static int test_answer(const struct ccdigest_info *di, test_vector *vector, size_t answer_len, void*answer) {
char *correct_answer = NULL;
if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_MD2)) correct_answer = vector->md2_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_MD4)) correct_answer = vector->md4_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_MD5)) correct_answer = vector->md5_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_SHA1)) correct_answer = vector->sha1_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_SHA224)) correct_answer = vector->sha224_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_SHA256)) correct_answer = vector->sha256_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_SHA384)) correct_answer = vector->sha384_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_SHA512)) correct_answer = vector->sha512_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_RMD128)) correct_answer = vector->rmd128_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_RMD160)) correct_answer = vector->rmd160_answer;
else if(ccdigest_oid_equal(di, (ccoid_t) CC_DIGEST_OID_RMD256)) correct_answer = vector->rmd256_answer;
else correct_answer = vector->rmd320_answer; // hack
byteBuffer answer_bb = bytesToBytes(answer, answer_len);
if(correct_answer == NULL) {
diag("\t\t\"%s\", // %s\n", bytesToHexString(answer_bb), digest_name(di));
return 1;
}
byteBuffer correct_answer_bb = hexStringToBytes((char *) correct_answer);
ok(bytesAreEqual(correct_answer_bb, answer_bb), "compare memory of answer");
if(bytesAreEqual(correct_answer_bb, answer_bb) == 0) {
printByteBuffer(correct_answer_bb, "Correct Answer");
printByteBuffer(answer_bb, "Provided Answer");
}
free(correct_answer_bb);
free(answer_bb);
return 1;
}
bool_t check_hash_simple(void) {
digest_t *digest;
stringer_t *hash, *hex;
chr_t *digest_list[] = {
"MD4", "MD5", "SHA", "SHA1", "SHA224", "SHA256", "SHA384", "SHA512", "RIPEMD160"
}, *result_list[] = {
"66f1f59819d52476f328839e34101d0f",
"7215ee9c7d9dc229d2921a40e899ec5f",
"bce965d4e985f27d988262331c0427909417cd90",
"b858cb282617fb0956d960215c8e84d1ccf909c6",
"ca17734c016e36b898af29c1aeb142e774abf4b70bac55ec98a27ba8",
"36a9e7f1c95b82ffb99743e0c5c4ce95d83c9a430aac59f84ef3cbfab6145068",
"588016eb10045dd85834d67d187d6b97858f38c58c690320c4a64e0c2f92eebd9f1bd74de256e8268815905159449566",
"f90ddd77e400dfe6a3fcf479b00b1ee29e7015c5bb8cd70f5f15b4886cc339275ff553fc8a053f8ddc7324f45168cffaf81f8c3ac93996f6536eef38e5e40768",
"ac53a3aea6835b5ec12054e12d41d392e9d57b72"
};
// Loop through and hash a single space using each digest method. Then check whether we got what we expected.
for (uint64_t i = 0; status() && i < (sizeof(digest_list) / sizeof(chr_t *)); i++) {
if (!(digest = digest_name(NULLER(digest_list[i]))) || !(hash = hash_digest(digest, PLACER(" ", 1), NULL))) {
return false;
}
else if (!(hex = hex_encode_st(hash, NULL))) {
st_free(hash);
return false;
}
else if (st_cmp_cs_eq(hex, NULLER(result_list[i]) )) {
st_free(hash);
st_free(hex);
return false;
}
st_free(hash);
st_free(hex);
}
return true;
}
bool_t check_hash_sthread(chr_t *name) {
stringer_t *hash;
digest_t *digest;
byte_t buffer[DIGEST_CHECK_SIZE];
for (uint64_t i = 0; status() && i < DIGEST_CHECK_ITERATIONS; i++) {
// Fill the buffer with random data and convert the buffer to encrypted.
if (rand_write(PLACER(buffer, DIGEST_CHECK_SIZE)) != DIGEST_CHECK_SIZE) {
return false;
}
//else if (!(digest = digest_name(NULLER(name))) || !(hash = hash_digest(digest, PLACER(buffer, DIGEST_CHECK_SIZE), NULL))) {
else if (!(digest = digest_name(NULLER(name))) || !(hash = hash_digest(digest, PLACER(" ", 1), NULL))) {
return false;
}
st_free(hash);
}
return true;
}
