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ext-cryptopp/kalyna.cpp
Jeffrey Walton 58b6999274
Convert Kalyna from variable block size (GH #535)
2018-01-18 20:26:10 -05:00

1373 lines
56 KiB
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// kalyna.cpp - written and placed in the public domain by Jeffrey Walton
// This code relied upon three sources. First was Oliynykov, Gorbenko, Kazymyrov, Ruzhentsev,
// Kuznetsov, Gorbenko, Dyrda, Dolgov, Pushkaryov, Mordvinov and Kaidalov's "A New Encryption
// Standard of Ukraine: The Kalyna Block Cipher" (http://eprint.iacr.org/2015/650.pdf). Second
// was Roman Oliynykov and Oleksandr Kazymyrov's GitHub with the reference implementation
// (http://github.com/Roman-Oliynykov/Kalyna-reference). The third and most utilized resource
// was Keru Kuro's public domain implementation of Kalyna in CppCrypto
// (http://sourceforge.net/projects/cppcrypto/). Kuro has an outstanding implementation that
// performed better than the reference implementation and our initial attempts. The only downside
// was the missing big endian port.
#include "pch.h"
#include "config.h"
#include "kalyna.h"
#include "argnames.h"
#include "misc.h"
#include "cpu.h"
NAMESPACE_BEGIN(CryptoPP)
NAMESPACE_BEGIN(KalynaTab)
// T can be shared between Kupyna and Kalyna; IT, S and IS are Kalyna specific
extern const word64 T[8][256]; // Columns
extern const word64 IT[8][256]; // Inverse
extern const byte S[4][256]; // Substitution
extern const byte IS[4][256]; // Inverse
NAMESPACE_END
NAMESPACE_END
ANONYMOUS_NAMESPACE_BEGIN
// The typedef here is to sidestep problems with byte in the global namespace
typedef unsigned char byte;
using CryptoPP::word64;
using CryptoPP::KalynaTab::T;
using CryptoPP::KalynaTab::S;
using CryptoPP::KalynaTab::IT;
using CryptoPP::KalynaTab::IS;
template <unsigned int NB>
inline void MakeOddKey(const word64 evenkey[NB], word64 oddkey[NB])
{
#if defined(CRYPTOPP_BIG_ENDIAN)
if (NB == 2)
{
oddkey[0] = (evenkey[1] << 8) | (evenkey[0] >> 56);
oddkey[1] = (evenkey[0] << 8) | (evenkey[1] >> 56);
}
else if (NB == 4)
{
oddkey[0] = (evenkey[2] << 40) | (evenkey[1] >> 24);
oddkey[1] = (evenkey[3] << 40) | (evenkey[2] >> 24);
oddkey[2] = (evenkey[0] << 40) | (evenkey[3] >> 24);
oddkey[3] = (evenkey[1] << 40) | (evenkey[0] >> 24);
}
else if (NB == 8)
{
oddkey[0] = (evenkey[3] << 40) | (evenkey[2] >> 24);
oddkey[1] = (evenkey[4] << 40) | (evenkey[3] >> 24);
oddkey[2] = (evenkey[5] << 40) | (evenkey[4] >> 24);
oddkey[3] = (evenkey[6] << 40) | (evenkey[5] >> 24);
oddkey[4] = (evenkey[7] << 40) | (evenkey[6] >> 24);
oddkey[5] = (evenkey[0] << 40) | (evenkey[7] >> 24);
oddkey[6] = (evenkey[1] << 40) | (evenkey[0] >> 24);
oddkey[7] = (evenkey[2] << 40) | (evenkey[1] >> 24);
}
else
{
CRYPTOPP_ASSERT(0);
}
#else
static const unsigned int U = (NB == 2) ? 16 : (NB == 4) ? 32 : (NB == 8) ? 64 : -1;
static const unsigned int V = (NB == 2) ? 7 : (NB == 4) ? 11 : (NB == 8) ? 19 : -1;
const byte* even = reinterpret_cast<const byte*>(evenkey);
byte* odd = reinterpret_cast<byte*>(oddkey);
memcpy(odd, even + V, U - V);
memcpy(odd + U - V, even, V);
#endif
}
template <unsigned int NB>
inline void SwapBlocks(word64 k[NB])
{
const word64 t = k[0];
k[0] = k[1];
if (NB > 2)
{
k[1] = k[2];
k[2] = k[3];
}
if (NB > 4)
{
k[3] = k[4];
k[4] = k[5];
k[5] = k[6];
k[6] = k[7];
}
k[NB - 1] = t;
}
template <unsigned int NB>
inline void AddKey(const word64 x[NB], word64 y[NB], const word64 k[NB])
{
y[0] = x[0] + k[0];
y[1] = x[1] + k[1];
if (NB > 2)
{
y[2] = x[2] + k[2];
y[3] = x[3] + k[3];
}
if (NB > 4)
{
y[4] = x[4] + k[4];
y[5] = x[5] + k[5];
y[6] = x[6] + k[6];
y[7] = x[7] + k[7];
}
}
template <unsigned int NB>
inline void SubKey(const word64 x[NB], word64 y[NB], const word64 k[NB])
{
y[0] = x[0] - k[0];
y[1] = x[1] - k[1];
if (NB > 2)
{
y[2] = x[2] - k[2];
y[3] = x[3] - k[3];
}
if (NB > 4)
{
y[4] = x[4] - k[4];
y[5] = x[5] - k[5];
y[6] = x[6] - k[6];
y[7] = x[7] - k[7];
}
}
template <unsigned int NB>
static inline void AddConstant(word64 src[NB], word64 dst[NB], word64 constant)
{
dst[0] = src[0] + constant;
dst[1] = src[1] + constant;
if (NB > 2)
{
dst[2] = src[2] + constant;
dst[3] = src[3] + constant;
}
if (NB > 4)
{
dst[4] = src[4] + constant;
dst[5] = src[5] + constant;
dst[6] = src[6] + constant;
dst[7] = src[7] + constant;
}
}
inline void G0128(const word64 x[2], word64 y[2])
{
y[0] = T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
inline void G0256(const word64 x[4], word64 y[4])
{
y[0] = T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[2] >> 56)];
y[2] = T[0][(byte)x[2]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[3] >> 56)];
y[3] = T[0][(byte)x[3]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
inline void G0512(const word64 x[8], word64 y[8])
{
y[0] = T[0][(byte)x[0]] ^ T[1][(byte)(x[7] >> 8)] ^ T[2][(byte)(x[6] >> 16)] ^ T[3][(byte)(x[5] >> 24)] ^
T[4][(byte)(x[4] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = T[0][(byte)x[1]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[7] >> 16)] ^ T[3][(byte)(x[6] >> 24)] ^
T[4][(byte)(x[5] >> 32)] ^ T[5][(byte)(x[4] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[2] >> 56)];
y[2] = T[0][(byte)x[2]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[7] >> 24)] ^
T[4][(byte)(x[6] >> 32)] ^ T[5][(byte)(x[5] >> 40)] ^ T[6][(byte)(x[4] >> 48)] ^ T[7][(byte)(x[3] >> 56)];
y[3] = T[0][(byte)x[3]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[7] >> 32)] ^ T[5][(byte)(x[6] >> 40)] ^ T[6][(byte)(x[5] >> 48)] ^ T[7][(byte)(x[4] >> 56)];
y[4] = T[0][(byte)x[4]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[7] >> 40)] ^ T[6][(byte)(x[6] >> 48)] ^ T[7][(byte)(x[5] >> 56)];
