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AesFunctions.hs
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651 lines (475 loc) · 65.1 KB
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{-# OPTIONS_GHC -Wno-unrecognised-pragmas #-}
{-# HLINT ignore "Use camelCase" #-}
{-# HLINT ignore "Redundant bracket" #-}
{-# HLINT ignore "Use head" #-}
module AesFunctions where
import Polynome
import ZsurNZ
import Corps
import Anneau
-- ===============================
-- ========== CONSTANTES =========
-- ===============================
-- Pour utiliser un mode d'aes en particulier,
-- il faut décommenter les lignes correspondantes
-- et commenter les autres
-- ========== AES 128 =========
keyLength = 4
nbRound = 10
cleVide = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]) ]
-- ========== AES 192 =========
--keyLength = 6
--nbRound = 12
--cleVide = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0])]
-- ========== AES 256 =========
--keyLength = 8
--nbRound = 14
--cleVide = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0])]
-- ===============================
matVide4 = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0])]
matVide6 = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0])]
matVide8 = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0])]
getEl :: Z_sur_256Z -> Int -> Z_sur_2Z
getEl (Z256Z (Poly tab)) x = tab!!x
concatZ256Z :: Z_sur_256Z -> Z_sur_256Z -> Z_sur_256Z
concatZ256Z (Z256Z (Poly a)) (Z256Z (Poly b)) = Z256Z (Poly (a ++ b))
scalProduct :: Polynome Z_sur_2Z -> Polynome Z_sur_2Z -> Z_sur_2Z
scalProduct (Poly []) (Poly []) = unitadd
scalProduct (Poly (x:xs)) (Poly (y:ys)) = operationadd (operationmul x y) (scalProduct (Poly xs) (Poly ys))
-- Fonction de conversion d'un tableau de polynomes de Z256Z
-- en une chaine affichée
-- la taille est le nombre d'éléments par ligne affichés
-- tab taille
binToHex :: [Z_sur_256Z] -> Int -> IO()
binToHex l m = putStr ((binToHex_aux l 0 m) ++ "\n\n")
binToHex_aux :: [Z_sur_256Z] -> Int -> Int -> String
binToHex_aux [] _ _ = ""
binToHex_aux (x:xs) i m = (if (i `mod` m) == 0 then "\n " else "") ++ (convertToHex x) ++ " " ++ (binToHex_aux xs (i+1) m)
-- Fonction de conversion d'UN polynome de Z256Z en chaine
-- qui représente le nombre en hexadécimal
-- poly doublet de caractere hexa
convertToHex :: Z_sur_256Z -> String
convertToHex (Z256Z (Poly p)) = [(convertToCara (take 4 (toGoodLengthZ256_4 p))), (convertToCara (drop 4 (toGoodLengthZ256_4 p)))]
convertToCara :: [Z_sur_2Z] -> Char
convertToCara c | ([Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0] == c) = '0'
| ([Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1] == c) = '1'
| ([Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0] == c) = '2'
| ([Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1] == c) = '3'
| ([Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0] == c) = '4'
| ([Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1] == c) = '5'
| ([Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0] == c) = '6'
| ([Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1] == c) = '7'
| ([Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0] == c) = '8'
| ([Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1] == c) = '9'
| ([Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0] == c) = 'A'
| ([Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1] == c) = 'B'
| ([Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0] == c) = 'C'
| ([Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1] == c) = 'D'
| ([Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0] == c) = 'E'
| ([Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1] == c) = 'F'
| otherwise = '+'
-- Fonction de converison d'une string en chaine de poly de Z256Z
-- Valeurs en entrée 0,1,2,3,4,5,6,7,8,9,A,B,C,D,E,F
-- chaine de caractères hexa
-- | tabeau de Z256Z en sortie
hexToBin :: String -> [Z_sur_256Z]
hexToBin [] = []
hexToBin [' '] = []
hexToBin (x:y:xs) | (x == ' ') = hexToBin (y:xs)
| otherwise = (convertCaraToBin (x:[y])) : (hexToBin xs)
convertCaraToBin :: String -> Z_sur_256Z
convertCaraToBin [x, y] = concatZ256Z (convertCaraToBin_aux x) (convertCaraToBin_aux y)
convertCaraToBin_aux :: Char -> Z_sur_256Z
