void ComputeBootloaderFingerprint (byte *bootLoaderBuf, unsigned int bootLoaderSize, byte* fingerprint)
{
// compute Whirlpool+SHA512 fingerprint of bootloader including MBR
// we skip user configuration fields:
// TC_BOOT_SECTOR_PIM_VALUE_OFFSET = 400
// TC_BOOT_SECTOR_OUTER_VOLUME_BAK_HEADER_CRC_OFFSET = 402
// => TC_BOOT_SECTOR_OUTER_VOLUME_BAK_HEADER_CRC_SIZE = 4
// TC_BOOT_SECTOR_USER_MESSAGE_OFFSET = 406
// => TC_BOOT_SECTOR_USER_MESSAGE_MAX_LENGTH = 24
// TC_BOOT_SECTOR_USER_CONFIG_OFFSET = 438
//
// we have: TC_BOOT_SECTOR_USER_MESSAGE_OFFSET = TC_BOOT_SECTOR_OUTER_VOLUME_BAK_HEADER_CRC_OFFSET + TC_BOOT_SECTOR_OUTER_VOLUME_BAK_HEADER_CRC_SIZE
WHIRLPOOL_CTX whirlpool;
sha512_ctx sha2;
WHIRLPOOL_init (&whirlpool);
sha512_begin (&sha2);
WHIRLPOOL_add (bootLoaderBuf, TC_BOOT_SECTOR_PIM_VALUE_OFFSET, &whirlpool);
sha512_hash (bootLoaderBuf, TC_BOOT_SECTOR_PIM_VALUE_OFFSET, &sha2);
WHIRLPOOL_add (bootLoaderBuf + TC_BOOT_SECTOR_USER_MESSAGE_OFFSET + TC_BOOT_SECTOR_USER_MESSAGE_MAX_LENGTH, (TC_BOOT_SECTOR_USER_CONFIG_OFFSET - (TC_BOOT_SECTOR_USER_MESSAGE_OFFSET + TC_BOOT_SECTOR_USER_MESSAGE_MAX_LENGTH)), &whirlpool);
sha512_hash (bootLoaderBuf + TC_BOOT_SECTOR_USER_MESSAGE_OFFSET + TC_BOOT_SECTOR_USER_MESSAGE_MAX_LENGTH, (TC_BOOT_SECTOR_USER_CONFIG_OFFSET - (TC_BOOT_SECTOR_USER_MESSAGE_OFFSET + TC_BOOT_SECTOR_USER_MESSAGE_MAX_LENGTH)), &sha2);
WHIRLPOOL_add (bootLoaderBuf + TC_BOOT_SECTOR_USER_CONFIG_OFFSET + 1, (TC_MAX_MBR_BOOT_CODE_SIZE - (TC_BOOT_SECTOR_USER_CONFIG_OFFSET + 1)), &whirlpool);
sha512_hash (bootLoaderBuf + TC_BOOT_SECTOR_USER_CONFIG_OFFSET + 1, (TC_MAX_MBR_BOOT_CODE_SIZE - (TC_BOOT_SECTOR_USER_CONFIG_OFFSET + 1)), &sha2);
WHIRLPOOL_add (bootLoaderBuf + TC_SECTOR_SIZE_BIOS, (bootLoaderSize - TC_SECTOR_SIZE_BIOS), &whirlpool);
sha512_hash (bootLoaderBuf + TC_SECTOR_SIZE_BIOS, (bootLoaderSize - TC_SECTOR_SIZE_BIOS), &sha2);
WHIRLPOOL_finalize (&whirlpool, fingerprint);
sha512_end (&fingerprint [WHIRLPOOL_DIGESTSIZE], &sha2);
}
alsz_snd_check_t ALSZOTExtSnd::UpdateCheckBuf(uint8_t* tocheckseed, uint8_t* tocheckrcv, uint64_t otid, uint64_t numblocks, channel* check_chan) {
uint64_t rowbytelen = m_nBlockSizeBytes * numblocks;
uint8_t* hash_buf = (uint8_t*) malloc(SHA512_DIGEST_LENGTH);
//uint8_t* tmpbuf = (uint8_t*) malloc(rowbytelen);
uint8_t** tmpbuf = (uint8_t**) malloc(2 * sizeof(uint8_t*));
uint8_t *idaptr, *idbptr;
alsz_snd_check_t check_buf;
check_buf.rcv_chk_buf = (uint8_t*) malloc(m_nChecks * OWF_BYTES);
check_buf.seed_chk_buf = (uint8_t*) malloc(m_nChecks * OWF_BYTES);
uint8_t *seedcheckbufptr = check_buf.seed_chk_buf, *rcvcheckbufptr = check_buf.rcv_chk_buf;
uint32_t iters = rowbytelen/sizeof(uint64_t);
for(uint32_t i = 0; i < 2; i++) {
tmpbuf[i] = (uint8_t*) malloc(rowbytelen);
}
check_buf.otid = otid;
check_buf.numblocks = numblocks;
check_buf.perm = (linking_t*) malloc(sizeof(linking_t*) * m_nChecks);
genRandomPermutation(check_buf.perm, m_nBaseOTs, m_nChecks);
//right now the rowbytelen needs to be a multiple of AES_BYTES
assert(ceil_divide(rowbytelen, OWF_BYTES) * OWF_BYTES == rowbytelen);
#ifdef DEBUG_ALSZ_CHECKS
cout << "rowbytelen = " << rowbytelen << endl;
m_vU.PrintHex();
#endif
uint8_t *pas, *pbs, *par, *pbr;
for(uint64_t i = 0; i < m_nChecks; i++, seedcheckbufptr+=OWF_BYTES, rcvcheckbufptr+=OWF_BYTES) {
//memset(tmpbuf, 0, rowbytelen);
#ifdef DEBUG_ALSZ_CHECKS
cout << i << "-th check between " << check_buf.perm[i].ida << " and " << check_buf.perm[i].idb << ": " << endl;
#endif
pas = tocheckseed + check_buf.perm[i].ida * rowbytelen;
pbs = tocheckseed + check_buf.perm[i].idb * rowbytelen;
par = tocheckrcv + check_buf.perm[i].ida * rowbytelen;
pbr = tocheckrcv + check_buf.perm[i].idb * rowbytelen;
for(uint64_t j = 0; j < iters; j++) {
((uint64_t*) tmpbuf[0])[j] = ((uint64_t*) pas)[j] ^ ((uint64_t*) pbs)[j];
((uint64_t*) tmpbuf[1])[j] = ((uint64_t*) tmpbuf[0])[j] ^ ((uint64_t*) par)[j] ^ ((uint64_t*) pbr)[j];
}
sha512_hash(seedcheckbufptr, OWF_BYTES, tmpbuf[0], rowbytelen, hash_buf);
sha512_hash(rcvcheckbufptr, OWF_BYTES, tmpbuf[1], rowbytelen, hash_buf);
/*XORandOWF(tocheckseed + check_buf.perm[i].ida * rowbytelen, tocheckseed + check_buf.perm[i].idb * rowbytelen,
rowbytelen, tmpbuf, seedcheckbufptr, hash_buf);
XORandOWF(tocheckrcv + check_buf.perm[i].ida * rowbytelen, tocheckrcv + check_buf.perm[i].idb * rowbytelen,
rowbytelen, tmpbuf, rcvcheckbufptr, hash_buf);*/
}
for(uint32_t i = 0; i < 2; i++)
free(tmpbuf[i]);
free(tmpbuf);
//free(tmpbuf);
free(hash_buf);
//Send the permutation over to the receiver
check_chan->send_id_len((uint8_t*) check_buf.perm, sizeof(linking_t) * m_nChecks, otid, numblocks);
return check_buf;
}