y[5] = T[0][(byte)x[5]] ^ T[1][(byte)(x[4] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[7] >> 48)] ^ T[7][(byte)(x[6] >> 56)];
y[6] = T[0][(byte)x[6]] ^ T[1][(byte)(x[5] >> 8)] ^ T[2][(byte)(x[4] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[7] >> 56)];
y[7] = T[0][(byte)x[7]] ^ T[1][(byte)(x[6] >> 8)] ^ T[2][(byte)(x[5] >> 16)] ^ T[3][(byte)(x[4] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
inline void GL128(const word64 x[2], word64 y[2], const word64 k[2])
{
y[0] = k[0] + (T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)]);
y[1] = k[1] + (T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)]);
}
inline void GL256(const word64 x[4], word64 y[4], const word64 k[4])
{
y[0] = k[0] + (T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)]);
y[1] = k[1] + (T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[2] >> 56)]);
y[2] = k[2] + (T[0][(byte)x[2]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[3] >> 56)]);
y[3] = k[3] + (T[0][(byte)x[3]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)]);
}
inline void GL512(const word64 x[8], word64 y[8], const word64 k[8])
{
y[0] = k[0] + (T[0][(byte)x[0]] ^ T[1][(byte)(x[7] >> 8)] ^ T[2][(byte)(x[6] >> 16)] ^ T[3][(byte)(x[5] >> 24)] ^
T[4][(byte)(x[4] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[1] >> 56)]);
y[1] = k[1] + (T[0][(byte)x[1]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[7] >> 16)] ^ T[3][(byte)(x[6] >> 24)] ^
T[4][(byte)(x[5] >> 32)] ^ T[5][(byte)(x[4] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[2] >> 56)]);
y[2] = k[2] + (T[0][(byte)x[2]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[7] >> 24)] ^
T[4][(byte)(x[6] >> 32)] ^ T[5][(byte)(x[5] >> 40)] ^ T[6][(byte)(x[4] >> 48)] ^ T[7][(byte)(x[3] >> 56)]);
y[3] = k[3] + (T[0][(byte)x[3]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[7] >> 32)] ^ T[5][(byte)(x[6] >> 40)] ^ T[6][(byte)(x[5] >> 48)] ^ T[7][(byte)(x[4] >> 56)]);
y[4] = k[4] + (T[0][(byte)x[4]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[7] >> 40)] ^ T[6][(byte)(x[6] >> 48)] ^ T[7][(byte)(x[5] >> 56)]);
y[5] = k[5] + (T[0][(byte)x[5]] ^ T[1][(byte)(x[4] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[7] >> 48)] ^ T[7][(byte)(x[6] >> 56)]);
y[6] = k[6] + (T[0][(byte)x[6]] ^ T[1][(byte)(x[5] >> 8)] ^ T[2][(byte)(x[4] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[7] >> 56)]);
y[7] = k[7] + (T[0][(byte)x[7]] ^ T[1][(byte)(x[6] >> 8)] ^ T[2][(byte)(x[5] >> 16)] ^ T[3][(byte)(x[4] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[0] >> 56)]);
}
inline void IMC128(word64 x[2])
{
x[0] = IT[0][S[0][(byte)x[0]]] ^ IT[1][S[1][(byte)(x[0] >> 8)]] ^ IT[2][S[2][(byte)(x[0] >> 16)]] ^ IT[3][S[3][(byte)(x[0] >> 24)]] ^
IT[4][S[0][(byte)(x[0] >> 32)]] ^ IT[5][S[1][(byte)(x[0] >> 40)]] ^ IT[6][S[2][(byte)(x[0] >> 48)]] ^ IT[7][S[3][(byte)(x[0] >> 56)]];
x[1] = IT[0][S[0][(byte)x[1]]] ^ IT[1][S[1][(byte)(x[1] >> 8)]] ^ IT[2][S[2][(byte)(x[1] >> 16)]] ^ IT[3][S[3][(byte)(x[1] >> 24)]] ^
IT[4][S[0][(byte)(x[1] >> 32)]] ^ IT[5][S[1][(byte)(x[1] >> 40)]] ^ IT[6][S[2][(byte)(x[1] >> 48)]] ^ IT[7][S[3][(byte)(x[1] >> 56)]];
}
inline void IMC256(word64 x[4])
{
x[0] = IT[0][S[0][(byte)x[0]]] ^ IT[1][S[1][(byte)(x[0] >> 8)]] ^ IT[2][S[2][(byte)(x[0] >> 16)]] ^ IT[3][S[3][(byte)(x[0] >> 24)]] ^
IT[4][S[0][(byte)(x[0] >> 32)]] ^ IT[5][S[1][(byte)(x[0] >> 40)]] ^ IT[6][S[2][(byte)(x[0] >> 48)]] ^ IT[7][S[3][(byte)(x[0] >> 56)]];
x[1] = IT[0][S[0][(byte)x[1]]] ^ IT[1][S[1][(byte)(x[1] >> 8)]] ^ IT[2][S[2][(byte)(x[1] >> 16)]] ^ IT[3][S[3][(byte)(x[1] >> 24)]] ^
IT[4][S[0][(byte)(x[1] >> 32)]] ^ IT[5][S[1][(byte)(x[1] >> 40)]] ^ IT[6][S[2][(byte)(x[1] >> 48)]] ^ IT[7][S[3][(byte)(x[1] >> 56)]];
x[2] = IT[0][S[0][(byte)x[2]]] ^ IT[1][S[1][(byte)(x[2] >> 8)]] ^ IT[2][S[2][(byte)(x[2] >> 16)]] ^ IT[3][S[3][(byte)(x[2] >> 24)]] ^
IT[4][S[0][(byte)(x[2] >> 32)]] ^ IT[5][S[1][(byte)(x[2] >> 40)]] ^ IT[6][S[2][(byte)(x[2] >> 48)]] ^ IT[7][S[3][(byte)(x[2] >> 56)]];
x[3] = IT[0][S[0][(byte)x[3]]] ^ IT[1][S[1][(byte)(x[3] >> 8)]] ^ IT[2][S[2][(byte)(x[3] >> 16)]] ^ IT[3][S[3][(byte)(x[3] >> 24)]] ^
IT[4][S[0][(byte)(x[3] >> 32)]] ^ IT[5][S[1][(byte)(x[3] >> 40)]] ^ IT[6][S[2][(byte)(x[3] >> 48)]] ^ IT[7][S[3][(byte)(x[3] >> 56)]];
}
inline void IMC512(word64 x[8])
{
x[0] = IT[0][S[0][(byte)x[0]]] ^ IT[1][S[1][(byte)(x[0] >> 8)]] ^ IT[2][S[2][(byte)(x[0] >> 16)]] ^ IT[3][S[3][(byte)(x[0] >> 24)]] ^
IT[4][S[0][(byte)(x[0] >> 32)]] ^ IT[5][S[1][(byte)(x[0] >> 40)]] ^ IT[6][S[2][(byte)(x[0] >> 48)]] ^ IT[7][S[3][(byte)(x[0] >> 56)]];
x[1] = IT[0][S[0][(byte)x[1]]] ^ IT[1][S[1][(byte)(x[1] >> 8)]] ^ IT[2][S[2][(byte)(x[1] >> 16)]] ^ IT[3][S[3][(byte)(x[1] >> 24)]] ^
IT[4][S[0][(byte)(x[1] >> 32)]] ^ IT[5][S[1][(byte)(x[1] >> 40)]] ^ IT[6][S[2][(byte)(x[1] >> 48)]] ^ IT[7][S[3][(byte)(x[1] >> 56)]];
x[2] = IT[0][S[0][(byte)x[2]]] ^ IT[1][S[1][(byte)(x[2] >> 8)]] ^ IT[2][S[2][(byte)(x[2] >> 16)]] ^ IT[3][S[3][(byte)(x[2] >> 24)]] ^
IT[4][S[0][(byte)(x[2] >> 32)]] ^ IT[5][S[1][(byte)(x[2] >> 40)]] ^ IT[6][S[2][(byte)(x[2] >> 48)]] ^ IT[7][S[3][(byte)(x[2] >> 56)]];
x[3] = IT[0][S[0][(byte)x[3]]] ^ IT[1][S[1][(byte)(x[3] >> 8)]] ^ IT[2][S[2][(byte)(x[3] >> 16)]] ^ IT[3][S[3][(byte)(x[3] >> 24)]] ^
IT[4][S[0][(byte)(x[3] >> 32)]] ^ IT[5][S[1][(byte)(x[3] >> 40)]] ^ IT[6][S[2][(byte)(x[3] >> 48)]] ^ IT[7][S[3][(byte)(x[3] >> 56)]];
x[4] = IT[0][S[0][(byte)x[4]]] ^ IT[1][S[1][(byte)(x[4] >> 8)]] ^ IT[2][S[2][(byte)(x[4] >> 16)]] ^ IT[3][S[3][(byte)(x[4] >> 24)]] ^
IT[4][S[0][(byte)(x[4] >> 32)]] ^ IT[5][S[1][(byte)(x[4] >> 40)]] ^ IT[6][S[2][(byte)(x[4] >> 48)]] ^ IT[7][S[3][(byte)(x[4] >> 56)]];
x[5] = IT[0][S[0][(byte)x[5]]] ^ IT[1][S[1][(byte)(x[5] >> 8)]] ^ IT[2][S[2][(byte)(x[5] >> 16)]] ^ IT[3][S[3][(byte)(x[5] >> 24)]] ^
