def run(Ex):
if Ex == "1":
A1.a()
elif Ex == "2":
A2.b()
elif Ex == "3":
A3.c()
elif Ex == "4":
A4.d()
elif Ex == "5":
A5.e()
elif Ex == "6":
A6.f()
elif Ex == "7":
A7.g()
elif Ex == "8":
A8.h()
elif Ex == "9":
A9.i()
elif Ex == "10":
A10.j()
elif Ex == "intro":
Aintro.A()
else:
print "Invalid Exercise"
def divisor_list(n):
"""Return the list of divisors of the given integer.
>>> divisor_list(24)
[1, 2, 3, 4, 6, 8, 12, 24]
>>> divisor_list(30850)
[1, 2, 5, 10, 25, 50, 617, 1234, 3085, 6170, 15425, 30850]
>>> divisor_list(math.factorial(5))
[1, 2, 3, 4, 5, 6, 8, 10, 12, 15, 20, 24, 30, 40, 60, 120]
"""
factors = A5.factor_map(n)
factor_powers = (tuple(factor ** exp for exp in range(multiple + 1)) for factor, multiple in factors.items())
return sorted(reduce(operator.mul, data) for data in itertools.product(*factor_powers))
def divisor_count(n):
"""Compute the number of divisors for the given integer.
>>> divisor_count(7)
2
>>> divisor_count(12)
6
>>> divisor_count(36)
9
>>> divisor_count(math.factorial(5))
16
>>> divisor_count(math.factorial(15))
4032
"""
# Each divisor is a product of multiples of each prime factor.
factor_counts = A5.factor_map(n).values()
# Compute the product of factor counts, incrementing since a factor may
# be taken to the 0th power.
return reduce(operator.mul, (1 + count for count in factor_counts), 1)
box = RC4.init_box(key)
RC4.ex_encrypt(message, box, mode)
end = time.clock()
elif mode == '2':
message = RC4.get_message()
key = RC4.get_key()
box = RC4.init_box(key)
RC4.ex_encrypt(message, box, mode)
print('--------------------------RC4 end--------------------------\n')
print('Cost ' + str(end - start) + 's\n')
costdic[choose] = end - start
elif choose == 8:
print('--------------------------A5--------------------------\n')
choice = raw_input("1 Encrypt or 2 Decode \n")
if choice == '1':
message = raw_input('What would you like to encrypt?\n')
start = time.clock()
A5.a5_encode(message)
end = time.clock()
elif choice == '2':
bin_message = raw_input('What would you like to encrypt?\n')
A5.a5_decode(bin_message)
print('--------------------------A5--------------------------\n')
print('Cost ' + str(end - start) + 's\n')
costdic[choose] = end - start
reslist = sorted(costdic.items(), key=lambda d: d[1], reverse=True)
print('1 RSA\n2 caesar\n3 AES CBC\n4 PBE\n5 DES\n6 MD5\n7 RC4\n8 A5\n')
print(reslist)
result = A3.evaluate(sourceCode)
if result:
print("A3 Suspicious")
for line in result:
print(line)
else:
print("A3 Benign")
result = A4.evaluate(sourceCode)
if result:
print("A4 Suspicious")
for line in result:
print(line)
else:
print("A4 Benign")
result, _ = A5.evaluate(sourceCode, homographDatabase)
if result:
print("A5 Suspicious")
for line in result:
print(line)
else:
print("A5 Benign")
result = A6_A7.evaluate(sourceCode)
if result:
print("A6,A7 Suspicious")
for line in result:
print(line)
else:
print("A6,A7 Benign")
import A5
import unittest
ex = A5.CommonAPI("A5", 400, 300)
class PwdTest(unittest.TestCase):
def testSuccess(self): # Test for success
Valid = ex.PwdValidate('New1212', 'New1212')
self.assertEqual(Valid, None)
def testFail1(self): # field is empty
Fail = ex.PwdValidate('New1212', '')
self.assertEqual(Fail, None)
def testFail2(self): # both fields are empty
Fail = ex.PwdValidate('', '')
self.assertEqual(Fail, None)
def testFail3(self): # password length is less than equal to 6
Fail = ex.PwdValidate('New12', 'New12')
self.assertEqual(Fail, None)
def testFail4(self): # new password and re-entered password not equal
Fail = ex.PwdValidate('New1212', 'New121')
self.assertEqual(Fail, None)
def testFail5(self): # password has non-alphanumeric characters
Fail = ex.PwdValidate('new_12*#', 'new_12*#')
self.assertEqual(Fail, None)
def testFail6(self): # Passwords have different cases
'Επιλέξτε υποερώτημα: \n1 (Single-layer MLP)\n2 (Two-Layer MLP)\n3 (Early-Stopping)\n'
)
if rn_2 == '1':
single_layer.single_layer(epochs)
flag = False
if rn_2 == '2':
extra_layer.extra_layer(epochs)
flag = False
if rn_2 == '3':
early_stopping.early_stopping(epochs)
flag = False
if rn == 'A3':
A3.a3(epochs)
flag = False
if rn == 'A4':
A4.a4(epochs)
flag = False
if rn == 'A5':
rn_3 = input('Με ή χωρίς επίπεδο dropout; ')
if rn_3 == 'με':
A5_dropout.a5()
flag = False
else:
A5.a5()
flag = False
else:
flag = False
check = input('Συνέχεια με άλλο ερώτημα; (Y/N)')
if check == 'Y':
flag = True