void _stdcall sha512_hmac(const void *k, size_t k_len, const void *d, size_t d_len, char *out)
{
sha512_ctx ctx;
unsigned char buf[SHA512_BLOCK_SIZE];
unsigned char hval[SHA512_DIGEST_SIZE];
unsigned long i;
// zero key buffer
memset(buf, 0, sizeof(buf));
// compress hmac key
if (k_len > SHA512_BLOCK_SIZE) {
sha512_init(&ctx);
sha512_hash(&ctx, (const unsigned char*)k, k_len);
sha512_done(&ctx, buf);
} else {
memcpy(buf, k, k_len);
}
// create the hash initial vector
for (i = 0; i < (SHA512_BLOCK_SIZE / 4); i++) {
((unsigned long*)buf)[i] ^= 0x36363636;
}
// hash key and data
sha512_init(&ctx);
sha512_hash(&ctx, buf, SHA512_BLOCK_SIZE);
sha512_hash(&ctx, (const unsigned char*)d, d_len);
sha512_done(&ctx, hval);
// create the second HMAC vector
for (i = 0; i < (SHA512_BLOCK_SIZE / 4); i++) {
((unsigned long*)buf)[i] ^= 0x6A6A6A6A;
}
// calculate "outer" hash
sha512_init(&ctx);
sha512_hash(&ctx, buf, SHA512_BLOCK_SIZE);
sha512_hash(&ctx, hval, SHA512_DIGEST_SIZE);
sha512_done(&ctx, (unsigned char*)out);
// test buffers size alignment at compile-time
static_assert( !(sizeof(buf) % sizeof(unsigned long)), "sizeof must be 4 byte aligned");
static_assert( !(sizeof(hval) % sizeof(unsigned long)), "sizeof must be 4 byte aligned");
static_assert( !(sizeof(ctx) % sizeof(unsigned long)), "sizeof must be 4 byte aligned");
// prevent leaks
__stosd((unsigned long*)&buf, 0, (sizeof(buf) / sizeof(unsigned long)));
__stosd((unsigned long*)&hval, 0, (sizeof(hval) / sizeof(unsigned long)));
__stosd((unsigned long*)&ctx, 0, (sizeof(ctx) / sizeof(unsigned long)));
}
void digestBuf()
{
// Mangle the data
for(size_t j = 0; j < 3; j++)
{
// Taint the bytes
GAssert(DIGEST_BYTES >= 32);
if(m_pTaint)
Taint_buffer(m_pBuf, m_pTaint + (m_rand.next() % (DIGEST_BYTES - 32)), 32, j);
// Shuffle the bytes
shuffleBytes(m_pBuf, DIGEST_BYTES);
// Hash each 64-bit chunk with sha-512
unsigned char* pChunk = m_pBuf;
for(size_t i = 0; i < (DIGEST_BYTES / 64); i++)
{
sha512_ctx ctx;
sha512_begin(&ctx);
sha512_hash(pChunk, 64, &ctx);
sha512_end(pChunk, &ctx);
pChunk += 64;
}
}
// Add it to the hash
uint64_t* pA = (uint64_t*)m_pBuf;
uint64_t* pB = (uint64_t*)m_pHash;
for(size_t i = 0; i < (DIGEST_BYTES / sizeof(uint64_t)); i++)
{
(*pB) += (*pA);
pB++;
pA++;
}
}
void ALSZOTExtSnd::XORandOWF(uint8_t* idaptr, uint8_t* idbptr, uint64_t rowbytelen, uint8_t* tmpbuf,
uint8_t* resbuf, uint8_t* hash_buf) {
for(uint64_t j = 0; j < rowbytelen/sizeof(uint64_t); j++) {
((uint64_t*) tmpbuf)[j] = ((uint64_t*) tmpbuf)[j] ^ ((uint64_t*) idaptr)[j] ^ ((uint64_t*) idbptr)[j];
}
#ifdef DEBUG_ALSZ_CHECKS_INPUT
cout << "\t" << (hex);
for(uint32_t t = 0; t < rowbytelen; t++) {
cout << setw(2) << setfill('0') << (uint32_t) tmpbuf[t];
}
cout << (dec) << endl;
#endif
#ifdef AES_OWF
owf(&aesowfkey, rowbytelen, tmpbuf, resbuf);
#else
/*SHA512_CTX sha;
SHA512_Init(&sha);
SHA512_Update(&sha, tmpbuf, rowbytelen);
SHA512_Final(hash_buf, &sha);
memcpy(resbuf, hash_buf, OWF_BYTES);*/
sha512_hash(resbuf, OWF_BYTES, tmpbuf, rowbytelen, hash_buf);
//m_cCrypt->hash_buf(resbuf, OWF_BYTES, tmpbuf, rowbytelen, hash_buf);//hash_buf, rowbytelen, tmpbuf, resbuf, hash_buf);
#endif
#ifdef DEBUG_ALSZ_CHECKS_OUTPUT
cout << "\t" << (hex);
for(uint32_t t = 0; t < OWF_BYTES; t++) {
cout << (uint32_t) resbuf[t];
}
cout << (dec) << endl;
#endif
}
void hmac_sha512
(
char *k, /* secret key */
int lk, /* length of the key in bytes */
char *d, /* data and also output buffer of at least 64 bytes */
int ld /* length of data in bytes */
)
{
hmac_sha512_ctx hmac;
char key[SHA512_DIGESTSIZE];
/* If the key is longer than the hash algorithm block size,
let key = sha512(key), as per HMAC specifications. */
if (lk > SHA512_BLOCKSIZE)
{
sha512_ctx tctx;
sha512_begin (&tctx);
sha512_hash ((unsigned char *) k, lk, &tctx);
sha512_end ((unsigned char *) key, &tctx);
k = key;
lk = SHA512_DIGESTSIZE;
burn (&tctx, sizeof(tctx)); // Prevent leaks
}
hmac_sha512_internal (k, lk, d, ld, &hmac);
/* Prevent leaks */
burn (&hmac, sizeof(hmac));
burn (key, sizeof(key));
}
void sha512_hmac(const char *k, size_t k_len, const char *d, size_t d_len, char *out)
{
sha512_ctx ctx;
u8 buf[SHA512_BLOCK_SIZE];
u8 hval[SHA512_DIGEST_SIZE];
size_t i;
/* zero key buffer */
zeroauto(buf, sizeof(buf));
/* compress hmac key */
if (k_len > SHA512_BLOCK_SIZE) {
sha512_init(&ctx);
sha512_hash(&ctx, k, k_len);
sha512_done(&ctx, buf);
} else {
mincpy(buf, k, k_len);
}
/* create the hash initial vector */
for (i = 0; i < SHA512_BLOCK_SIZE; i++) {
buf[i] ^= 0x36;
}
/* hash key and data */
sha512_init(&ctx);
sha512_hash(&ctx, buf, SHA512_BLOCK_SIZE);
sha512_hash(&ctx, d, d_len);
sha512_done(&ctx, hval);
/* create the second HMAC vector */
for (i = 0; i < SHA512_BLOCK_SIZE; i++) {
buf[i] ^= 0x6A;