IT[4][S[0][(byte)(x[5] >> 32)]] ^ IT[5][S[1][(byte)(x[5] >> 40)]] ^ IT[6][S[2][(byte)(x[5] >> 48)]] ^ IT[7][S[3][(byte)(x[5] >> 56)]];
x[6] = IT[0][S[0][(byte)x[6]]] ^ IT[1][S[1][(byte)(x[6] >> 8)]] ^ IT[2][S[2][(byte)(x[6] >> 16)]] ^ IT[3][S[3][(byte)(x[6] >> 24)]] ^
IT[4][S[0][(byte)(x[6] >> 32)]] ^ IT[5][S[1][(byte)(x[6] >> 40)]] ^ IT[6][S[2][(byte)(x[6] >> 48)]] ^ IT[7][S[3][(byte)(x[6] >> 56)]];
x[7] = IT[0][S[0][(byte)x[7]]] ^ IT[1][S[1][(byte)(x[7] >> 8)]] ^ IT[2][S[2][(byte)(x[7] >> 16)]] ^ IT[3][S[3][(byte)(x[7] >> 24)]] ^
IT[4][S[0][(byte)(x[7] >> 32)]] ^ IT[5][S[1][(byte)(x[7] >> 40)]] ^ IT[6][S[2][(byte)(x[7] >> 48)]] ^ IT[7][S[3][(byte)(x[7] >> 56)]];
}
inline void IG128(const word64 x[2], word64 y[2], const word64 k[2])
{
y[0] = k[0] ^ IT[0][(byte)x[0]] ^ IT[1][(byte)(x[0] >> 8)] ^ IT[2][(byte)(x[0] >> 16)] ^ IT[3][(byte)(x[0] >> 24)] ^
IT[4][(byte)(x[1] >> 32)] ^ IT[5][(byte)(x[1] >> 40)] ^ IT[6][(byte)(x[1] >> 48)] ^ IT[7][(byte)(x[1] >> 56)];
y[1] = k[1] ^ IT[0][(byte)x[1]] ^ IT[1][(byte)(x[1] >> 8)] ^ IT[2][(byte)(x[1] >> 16)] ^ IT[3][(byte)(x[1] >> 24)] ^
IT[4][(byte)(x[0] >> 32)] ^ IT[5][(byte)(x[0] >> 40)] ^ IT[6][(byte)(x[0] >> 48)] ^ IT[7][(byte)(x[0] >> 56)];
}
inline void IG256(const word64 x[4], word64 y[4], const word64 k[4])
{
y[0] = k[0] ^ IT[0][(byte)x[0]] ^ IT[1][(byte)(x[0] >> 8)] ^ IT[2][(byte)(x[1] >> 16)] ^ IT[3][(byte)(x[1] >> 24)] ^
IT[4][(byte)(x[2] >> 32)] ^ IT[5][(byte)(x[2] >> 40)] ^ IT[6][(byte)(x[3] >> 48)] ^ IT[7][(byte)(x[3] >> 56)];
y[1] = k[1] ^ IT[0][(byte)x[1]] ^ IT[1][(byte)(x[1] >> 8)] ^ IT[2][(byte)(x[2] >> 16)] ^ IT[3][(byte)(x[2] >> 24)] ^
IT[4][(byte)(x[3] >> 32)] ^ IT[5][(byte)(x[3] >> 40)] ^ IT[6][(byte)(x[0] >> 48)] ^ IT[7][(byte)(x[0] >> 56)];
y[2] = k[2] ^ IT[0][(byte)x[2]] ^ IT[1][(byte)(x[2] >> 8)] ^ IT[2][(byte)(x[3] >> 16)] ^ IT[3][(byte)(x[3] >> 24)] ^
IT[4][(byte)(x[0] >> 32)] ^ IT[5][(byte)(x[0] >> 40)] ^ IT[6][(byte)(x[1] >> 48)] ^ IT[7][(byte)(x[1] >> 56)];
y[3] = k[3] ^ IT[0][(byte)x[3]] ^ IT[1][(byte)(x[3] >> 8)] ^ IT[2][(byte)(x[0] >> 16)] ^ IT[3][(byte)(x[0] >> 24)] ^
IT[4][(byte)(x[1] >> 32)] ^ IT[5][(byte)(x[1] >> 40)] ^ IT[6][(byte)(x[2] >> 48)] ^ IT[7][(byte)(x[2] >> 56)];
}
inline void IG512(const word64 x[8], word64 y[8], const word64 k[8])
{
y[0] = k[0] ^ IT[0][(byte)x[0]] ^ IT[1][(byte)(x[1] >> 8)] ^ IT[2][(byte)(x[2] >> 16)] ^ IT[3][(byte)(x[3] >> 24)] ^
IT[4][(byte)(x[4] >> 32)] ^ IT[5][(byte)(x[5] >> 40)] ^ IT[6][(byte)(x[6] >> 48)] ^ IT[7][(byte)(x[7] >> 56)];
y[1] = k[1] ^ IT[0][(byte)x[1]] ^ IT[1][(byte)(x[2] >> 8)] ^ IT[2][(byte)(x[3] >> 16)] ^ IT[3][(byte)(x[4] >> 24)] ^
IT[4][(byte)(x[5] >> 32)] ^ IT[5][(byte)(x[6] >> 40)] ^ IT[6][(byte)(x[7] >> 48)] ^ IT[7][(byte)(x[0] >> 56)];
y[2] = k[2] ^ IT[0][(byte)x[2]] ^ IT[1][(byte)(x[3] >> 8)] ^ IT[2][(byte)(x[4] >> 16)] ^ IT[3][(byte)(x[5] >> 24)] ^
IT[4][(byte)(x[6] >> 32)] ^ IT[5][(byte)(x[7] >> 40)] ^ IT[6][(byte)(x[0] >> 48)] ^ IT[7][(byte)(x[1] >> 56)];
y[3] = k[3] ^ IT[0][(byte)x[3]] ^ IT[1][(byte)(x[4] >> 8)] ^ IT[2][(byte)(x[5] >> 16)] ^ IT[3][(byte)(x[6] >> 24)] ^
IT[4][(byte)(x[7] >> 32)] ^ IT[5][(byte)(x[0] >> 40)] ^ IT[6][(byte)(x[1] >> 48)] ^ IT[7][(byte)(x[2] >> 56)];
y[4] = k[4] ^ IT[0][(byte)x[4]] ^ IT[1][(byte)(x[5] >> 8)] ^ IT[2][(byte)(x[6] >> 16)] ^ IT[3][(byte)(x[7] >> 24)] ^
IT[4][(byte)(x[0] >> 32)] ^ IT[5][(byte)(x[1] >> 40)] ^ IT[6][(byte)(x[2] >> 48)] ^ IT[7][(byte)(x[3] >> 56)];
y[5] = k[5] ^ IT[0][(byte)x[5]] ^ IT[1][(byte)(x[6] >> 8)] ^ IT[2][(byte)(x[7] >> 16)] ^ IT[3][(byte)(x[0] >> 24)] ^
IT[4][(byte)(x[1] >> 32)] ^ IT[5][(byte)(x[2] >> 40)] ^ IT[6][(byte)(x[3] >> 48)] ^ IT[7][(byte)(x[4] >> 56)];
y[6] = k[6] ^ IT[0][(byte)x[6]] ^ IT[1][(byte)(x[7] >> 8)] ^ IT[2][(byte)(x[0] >> 16)] ^ IT[3][(byte)(x[1] >> 24)] ^
IT[4][(byte)(x[2] >> 32)] ^ IT[5][(byte)(x[3] >> 40)] ^ IT[6][(byte)(x[4] >> 48)] ^ IT[7][(byte)(x[5] >> 56)];
y[7] = k[7] ^ IT[0][(byte)x[7]] ^ IT[1][(byte)(x[0] >> 8)] ^ IT[2][(byte)(x[1] >> 16)] ^ IT[3][(byte)(x[2] >> 24)] ^
IT[4][(byte)(x[3] >> 32)] ^ IT[5][(byte)(x[4] >> 40)] ^ IT[6][(byte)(x[5] >> 48)] ^ IT[7][(byte)(x[6] >> 56)];
}
inline void IGL128(const word64 x[2], word64 y[2], const word64 k[2])
{
y[0] = (word64(IS[0][(byte)x[0]]) ^ word64(IS[1][(byte)(x[0] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[0] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[0] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[1] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[1] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[1] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[1] >> 56)]) << 56) - k[0];
y[1] = (word64(IS[0][(byte)x[1]]) ^ word64(IS[1][(byte)(x[1] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[1] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[1] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[0] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[0] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[0] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[0] >> 56)]) << 56) - k[1];
}
inline void IGL256(const word64 x[4], word64 y[4], const word64 k[4])
{
y[0] = (word64(IS[0][(byte)x[0]]) ^ word64(IS[1][(byte)(x[0] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[1] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[1] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[2] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[2] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[3] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[3] >> 56)]) << 56) - k[0];
y[1] = (word64(IS[0][(byte)x[1]]) ^ word64(IS[1][(byte)(x[1] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[2] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[2] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[3] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[3] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[0] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[0] >> 56)]) << 56) - k[1];
