def encrypting(message, key):
from string import printable
encrypted = printable[printable.find(message[-1]) + key % 9 -
printable.find(message[0])]
for i in range(1, len(message)):
encrypted += printable[printable.find(encrypted[i - 1]) + key % 9 -
printable.find(message[i])]
encrypted = ''.join(encrypted)
return encrypted
def decrypting(encrypted, key):
from string import printable
decrypted = list(
map(
lambda x: printable[printable.find(encrypted[x - 1]) + key % 9 -
printable.find(encrypted[x])],
reversed(range(len(encrypted)))))
decrypted = ''.join(reversed(decrypted))
decrypted = printable[printable.find(decrypted[-1]) + key % 9 -
printable.find(encrypted[0])] + decrypted[1:]
return decrypted
def __constructID(self, name, facetuniquename):
""" Method that calculates a unique id for each facetvalue, for better identification.
This consitutes a non-stochastic method to maintain the IDs of values across systems, and thus being able to
pass around URL-queries for the faceted browser.
Note that an ID for faceted browser values is not related at all to the ID of the object in the database!
DJF_URL_AS_NUMBERS = False:
A combination of facet uniquename and value name must be unique: eg 'religionname_Protestant'
DJF_URL_AS_NUMBERS = True:
We take the string above and transform it into a number.
"""
exit = ""
if DJF_URL_AS_NUMBERS:
bigstring = force_unicode(name) + force_unicode(facetuniquename)
for el in bigstring.replace(" ", ""):
try:
exit += force_unicode(POSSIBLE_CHARACTERS.find(el) + 1)
except:
exit += '999'
return int(exit)
else:
bigstring = force_unicode(facetuniquename) + u"_" + force_unicode(name)
return bigstring.replace(" ", "")
def decrypt(cipher, key):
plain_text = []
for c in cipher:
position = letters.find(c)
position = (position - key) % len(letters)
plain_text.append(letters[position])
return ''.join(plain_text)
def __constructID(self, name, facetuniquename):
""" Method that calculates a unique id for each facetvalue, for better identification.
This consitutes a non-stochastic method to maintain the IDs of values across systems, and thus being able to
pass around URL-queries for the faceted browser.
Note that an ID for faceted browser values is not related at all to the ID of the object in the database!
DJF_URL_AS_NUMBERS = False:
A combination of facet uniquename and value name must be unique: eg 'religionname_Protestant'
DJF_URL_AS_NUMBERS = True:
We take the string above and transform it into a number.
"""
exit = ""
if DJF_URL_AS_NUMBERS:
bigstring = force_unicode(name) + force_unicode(facetuniquename)
for el in bigstring.replace(" ", ""):
try:
exit += force_unicode(POSSIBLE_CHARACTERS.find(el) + 1)
except:
exit += '999'
return int(exit)
else:
bigstring = force_unicode(facetuniquename) + u"_" + force_unicode(
name)
return bigstring.replace(" ", "")
def encrypt(message="Hello", key=3):
cipher = []
for i in message:
index = letters.find(i)
new_index = (index + key) % len(letters)
cipher_char = letters[new_index]
cipher.append(cipher_char)
return cipher
def decrypt(en="khoor", key=3):
plain = []
for i in en:
index = letters.find(i)
new_index = (index - key) % len(letters)
plain_char = letters[new_index]
plain.append(plain_char)
return plain
def encrypt(message, key):
cipher = [] # List equivelent to array
for c in message:
position = letters.find(c)
new_position = position + key % len(letters)
encrypted_char = letters[new_position]
cipher.append(encrypted_char)
return ''.join(cipher)
def caser_decrypt(cipher, key):
plainText = []
for a in cipher:
position = letters.find(a)
newPosition = position - key % len(letters)
decrypt = letters[newPosition]
plainText.append(plainText)
return ''.join(plainText)
def caser_encrypt(message, key):
cipher = []
for a in message:
position = letters.find(a)
newPosition = position + key % len(letters)
encrypt = letters[newPosition]
cipher.append(encrypt)
return ''.join(cipher)
b = None
while i > 0:
prime(i)
i = int(i / int(no[:-1]))
if i > 1:
b = i
return b
num = 3
ar = list()
for j in range(1, len(printable)):
temp = ""
for i in range(len(flag)):
#number()
temp += printable[(printable.find(flag[i]) + j) % len(printable)]
ar.append(temp)
print(temp)
print("\n")
position = list()
for i in range(len(flag)):
check = False
for j in range(len(ar)):
for k in range(len(ar[j])):
if (ar[j][k] == flag[i]):
position.append([i, j, k])
check = True
break
if check == True:
break
# for i in range(len(a)): # if(i%3==0): # real_arr.append(a[i]) # if(i%3==1): # real_arr.append(a[i]) # if(i%3==2): # real_arr.append(a[i]) # print real_arr # for i in real_arr: # flag[i[0]]=decode_arr[i[1]][i[2]] # print ''.join(flag) decode_arr=[] for j in range(1,len(printable)): tmp=base64.b64decode(list_b64[j-1]) tmp2="" for i in tmp: tmp2+=printable[(printable.find(i)-j)%len(printable)] if(j!=1): assert(tmp2==decode_arr[j-2]) decode_arr.append(tmp2) flag="" for i in decode_arr[0]: if i=='b': flag+="y" elif i in ascii_letters: flag+=chr(ord(i)-3) else: flag+=i print flag
else:
return True
Nombre = 1
while True:
x = ".{" + str(Nombre) + "}"
if not check(x): break
Nombre = Nombre + 1
length = Nombre - 1
origin = ""
i = 1
while not (i > length):
for car in printable:
if car == "*" or car == "(" or car == ")": continue
if printable.find(car) >= 62: car = "\\" + car
x = "^" + origin + car
if check(x): break
origin += car
print(origin)
i += 1
print(origin)
password = ""
i = 0
while not (i > len(origin) - 1):
if origin[i] == "\\":
password = password + origin[i + 1]
i += 1
else:
password = password + origin[i]
i += 1