convertCaraToBin_aux c | (c == '0') = Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0])
| (c == '1') = Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1])
| (c == '2') = Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0])
| (c == '3') = Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1])
| (c == '4') = Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0])
| (c == '5') = Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1])
| (c == '6') = Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0])
| (c == '7') = Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1])
| (c == '8') = Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0])
| (c == '9') = Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1])
| (c == 'A') = Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0])
| (c == 'B') = Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])
| (c == 'C') = Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0])
| (c == 'D') = Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1])
| (c == 'E') = Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0])
| (c == 'F') = Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1])
-- calcule la transposee (echange les lignes et les colonnes de la pseudo matrice)
-- formée par les éléments de Z256Z
-- Int correspond à la longueur de la "matrice"
transpose :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
transpose matrice len | (len == 4) = transpose_aux_4 matrice matVide4 0
| (len == 6) = transpose_aux_6 matrice matVide6 0
| (len == 8) = transpose_aux_8 matrice matVide8 0
transpose_aux_4 :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
transpose_aux_4 _ output 4 = output
transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) output 0 = transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) (putColumn (output) (a:b:c:d:reste) 0) (1)
transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) output 1 = transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) (putColumn (output) (e:f:g:h:reste) 1) (2)
transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) output 2 = transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) (putColumn (output) (i:j:k:l:reste) 2) (3)
transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) output 3 = transpose_aux_4 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:reste) (putColumn (output) (m:n:o:p:reste) 3) (4)
transpose_aux_6 :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
transpose_aux_6 _ output 6 = output
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 0 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (a:b:c:d:reste) 0) (1)
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 1 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (e:f:g:h:reste) 1) (2)
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 2 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (i:j:k:l:reste) 2) (3)
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 3 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (m:n:o:p:reste) 3) (4)
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 4 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (q:r:s:t:reste) 4) (5)
transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) output 5 = transpose_aux_6 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:reste) (putColumn_trans (output) (u:v:w:x:reste) 5) (6)
transpose_aux_8 :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
transpose_aux_8 _ output 8 = output
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 0 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (a:b:c:d:reste) 0) (1)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 1 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (e:f:g:h:reste) 1) (2)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 2 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (i:j:k:l:reste) 2) (3)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 3 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (m:n:o:p:reste) 3) (4)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 4 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (q:r:s:t:reste) 4) (5)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 5 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (u:v:w:x:reste) 5) (6)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 6 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (y:z:aa:ab:reste) 6) (7)
transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) output 7 = transpose_aux_8 (a:b:c:d:e:f:g:h:i:j:k:l:m:n:o:p:q:r:s:t:u:v:w:x:y:z:aa:ab:ac:ad:ae:af:reste) (putColumn_trans (output) (ac:ad:ae:af:reste) 7) (8)
putColumn_trans :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
putColumn_trans liste column nb = putColumn_trans_aux liste nb 0 column
putColumn_trans_aux :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z] -> [Z_sur_256Z]
putColumn_trans_aux x _ _ [] = x
putColumn_trans_aux [] _ _ _ = []
putColumn_trans_aux (x:xs) nb indice (y:ys) | (indice `mod` keyLength) == nb = y : putColumn_trans_aux xs nb (indice + 1) ys
| otherwise = x : putColumn_trans_aux xs nb (indice + 1) (y:ys)
-- fonction utile de codage aes. Une chaine de longueur 32 est attendue
-- pour le texte (1ere) et une autre chaine pour la clé
-- Affiche le résultat du codage à l'utilisateur
cipher_aes :: String -> String -> IO()
cipher_aes text cle = binToHex (transpose (cipher (transpose (hexToBin text) 4) ( (transpose (hexToBin cle) keyLength))) 4) 4
-- fonction utile décodage AES. Une chaine de longueur 32 est attendue
-- pour le texte
-- affiche le message décodé à l'utilisateur
invcipher_aes :: String -> String -> IO()
invcipher_aes text cle = binToHex (transpose (invcipher (transpose (hexToBin text) 4) (transpose (hexToBin cle) keyLength)) 4) 4
-- ===============================
-- ========== SHIFTROWS ==========
-- ===============================
shiftRows :: [Z_sur_256Z] -> [Z_sur_256Z]
shiftRows liste = a ++ shiftRows_aux b
where (a, b) = splitAt 4 liste
shiftRows_aux :: [Z_sur_256Z] -> [Z_sur_256Z]
shiftRows_aux [] = []
shiftRows_aux tab = (rotateLeft tab)
rotateLeft :: [Z_sur_256Z] -> [Z_sur_256Z]
rotateLeft tab = [(tab!!1), (tab!!2), (tab!!3), (tab!!0), (tab!!6), (tab!!7), (tab!!4), (tab!!5), (tab!!11), (tab!!8), (tab!!9), (tab!!10)]
shiftrow_in = [Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0])]
-- ===============================
-- ======== INV SHIFTROWS ========
-- ===============================
invShiftRows :: [Z_sur_256Z] -> [Z_sur_256Z]
invShiftRows liste = a ++ invShiftRows_aux b
where (a, b) = splitAt 4 liste
invShiftRows_aux :: [Z_sur_256Z] -> [Z_sur_256Z]
invShiftRows_aux [] = []
invShiftRows_aux tab = (rotateRight tab)
rotateRight :: [Z_sur_256Z] -> [Z_sur_256Z]
rotateRight tab = [(tab!!3), (tab!!0), (tab!!1), (tab!!2), (tab!!6), (tab!!7), (tab!!4), (tab!!5), (tab!!9), (tab!!10), (tab!!11), (tab!!8)]
-- ================================
-- ========== MIXCOLUMNS ==========
-- ================================
mixColumns :: [Z_sur_256Z] -> [Z_sur_256Z]
mixColumns state = mixColumns_aux state 0
mixColumns_aux :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
mixColumns_aux state i | i < 4 = mixColumns_aux (putColumn state (mixOpColumn (pickColumn state i)) i) (i+1)
| otherwise = state
mixOpColumn :: [Z_sur_256Z] -> [Z_sur_256Z]
mixOpColumn [a, b, c, d] = [firstel, sndel, thirdel, fourthel]
where firstel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0])) a), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1])) b), c, d])
sndel = (foldr operationadd unitadd [a, removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0])) b), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1])) c), d])
thirdel = (foldr operationadd unitadd [a, b, removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0])) c), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1])) d)])
fourthel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1])) a), b, c, removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0])) d)])
-- ================================
-- ======== INV MIXCOLUMNS ========
-- ================================
invMixColumns :: [Z_sur_256Z] -> [Z_sur_256Z]
invMixColumns state = invMixColumns_aux state 0
invMixColumns_aux :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
invMixColumns_aux state i | i < 4 = invMixColumns_aux (putColumn state (invMixOpColumn (pickColumn state i)) i) (i+1)
| otherwise = state
invMixOpColumn :: [Z_sur_256Z] -> [Z_sur_256Z]
invMixOpColumn [a, b, c, d] = [firstel, sndel, thirdel, fourthel]