}
/* calculate "outer" hash */
sha512_init(&ctx);
sha512_hash(&ctx, buf, SHA512_BLOCK_SIZE);
sha512_hash(&ctx, hval, SHA512_DIGEST_SIZE);
sha512_done(&ctx, out);
/* prevent leaks */
zeroauto(buf, sizeof(buf));
zeroauto(hval, sizeof(hval));
zeroauto(&ctx, sizeof(ctx));
}
void hmac_sha512_internal
(
char *k, /* secret key */
int lk, /* length of the key in bytes */
char *d, /* data and also output buffer of at least 64 bytes */
int ld, /* length of data in bytes */
hmac_sha512_ctx* hmac
)
{
sha512_ctx* ctx = &(hmac->ctx);
char* buf = hmac->buf;
int i;
/**** Inner Digest ****/
sha512_begin (ctx);
/* Pad the key for inner digest */
for (i = 0; i < lk; ++i)
buf[i] = (char) (k[i] ^ 0x36);
for (i = lk; i < SHA512_BLOCKSIZE; ++i)
buf[i] = 0x36;
sha512_hash ((unsigned char *) buf, SHA512_BLOCKSIZE, ctx);
sha512_hash ((unsigned char *) d, ld, ctx);
sha512_end ((unsigned char *) d, ctx);
/**** Outer Digest ****/
sha512_begin (ctx);
for (i = 0; i < lk; ++i)
buf[i] = (char) (k[i] ^ 0x5C);
for (i = lk; i < SHA512_BLOCKSIZE; ++i)
buf[i] = 0x5C;
sha512_hash ((unsigned char *) buf, SHA512_BLOCKSIZE, ctx);
sha512_hash ((unsigned char *) d, SHA512_DIGESTSIZE, ctx);
sha512_end ((unsigned char *) d, ctx);
}
static int self_check(void) {
int i;
for (i = 0; i < sizeof(testCases) / sizeof(testCases[i]); i++) {
struct testcase *tc = &testCases[i];
uint64_t hash[8];
sha512_hash(tc->message, strlen((const char *)tc->message), hash);
if (memcmp(hash, tc->answer, sizeof(tc->answer)) != 0)
return 0;
}
return 1;
}
void sha512(const std::vector<std::uint8_t> &input, std::vector<std::uint8_t> &output)
{
static const auto sha512_bytes = 64;
output.resize(sha512_bytes);
auto output_pointer_u64 = reinterpret_cast<std::uint64_t *>(output.data());
sha512_hash(input.data(), input.size(), output_pointer_u64);
byteswap(output_pointer_u64, sha512_bytes / sizeof(std::uint64_t));
}
void rnd_add_buff(void *data, int size)
{
sha512_ctx sha_ctx;
ext_seed seed;
u8 hval[SHA512_DIGEST_SIZE];
int pos, i;
/* add counter and timestamp to seed data to prevent hash recurrence */
seed.seed1 = __rdtsc();
seed.seed2 = reseed_cnt++;
/* hash input data */
sha512_init(&sha_ctx);
sha512_hash(&sha_ctx, data, size);
sha512_hash(&sha_ctx, pv(&seed), sizeof(seed));
sha512_done(&sha_ctx, hval);
/* add hash value to seed buffer */
for (i = 0; i < SHA512_DIGEST_SIZE; i++)
{
if ( (pos = rnd_pos) >= RNG_POOL_SIZE) {
pos = 0;
}
rnd_pool[pos] += hval[i];
rnd_pos = pos + 1;
}
/* add hash value to key buffer */
for (i = 0; i < SHA512_DIGEST_SIZE; i++) {
key_pool[i % AES_KEY_SIZE] += hval[i];
}
/* prevent leaks */
zeroauto(&sha_ctx, sizeof(sha_ctx));
zeroauto(&hval, sizeof(hval));
zeroauto(&seed, sizeof(seed));
}
void derive_key_sha512 (char *pwd, int pwd_len, char *salt, int salt_len, uint32 iterations, char *dk, int dklen)
{
hmac_sha512_ctx hmac;
int b, l, r;
char key[SHA512_DIGESTSIZE];
/* If the password is longer than the hash algorithm block size,
let pwd = sha512(pwd), as per HMAC specifications. */
if (pwd_len > SHA512_BLOCKSIZE)
{
sha512_ctx tctx;
sha512_begin (&tctx);
sha512_hash ((unsigned char *) pwd, pwd_len, &tctx);
sha512_end ((unsigned char *) key, &tctx);
pwd = key;
pwd_len = SHA512_DIGESTSIZE;
burn (&tctx, sizeof(tctx)); // Prevent leaks
}
if (dklen % SHA512_DIGESTSIZE)
{
l = 1 + dklen / SHA512_DIGESTSIZE;
}
else
{
l = dklen / SHA512_DIGESTSIZE;
}
r = dklen - (l - 1) * SHA512_DIGESTSIZE;
/* first l - 1 blocks */
for (b = 1; b < l; b++)
{
derive_u_sha512 (pwd, pwd_len, salt, salt_len, iterations, b, &hmac);
memcpy (dk, hmac.u, SHA512_DIGESTSIZE);
dk += SHA512_DIGESTSIZE;
}
/* last block */
derive_u_sha512 (pwd, pwd_len, salt, salt_len, iterations, b, &hmac);
memcpy (dk, hmac.u, r);
/* Prevent possible leaks. */
burn (&hmac, sizeof(hmac));
burn (key, sizeof(key));
}
static void rnd_pool_mix()
{
sha512_ctx sha_ctx;
int i, n;
u8 hval[SHA512_DIGEST_SIZE];
for (i = 0; i < RNG_POOL_SIZE; i += SHA512_DIGEST_SIZE)
{
sha512_init(&sha_ctx);
sha512_hash(&sha_ctx, rnd_pool, sizeof(rnd_pool));
sha512_done(&sha_ctx, hval);
for (n = 0; n < SHA512_DIGEST_SIZE; n++) {
rnd_pool[i + n] += hval[n];
}
}
/* Prevent leaks */
zeroauto(hval, sizeof(hval));
zeroauto(&sha_ctx, sizeof(sha_ctx));
}
/* The random pool mixing function */
BOOL Randmix ()
{
if (bRandmixEnabled)
{
unsigned char hashOutputBuffer [MAX_DIGESTSIZE];
WHIRLPOOL_CTX wctx;
RMD160_CTX rctx;
sha512_ctx sctx;
sha256_ctx s256ctx;
int poolIndex, digestIndex, digestSize;
switch (HashFunction)
{
case RIPEMD160:
digestSize = RIPEMD160_DIGESTSIZE;
break;
case SHA512:
digestSize = SHA512_DIGESTSIZE;
break;
case SHA256:
digestSize = SHA256_DIGESTSIZE;
break;
case WHIRLPOOL:
digestSize = WHIRLPOOL_DIGESTSIZE;
break;