y[2] = (word64(IS[0][(byte)x[2]]) ^ word64(IS[1][(byte)(x[2] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[3] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[3] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[0] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[0] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[1] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[1] >> 56)]) << 56) - k[2];
y[3] = (word64(IS[0][(byte)x[3]]) ^ word64(IS[1][(byte)(x[3] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[0] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[0] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[1] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[1] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[2] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[2] >> 56)]) << 56) - k[3];
}
inline void IGL512(const word64 x[8], word64 y[8], const word64 k[8])
{
y[0] = (word64(IS[0][(byte)x[0]]) ^ word64(IS[1][(byte)(x[1] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[2] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[3] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[4] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[5] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[6] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[7] >> 56)]) << 56) - k[0];
y[1] = (word64(IS[0][(byte)x[1]]) ^ word64(IS[1][(byte)(x[2] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[3] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[4] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[5] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[6] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[7] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[0] >> 56)]) << 56) - k[1];
y[2] = (word64(IS[0][(byte)x[2]]) ^ word64(IS[1][(byte)(x[3] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[4] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[5] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[6] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[7] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[0] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[1] >> 56)]) << 56) - k[2];
y[3] = (word64(IS[0][(byte)x[3]]) ^ word64(IS[1][(byte)(x[4] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[5] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[6] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[7] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[0] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[1] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[2] >> 56)]) << 56) - k[3];
y[4] = (word64(IS[0][(byte)x[4]]) ^ word64(IS[1][(byte)(x[5] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[6] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[7] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[0] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[1] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[2] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[3] >> 56)]) << 56) - k[4];
y[5] = (word64(IS[0][(byte)x[5]]) ^ word64(IS[1][(byte)(x[6] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[7] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[0] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[1] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[2] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[3] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[4] >> 56)]) << 56) - k[5];
y[6] = (word64(IS[0][(byte)x[6]]) ^ word64(IS[1][(byte)(x[7] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[0] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[1] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[2] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[3] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[4] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[5] >> 56)]) << 56) - k[6];
y[7] = (word64(IS[0][(byte)x[7]]) ^ word64(IS[1][(byte)(x[0] >> 8)]) << 8 ^ word64(IS[2][(byte)(x[1] >> 16)]) << 16 ^ word64(IS[3][(byte)(x[2] >> 24)]) << 24 ^
word64(IS[0][(byte)(x[3] >> 32)]) << 32 ^ word64(IS[1][(byte)(x[4] >> 40)]) << 40 ^ word64(IS[2][(byte)(x[5] >> 48)]) << 48 ^ word64(IS[3][(byte)(x[6] >> 56)]) << 56) - k[7];
}
inline void G128(const word64 x[2], word64 y[2], const word64 k[2])
{
y[0] = k[0] ^ T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = k[1] ^ T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
inline void G256(const word64 x[4], word64 y[4], const word64 k[4])
{
y[0] = k[0] ^ T[0][(byte)x[0]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = k[1] ^ T[0][(byte)x[1]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[2] >> 56)];
y[2] = k[2] ^ T[0][(byte)x[2]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[3] >> 56)];
y[3] = k[3] ^ T[0][(byte)x[3]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
inline void G512(const word64 x[8], word64 y[8], const word64 k[8])
{
y[0] = k[0] ^ T[0][(byte)x[0]] ^ T[1][(byte)(x[7] >> 8)] ^ T[2][(byte)(x[6] >> 16)] ^ T[3][(byte)(x[5] >> 24)] ^
T[4][(byte)(x[4] >> 32)] ^ T[5][(byte)(x[3] >> 40)] ^ T[6][(byte)(x[2] >> 48)] ^ T[7][(byte)(x[1] >> 56)];
y[1] = k[1] ^ T[0][(byte)x[1]] ^ T[1][(byte)(x[0] >> 8)] ^ T[2][(byte)(x[7] >> 16)] ^ T[3][(byte)(x[6] >> 24)] ^
T[4][(byte)(x[5] >> 32)] ^ T[5][(byte)(x[4] >> 40)] ^ T[6][(byte)(x[3] >> 48)] ^ T[7][(byte)(x[2] >> 56)];
y[2] = k[2] ^ T[0][(byte)x[2]] ^ T[1][(byte)(x[1] >> 8)] ^ T[2][(byte)(x[0] >> 16)] ^ T[3][(byte)(x[7] >> 24)] ^
T[4][(byte)(x[6] >> 32)] ^ T[5][(byte)(x[5] >> 40)] ^ T[6][(byte)(x[4] >> 48)] ^ T[7][(byte)(x[3] >> 56)];
