def decrypt(self, inp):
if self.__private is None:
raise KeyException("No private key, cannot encrypt!")
return [
solve(self.__public.k,
i,
self.__public.m,
factors=[self.__private.p, self.__private.q]) for i in inp
]
def dexponentiate(text, p, e):
return __codec.decode(None, [solve(e, i, p) for i in text])
def unsign(nums, e_from, n_from, e_to, n_to):
dec = [successive_square(solve(e_to, i, n_to), e_from, n_from) for i in nums]
return __codec.decode(None, dec)
def sign(text, e_from, n_from, e_to, n_to):
pair_encode = KeyPair(PublicKey(m=min(n_from, n_to), k=-1), None)
nums = __codec.encode(pair_encode, text)
return [successive_square(solve(e_from, i, n_from), e_to, n_to) for i in nums]
def dersa(nums, e, n):
return __codec.decode(None, [solve(e, i, n) for i in nums])
pass
def decrypt(self, inp):
if self.__private is None:
raise KeyException("No private key, cannot encrypt!")
return [solve(self.__public.k, i, self.__public.m, factors=[self.__private.p, self.__private.q]) for i in inp]
def unsign(nums, e_from, n_from, e_to, n_to):
dec = [
successive_square(solve(e_to, i, n_to), e_from, n_from) for i in nums
]
return __codec.decode(None, dec)
def sign(text, e_from, n_from, e_to, n_to):
pair_encode = KeyPair(PublicKey(m=min(n_from, n_to), k=-1), None)
nums = __codec.encode(pair_encode, text)
return [
successive_square(solve(e_from, i, n_from), e_to, n_to) for i in nums
]
def dersa(nums, e, n):
return __codec.decode(None, [solve(e, i, n) for i in nums])
pass