bool_t check_encoding_qp(void) {
stringer_t *qp, *binary;
byte_t buffer[QP_CHECK_SIZE];
for (uint64_t i = 0; status() && i < QP_CHECK_ITERATIONS; i++) {
// Fill the buffer with random data and convert the buffer to hex.
if (rand_write(PLACER(buffer, QP_CHECK_SIZE)) != QP_CHECK_SIZE) {
return false;
}
else if (!(qp = qp_encode(PLACER(buffer, QP_CHECK_SIZE)))) {
return false;
}
//log_pedantic("qp = %.*s", st_length_int(qp), st_char_get(qp));
// Convert the buffer back to binary and compare it with the original array.
if (!(binary = qp_decode(qp))) {
st_free(qp);
return false;
}
else if (st_cmp_cs_eq(binary, PLACER(buffer, QP_CHECK_SIZE))) {
st_free(binary);
st_free(qp);
return false;
}
st_free(binary);
st_free(qp);
}
return true;
}
bool_t check_encoding_zbase32(void) {
stringer_t *zb32, *binary;
byte_t buffer[ZBASE32_CHECK_SIZE];
for (uint64_t i = 0; status() && i < ZBASE32_CHECK_ITERATIONS; i++) {
// Fill the buffer with random data and convert the buffer to hex.
if (rand_write(PLACER(buffer, ZBASE32_CHECK_SIZE)) != ZBASE32_CHECK_SIZE) {
return false;
}
else if (!(zb32 = zbase32_encode(PLACER(buffer, ZBASE32_CHECK_SIZE)))) {
return false;
}
//log_pedantic("zb32 = %.*s", st_length_int(zb32), st_char_get(zb32));
// Convert the buffer back to binary and compare it with the original array.
if (!(binary = zbase32_decode(zb32))) {
st_free(zb32);
return false;
}
else if (st_cmp_cs_eq(binary, PLACER(buffer, ZBASE32_CHECK_SIZE))) {
st_free(binary);
st_free(zb32);
return false;
}
st_free(binary);
st_free(zb32);
}
return true;
}
stringer_t * check_rand_sthread(void) {
size_t len;
uint64_t num = 0;
stringer_t *buffer;
if (!(buffer = st_alloc(RAND_CHECK_SIZE_MAX))) {
return st_dupe(NULLER("Buffer allocation error."));
}
for (int_t i = 0; status() && i < RAND_CHECK_ITERATIONS; i++) {
num |= rand_get_int8();
num |= rand_get_int16();
num |= rand_get_int32();
num |= rand_get_int64();
num |= rand_get_uint8();
num |= rand_get_uint16();
num |= rand_get_uint32();
num |= rand_get_uint64();
// Pick a random length.
len = (rand() % (RAND_CHECK_SIZE_MAX - RAND_CHECK_SIZE_MIN)) + RAND_CHECK_SIZE_MIN;
if (rand_write(PLACER(st_char_get(buffer), len)) != len) {
st_cleanup(buffer);
return st_dupe(NULLER("Unable to fill the buffer with random data."));
}
}
st_cleanup(buffer);
// This time through we use the choices function since it will allocate its own output buffer.
for (int_t i = 0; status() && i < RAND_CHECK_ITERATIONS; i++) {
// Pick a random length.
len = (rand() % (RAND_CHECK_SIZE_MAX - RAND_CHECK_SIZE_MIN)) + RAND_CHECK_SIZE_MIN;
if (!(buffer = rand_choices("0123456789ABCDEFGHIJKLMNOPQRSTUVWXYZabcdefghijklmnopqrstuvwxyz", len))) {
return st_dupe(NULLER("Unable to fill the buffer with random data."));
}
st_free(buffer);
}
return NULL;
}
bool_t check_string_write(void) {
stringer_t *output = MANAGEDBUF(1024), *strings[3] = { MANAGEDBUF(32), MANAGEDBUF(64), MANAGEDBUF(128) };
for (int i = 0; i < 3; i++) {
rand_write(strings[i]);
}
if (st_write(NULL, strings[0], strings[1], strings[2]) != 224) {
return false;
}
if (st_write(output, strings[0], strings[1], strings[2]) != 224) {
return false;
}
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;
}
bool_t check_encoding_url(void) {
bool_t result = true;
stringer_t *url, *binary;
byte_t buffer[URL_CHECK_SIZE];
for (uint64_t i = 0; status() && result && i < URL_CHECK_ITERATIONS; i++) {
// Fill the buffer with random data and convert the buffer to hex.
if (rand_write(PLACER(buffer, URL_CHECK_SIZE)) != URL_CHECK_SIZE) {
return false;
}
else if (!(url = url_encode(PLACER(buffer, URL_CHECK_SIZE)))) {
return false;
}
else if (!url_valid_st(url)) {
return false;
}
// Convert the buffer back to binary and compare it with the original array.