y[3] = k[3] ^ T[0][(byte)x[3]] ^ T[1][(byte)(x[2] >> 8)] ^ T[2][(byte)(x[1] >> 16)] ^ T[3][(byte)(x[0] >> 24)] ^
T[4][(byte)(x[7] >> 32)] ^ T[5][(byte)(x[6] >> 40)] ^ T[6][(byte)(x[5] >> 48)] ^ T[7][(byte)(x[4] >> 56)];
y[4] = k[4] ^ T[0][(byte)x[4]] ^ T[1][(byte)(x[3] >> 8)] ^ T[2][(byte)(x[2] >> 16)] ^ T[3][(byte)(x[1] >> 24)] ^
T[4][(byte)(x[0] >> 32)] ^ T[5][(byte)(x[7] >> 40)] ^ T[6][(byte)(x[6] >> 48)] ^ T[7][(byte)(x[5] >> 56)];
y[5] = k[5] ^ T[0][(byte)x[5]] ^ T[1][(byte)(x[4] >> 8)] ^ T[2][(byte)(x[3] >> 16)] ^ T[3][(byte)(x[2] >> 24)] ^
T[4][(byte)(x[1] >> 32)] ^ T[5][(byte)(x[0] >> 40)] ^ T[6][(byte)(x[7] >> 48)] ^ T[7][(byte)(x[6] >> 56)];
y[6] = k[6] ^ T[0][(byte)x[6]] ^ T[1][(byte)(x[5] >> 8)] ^ T[2][(byte)(x[4] >> 16)] ^ T[3][(byte)(x[3] >> 24)] ^
T[4][(byte)(x[2] >> 32)] ^ T[5][(byte)(x[1] >> 40)] ^ T[6][(byte)(x[0] >> 48)] ^ T[7][(byte)(x[7] >> 56)];
y[7] = k[7] ^ T[0][(byte)x[7]] ^ T[1][(byte)(x[6] >> 8)] ^ T[2][(byte)(x[5] >> 16)] ^ T[3][(byte)(x[4] >> 24)] ^
T[4][(byte)(x[3] >> 32)] ^ T[5][(byte)(x[2] >> 40)] ^ T[6][(byte)(x[1] >> 48)] ^ T[7][(byte)(x[0] >> 56)];
}
ANONYMOUS_NAMESPACE_END
NAMESPACE_BEGIN(CryptoPP)
// *********************** UncheckedSetKey specializations *********************** //
void Kalyna128::Base::SetKey_22(const word64 key[2])
{
word64 *ks = m_wspace+0, *ksc = m_wspace+2, *t1 = m_wspace+4;
word64 *t2 = m_wspace+6, *k = m_wspace+8, *kswapped = m_wspace+10;
memset(t1, 0, 2*8);
t1[0] = (128 + 128 + 64) / 64;
AddKey<2>(t1, t2, key);
G128(t2, t1, key);
GL128(t1, t2, key);
G0128(t2, ks);
word64 constant = W64LIT(0x0001000100010001);
// round 0
memcpy(k, key, 16);
kswapped[1] = k[0];
kswapped[0] = k[1];
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[0], ksc);
MakeOddKey<2>(&m_rkeys[0], &m_rkeys[2]);
// round 2
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(kswapped, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[4], ksc);
MakeOddKey<2>(&m_rkeys[4], &m_rkeys[6]);
// round 4
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[8], ksc);
MakeOddKey<2>(&m_rkeys[8], &m_rkeys[10]);
// round 6
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(kswapped, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[12], ksc);
MakeOddKey<2>(&m_rkeys[12], &m_rkeys[14]);
// round 8
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[16], ksc);
MakeOddKey<2>(&m_rkeys[16], &m_rkeys[18]);
// round 10
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(kswapped, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[20], ksc);
if (!IsForwardTransformation())
{
IMC128(&m_rkeys[18]); IMC128(&m_rkeys[16]);
IMC128(&m_rkeys[14]); IMC128(&m_rkeys[12]);
IMC128(&m_rkeys[10]); IMC128(&m_rkeys[ 8]);
IMC128(&m_rkeys[ 6]); IMC128(&m_rkeys[ 4]);
IMC128(&m_rkeys[ 2]);
}
}
void Kalyna128::Base::SetKey_24(const word64 key[4])
{
word64 *ks = m_wspace+0, *ksc = m_wspace+2, *t1 = m_wspace+4, *t2 = m_wspace+6;
word64 *k = m_wspace+8, *ka = m_wspace+12, *ko = m_wspace+14;
memset(t1, 0, 2*8);
t1[0] = (128 + 256 + 64) / 64;
memcpy(ka, key, 16);
memcpy(ko, key + 2, 16);
AddKey<2>(t1, t2, ka);
G128(t2, t1, ko);
GL128(t1, t2, ka);
G0128(t2, ks);
word64 constant = W64LIT(0x0001000100010001);
// round 0
memcpy(k, key, 256 / 8);
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[0], ksc);
MakeOddKey<2>(&m_rkeys[0], &m_rkeys[2]);
// round 2
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k + 2, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[4], ksc);
MakeOddKey<2>(&m_rkeys[4], &m_rkeys[6]);
// round 4
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[8], ksc);
MakeOddKey<2>(&m_rkeys[8], &m_rkeys[10]);
// round 6
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k + 2, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[12], ksc);
MakeOddKey<2>(&m_rkeys[12], &m_rkeys[14]);
// round 8
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[16], ksc);
MakeOddKey<2>(&m_rkeys[16], &m_rkeys[18]);
// round 10
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k + 2, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[20], ksc);
MakeOddKey<2>(&m_rkeys[20], &m_rkeys[22]);
// round 12
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[24], ksc);
MakeOddKey<2>(&m_rkeys[24], &m_rkeys[26]);
// round 14
constant <<= 1;
AddConstant<2>(ks, ksc, constant);
AddKey<2>(k + 2, t2, ksc);
G128(t2, t1, ksc);
GL128(t1, &m_rkeys[28], ksc);
if (!IsForwardTransformation())
{
IMC128(&m_rkeys[26]);
IMC128(&m_rkeys[24]);
IMC128(&m_rkeys[22]);
IMC128(&m_rkeys[20]);
IMC128(&m_rkeys[18]);
IMC128(&m_rkeys[16]);
IMC128(&m_rkeys[14]);
IMC128(&m_rkeys[12]);
IMC128(&m_rkeys[10]);
IMC128(&m_rkeys[8]);
IMC128(&m_rkeys[6]);
IMC128(&m_rkeys[4]);
IMC128(&m_rkeys[2]);
}
}
void Kalyna256::Base::SetKey_44(const word64 key[4])
{
word64 *ks = m_wspace+0, *ksc = m_wspace+4, *t1 = m_wspace+8;
word64 *t2 = m_wspace+12, *k = m_wspace+16;
memset(t1, 0, 32);
t1[0] = (256 + 256 + 64) / 64;
AddKey<4>(t1, t2, key);
G256(t2, t1, key);
GL256(t1, t2, key);
G0256(t2, ks);
word64 constant = W64LIT(0x0001000100010001);
// round 0
memcpy(k, key, 32);
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[0], ksc);
MakeOddKey<4>(&m_rkeys[0], &m_rkeys[4]);
// round 2
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[8], ksc);
MakeOddKey<4>(&m_rkeys[8], &m_rkeys[12]);
// round 4
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[16], ksc);
MakeOddKey<4>(&m_rkeys[16], &m_rkeys[20]);
// round 6
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[24], ksc);
MakeOddKey<4>(&m_rkeys[24], &m_rkeys[28]);
// round 8
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[32], ksc);
MakeOddKey<4>(&m_rkeys[32], &m_rkeys[36]);
// round 10
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[40], ksc);
MakeOddKey<4>(&m_rkeys[40], &m_rkeys[44]);
