse_tree(pw)
for p in pt:
t = tr_pcfg.encode_rule(*p)
c = tr_pcfg.decode_rule(p[0], t)
assert p[1] == c, "Decoding {} we got {}. Expecting {}" \
.format(t, c, p[1])
def test_encode_decode_rule(self):
H, G, tr_pcfg = self.H, self.G, self.tr_pcfg
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 10)):
pt = tr_pcfg.l_parse_tree(pw)
for p in pt:
t = tr_pcfg.encode_rule(*p)
c = tr_pcfg.decode_rule(p[0], t)
assert p[1] == c, "Decoding {} we got {}. Expecting {}" \
.format(t, c, p[1])
def test_encode_decode_rule(self):
H = random.randints(0, MAX_INT, hny_config.HONEY_VAULT_GRAMMAR_SIZE)
tr_pcfg = pcfg.TrainedGrammar()
G = tr_pcfg.decode_grammar(H)
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 10)):
pt = tr_pcfg.l_parse_tree(pw)
for p in pt:
t = tr_pcfg.encode_rule(*p)
c = tr_pcfg.decode_rule(p[0], t)
assert p[1] == c, "Decoding {} we got {}. Expecting {}"\
.format(t, c, p[1])
def test_encode_decode_rule(self):
H = random.randints(0, MAX_INT, hny_config.HONEY_VAULT_GRAMMAR_SIZE)
tr_pcfg = pcfg.TrainedGrammar()
G = tr_pcfg.decode_grammar(H)
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 10)):
pt = tr_pcfg.l_parse_tree(pw)
for p in pt:
t = tr_pcfg.encode_rule(*p)
c = tr_pcfg.decode_rule(p[0], t)
assert p[1] == c, "Decoding {} we got {}. Expecting {}"\
.format(t, c, p[1])
def initialize_vault(self, mp):
vd = VaultDistPCFG()
if not os.path.exists(self.vault_fl):
print_production("\nCould not find the vault file @ {}, so, sit tight, "\
"creating a dummy vault for you."\
"\nShould not take too long...\n".format(self.vault_fl))
t_s = random.randints(0, MAX_INT, hny_config.HONEY_VAULT_ENCODING_SIZE)
self.H = t_s[:hny_config.HONEY_VAULT_GRAMMAR_SIZE]
t_s = t_s[hny_config.HONEY_VAULT_GRAMMAR_SIZE:]
self.S = [t_s[i:i+hny_config.PASSWORD_LENGTH]
for i in range(0, self.s*hny_config.PASSWORD_LENGTH, hny_config.PASSWORD_LENGTH)]
assert all(len(s)==hny_config.PASSWORD_LENGTH for s in self.S), "All passwords encodings are not of correct length.\n {}".format((len(s), hny_config.PASSWORD_LENGTH) for s in self.S)
self.machine_pass_set = list('0'*(self.mpass_set_size*8))
k = int(math.ceil(hny_config.HONEY_VAULT_STORAGE_SIZE * \
hny_config.MACHINE_GENRATED_PASS_PROB/1000.0))
for i in random.sample(range(hny_config.HONEY_VAULT_STORAGE_SIZE), k):
self.machine_pass_set[i] = '1'
self.salt = os.urandom(8)
self.save(mp)
else:
self.load(mp)
def test_encode_decode_pw_trained_grammar(self):
H, G, tr_pcfg = self.H, self.G, self.tr_pcfg
for i, pw in enumerate(random.sample(RANDOM_PW_SET, 30)):
pwprime = tr_pcfg.decode_pw(tr_pcfg.encode_pw(pw))
self.assertEqual(pwprime, pw, "Password encode-decode error!\n"
"EncodedPw={}, DecodedPw={}".format(pw, pwprime))