default:
TC_THROW_FATAL_EXCEPTION;
}
if (RNG_POOL_SIZE % digestSize)
TC_THROW_FATAL_EXCEPTION;
for (poolIndex = 0; poolIndex < RNG_POOL_SIZE; poolIndex += digestSize)
{
/* Compute the message digest of the entire pool using the selected hash function. */
switch (HashFunction)
{
case RIPEMD160:
RMD160Init(&rctx);
RMD160Update(&rctx, pRandPool, RNG_POOL_SIZE);
RMD160Final(hashOutputBuffer, &rctx);
break;
case SHA512:
sha512_begin (&sctx);
sha512_hash (pRandPool, RNG_POOL_SIZE, &sctx);
sha512_end (hashOutputBuffer, &sctx);
break;
case SHA256:
sha256_begin (&s256ctx);
sha256_hash (pRandPool, RNG_POOL_SIZE, &s256ctx);
sha256_end (hashOutputBuffer, &s256ctx);
break;
case WHIRLPOOL:
WHIRLPOOL_init (&wctx);
WHIRLPOOL_add (pRandPool, RNG_POOL_SIZE * 8, &wctx);
WHIRLPOOL_finalize (&wctx, hashOutputBuffer);
break;
default:
// Unknown/wrong ID
TC_THROW_FATAL_EXCEPTION;
}
/* XOR the resultant message digest to the pool at the poolIndex position. */
for (digestIndex = 0; digestIndex < digestSize; digestIndex++)
{
pRandPool [poolIndex + digestIndex] ^= hashOutputBuffer [digestIndex];
}
}
/* Prevent leaks */
burn (hashOutputBuffer, MAX_DIGESTSIZE);
switch (HashFunction)
{
case RIPEMD160:
burn (&rctx, sizeof(rctx));
break;
case SHA512:
burn (&sctx, sizeof(sctx));
break;
case SHA256:
burn (&s256ctx, sizeof(s256ctx));
break;
case WHIRLPOOL:
burn (&wctx, sizeof(wctx));
break;
default:
// Unknown/wrong ID
TC_THROW_FATAL_EXCEPTION;
}
}
return TRUE;
}
nnob_snd_check_t NNOBOTExtSnd::UpdateCheckBuf(uint8_t* tocheckseed, uint8_t* tocheckrcv, uint64_t otid, uint64_t numblocks, channel* check_chan) {
uint64_t rowbytelen = m_nBlockSizeBytes * numblocks;
uint64_t checkbytelen = min(rowbytelen, bits_in_bytes(m_nOTs - otid));
uint8_t* hash_buf = (uint8_t*) malloc(SHA512_DIGEST_LENGTH);
uint8_t* tmpbuf = (uint8_t*) malloc(rowbytelen);
uint8_t *idaptr, *idbptr;
nnob_snd_check_t check_buf;
//check_buf.rcv_chk_buf = (uint8_t*) malloc(m_nChecks * OWF_BYTES);
check_buf.chk_buf = (uint8_t*) malloc(m_nChecks * OWF_BYTES);
uint8_t *chk_buf_ptr = check_buf.chk_buf;
uint8_t *idatmpbuf = (BYTE*) malloc(sizeof(BYTE) * rowbytelen);
uint8_t *idbtmpbuf = (BYTE*) malloc(sizeof(BYTE) * rowbytelen);
uint8_t *seedptr, *rcvptr;
//uint32_t blockoffset = ceil_divide(otid, NUMOTBLOCKS * m_nBlockSizeBits);
uint32_t blockid = 0; //TODO bring in as soon as 3-step OT is implemented
check_buf.otid = otid;
check_buf.numblocks = numblocks;
check_buf.perm = (linking_t*) malloc(sizeof(linking_t*) * m_nChecks);
check_buf.permchoicebits = (BYTE*) malloc(sizeof(uint8_t) * m_nChecks);
genRandomMapping(check_buf.perm, m_nBaseOTs);
for(uint32_t i = 0; i < m_nChecks; i++) {
check_buf.permchoicebits[i] = m_vU.GetBit(blockid * m_nBaseOTs + check_buf.perm[i].ida) ^ m_vU.GetBit(blockid * m_nBaseOTs + check_buf.perm[i].idb);
}
//right now the checkbytelen needs to be a multiple of AES_BYTES
assert(ceil_divide(rowbytelen, OWF_BYTES) * OWF_BYTES == rowbytelen);
#ifdef DEBUG_NNOB_CHECKS
m_vU.PrintHex();
#endif
for(uint64_t i = 0; i < m_nChecks; i++, chk_buf_ptr+=OWF_BYTES) {
if(m_vU.GetBit(blockid * m_nBaseOTs + check_buf.perm[i].ida) == 0) {
memcpy(idatmpbuf, tocheckseed + check_buf.perm[i].ida * rowbytelen, rowbytelen);
} else {
seedptr = tocheckseed + check_buf.perm[i].ida * rowbytelen;
rcvptr = tocheckrcv + check_buf.perm[i].ida * rowbytelen;
for(int j = 0; j < rowbytelen/sizeof(uint64_t); j++) {
((uint64_t*) idatmpbuf)[j] = ((uint64_t*) seedptr)[j] ^ ((uint64_t*) rcvptr)[j];
}
}
if(m_vU.GetBit(blockid * m_nBaseOTs + check_buf.perm[i].idb) == 0) {
memcpy(idbtmpbuf, tocheckseed + check_buf.perm[i].idb * rowbytelen, rowbytelen);
} else {
seedptr = tocheckseed + check_buf.perm[i].idb * rowbytelen;
rcvptr = tocheckrcv + check_buf.perm[i].idb * rowbytelen;
for(int j = 0; j < rowbytelen/sizeof(uint64_t); j++) {
((uint64_t*) idbtmpbuf)[j] = ((uint64_t*) seedptr)[j] ^ ((uint64_t*) rcvptr)[j];
}
}
/*#ifdef DEBUG_NNOB_CHECKS
cout << "seedA: " << (hex) << ((uint64_t*) (tocheckseed + check_buf.perm[i].ida * rowbytelen))[0] <<
", rcvA: " << ((uint64_t*) (tocheckrcv + check_buf.perm[i].ida * rowbytelen))[0] << (dec) << endl;
cout << "seedB: " << (hex) << ((uint64_t*) (tocheckseed + check_buf.perm[i].idb * rowbytelen))[0] <<
", rcvB: " << ((uint64_t*) (tocheckrcv + check_buf.perm[i].idb * rowbytelen))[0] << (dec) << endl;
cout << "input to owf " << (hex) << ((uint64_t*) idatmpbuf)[0] << ", " << ((uint64_t*) idbtmpbuf)[0] << (dec) << endl;
#endif*/
memset(tmpbuf, 0, rowbytelen);
for(uint64_t j = 0; j < rowbytelen/sizeof(uint64_t); j++) {
((uint64_t*) tmpbuf)[j] = ((uint64_t*) tmpbuf)[j] ^ ((uint64_t*) idatmpbuf)[j] ^ ((uint64_t*) idbtmpbuf)[j];
}
#ifdef DEBUG_NNOB_CHECKS_INPUT
