def main():
p, q = find_p_q() #1
print 'Moving on..'
n = p * q # 2
et = euler(p, q) # 3
e = (2**16) + 1 # 4
d = mulinv(e, et) #5
#6 NA
"""
Test values
"""
m1 = 8049
encm1 = rypto.mod_exp(m1, e, n)
decm1 = rypto.mod_exp(encm1, d, n)
print 'Checking m1 is decrypted correctly'
print m1, decm1, m1 == decm1
m2 = 'Hi this is short'
m2encoded = int(m2.encode("hex"), 16)
encm2 = rypto.mod_exp(m2encoded, e, n)
decm2 = rypto.mod_exp(encm2, d, n)
hexad = rypto.standard(hex(decm2))
decm2b = hexad[:-1].decode("hex")
print 'Checking m2 is decrypted correctly'
print m2, decm2b, m2 == decm2b
def main():
e = (2**16) + 1
client = rypto.rsa(e) #RSA class
secret = 'secret text' #Secret text (hidden from attacker)
enc_sec = client.enc(secret) #Encrypted text (Known by attacker)
known = pow(30, e) #Attacker picks a known value of their own
hidden = (known *
enc_sec) % client.n #Attacker hides value using multiplication
dec_hidden = client.dec(
hidden) #Decrypt attack value (passes check of server)
x = int(dec_hidden.encode("hex"), 16) / 30 #Divide attacker known value
x = rypto.standard(hex(x)).decode("hex") #Convert and such
print x
def main():
N = 402394248802762560784459411647796431108620322919897426002417858465984510150839043308712123310510922610690378085519407742502585978563438101321191019034005392771936629869360205383247721026151449660543966528254014636648532640397857580791648563954248342700568953634713286153354659774351731627683020456167612375777
e1 = 3
e2 = 0x10001
c1 = 4020137574131575546540268502595841326627069047574502831387774931737219358054228401772587980633053000
c2 = 170356929377044754324767086491413709789303946387160918939626824506821140429868670769571821346366209258416985269309515948776691067548265629489478628756185802183547222688698309731374342109385922509501909728895585636684978295199882599818258590851085977232207148101448845575681189389906429149193460620083999406237
g, x, y = rypto.egcd(e1, e2) #Euclidean algorightm
i = rypto.mulinv(c2, N) #multiplicative inverse of C2 because y is -1
test = (rypto.mod_exp(c1, x, N) *
rypto.mod_exp(i, -y, N)) % N #plain = (c1^a) * (i^-b) %N
answer = rypto.standard(hex(test)).decode("hex")
print answer
def main():
e = 3
print 'Setting up server 1'
s0 = rypto.rsa(e)
print 'Setting up server 2'
s1 = rypto.rsa(e)
print 'Setting up server 3'
s2 = rypto.rsa(e)
m = 'Trying a different message'
c = solve(s0, s1, s2, m)
cubed = int(round(c**(1. / 3)))
hexad = rypto.standard(hex(cubed))
print hexad.decode("hex")
#!/usr/bin/env python
import rypto
from pprint import pprint
if __name__ == "__main__":
#a = "We didn't start the fire, It was always burning, Since the world's been turning, We didn't start the fire, No we didn't light it, But we tried to fight it"
a = raw_input("Please enter a phrase to encrpt: ")
b = raw_input("Please enter a key to encrypt with:")
#Turning the strings into a list of hex bytes
line = rypto.a2hex(a)
key = rypto.a2hex(b)
#Pretty printing these lists
#pprint(key
#pprint(line)
#print("%s repeatedly xored with %s equals: \n" % (' '.join(key), ' '.join(line)))
answer = rypto.xor(line,key)
print rypto.standard(''.join(answer))
#Main Function
if __name__ == "__main__":
#File to b64 to hex
hx = short_open("w4p1.txt") #Filename = w4p1.txt
#IV
iv = '00000000000000000000000000000000' #iv
#Key (In ascii)
ascii_key = 'NO PAIN NO GAIN!' #key in Ascii, DONT CHANGE
#Block size
bs = 128 #Padding block size
#Convert ascii key into hex string
hex_string_key = ascii_key.encode(
"hex") #AESKeyToChange (Replace everything after the '='s)
hex_string_key = rypto.standard(
hex_string_key) #Standardizes key to best of ability
"""
Please read assumption about this key. If all assumptions are thrown away,
remove second hex_string_key line and end with first ascii-like input with
encoding hex_string_key as hex. That should work. " ".encode("hex")
"""
#Magic
print prep_cbc(hx, hex_string_key, iv, bs)