where firstel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0])) a), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])) b), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1])) c), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1])) d)])
sndel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1])) a), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0])) b), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])) c), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1])) d)])
thirdel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1])) a), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1])) b), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0])) c), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])) d)])
fourthel = (foldr operationadd unitadd [removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])) a), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1])) b), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1])) c), removeZerosZ256 (multAESZ256Z (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0])) d)])
-- Ne marche pas car modPoly est une boucle infinie avec des poly à coef dans Z256Z (à cause de divPoly_aux, peut etre du à la manière dont les opération + et - sont faites sur les coefs)
--mixColumns_aux :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
--mixColumns_aux state i | i < 4 = putColumn state (polyToList (result state (i+1))) (i+1)
-- | otherwise = state
--result :: [Z_sur_256Z] -> Int -> Polynome Z_sur_256Z
--result state i = modPoly (operationmul (Poly (pickColumn state i)) (Poly [Z256Z (Poly [Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1]), Z256Z (Poly [Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 0])])) (Poly [Z256Z (Poly [Z2Z 1]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 1])])
--polyToList :: Polynome Z_sur_256Z -> [Z_sur_256Z]
--polyToList (Poly liste) = liste
--subBytes :: [Z_sur_256Z] -> [Z_sur_256Z]
--subBytes [] = []
--subBytes (x:xs) = (subBytes_aux (inverse256 (x)) (x) (7) ) : (subBytes xs)
--subBytes_aux :: Z_sur_256Z -> Z_sur_256Z -> Int ->Z_sur_256Z
--subBytes_aux (Z256Z (Poly [])) _ _= (Z256Z (Poly []))
--subBytes_aux (Z256Z (Poly(x:xs))) (Z256Z(Poly(y))) (i) = concatZ256Z ( Z256Z (Poly [( x `xor` ( ( getEl (Z256Z(Poly(y))) ( (i+4) `mod` (8)) ) `xor` ( ( getEl (Z256Z(Poly(y))) ((i+5) `mod` (8)) ) `xor` ( ( getEl ((Z256Z(Poly(y)))) ( (i+6) `mod` (8))) `xor` ( (getEl ((Z256Z(Poly(y)))) ((i+7) `mod` (8))) `xor` (getEl (Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1])) (i))) )) ) )]) ) (subBytes_aux (Z256Z (Poly(xs))) (Z256Z(Poly(y))) (i-1) )
-- subBytes :: [Z_sur_256Z] -> [Z_sur_256Z]
--subBytes [] = []
--subBytes (x:xs) = (subBytes_aux (completeZerosZ256 (inverse256 (x)) 8 )) : (subBytes xs)
--subBytes_aux :: Z_sur_256Z ->Z_sur_256Z
--subBytes_aux (Z256Z (Poly [a,b,c,d,e,f,g,h])) = Z256Z (Poly [hb,gb,fb,eb,db,cb,bb,ab] )
-- where ab = operationadd ( scalProduct (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]) ((Poly [h,g,f,e,d,c,b,a]))) (unitmul)
-- bb = operationadd ( scalProduct (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]) ((Poly [h,g,f,e,d,c,b,a]))) (unitmul)
-- cb = operationadd ( scalProduct (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]) ((Poly [h,g,f,e,d,c,b,a]))) (unitadd)
-- db = operationadd ( scalProduct (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1]) ((Poly [h,g,f,e,d,c,b,a]))) (unitadd)
-- eb = operationadd ( scalProduct (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]) ((Poly [h,g,f,e,d,c,b,a]))) (unitadd)
-- fb = operationadd ( scalProduct (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]) ((Poly [h,g,f,e,d,c,b,a]))) (unitmul)
-- gb = operationadd ( scalProduct (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0]) ((Poly [h,g,f,e,d,c,b,a]))) (unitmul)
-- hb = operationadd ( scalProduct (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]) ((Poly [h,g,f,e,d,c,b,a]))) (unitadd)
-- ================================
-- =========== SUBBYTES ===========
-- ================================
-- Fonction subBytes d'AES
-- Applique la transformation de la s-box à la state passée en paramètre
subBytes :: [Z_sur_256Z] -> [Z_sur_256Z]
subBytes [] = []
subBytes (x:xs) = (toGoodLengthZ256 ((addMod256 (multMod256 (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1])) (inverse256 x) ) (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]))))) : subBytes xs