cout << "XOR-OWF Input:\t" << (hex);
for(uint32_t t = 0; t < checkbytelen; t++) {
cout << setw(2) << setfill('0') << (uint32_t) tmpbuf[t];
}
cout << (dec) << endl;
#endif
#ifdef AES_OWF
owf(&aesowfkey, rowbytelen, tmpbuf, resbuf);
#else
//m_cCrypt->hash_buf(chk_buf_ptr, OWF_BYTES, tmpbuf, checkbytelen, hash_buf);//hash_buf, rowbytelen, tmpbuf, resbuf, hash_buf);
sha512_hash(chk_buf_ptr, OWF_BYTES, tmpbuf, checkbytelen, hash_buf);
#endif
#ifdef DEBUG_NNOB_CHECKS_OUTPUT
cout << "XOR-OWF Output:\t" << (hex);
for(uint32_t t = 0; t < OWF_BYTES; t++) {
cout << (uint32_t) chk_buf_ptr[t];
}
cout << (dec) << endl;
#endif
//XORandOWF(idatmpbuf, idbtmpbuf, checkbytelen, tmpbuf, chk_buf_ptr, hash_buf);
}
/* for(uint64_t i = 0; i < m_nChecks; i++, seedcheckbufptr+=OWF_BYTES, rcvcheckbufptr+=OWF_BYTES) {
memset(tmpbuf, 0, rowbytelen);
#ifdef DEBUG_ALSZ_CHECKS
cout << i << "-th check between " << check_buf.perm[i].ida << " and " << check_buf.perm[i].idb << ": " << endl;
#endif
XORandOWF(tocheckseed + check_buf.perm[i].ida * rowbytelen, tocheckseed + check_buf.perm[i].idb * rowbytelen,
rowbytelen, tmpbuf, seedcheckbufptr, hash_buf);
XORandOWF(tocheckrcv + check_buf.perm[i].ida * rowbytelen, tocheckrcv + check_buf.perm[i].idb * rowbytelen,
rowbytelen, tmpbuf, rcvcheckbufptr, hash_buf);
}*/
free(tmpbuf);
free(hash_buf);
free(idatmpbuf);
free(idbtmpbuf);
//Send the permutation and the XORed bits over to the receiver
check_chan->send_id_len((uint8_t*) check_buf.perm, sizeof(linking_t) * m_nChecks, otid, numblocks);
check_chan->send(check_buf.permchoicebits, m_nChecks);
return check_buf;
}
static
int dc_add_single_kf(dc_pass *pass, wchar_t *path)
{
kf_ctx *k_ctx;
HANDLE h_file;
int resl, i;
int succs;
u32 bytes;
h_file = NULL; k_ctx = NULL;
do
{
if ( (k_ctx = secure_alloc(sizeof(kf_ctx))) == NULL ) {
resl = ST_NOMEM; break;
}
h_file = CreateFile(
path, GENERIC_READ, FILE_SHARE_READ, NULL, OPEN_EXISTING, 0, NULL);
if (h_file == INVALID_HANDLE_VALUE) {
h_file = NULL; resl = ST_ACCESS_DENIED; break;
}
/* initialize sha512 for hashing keyfile */
sha512_init(&k_ctx->sha);
do
{
succs = ReadFile(h_file, k_ctx->kf_block, KF_BLOCK_SIZE, &bytes, NULL);
if ( (succs == 0) || (bytes == 0) ) {
break;
}
sha512_hash(&k_ctx->sha, k_ctx->kf_block, bytes);
} while (1);
/* done hasing */
sha512_done(&k_ctx->sha, k_ctx->hash);
/* zero unused password buffer bytes */
zeromem(
p8(pass->pass) + pass->size, (MAX_PASSWORD*2) - pass->size);
/* mix the keyfile hash and password */
for (i = 0; i < (SHA512_DIGEST_SIZE / sizeof(u32)); i++) {
p32(pass->pass)[i] += p32(k_ctx->hash)[i];
}
pass->size = max(pass->size, SHA512_DIGEST_SIZE);
resl = ST_OK;
} while (0);
if (h_file != NULL) {
CloseHandle(h_file);
}
if (k_ctx != NULL) {
secure_free(k_ctx);
}
return resl;
}
int rnd_get_bytes(u8 *buf, int len)
{
sha512_ctx sha_ctx;
u8 hval[SHA512_DIGEST_SIZE];
int c_len, idx, i;
ext_seed seed;
int fail;
if (reseed_cnt < 256) {
DbgMsg("RNG not have sufficient entropy (%d reseeds), collect it now\n", reseed_cnt);
}
/* in RNG not have sufficient entropy, then collect it now */
while (reseed_cnt < 256)
{
dc_delay(1); /* wait 1 millisecond */
rnd_reseed_now();
}
wait_object_infinity(&rnd_mutex);
/* derive AES key from key pool */
aes256_asm_set_key(key_pool, rnd_key);
/* mix pool state before get data from it */
rnd_pool_mix();
/* idx - position for extraction pool data */
idx = 0; fail = 0;
do
{
c_len = min(len, SHA512_DIGEST_SIZE);
seed.seed1 = getrnd_cnt++;
seed.seed2 = len;
/* collect additional entropy before extract data block */
rnd_reseed_now();
sha512_init(&sha_ctx);
sha512_hash(&sha_ctx, rnd_pool + idx, SHA512_DIGEST_SIZE);
sha512_hash(&sha_ctx, pv(&seed), sizeof(seed));
sha512_done(&sha_ctx, hval);
/* encrypt hash value with AES in ECB mode */
for (i = 0; i < SHA512_DIGEST_SIZE; i += AES_BLOCK_SIZE) {
aes256_asm_encrypt(hval + i, hval + i, rnd_key);
}
/* copy data to output */
__try {
memcpy(buf, hval, c_len);
}
__except(EXCEPTION_EXECUTE_HANDLER) {
fail = 1;
}
/* increment extraction pointer */
if ( (idx += SHA512_DIGEST_SIZE) == RNG_POOL_SIZE ) {
/* if all data from pool extracted then
mix pool for use new entropy added with reseeds */
rnd_pool_mix(); idx = 0;
}
/* collect additional entropy after extract data block */
rnd_reseed_now();
/* update buffer pointer and remaining length */
buf += c_len; len -= c_len;
} while ( (len != 0) && (fail == 0) );
/* mix pool after get data to prevent "could boot" attacks to generated keys */
rnd_pool_mix();
/* Prevent leaks */
zeroauto(rnd_key, sizeof(aes256_key));
zeroauto(&sha_ctx, sizeof(sha_ctx));
zeroauto(hval, sizeof(hval));
zeroauto(&seed, sizeof(seed));
KeReleaseMutex(&rnd_mutex, FALSE);
return fail == 0;
}
