void test_ecc()
{
unsigned char r_buf[32];
memset(r_buf, 0, 32);
random_init();
while (btc_ecc_verify_privatekey(r_buf) == 0) {
random_bytes(r_buf, 32, 0);
}
memset(r_buf, 0xFF, 32);
u_assert_int_eq(btc_ecc_verify_privatekey(r_buf), 0); //secp256k1 overflow
uint8_t pub_key33[33], pub_key33_invalid[33], pub_key65[65], pub_key65_invalid[65];
memcpy(pub_key33, utils_hex_to_uint8("02fcba7ecf41bc7e1be4ee122d9d22e3333671eb0a3a87b5cdf099d59874e1940f"), 33);
memcpy(pub_key33_invalid, utils_hex_to_uint8("999999999941bc7e1be4ee122d9d22e3333671eb0a3a87b5cdf099d59874e1940f"), 33);
memcpy(pub_key65, utils_hex_to_uint8("044054fd18aeb277aeedea01d3f3986ff4e5be18092a04339dcf4e524e2c0a09746c7083ed2097011b1223a17a644e81f59aa3de22dac119fd980b36a8ff29a244"), 65);
memcpy(pub_key65_invalid, utils_hex_to_uint8("044054fd18aeb277aeedea01d3f3986ff4e5be18092a04339dcf4e524e2c0a09746c7083ed2097011b1223a17a644e81f59aa3de22dac119fd980b39999f29a244"), 65);
u_assert_int_eq(btc_ecc_verify_pubkey(pub_key33, 1), 1);
u_assert_int_eq(btc_ecc_verify_pubkey(pub_key65, 0), 1);
u_assert_int_eq(btc_ecc_verify_pubkey(pub_key33_invalid, 1), 0);
u_assert_int_eq(btc_ecc_verify_pubkey(pub_key65_invalid, 0), 0);
btc_key key;
btc_privkey_init(&key);
assert(btc_privkey_is_valid(&key) == 0);
btc_privkey_gen(&key);
uint8_t* hash = utils_hex_to_uint8((const char*)"26db47a48a10b9b0b697b793f5c0231aa35fe192c9d063d7b03a55e3c302850a");
unsigned char sig[74];
size_t outlen = 74;
btc_key_sign_hash(&key, hash, sig, &outlen);
uint8_t sigcomp[64];
unsigned char sigder[74];
size_t sigderlen = 74;
u_assert_int_eq(btc_ecc_der_to_compact(sig, outlen, sigcomp), true);
u_assert_int_eq(btc_ecc_compact_to_der_normalized(sigcomp, sigder, &sigderlen), true);
u_assert_int_eq(outlen, sigderlen);
u_assert_int_eq(memcmp(sig,sigder,sigderlen), 0);
}
void test_logdb(logdb_log_db* (*new_func)())
{
logdb_log_db *db;
enum logdb_error error = 0;
struct buffer key = {"key0", 4};
struct buffer value = {"val0", 4};
struct buffer key1;
struct buffer value1;
cstring *outtest;
cstring *value_test;
unsigned char testbin[4] = {0x00, 0x10, 0x20, 0x30};
struct buffer value0_new = {"dumb", 4};
struct buffer key2 = {"pkey", 4};
struct buffer value2;
struct buffer smp_value;
struct buffer smp_key;
uint8_t txbin[10240];
uint8_t txbin_rev[10240];
char hexrev[98];
int outlenrev;
long fsize;
char *buf;
char *wrk_buf;
FILE *f;
unsigned int i;
value2.p = testbin;
value2.len = 4;
key1.p = (char *)key1str;
key1.len = strlen(key1str);
value1.p = (char *)value1str;
value1.len = strlen(value1str);
unlink(dbtmpfile);
db = new_func();
u_assert_int_eq(logdb_load(db, "file_that_should_not_exists.dat", false, NULL), false);
u_assert_int_eq(logdb_load(db, dbtmpfile, true, NULL), true);
logdb_append(db, &key, &value);
logdb_append(db, &key1, &value1);
u_assert_int_eq(logdb_cache_size(db), 2);
outtest = logdb_find_cache(db, &key1);
u_assert_int_eq(strcmp(outtest->str, value1str),0);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
u_assert_int_eq(logdb_count_keys(db), 2);
value_test = logdb_find(db, &key1);
u_assert_int_eq(strcmp(value_test->str, value1str), 0);
value_test = logdb_find(db, &key);
u_assert_int_eq(memcmp(value_test->str, value.p, value.len), 0);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
logdb_append(db, &key2, &value2);
logdb_flush(db);
logdb_free(db);
/* check if private key is available */
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, &key2);
u_assert_int_eq(memcmp(value_test->str, value2.p, value2.len), 0);
value_test = logdb_find(db, &key);
u_assert_int_eq(memcmp(value_test->str, value.p, value.len), 0);
/* delete a record */
logdb_delete(db, &key2);
logdb_flush(db);
logdb_free(db);
/* find and check the deleted record */
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, &key);
u_assert_int_eq(memcmp(value_test->str, value.p, value.len), 0);
value_test = logdb_find(db, &key2);
u_assert_int_eq((int)value_test, 0); /* should be null */
/* overwrite a key */
logdb_append(db, &key, &value0_new);