-- ================================
-- ========= INV SUBBYTES =========
-- ================================
-- Fonction invsubBytes d'AES
-- Applique la transformation de la reverse-s-box à la state passée en paramètre
invsubBytes :: [Z_sur_256Z] -> [Z_sur_256Z]
invsubBytes [] = []
invsubBytes (x:xs) | (x == unitadd) = x : subBytes xs
| otherwise = (toGoodLengthZ256 (inverse256 (addMod256 (multMod256 (Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0])) (x) ) (Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1]))))) : invsubBytes xs
-- Permet d'extraire un word de la matrice d'état
pickColumn :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
pickColumn liste nb = pickColumn_aux liste nb 0
pickColumn_aux :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
pickColumn_aux [] _ _ = []
pickColumn_aux (x:xs) nb indice | (indice `mod` 4) == nb = x : pickColumn_aux xs nb (indice+1)
| otherwise = pickColumn_aux xs nb (indice+1)
-- Permet de mettre un word dans la matrice d'état
putColumn :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
putColumn liste column nb = putColumn_aux liste nb 0 column
putColumn_aux :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z] -> [Z_sur_256Z]
putColumn_aux x _ _ [] = x
putColumn_aux [] _ _ _ = []
putColumn_aux (x:xs) nb indice (y:ys) | (indice `mod` 4) == nb = y : putColumn_aux xs nb (indice + 1) ys
| otherwise = x : putColumn_aux xs nb (indice + 1) (y:ys)
-- Permet d'extraire un word de la matrice représentant la clé étendue
pickColumn_key :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
pickColumn_key liste nb = pickColumn_aux_key liste nb 0
pickColumn_aux_key :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
pickColumn_aux_key [] _ _ = []
pickColumn_aux_key (x:xs) nb indice | (indice `mod` (4*(nbRound+1))) == nb = x : pickColumn_aux_key xs nb (indice+1)
| otherwise = pickColumn_aux_key xs nb (indice+1)
-- Permet de mettre un word dans la matrice représentant la clé étendue
putColumn_key :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
putColumn_key liste column nb = putColumn_aux_key liste nb 0 column
putColumn_aux_key :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z] -> [Z_sur_256Z]
putColumn_aux_key x _ _ [] = x
putColumn_aux_key [] _ _ _ = []
putColumn_aux_key (x:xs) nb indice (y:ys) | (indice `mod` (4*(nbRound+1))) == nb = y : putColumn_aux_key xs nb (indice + 1) ys
| otherwise = x : putColumn_aux_key xs nb (indice + 1) (y:ys)
-- Permet d'extraire un word de la matrice utilisée lors de la génération des clés de tour
pickColumn_extandKey :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
pickColumn_extandKey liste nb = pickColumn_extandKey_aux liste nb 0
pickColumn_extandKey_aux :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
pickColumn_extandKey_aux [] _ _ = []
pickColumn_extandKey_aux (x:xs) nb indice | (indice `mod` keyLength) == nb = x : pickColumn_extandKey_aux xs nb (indice+1)
| otherwise = pickColumn_extandKey_aux xs nb (indice+1)
-- ================================
-- ========== ADDROUNDKEY =========
-- ================================
addRoundKey :: [Z_sur_256Z] -> [Z_sur_256Z] -> [Z_sur_256Z]
addRoundKey state key = addRoundKey_aux state key 0
addRoundKey_aux :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
addRoundKey_aux state _ 4 = state
addRoundKey_aux state key col = addRoundKey_aux (putColumn state ( addLists (pickColumn state col) (pickColumn key col) ) col ) key (col+1)
addLists :: Anneau a => [a] -> [a] -> [a]
addLists x y = map add $ zip x y
where add (x, y) = operationadd x y
texte = [Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0])]
cle = [Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1])]
cle_base = [Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1])]
-- ================================
-- ========== EXTANDKEY ===========
-- ================================
-- Fonction principale de l'extension de clé en AES
-- La clé en entrée peut etre d'aes 128, 192, ou 256, selon les constantes choisies
extandKey :: [Z_sur_256Z] -> [Z_sur_256Z]
extandKey cle = extandKey_aux cle cleVide 0
extandKey_aux :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
extandKey_aux base output j | (j == (4*(nbRound+1))) = output