void NNOBOTExtRec::ComputeOWF(std::queue<nnob_rcv_check_t>* check_buf_q, channel* check_chan) {//linking_t* permbits, int nchecks, int otid, int processedOTs, BYTE* outhashes) {
//Obtain T0 and T1 from the SeedPointers
uint32_t receiver_hashes = 1;
uint64_t tmpid, tmpnblocks;
linking_t* perm;
uint8_t* rcv_buf_perm = check_chan->blocking_receive_id_len((uint8_t**) &perm, &tmpid, &tmpnblocks);
uint8_t* rcv_buf_permchoices = check_chan->blocking_receive();
uint8_t* sender_permchoicebitptr = rcv_buf_permchoices;
nnob_rcv_check_t check_buf = check_buf_q->front();
check_buf_q->pop();
assert(tmpid == check_buf.otid);
assert(tmpnblocks == check_buf.numblocks);
//the bufsize has to be padded to a multiple of the PRF-size since we will omit boundary checks there
uint32_t i, j;
uint64_t bufrowbytelen = m_nBlockSizeBytes * check_buf.numblocks;//seedptr->expstrbitlen>>3;//(CEIL_DIVIDE(processedOTs, wd_size_bits) * wd_size_bits) >>3;
uint64_t checkbytelen = std::min(bufrowbytelen, bits_in_bytes(m_nOTs - check_buf.otid));
//contains the T-matrix
uint8_t* T0 = check_buf.T0;
//contains the T-matrix XOR the receive bits
//uint8_t* T1 = check_buf.T1;
uint32_t outhashbytelen = m_nChecks * OWF_BYTES * receiver_hashes;
uint8_t* outhashes = (uint8_t*) malloc(outhashbytelen);
#ifdef AES_OWF
AES_KEY_CTX aesowfkey;
MPC_AES_KEY_INIT(&aesowfkey);
#else
uint8_t* hash_buf = (uint8_t*) malloc(SHA512_DIGEST_LENGTH);
#endif
uint8_t* tmpbuf = (uint8_t*) malloc(bufrowbytelen);
uint8_t **ka = (uint8_t**) malloc(2 * sizeof(uint8_t*));
uint8_t **kb = (uint8_t**) malloc(2 * sizeof(uint8_t*));
uint8_t *kaptr, *kbptr;
uint8_t* outptr = outhashes;
uint8_t* receiver_choicebits = m_vChoices->GetArr() + ceil_divide(check_buf.otid, 8);
CBitVector tmp;
tmp.AttachBuf(tmpbuf, bufrowbytelen*8);
//Compute all hashes for the permutations given Ta, Tb and the choice bits
for(i = 0; i < m_nChecks; i++, sender_permchoicebitptr++) {
ka[0] = T0 + perm[i].ida * bufrowbytelen;
kb[0] = T0 + perm[i].idb * bufrowbytelen;
#ifdef DEBUG_MALICIOUS
std::cout << (std::dec) << i << "-th check: between " << perm[i].ida << ", and " << perm[i].idb << std::endl;
#endif
for(j = 0; j < receiver_hashes; j++, outptr+=OWF_BYTES) {
kaptr = ka[0];
kbptr = kb[0];
assert((*sender_permchoicebitptr) == 0 || (*sender_permchoicebitptr == 1));
tmp.SetXOR(kaptr, kbptr, 0, bufrowbytelen);
if(*sender_permchoicebitptr == 1) {
tmp.XORBytesReverse(receiver_choicebits, 0, checkbytelen);
}
#ifdef DEBUG_NNOB_CHECKS_INPUT
std::cout << "XOR-OWF Input:\t" << (std::hex);
for(uint32_t t = 0; t < checkbytelen; t++) {
std::cout << std::setw(2) << std::setfill('0') << (uint32_t) tmpbuf[t];
}
std::cout << (std::dec) << std::endl;
#endif
#ifdef AES_OWF
owf(&aesowfkey, rowbytelen, tmpbuf, outhashes);
#else
//m_cCrypt->hash_buf(outptr, OWF_BYTES, tmpbuf, checkbytelen, hash_buf);
sha512_hash(outptr, OWF_BYTES, tmpbuf, checkbytelen, hash_buf);
#endif
#ifdef DEBUG_NNOB_CHECKS_OUTPUT
std::cout << "XOR-OWF Output:\t" << (std::hex);
for(uint32_t t = 0; t < OWF_BYTES; t++) {
std::cout << (uint32_t) outptr[t];
}
std::cout << (std::dec) << std::endl;
#endif
}
}
check_chan->send_id_len(outhashes, outhashbytelen, check_buf.otid, check_buf.numblocks);
free(rcv_buf_perm);
free(rcv_buf_permchoices);
//free(tmpbuf);
free(ka);
free(kb);
free(check_buf.T0);
//free(check_buf.T1);
free(outhashes);
#ifndef AES_OWF
free(hash_buf);
#endif
}
void boot_main()
{
list_entry *entry;
hdd_inf *hdd;
prt_inf *prt, *active;
char *error;
int login, i;
int n_mount;
active = NULL; error = NULL;
login = 0; n_mount = 0;
/* init crypto */
dc_init_crypto(conf.options & OP_HW_CRYPTO);
/* prepare MBR copy buffer */
autocpy(conf.save_mbr + 432, p8(0x7C00) + 432, 80);
if (dc_scan_partitions() == 0) {
error = "partitions not found\n";
goto error;
}
if (hdd = find_hdd(boot_dsk))
{
/* find active partition on boot disk */
entry = hdd->part_head.flink;
while (entry != &hdd->part_head)
{
prt = contain_record(entry, prt_inf, entry_hdd);
entry = entry->flink;
if (prt->active != 0) {
active = prt; break;
}
}
}
retry_auth:;
if (conf.logon_type & LT_GET_PASS)
{
login = dc_get_password();
if ( (conf.options & OP_NOPASS_ERROR) && (login == 0) )
{
dc_password_error(active);
if (conf.error_type & ET_RETRY) {
goto retry_auth;
} else {
/* halt system */
__halt();
}
}
}
/* add embedded keyfile to password buffer */
if (conf.logon_type & LT_EMBED_KEY)
{
sha512_ctx sha;
u8 hash[SHA512_DIGEST_SIZE];
sha512_init(&sha);
sha512_hash(&sha, conf.emb_key, sizeof(conf.emb_key));
sha512_done(&sha, hash);
/* mix the keyfile hash and password */
for (i = 0; i < (SHA512_DIGEST_SIZE / sizeof(u32)); i++) {
p32(bd_dat->password.pass)[i] += p32(hash)[i];
}
bd_dat->password.size = max(bd_dat->password.size, SHA512_DIGEST_SIZE);