// round 12
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[48], ksc);
MakeOddKey<4>(&m_rkeys[48], &m_rkeys[52]);
// round 14
SwapBlocks<4>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[56], ksc);
if (!IsForwardTransformation())
{
IMC256(&m_rkeys[52]);
IMC256(&m_rkeys[48]);
IMC256(&m_rkeys[44]);
IMC256(&m_rkeys[40]);
IMC256(&m_rkeys[36]);
IMC256(&m_rkeys[32]);
IMC256(&m_rkeys[28]);
IMC256(&m_rkeys[24]);
IMC256(&m_rkeys[20]);
IMC256(&m_rkeys[16]);
IMC256(&m_rkeys[12]);
IMC256(&m_rkeys[8]);
IMC256(&m_rkeys[4]);
}
}
void Kalyna256::Base::SetKey_48(const word64 key[8])
{
word64 *ks = m_wspace+0, *ksc = m_wspace+4, *t1 = m_wspace+8, *t2 = m_wspace+12;
word64 *k = m_wspace+16, *ka = m_wspace+24, *ko = m_wspace+28;
memset(t1, 0, 4*8);
t1[0] = (512 + 256 + 64) / 64;
memcpy(ka, key, 32);
memcpy(ko, key+4, 32);
AddKey<4>(t1, t2, ka);
G256(t2, t1, ko);
GL256(t1, t2, ka);
G0256(t2, ks);
word64 constant = W64LIT(0x0001000100010001);
// round 0
memcpy(k, key, 512 / 8);
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[0], ksc);
MakeOddKey<4>(&m_rkeys[0], &m_rkeys[4]);
// round 2
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k+4, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[8], ksc);
MakeOddKey<4>(&m_rkeys[8], &m_rkeys[12]);
// round 4
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[16], ksc);
MakeOddKey<4>(&m_rkeys[16], &m_rkeys[20]);
// round 6
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k+4, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[24], ksc);
MakeOddKey<4>(&m_rkeys[24], &m_rkeys[28]);
// round 8
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[32], ksc);
MakeOddKey<4>(&m_rkeys[32], &m_rkeys[36]);
// round 10
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k+4, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[40], ksc);
MakeOddKey<4>(&m_rkeys[40], &m_rkeys[44]);
// round 12
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[48], ksc);
MakeOddKey<4>(&m_rkeys[48], &m_rkeys[52]);
// round 14
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k+4, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[56], ksc);
MakeOddKey<4>(&m_rkeys[56], &m_rkeys[60]);
// round 16
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[64], ksc);
MakeOddKey<4>(&m_rkeys[64], &m_rkeys[68]);
// round 18
constant <<= 1;
AddConstant<4>(ks, ksc, constant);
AddKey<4>(k+4, t2, ksc);
G256(t2, t1, ksc);
GL256(t1, &m_rkeys[72], ksc);
if (!IsForwardTransformation())
{
IMC256(&m_rkeys[68]);
IMC256(&m_rkeys[64]);
IMC256(&m_rkeys[60]);
IMC256(&m_rkeys[56]);
IMC256(&m_rkeys[52]);
IMC256(&m_rkeys[48]);
IMC256(&m_rkeys[44]);
IMC256(&m_rkeys[40]);
IMC256(&m_rkeys[36]);
IMC256(&m_rkeys[32]);
IMC256(&m_rkeys[28]);
IMC256(&m_rkeys[24]);
IMC256(&m_rkeys[20]);
IMC256(&m_rkeys[16]);
IMC256(&m_rkeys[12]);
IMC256(&m_rkeys[8]);
IMC256(&m_rkeys[4]);
}
}
void Kalyna512::Base::SetKey_88(const word64 key[8])
{
word64 *ks = m_wspace+0, *ksc = m_wspace+8, *t1 = m_wspace+16;
word64 *t2 = m_wspace+24, *k = m_wspace+32;
memset(t1, 0, 8*8);
t1[0] = (512 + 512 + 64) / 64;
AddKey<8>(t1, t2, key);
G512(t2, t1, key);
GL512(t1, t2, key);
G0512(t2, ks);
word64 constant = W64LIT(0x0001000100010001);
// round 0
memcpy(k, key, 512 / 8);
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[0], ksc);
MakeOddKey<8>(&m_rkeys[0], &m_rkeys[8]);
// round 2
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[16], ksc);
MakeOddKey<8>(&m_rkeys[16], &m_rkeys[24]);
// round 4
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[32], ksc);
MakeOddKey<8>(&m_rkeys[32], &m_rkeys[40]);
// round 6
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[48], ksc);
MakeOddKey<8>(&m_rkeys[48], &m_rkeys[56]);
// round 8
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[64], ksc);
MakeOddKey<8>(&m_rkeys[64], &m_rkeys[72]);
// round 10
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[80], ksc);
MakeOddKey<8>(&m_rkeys[80], &m_rkeys[88]);
// round 12
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[96], ksc);
MakeOddKey<8>(&m_rkeys[96], &m_rkeys[104]);
// round 14
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[112], ksc);
MakeOddKey<8>(&m_rkeys[112], &m_rkeys[120]);
// round 16
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[128], ksc);
MakeOddKey<8>(&m_rkeys[128], &m_rkeys[136]);
// round 18
SwapBlocks<8>(k);
constant <<= 1;
AddConstant<8>(ks, ksc, constant);
AddKey<8>(k, t2, ksc);
G512(t2, t1, ksc);
GL512(t1, &m_rkeys[144], ksc);
if (!IsForwardTransformation())
{
IMC512(&m_rkeys[136]); IMC512(&m_rkeys[128]); IMC512(&m_rkeys[120]); IMC512(&m_rkeys[112]);
IMC512(&m_rkeys[104]); IMC512(&m_rkeys[ 96]); IMC512(&m_rkeys[ 88]); IMC512(&m_rkeys[ 80]);
IMC512(&m_rkeys[ 72]); IMC512(&m_rkeys[ 64]); IMC512(&m_rkeys[ 56]); IMC512(&m_rkeys[ 48]);
IMC512(&m_rkeys[ 40]); IMC512(&m_rkeys[ 32]); IMC512(&m_rkeys[ 24]); IMC512(&m_rkeys[ 16]);
IMC512(&m_rkeys[ 8]);
}
}
// *********************** ProcessAndXorBlock specializations *********************** //
void Kalyna128::Base::ProcessBlock_22(const word64 inBlock[2], const word64 xorBlock[2], word64 outBlock[2]) const
{
word64 *t1 = m_wspace+0, *t2 = m_wspace+2, *msg = m_wspace+4;
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef GetBlock<word64, LittleEndian, false> InBlock;
InBlock iblk(inBlock);
iblk(msg[0])(msg[1]);
inBlock = msg;
if (IsForwardTransformation())
{
AddKey<2>(inBlock, t1, m_rkeys);
G128(t1, t2, &m_rkeys[2]); // 1
G128(t2, t1, &m_rkeys[4]); // 2
G128(t1, t2, &m_rkeys[6]); // 3
G128(t2, t1, &m_rkeys[8]); // 4
G128(t1, t2, &m_rkeys[10]); // 5
G128(t2, t1, &m_rkeys[12]); // 6
G128(t1, t2, &m_rkeys[14]); // 7
G128(t2, t1, &m_rkeys[16]); // 8
G128(t1, t2, &m_rkeys[18]); // 9
GL128(t2, t1, &m_rkeys[20]); // 10
}
else
{
SubKey<2>(inBlock, t1, &m_rkeys[20]);