if (!(binary = url_decode(url))) {
st_free(url);
return false;
}
else if (st_cmp_cs_eq(binary, PLACER(buffer, URL_CHECK_SIZE))) {
result = false;
}
//log_pedantic("%-15.15s = %.*s", "plain", URL_CHECK_SIZE, buffer);
//log_pedantic("%-15.15s = %.*s", "url", st_length_int(url), st_char_get(url));
//log_pedantic("%-15.15s = %.*s", "decoded", st_length_int(binary), st_char_get(binary));
st_free(binary);
st_free(url);
}
return result;
}
bool_t check_prime_keys_org_sthread(stringer_t *errmsg) {
prime_t *holder = NULL;
stringer_t *packed = NULL, *key = MANAGEDBUF(64);
// Create a STACIE realm key.
rand_write(key);
// Allocate an org key.
if (!(holder = prime_alloc(PRIME_ORG_KEY, NONE))) {
st_sprint(errmsg, "Organizational key allocation failed.");
return false;
}
prime_free(holder);
// Generate an org key.
if (!(holder = prime_key_generate(PRIME_ORG_KEY, NONE))) {
st_sprint(errmsg, "Organizational key generation failed.");
return false;
}
// Serialize the org key.
else if (!(packed = prime_get(holder, BINARY, MANAGEDBUF(256)))) {
st_sprint(errmsg, "Organizational key serialization failed.");
prime_free(holder);
return false;
}
prime_free(holder);
// Unpack the serialized org key.
if (!(holder = prime_set(packed, BINARY, NONE))) {
st_sprint(errmsg, "Organizational key parsing failed.");
return false;
}
// Encrypt the org key.
else if (!(packed = prime_key_encrypt(key, holder, BINARY, MANAGEDBUF(256)))) {
st_sprint(errmsg, "Organizational key encryption failed.");
prime_free(holder);
return false;
}
prime_free(holder);
// Decrypt the org key.
if (!(holder = prime_key_decrypt(key, packed, BINARY, NONE))) {
st_sprint(errmsg, "Encrypted organizational key parsing failed.");
return false;
}
prime_free(holder);
// Perform the same checks, but this time make the functions
// allocate memory for the output. Generate an org key.
if (!(holder = prime_key_generate(PRIME_ORG_KEY, NONE))) {
st_sprint(errmsg, "Organizational key generation failed.");
return false;
}
// Serialize the org key.
else if (!(packed = prime_get(holder, BINARY, NULL))) {
st_sprint(errmsg, "Organizational key serialization failed.");
prime_free(holder);
return false;
}
prime_free(holder);
// Unpack the serialized org key.
if (!(holder = prime_set(packed, BINARY, NONE))) {
st_sprint(errmsg, "Organizational key parsing failed.");
st_free(packed);
return false;
}
st_free(packed);
// Encrypt the org key.
if (!(packed = prime_key_encrypt(key, holder, BINARY, NULL))) {
st_sprint(errmsg, "Organizational key encryption failed.");
prime_free(holder);
return false;
}
prime_free(holder);
// Decrypt the org key.
if (!(holder = prime_key_decrypt(key, packed, BINARY, NONE))) {
st_sprint(errmsg, "Encrypted organizational key parsing failed.");
st_free(packed);
return false;
}
prime_free(holder);
st_free(packed);
return true;
}
bool_t check_prime_signets_parameters_sthread(stringer_t *errmsg) {
stringer_t *holder = NULL, *rand1 = MANAGEDBUF(32), *rand2 = MANAGEDBUF(128), *rand3 = MANAGEDBUF(64),
*encrypted_key = NULL;
prime_t *org_key = NULL, *org_signet = NULL, *user_key = NULL, *user_request = NULL, *user_signet = NULL,
*rotation_key = NULL, *rotation_request = NULL, *rotation_signet = NULL, *check = NULL;
// Create various PRIME types for use below.