/* prevent leaks */
zeroauto(hash, sizeof(hash));
zeroauto(&sha, sizeof(sha));
}
if (bd_dat->password.size != 0)
{
if (n_mount = dc_mount_parts()) {
/* hook BIOS interrupts */
bios_hook_ints();
} else {
/* clean password buffer to prevent leaks */
zeroauto(&bd_dat->password, sizeof(dc_pass));
}
}
if ( (n_mount == 0) && (login != 0) )
{
dc_password_error(active);
if (conf.error_type & ET_RETRY) {
goto retry_auth;
} else {
/* halt system */
__halt();
}
}
switch (conf.boot_type)
{
case BT_MBR_BOOT:
{
if (hdd == NULL) {
error = "boot disk not found\n";
goto error;
}
boot_from_mbr(hdd, n_mount);
}
break;
case BT_MBR_FIRST:
{
if ( (hdd = find_bootable_hdd()) == NULL ) {
error = "boot disk not found\n";
goto error;
}
boot_from_mbr(hdd, n_mount);
}
break;
case BT_ACTIVE:
{
if (active == NULL) {
error = "active partition not found\n";
goto error;
} else {
boot_from_partition(active, n_mount);
}
}
break;
case BT_AP_PASSWORD:
{
/* find first partition with appropriate password */
entry = prt_head.flink;
while (entry != &prt_head)
{
prt = contain_record(entry, prt_inf, entry_glb);
entry = entry->flink;
if ( (prt->extend == 0) && (prt->mnt_ok != 0) ) {
boot_from_partition(prt, n_mount);
}
}
error = "bootable partition not mounted\n";
goto error;
}
break;
case BT_DISK_ID:
{
/* find partition by disk_id */
entry = prt_head.flink;
while (entry != &prt_head)
{
prt = contain_record(entry, prt_inf, entry_glb);
entry = entry->flink;
if ( (prt->extend == 0) && (prt->mnt_ok != 0) &&
(prt->disk_id == conf.disk_id) )
{
boot_from_partition(prt, n_mount);
}
}
error = "disk_id equal partition not found\n";
goto error;
}
break;
}
error:;
if (error != NULL) {
puts(error);
}
while (1);
}
void hmac_sha512
(
char *k, /* secret key */
int lk, /* length of the key in bytes */
char *d, /* data */
int ld, /* length of data in bytes */
char *out, /* output buffer, at least "t" bytes */
int t
)
{
sha512_ctx ictx, octx;
char isha[SHA512_DIGESTSIZE], osha[SHA512_DIGESTSIZE];
char key[SHA512_DIGESTSIZE];
char buf[SHA512_BLOCKSIZE];
int i;
/* If the key is longer than the hash algorithm block size,
let key = sha512(key), as per HMAC specifications. */
if (lk > SHA512_BLOCKSIZE)
{
sha512_ctx tctx;
sha512_begin (&tctx);
sha512_hash ((unsigned char *) k, lk, &tctx);
sha512_end ((unsigned char *) key, &tctx);
k = key;
lk = SHA512_DIGESTSIZE;
burn (&tctx, sizeof(tctx)); // Prevent leaks
}
/**** Inner Digest ****/
sha512_begin (&ictx);
/* Pad the key for inner digest */
for (i = 0; i < lk; ++i)
buf[i] = (char) (k[i] ^ 0x36);
for (i = lk; i < SHA512_BLOCKSIZE; ++i)
buf[i] = 0x36;
sha512_hash ((unsigned char *) buf, SHA512_BLOCKSIZE, &ictx);
sha512_hash ((unsigned char *) d, ld, &ictx);
sha512_end ((unsigned char *) isha, &ictx);
/**** Outer Digest ****/
sha512_begin (&octx);
for (i = 0; i < lk; ++i)
buf[i] = (char) (k[i] ^ 0x5C);
for (i = lk; i < SHA512_BLOCKSIZE; ++i)
buf[i] = 0x5C;
sha512_hash ((unsigned char *) buf, SHA512_BLOCKSIZE, &octx);
sha512_hash ((unsigned char *) isha, SHA512_DIGESTSIZE, &octx);
sha512_end ((unsigned char *) osha, &octx);
/* truncate and print the results */
t = t > SHA512_DIGESTSIZE ? SHA512_DIGESTSIZE : t;
hmac_truncate (osha, out, t);
/* Prevent leaks */
burn (&ictx, sizeof(ictx));
burn (&octx, sizeof(octx));
burn (isha, sizeof(isha));
burn (osha, sizeof(osha));
burn (buf, sizeof(buf));
burn (key, sizeof(key));
}
void Sha512::ProcessData (const ConstBufferPtr &data)
{
if_debug (ValidateDataParameters (data));
sha512_hash (data.Get(), (int) data.Size(), (sha512_ctx *) Context.Ptr());
}
int CHashManager::HashFile(char *pszFile)
{
FILE *fp = NULL;
unsigned char pBuf[SIZE_HASH_BUFFER];
unsigned long uRead = 0;
unsigned char pTemp[256];
char szTemp[RH_MAX_BUFFER];
int i = 0;
printf("File: <");
printf(pszFile);
printf(">");
printf(CPS_NEWLINE);
fp = fopen(pszFile, "rb");
if(fp == NULL) return RH_CANNOT_OPEN_FILE;
if(m_bAlgorithm[HASHID_CRC16]) crc16_init(&m_crc16);
if(m_bAlgorithm[HASHID_CRC16CCITT]) crc16ccitt_init(&m_crc16ccitt);
if(m_bAlgorithm[HASHID_CRC32]) crc32Init(&m_crc32);
if(m_bAlgorithm[HASHID_FCS_16]) fcs16_init(&m_fcs16);
if(m_bAlgorithm[HASHID_FCS_32]) fcs32_init(&m_fcs32);
if(m_bAlgorithm[HASHID_GHASH_32_3] || m_bAlgorithm[HASHID_GHASH_32_5]) m_ghash.Init();
if(m_bAlgorithm[HASHID_GOST]) gosthash_reset(&m_gost);
if(m_bAlgorithm[HASHID_HAVAL]) haval_start(&m_haval);
if(m_bAlgorithm[HASHID_MD2]) m_md2.Init();
if(m_bAlgorithm[HASHID_MD4]) MD4Init(&m_md4);
if(m_bAlgorithm[HASHID_MD5]) MD5Init(&m_md5, 0);
if(m_bAlgorithm[HASHID_SHA1]) sha1_begin(&m_sha1);
if(m_bAlgorithm[HASHID_SHA2_256]) sha256_begin(&m_sha256);
if(m_bAlgorithm[HASHID_SHA2_384]) sha384_begin(&m_sha384);