IMC128(t1);
IG128(t1, t2, &m_rkeys[18]);
IG128(t2, t1, &m_rkeys[16]);
IG128(t1, t2, &m_rkeys[14]);
IG128(t2, t1, &m_rkeys[12]);
IG128(t1, t2, &m_rkeys[10]);
IG128(t2, t1, &m_rkeys[8]);
IG128(t1, t2, &m_rkeys[6]);
IG128(t2, t1, &m_rkeys[4]);
IG128(t1, t2, &m_rkeys[2]);
IGL128(t2, t1, &m_rkeys[0]);
}
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef PutBlock<word64, LittleEndian, false> OutBlock;
OutBlock oblk(xorBlock, outBlock);
oblk(t1[0])(t1[1]);
}
void Kalyna128::Base::ProcessBlock_24(const word64 inBlock[2], const word64 xorBlock[2], word64 outBlock[2]) const
{
word64 *t1 = m_wspace+0, *t2 = m_wspace+2, *msg = m_wspace+4;
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef GetBlock<word64, LittleEndian, false> InBlock;
InBlock iblk(inBlock);
iblk(msg[0])(msg[1]);
inBlock = msg;
if (IsForwardTransformation())
{
AddKey<2>(inBlock, t1, m_rkeys);
G128(t1, t2, &m_rkeys[ 2]); // 1
G128(t2, t1, &m_rkeys[ 4]); // 2
G128(t1, t2, &m_rkeys[ 6]); // 3
G128(t2, t1, &m_rkeys[ 8]); // 4
G128(t1, t2, &m_rkeys[10]); // 5
G128(t2, t1, &m_rkeys[12]); // 6
G128(t1, t2, &m_rkeys[14]); // 7
G128(t2, t1, &m_rkeys[16]); // 8
G128(t1, t2, &m_rkeys[18]); // 9
G128(t2, t1, &m_rkeys[20]); // 10
G128(t1, t2, &m_rkeys[22]); // 11
G128(t2, t1, &m_rkeys[24]); // 12
G128(t1, t2, &m_rkeys[26]); // 13
GL128(t2, t1, &m_rkeys[28]); // 14
}
else
{
SubKey<2>(inBlock, t1, &m_rkeys[28]);
IMC128(t1);
IG128(t1, t2, &m_rkeys[26]);
IG128(t2, t1, &m_rkeys[24]);
IG128(t1, t2, &m_rkeys[22]);
IG128(t2, t1, &m_rkeys[20]);
IG128(t1, t2, &m_rkeys[18]);
IG128(t2, t1, &m_rkeys[16]);
IG128(t1, t2, &m_rkeys[14]);
IG128(t2, t1, &m_rkeys[12]);
IG128(t1, t2, &m_rkeys[10]);
IG128(t2, t1, &m_rkeys[8]);
IG128(t1, t2, &m_rkeys[6]);
IG128(t2, t1, &m_rkeys[4]);
IG128(t1, t2, &m_rkeys[2]);
IGL128(t2, t1, &m_rkeys[0]);
}
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef PutBlock<word64, LittleEndian, false> OutBlock;
OutBlock oblk(xorBlock, outBlock);
oblk(t1[0])(t1[1]);
}
void Kalyna256::Base::ProcessBlock_44(const word64 inBlock[4], const word64 xorBlock[4], word64 outBlock[4]) const
{
word64 *t1 = m_wspace+0, *t2 = m_wspace+4, *msg = m_wspace+8;
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef GetBlock<word64, LittleEndian, false> InBlock;
InBlock iblk(inBlock);
iblk(msg[0])(msg[1])(msg[2])(msg[3]);
inBlock = msg;
if (IsForwardTransformation())
{
AddKey<4>(inBlock, t1, m_rkeys);
G256(t1, t2, &m_rkeys[4]); // 1
G256(t2, t1, &m_rkeys[8]); // 2
G256(t1, t2, &m_rkeys[12]); // 3
G256(t2, t1, &m_rkeys[16]); // 4
G256(t1, t2, &m_rkeys[20]); // 5
G256(t2, t1, &m_rkeys[24]); // 6
G256(t1, t2, &m_rkeys[28]); // 7
G256(t2, t1, &m_rkeys[32]); // 8
G256(t1, t2, &m_rkeys[36]); // 9
G256(t2, t1, &m_rkeys[40]); // 10
G256(t1, t2, &m_rkeys[44]); // 11
G256(t2, t1, &m_rkeys[48]); // 12
G256(t1, t2, &m_rkeys[52]); // 13
GL256(t2, t1, &m_rkeys[56]); // 14
}
else
{
SubKey<4>(inBlock, t1, &m_rkeys[56]);
IMC256(t1);
IG256(t1, t2, &m_rkeys[52]);
IG256(t2, t1, &m_rkeys[48]);
IG256(t1, t2, &m_rkeys[44]);
IG256(t2, t1, &m_rkeys[40]);
IG256(t1, t2, &m_rkeys[36]);
IG256(t2, t1, &m_rkeys[32]);
IG256(t1, t2, &m_rkeys[28]);
IG256(t2, t1, &m_rkeys[24]);
IG256(t1, t2, &m_rkeys[20]);
IG256(t2, t1, &m_rkeys[16]);
IG256(t1, t2, &m_rkeys[12]);
IG256(t2, t1, &m_rkeys[8]);
IG256(t1, t2, &m_rkeys[4]);
IGL256(t2, t1, &m_rkeys[0]);
}
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef PutBlock<word64, LittleEndian, false> OutBlock;
OutBlock oblk(xorBlock, outBlock);
oblk(t1[0])(t1[1])(t1[2])(t1[3]);
}
void Kalyna256::Base::ProcessBlock_48(const word64 inBlock[4], const word64 xorBlock[4], word64 outBlock[4]) const
{
word64 *t1 = m_wspace+0, *t2 = m_wspace+4, *msg = m_wspace+8;
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef GetBlock<word64, LittleEndian, false> InBlock;
InBlock iblk(inBlock);
iblk(msg[0])(msg[1])(msg[2])(msg[3]);
inBlock = msg;
if (IsForwardTransformation())
{
AddKey<4>(inBlock, t1, m_rkeys);
G256(t1, t2, &m_rkeys[4]); // 1
G256(t2, t1, &m_rkeys[8]); // 2
G256(t1, t2, &m_rkeys[12]); // 3
G256(t2, t1, &m_rkeys[16]); // 4
G256(t1, t2, &m_rkeys[20]); // 5
G256(t2, t1, &m_rkeys[24]); // 6
G256(t1, t2, &m_rkeys[28]); // 7
G256(t2, t1, &m_rkeys[32]); // 8
G256(t1, t2, &m_rkeys[36]); // 9
G256(t2, t1, &m_rkeys[40]); // 10
G256(t1, t2, &m_rkeys[44]); // 11
G256(t2, t1, &m_rkeys[48]); // 12
G256(t1, t2, &m_rkeys[52]); // 13
G256(t2, t1, &m_rkeys[56]); // 14
G256(t1, t2, &m_rkeys[60]); // 15
G256(t2, t1, &m_rkeys[64]); // 16
G256(t1, t2, &m_rkeys[68]); // 17
GL256(t2, t1, &m_rkeys[72]); // 18
}
else
{
SubKey<4>(inBlock, t1, &m_rkeys[72]);
IMC256(t1);
IG256(t1, t2, &m_rkeys[68]);
IG256(t2, t1, &m_rkeys[64]);
IG256(t1, t2, &m_rkeys[60]);
IG256(t2, t1, &m_rkeys[56]);
IG256(t1, t2, &m_rkeys[52]);
IG256(t2, t1, &m_rkeys[48]);
IG256(t1, t2, &m_rkeys[44]);
IG256(t2, t1, &m_rkeys[40]);
IG256(t1, t2, &m_rkeys[36]);
IG256(t2, t1, &m_rkeys[32]);
IG256(t1, t2, &m_rkeys[28]);
IG256(t2, t1, &m_rkeys[24]);
IG256(t1, t2, &m_rkeys[20]);
IG256(t2, t1, &m_rkeys[16]);
IG256(t1, t2, &m_rkeys[12]);
IG256(t2, t1, &m_rkeys[8]);
IG256(t1, t2, &m_rkeys[4]);
IGL256(t2, t1, &m_rkeys[0]);
}
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef PutBlock<word64, LittleEndian, false> OutBlock;
OutBlock oblk(xorBlock, outBlock);
oblk(t1[0])(t1[1])(t1[2])(t1[3]);
}
void Kalyna512::Base::ProcessBlock_88(const word64 inBlock[8], const word64 xorBlock[8], word64 outBlock[8]) const
{
word64 *t1 = m_wspace+0, *t2 = m_wspace+8, *msg = m_wspace+16;
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef GetBlock<word64, LittleEndian, false> InBlock;
InBlock iblk(inBlock);
iblk(msg[0])(msg[1])(msg[2])(msg[3])(msg[4])(msg[5])(msg[6])(msg[7]);
inBlock = msg;
if (IsForwardTransformation())
{