if (rand_write(rand1) != 32 || rand_write(rand2) != 128 || rand_write(rand3) != 64 ||
!(org_key = prime_key_generate(PRIME_ORG_KEY, NONE)) || !(org_signet = prime_signet_generate(org_key)) ||
!(user_key = prime_key_generate(PRIME_USER_KEY, NONE)) || !(user_request = prime_request_generate(user_key, NULL)) ||
!(user_signet = prime_request_sign(user_request, org_key)) || !(rotation_key = prime_key_generate(PRIME_USER_KEY, NONE)) ||
!(rotation_request = prime_request_generate(rotation_key, user_key)) || !(rotation_signet = prime_request_sign(rotation_request, org_key)) ||
!(encrypted_key = prime_key_encrypt(rand3, user_key, ARMORED, MANAGEDBUF(512)))) {
st_sprint(errmsg, "Signet/key creation for parameter testing failed.");
prime_cleanup(org_key);
prime_cleanup(org_signet);
prime_cleanup(user_key);
prime_cleanup(user_request);
prime_cleanup(user_signet);
prime_cleanup(rotation_key);
prime_cleanup(rotation_request);
prime_cleanup(rotation_signet);
return false;
}
else if ((check = prime_signet_generate(user_key)) || (check = prime_signet_generate(user_request)) || (check = prime_signet_generate(user_signet)) ||
(check = prime_request_generate(org_key, NULL)) || (check = prime_request_generate(org_signet, NULL)) || (check = prime_request_generate(user_request, NULL)) ||
(check = prime_request_generate(user_signet, NULL)) || (check = prime_request_sign(org_key, user_key)) || (check = prime_request_sign(org_key, user_request)) ||
(check = prime_request_sign(org_key, user_signet)) || (check = prime_request_sign(org_key, org_signet)) || (check = prime_request_sign(user_key, org_key)) ||
(check = prime_request_sign(user_signet, org_key)) || prime_signet_validate(user_key, NULL) || prime_signet_validate(org_key, NULL) ||
prime_signet_validate(org_signet, org_key) || prime_signet_validate(rotation_request, org_key) || prime_signet_validate(rotation_request, user_key) ||
prime_signet_validate(org_signet, user_key) || prime_signet_validate(org_signet, user_signet) || prime_signet_validate(user_request, org_key) ||
prime_signet_validate(user_request, user_key) || prime_signet_validate(user_request, org_signet) || prime_signet_validate(user_request, rotation_key) ||
prime_signet_validate(user_signet, org_key) || prime_signet_validate(user_signet, user_key) || prime_signet_validate(user_signet, rotation_signet) ||
prime_signet_validate(user_signet, user_request) || (check = prime_key_generate(PRIME_USER_SIGNET, NONE)) || (check = prime_key_generate(PRIME_ORG_SIGNET, NONE)) ||
(check = prime_key_generate(PRIME_USER_SIGNING_REQUEST, NONE)) || (check = prime_get(NULL, BINARY, NULL)) ||
(check = prime_get(NULL, BINARY, MANAGEDBUF(512))) || (check = prime_set(NULL, BINARY, NONE)) || (check = prime_set(NULL, ARMORED, NONE)) ||
(holder = prime_signet_fingerprint(org_key, MANAGEDBUF(64))) || (holder = prime_signet_fingerprint(user_key, MANAGEDBUF(64))) ||
(holder = prime_signet_fingerprint(user_request, MANAGEDBUF(64))) || (holder = prime_signet_fingerprint(org_signet, CONSTANT("TEST"))) ||
(holder = prime_key_encrypt(NULL, org_key, BINARY, MANAGEDBUF(512))) || (holder = prime_key_encrypt(rand1, org_key, BINARY, MANAGEDBUF(512))) ||
(holder = prime_key_encrypt(rand2, org_key, BINARY, MANAGEDBUF(512))) || (holder = prime_key_encrypt(rand3, org_signet, BINARY, MANAGEDBUF(512))) ||
(holder = prime_key_encrypt(rand3, NULL, BINARY, MANAGEDBUF(512))) || (holder = prime_key_decrypt(NULL, encrypted_key, ARMORED, NONE)) ||
(holder = prime_key_decrypt(rand3, NULL, ARMORED, NONE)) || (holder = prime_key_decrypt(rand1, encrypted_key, ARMORED, NONE)) ||
(holder = prime_key_decrypt(rand2, encrypted_key, ARMORED, NONE)) || (holder = prime_key_decrypt(rand3, encrypted_key, BINARY, NONE)) ||
(holder = prime_key_decrypt(rand3, prime_get(org_signet, BINARY, MANAGEDBUF(512)), BINARY, NONE)) ||
(holder = prime_key_decrypt(rand3, prime_get(user_request, BINARY, MANAGEDBUF(512)), BINARY, NONE)) ||
(holder = prime_key_decrypt(rand3, prime_get(user_signet, BINARY, MANAGEDBUF(512)), BINARY, NONE))) {
st_sprint(errmsg, "Signet/key parameter checks failed.");
prime_cleanup(check);
prime_free(org_key);
prime_free(org_signet);
prime_free(user_key);
prime_free(user_request);
prime_free(user_signet);
prime_free(rotation_key);
prime_free(rotation_request);
prime_free(rotation_signet);
}
prime_free(org_key);
prime_free(org_signet);
prime_free(user_key);
prime_free(user_request);
prime_free(user_signet);
prime_free(rotation_key);
prime_free(rotation_request);
prime_free(rotation_signet);
return true;
}