if(m_bAlgorithm[HASHID_SHA2_512]) sha512_begin(&m_sha512);
if(m_bAlgorithm[HASHID_SIZE_32]) sizehash32_begin(&m_uSizeHash32);
if(m_bAlgorithm[HASHID_TIGER]) tiger_init(&m_tiger);
while(1)
{
uRead = fread(pBuf, 1, SIZE_HASH_BUFFER, fp);
if(uRead != 0)
{
if(m_bAlgorithm[HASHID_CRC16])
crc16_update(&m_crc16, pBuf, uRead);
if(m_bAlgorithm[HASHID_CRC16CCITT])
crc16ccitt_update(&m_crc16ccitt, pBuf, uRead);
if(m_bAlgorithm[HASHID_CRC32])
crc32Update(&m_crc32, pBuf, uRead);
if(m_bAlgorithm[HASHID_FCS_16])
fcs16_update(&m_fcs16, pBuf, uRead);
if(m_bAlgorithm[HASHID_FCS_32])
fcs32_update(&m_fcs32, pBuf, uRead);
if(m_bAlgorithm[HASHID_GHASH_32_3] || m_bAlgorithm[HASHID_GHASH_32_5])
m_ghash.Update(pBuf, uRead);
if(m_bAlgorithm[HASHID_GOST])
gosthash_update(&m_gost, pBuf, uRead);
if(m_bAlgorithm[HASHID_HAVAL])
haval_hash(&m_haval, pBuf, uRead);
if(m_bAlgorithm[HASHID_MD2])
m_md2.Update(pBuf, uRead);
if(m_bAlgorithm[HASHID_MD4])
MD4Update(&m_md4, pBuf, uRead);
if(m_bAlgorithm[HASHID_MD5])
MD5Update(&m_md5, pBuf, uRead);
if(m_bAlgorithm[HASHID_SHA1])
sha1_hash(pBuf, uRead, &m_sha1);
if(m_bAlgorithm[HASHID_SHA2_256])
sha256_hash(pBuf, uRead, &m_sha256);
if(m_bAlgorithm[HASHID_SHA2_384])
sha384_hash(pBuf, uRead, &m_sha384);
if(m_bAlgorithm[HASHID_SHA2_512])
sha512_hash(pBuf, uRead, &m_sha512);
if(m_bAlgorithm[HASHID_SIZE_32])
sizehash32_hash(&m_uSizeHash32, uRead);
if(m_bAlgorithm[HASHID_TIGER])
tiger_process(&m_tiger, pBuf, uRead);
}
if(uRead != SIZE_HASH_BUFFER) break;
}
fclose(fp); fp = NULL;
// SizeHash-32 is the first hash, because it's the simplest one,
// the fastest, and most widely used one. ;-)
if(m_bAlgorithm[HASHID_SIZE_32])
{
sizehash32_end(&m_uSizeHash32);
printf(SZ_SIZEHASH_32);
printf(SZ_HASHPRE);
printf("%08X", m_uSizeHash32);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_CRC16])
{
crc16_final(&m_crc16);
printf(SZ_CRC16);
printf(SZ_HASHPRE);
printf("%04X", m_crc16);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_CRC16CCITT])
{
crc16ccitt_final(&m_crc16ccitt);
printf(SZ_CRC16CCITT);
printf(SZ_HASHPRE);
printf("%04X", m_crc16ccitt);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_CRC32])
{
crc32Finish(&m_crc32);
printf(SZ_CRC32);
printf(SZ_HASHPRE);
printf("%08X", m_crc32);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_FCS_16])
{
fcs16_final(&m_fcs16);
printf(SZ_FCS_16);
printf(SZ_HASHPRE);
printf("%04X", m_fcs16);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_FCS_32])
{
fcs32_final(&m_fcs32);
printf(SZ_FCS_32);
printf(SZ_HASHPRE);
printf("%08X", m_fcs32);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_GHASH_32_3])
{
m_ghash.FinalToStr(szTemp, 3);
printf(SZ_GHASH_32_3);
printf(SZ_HASHPRE);
printf(szTemp);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_GHASH_32_5])
{
m_ghash.FinalToStr(szTemp, 5);
printf(SZ_GHASH_32_5);
printf(SZ_HASHPRE);
printf(szTemp);
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_GOST])
{
gosthash_final(&m_gost, pTemp);
printf(SZ_GOST);
printf(SZ_HASHPRE);
for(i = 0; i < 32; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_HAVAL])
{
haval_end(&m_haval, pTemp);
printf(SZ_HAVAL);
printf(SZ_HASHPRE);
for(i = 0; i < 32; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_MD2])
{
m_md2.TruncatedFinal(pTemp, 16);
printf(SZ_MD2);
printf(SZ_HASHPRE);
for(i = 0; i < 16; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_MD4])
{
MD4Final(pTemp, &m_md4);
printf(SZ_MD4);
printf(SZ_HASHPRE);
for(i = 0; i < 16; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_MD5])
{
MD5Final(&m_md5);
printf(SZ_MD5);
printf(SZ_HASHPRE);
for(i = 0; i < 16; i++)
{
fmtFixHashOutput(i);
printf("%02X", m_md5.digest[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_SHA1])
{
sha1_end(pTemp, &m_sha1);
printf(SZ_SHA1);
printf(SZ_HASHPRE);
for(i = 0; i < 20; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_SHA2_256])
{
sha256_end(pTemp, &m_sha256);
printf(SZ_SHA2_256);
printf(SZ_HASHPRE);
for(i = 0; i < 32; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_SHA2_384])
{
sha384_end(pTemp, &m_sha384);
printf(SZ_SHA2_384);
printf(SZ_HASHPRE);
for(i = 0; i < 48; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_SHA2_512])
{
sha512_end(pTemp, &m_sha512);
printf(SZ_SHA2_512);
printf(SZ_HASHPRE);
for(i = 0; i < 64; i++)
{
fmtFixHashOutput(i);
printf("%02X", pTemp[i]);
}
printf(CPS_NEWLINE);
}
if(m_bAlgorithm[HASHID_TIGER])
{
tiger_done(&m_tiger, pTemp);
printf(SZ_TIGER);
printf(SZ_HASHPRE);
for(i = 0; i < 8; i++) { fmtFixHashOutput(i); printf("%02X", pTemp[7-i]); }
for(i = 8; i < 16; i++) { fmtFixHashOutput(i); printf("%02X", pTemp[23-i]); }
for(i = 16; i < 24; i++) { fmtFixHashOutput(i); printf("%02X", pTemp[39-i]); }
printf(CPS_NEWLINE);
}
return RH_SUCCESS;
}