AddKey<8>(inBlock, t1, m_rkeys);
G512(t1, t2, &m_rkeys[8]); // 1
G512(t2, t1, &m_rkeys[16]); // 2
G512(t1, t2, &m_rkeys[24]); // 3
G512(t2, t1, &m_rkeys[32]); // 4
G512(t1, t2, &m_rkeys[40]); // 5
G512(t2, t1, &m_rkeys[48]); // 6
G512(t1, t2, &m_rkeys[56]); // 7
G512(t2, t1, &m_rkeys[64]); // 8
G512(t1, t2, &m_rkeys[72]); // 9
G512(t2, t1, &m_rkeys[80]); // 10
G512(t1, t2, &m_rkeys[88]); // 11
G512(t2, t1, &m_rkeys[96]); // 12
G512(t1, t2, &m_rkeys[104]); // 13
G512(t2, t1, &m_rkeys[112]); // 14
G512(t1, t2, &m_rkeys[120]); // 15
G512(t2, t1, &m_rkeys[128]); // 16
G512(t1, t2, &m_rkeys[136]); // 17
GL512(t2, t1, &m_rkeys[144]); // 18
}
else
{
SubKey<8>(inBlock, t1, &m_rkeys[144]);
IMC512(t1);
IG512(t1, t2, &m_rkeys[136]);
IG512(t2, t1, &m_rkeys[128]);
IG512(t1, t2, &m_rkeys[120]);
IG512(t2, t1, &m_rkeys[112]);
IG512(t1, t2, &m_rkeys[104]);
IG512(t2, t1, &m_rkeys[96]);
IG512(t1, t2, &m_rkeys[88]);
IG512(t2, t1, &m_rkeys[80]);
IG512(t1, t2, &m_rkeys[72]);
IG512(t2, t1, &m_rkeys[64]);
IG512(t1, t2, &m_rkeys[56]);
IG512(t2, t1, &m_rkeys[48]);
IG512(t1, t2, &m_rkeys[40]);
IG512(t2, t1, &m_rkeys[32]);
IG512(t1, t2, &m_rkeys[24]);
IG512(t2, t1, &m_rkeys[16]);
IG512(t1, t2, &m_rkeys[8]);
IGL512(t2, t1, &m_rkeys[0]);
}
// Reverse bytes on BigEndian; Align pointer on LittleEndian
typedef PutBlock<word64, LittleEndian, false> OutBlock;
OutBlock oblk(xorBlock, outBlock);
oblk(t1[0])(t1[1])(t1[2])(t1[3])(t1[4])(t1[5])(t1[6])(t1[7]);
}
// *********************** Library routines *********************** //
void Kalyna128::Base::UncheckedSetKey(const byte *key, unsigned int keylen, const NameValuePairs &params)
{
CRYPTOPP_UNUSED(params);
m_nb = static_cast<unsigned int>(16U / sizeof(word64));
m_nk = static_cast<unsigned int>(keylen / sizeof(word64));
switch (keylen)
{
case 16: // 128
m_kl = 16;
m_mkey.New(2);
m_rkeys.New(11*2);
m_wspace.New(2*6);
GetUserKey(LITTLE_ENDIAN_ORDER, m_mkey.begin(), 2, key, 16);
SetKey_22(m_mkey.begin());
break;
case 32: // 256
m_kl = 32;
m_mkey.New(4);
m_rkeys.New(15*2);
m_wspace.New(6*2+4);
GetUserKey(LITTLE_ENDIAN_ORDER, m_mkey.begin(), 4, key, 32);
SetKey_24(m_mkey.begin());
break;
default:
CRYPTOPP_ASSERT(0);
}
}
void Kalyna128::Base::ProcessAndXorBlock(const byte *inBlock, const byte *xorBlock, byte *outBlock) const
{
// Timing attack countermeasure. see comments in Rijndael for more details
const int cacheLineSize = GetCacheLineSize();
volatile word64 _u = 0;
word64 u = _u;
const byte* p = reinterpret_cast<const byte*>(KalynaTab::S);
for (unsigned int i=0; i<256; i+=cacheLineSize)
u ^= *reinterpret_cast<const word64*>(p+i);
m_wspace[0] = u;
switch ((m_nb << 8) | m_nk)
{
case (2 << 8) | 2:
ProcessBlock_22(reinterpret_cast<const word64*>(inBlock),
reinterpret_cast<const word64*>(xorBlock), reinterpret_cast<word64*>(outBlock));
break;
case (2 << 8) | 4:
ProcessBlock_24(reinterpret_cast<const word64*>(inBlock),
reinterpret_cast<const word64*>(xorBlock), reinterpret_cast<word64*>(outBlock));
break;
default:
CRYPTOPP_ASSERT(0);
}
}
void Kalyna256::Base::UncheckedSetKey(const byte *key, unsigned int keylen, const NameValuePairs &params)
{
CRYPTOPP_UNUSED(params);
m_nb = static_cast<unsigned int>(32U / sizeof(word64));
m_nk = static_cast<unsigned int>(keylen / sizeof(word64));
switch (keylen)
{
case 32: // 256
m_kl = 32;
m_mkey.New(4);
m_rkeys.New(15*4);
m_wspace.New(5*4);
GetUserKey(LITTLE_ENDIAN_ORDER, m_mkey.begin(), 4, key, 32);
SetKey_44(m_mkey.begin());
break;
case 64: // 512
m_kl = 64;
m_mkey.New(8);
m_rkeys.New(19*4);
m_wspace.New(6*4+8);
GetUserKey(LITTLE_ENDIAN_ORDER, m_mkey.begin(), 8, key, 64);
SetKey_48(m_mkey.begin());
break;
default:
CRYPTOPP_ASSERT(0);
}
}
void Kalyna256::Base::ProcessAndXorBlock(const byte *inBlock, const byte *xorBlock, byte *outBlock) const
{
// Timing attack countermeasure. see comments in Rijndael for more details
const int cacheLineSize = GetCacheLineSize();
volatile word64 _u = 0;
word64 u = _u;
const byte* p = reinterpret_cast<const byte*>(KalynaTab::S);
for (unsigned int i=0; i<256; i+=cacheLineSize)
u ^= *reinterpret_cast<const word64*>(p+i);
m_wspace[0] = u;
switch ((m_nb << 8) | m_nk)
{
case (4 << 8) | 4:
ProcessBlock_44(reinterpret_cast<const word64*>(inBlock),
reinterpret_cast<const word64*>(xorBlock), reinterpret_cast<word64*>(outBlock));
break;
case (4 << 8) | 8:
ProcessBlock_48(reinterpret_cast<const word64*>(inBlock),
reinterpret_cast<const word64*>(xorBlock), reinterpret_cast<word64*>(outBlock));
break;
default:
CRYPTOPP_ASSERT(0);
}
}
void Kalyna512::Base::UncheckedSetKey(const byte *key, unsigned int keylen, const NameValuePairs &params)
{
CRYPTOPP_UNUSED(params);
m_nb = static_cast<unsigned int>(64U / sizeof(word64));
m_nk = static_cast<unsigned int>(keylen / sizeof(word64));
switch (keylen)
{
case 64: // 512
m_kl = 64;
m_nb = static_cast<unsigned int>(64U / sizeof(word64));
m_nk = static_cast<unsigned int>(keylen / sizeof(word64));
m_mkey.New(8);
m_rkeys.New(19*8);
m_wspace.New(5*8);
GetUserKey(LITTLE_ENDIAN_ORDER, m_mkey.begin(), 8, key, 64);
SetKey_88(m_mkey.begin());
break;
default:
CRYPTOPP_ASSERT(0);
}
}
void Kalyna512::Base::ProcessAndXorBlock(const byte *inBlock, const byte *xorBlock, byte *outBlock) const
{
// Timing attack countermeasure. see comments in Rijndael for more details
const int cacheLineSize = GetCacheLineSize();
volatile word64 _u = 0;
word64 u = _u;
const byte* p = reinterpret_cast<const byte*>(KalynaTab::S);
for (unsigned int i=0; i<256; i+=cacheLineSize)
u ^= *reinterpret_cast<const word64*>(p+i);
m_wspace[0] = u;
ProcessBlock_88(reinterpret_cast<const word64*>(inBlock),
reinterpret_cast<const word64*>(xorBlock), reinterpret_cast<word64*>(outBlock));
}
NAMESPACE_END
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