| (j < keyLength) = extandKey_aux base (putColumn_key output (pickColumn_extandKey base j) j) (j+1)
| ((j `mod` keyLength) == 0) = extandKey_aux base (putColumn_key output (op_spe output j 0) j) (j+1)
| (((j `mod` keyLength) == 4) && (keyLength == 8)) = extandKey_aux base (putColumn_key output (op_normal_with_s output j 0) j) (j+1)
| otherwise = extandKey_aux base (putColumn_key output (op_normal output j 0) j) (j+1)
op_normal :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
op_normal _ _ 4 = []
op_normal output colonne ligne = ( (operationadd) ( (!!) (pickColumn_key output (colonne - keyLength)) ligne) ( (!!) (pickColumn_key output (colonne -1)) ligne ) ) : (op_normal output colonne (ligne+1))
op_normal_with_s :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
op_normal_with_s _ _ 4 = []
op_normal_with_s output colonne ligne = ( (operationadd) ( (!!) (pickColumn_key output (colonne - keyLength)) ligne) (s ( (!!) (pickColumn_key output (colonne -1)) ligne ) )) : (op_normal_with_s output colonne (ligne+1))
op_spe :: [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
op_spe _ _ 4 = []
op_spe output colonne ligne | (ligne == 0) = ( (operationadd) ( (operationadd) ( (!!) (pickColumn_key output (colonne-keyLength)) 0) ( (s) ( (!!) (pickColumn_key output (colonne-1)) 1)) ) ( rcon ((colonne `div` keyLength) -1) ) ) : op_spe output colonne (ligne+1)
| otherwise = ( (operationadd) ((!!) (pickColumn_key output (colonne-keyLength)) ligne) ((s) ((!!) (pickColumn_key output (colonne-1)) ((ligne+1) `mod` 4)))) : (op_spe output colonne (ligne+1))
-- Transormation linéaire de la fonction SubBytes
-- ici elle est appliquée sur un polynome de Z_256_Z
s :: (Z_sur_256Z) -> (Z_sur_256Z)
s x = (toGoodLengthZ256 ((addMod256 (multMod256 (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1])) (inverse256 x) ) (Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1])))))
-- rcon élève le polynôme {02} (x) à la puissance x ou x est l'argument de la fonction
-- utilisé dans le calcul de l'extension de clé
rcon :: Int -> Z_sur_256Z
rcon x = Z256Z $ power (Poly [Z2Z 1, Z2Z 0]) x
-- élève le polynome a coeficients dans Z2Z à la puissance voulue
power :: Polynome Z_sur_2Z -> Int -> Polynome Z_sur_2Z
power _ 0 = (Poly [Z2Z 1])
power poly 1 = poly
power poly i = (multAES poly (power poly (i-1)))
-- ================================
-- ========== CIPHER ===========
-- ================================
-- Fonction principale d'encodage d'AES
-- entree / cle / sotie
cipher :: [Z_sur_256Z] -> [Z_sur_256Z] -> [Z_sur_256Z]
cipher entree cle = cipher_aux entree cle (-1)
cipher_aux :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
cipher_aux entree cle round | (round == -1) = cipher_aux entree (extandKey cle) 0
| (round == 0 ) = cipher_aux (addRoundKey entree (extract_round_key_from_key cle (0))) cle (round+1)
| (round == nbRound) = addRoundKey (shiftRows (subBytes entree)) (extract_round_key_from_key cle (4*nbRound))
| otherwise = cipher_aux (addRoundKey ( mixColumns (shiftRows (subBytes (entree))) ) ( extract_round_key_from_key cle (round*4) ) ) cle (round+1)
cle_entree = extandKey (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17") 6)
state_vide = [Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 1]),Z256Z (Poly [Z2Z 0])]
-- extrait la clé de tour de la clé étendue
-- les colonnes extraites sont les n, n+1, n+2, n+3
--
-- exemple : t = 1
--
-- valeurs retournées
-- || || || ||
-- \/ \/ \/ \/
-- ----------------------------------------------------------------------------------------------
-- | c0,0 | c0,1 | c0,2 | c0,3 | c0,4 | c0,5 | c0,6 | c0,7 | c0,8 | c0,9 | c0,10 | c0,11 | .... |
-- | c1,0 | c1,1 | c1,2 | c1,3 | c1,4 | c1,5 | c1,6 | c1,7 | c1,8 | c1,9 | c1,10 | c1,11 | .... |
-- | c2,0 | c2,1 | c2,2 | c2,3 | c2,4 | c2,5 | c2,6 | c2,7 | c2,8 | c2,9 | c2,10 | c2,11 | .... |
-- | c3,0 | c3,1 | c3,2 | c3,3 | c3,4 | c3,5 | c3,6 | c3,7 | c3,8 | c3,9 | c3,10 | c3,11 | .... |
-- ----------------------------------------------------------------------------------------------
extract_round_key_from_key :: [Z_sur_256Z] -> Int -> [Z_sur_256Z]
extract_round_key_from_key cle t = extract_round_key_from_key_aux cle t state_vide 0 0
extract_round_key_from_key_aux :: [Z_sur_256Z] -> Int -> [Z_sur_256Z] -> Int -> Int -> [Z_sur_256Z]
extract_round_key_from_key_aux cle t out col isortie | (col==t) || (col==t+1) || (col==t+2) || (col==t+3) = extract_round_key_from_key_aux cle t (putColumn (out) (pickColumn_key cle col) isortie) (col+1) (isortie+1)
| (col == ((nbRound+1)*keyLength)) = out
| otherwise = extract_round_key_from_key_aux cle t out (col+1) isortie
-- ================================
-- ========= INV CIPHER ===========
-- ================================
-- Fonction principale de décodage d'AES
-- entree / cle / sotie
invcipher :: [Z_sur_256Z] -> [Z_sur_256Z] -> [Z_sur_256Z]
invcipher entree cle = invcipher_aux entree cle (nbRound+1)
invcipher_aux :: [Z_sur_256Z] -> [Z_sur_256Z] -> Int -> [Z_sur_256Z]
invcipher_aux entree cle round | (round == (nbRound+1)) = invcipher_aux entree (extandKey cle) (round-1)
| (round == (nbRound) ) = invcipher_aux (addRoundKey entree (extract_round_key_from_key cle (nbRound*4))) cle (round-1)
| (round == (0)) = addRoundKey (invsubBytes (invShiftRows entree)) (extract_round_key_from_key cle (0))
| otherwise = invcipher_aux (invMixColumns (addRoundKey (invsubBytes (invShiftRows (entree))) ( extract_round_key_from_key cle (round*4) ))) cle (round-1)
-- ================================
-- ======= VALEURS DE TEST ========
-- ================================
test_plaintext = [Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0]), Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]), Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1])]
test_cle = [Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1])]
test = [Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]), Z256Z (Poly [Z2Z 0]) ]
test_with_kes = [Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1]),Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0]),Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1]),Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0]),Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0]),Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0]),Z256Z (Poly [Z2Z 0])]
cle_192 = [Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 1]),
Z256Z (Poly [Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 0, Z2Z 0, Z2Z 1, Z2Z 0]),
Z256Z (Poly [Z2Z 0, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 1, Z2Z 0, Z2Z 1, Z2Z 1])]
cle_256 = [
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1]),
Z256Z (Poly [Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0,Z2Z 0,Z2Z 1,Z2Z 1]),
Z256Z (Poly [Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 1,Z2Z 0,Z2Z 1,Z2Z 0,Z2Z 0])]
--plain_text : "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF"
-- texte formaté commme il faut : (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4)
-- AES 128
-- cle : "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F"
-- binToHex (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F") 4)) 4
-- Resultat attendu : 69c4e0d86a7b0430d8cdb78070b4c55a
--Invcipher
-- binToHex (invcipher (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F") 4)) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F") 4)) 4
--AES 192
-- cle : "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17"
-- cle formater comme il faut : (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17") 6)
-- binToHex (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17") 6)) 4
-- Résultat attendu : dda97ca4864cdfe06eaf70a0ec0d7191
-- Invcipher
-- binToHex (invcipher (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17") 6)) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17") 6)) 4
--AES 256
-- cle : "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17 18 19 1A 1B 1C 1D 1E 1F"
-- cle formater comme il faut : (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17 18 19 1A 1B 1C 1D 1E 1F") 8)
-- binToHex (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17 18 19 1A 1B 1C 1D 1E 1F") 8)) 4
-- Resultat attendu : 8ea2b7ca516745bfeafc49904b496089
-- Invcipher
-- binToHex (invcipher (cipher (transpose (hexToBin "00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF") 4) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17 18 19 1A 1B 1C 1D 1E 1F") 8)) (transpose (hexToBin "00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 10 11 12 13 14 15 16 17 18 19 1A 1B 1C 1D 1E 1F") 8)) 4