value_test = logdb_find(db, &key);
u_assert_int_eq(memcmp(value_test->str, value0_new.p, value0_new.len), 0);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, &key);
u_assert_int_eq(memcmp(value_test->str, value0_new.p, value0_new.len), 0);
logdb_flush(db);
logdb_free(db);
/* simulate corruption */
f = fopen(dbtmpfile, "rb");
fseek(f, 0, SEEK_END);
fsize = ftell(f);
fseek(f, 0, SEEK_SET);
buf = malloc(fsize + 1);
fread(buf, fsize, 1, f);
fclose(f);
/* ---------------------------------------------------- */
wrk_buf = safe_malloc(fsize + 1);
memcpy(wrk_buf, buf, fsize);
wrk_buf[0] = 0x88; /* wrong header */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_WRONG_FILE_FORMAT);
logdb_free(db);
/* ---------------------------------------------------- */
memcpy(wrk_buf, buf, fsize);
wrk_buf[66] = 0x00; /* wrong checksum hash */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_CHECKSUM);
logdb_free(db);
/* ---------------------------------------------------- */
memcpy(wrk_buf, buf, fsize);
wrk_buf[42] = 0xFF; /* wrong value length */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_DATASTREAM_ERROR);
logdb_free(db);
free(buf);
free(wrk_buf);
/* --- large db test */
unlink(dbtmpfile);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, true, NULL), true);
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
smp_key.p = hashbin;
smp_key.len = outlen;
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
smp_value.p = txbin;
smp_value.len = outlen;
logdb_append(db, &smp_key, &smp_value);
}
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
smp_key.p = hashbin;
smp_key.len = outlen;
outtest = logdb_find(db, &smp_key);
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
u_assert_int_eq(outlen, outtest->len);
}
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
memcpy(hexrev, tx->txhash, sizeof(tx->txhash));
utils_reverse_hex(hexrev, strlen(tx->txhash));
outlenrev = sizeof(tx->txhash) / 2;
utils_hex_to_bin(hexrev, txbin_rev, strlen(hexrev), &outlenrev);
smp_key.p = hashbin;
smp_key.len = outlen;
outtest = logdb_find(db, &smp_key);
outlen = strlen(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
u_assert_int_eq(outlen, outtest->len);
/* hash transaction data and check hashes */
if (strlen(tx->hextx) > 2)
{
uint8_t tx_hash_check[SHA256_DIGEST_LENGTH];
sha256_Raw(txbin, outlen, tx_hash_check);
sha256_Raw(tx_hash_check, 32, tx_hash_check);
u_assert_int_eq(memcmp(tx_hash_check, txbin_rev, SHA256_DIGEST_LENGTH), 0);
}
}
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
smp_key.p = hashbin;
smp_key.len = outlen;
logdb_delete(db, &smp_key);
}
u_assert_int_eq(logdb_count_keys(db), 0);
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), 0);
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
smp_key.p = hashbin;
smp_key.len = outlen;
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
smp_value.p = txbin;
smp_value.len = outlen;
logdb_append(db, &smp_key, &smp_value);
}
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
smp_key.p = hashbin;
smp_key.len = outlen;
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
smp_value.p = txbin;
smp_value.len = outlen;
logdb_append(db, &smp_key, &smp_value);
}
logdb_flush(db);
logdb_free(db);
}
void test_protocol()
{
/* get new string buffer */
cstring *version_msg_cstr = cstr_new_sz(256);
cstring *inv_msg_cstr = cstr_new_sz(256);
struct sockaddr_in test_sa, test_sa_check;
memset(&test_sa, 0, sizeof(test_sa));
memset(&test_sa_check, 0, sizeof(test_sa_check));
test_sa.sin_family = AF_INET;
struct sockaddr_in6 test_sa6, test_sa6_check;
test_sa6.sin6_family = AF_INET6;
test_sa6.sin6_port = htons(1024);
evutil_inet_pton(AF_INET, "10.0.0.1", &test_sa.sin_addr); // store IP in antelope
char i6buf[1024];
memset(&i6buf, 0, 1024);
evutil_inet_pton(AF_INET6, "::1", &test_sa6.sin6_addr);
btc_p2p_address ipv6Test;
btc_p2p_address_init(&ipv6Test);
btc_addr_to_p2paddr((struct sockaddr *)&test_sa6, &ipv6Test);
btc_p2paddr_to_addr(&ipv6Test, (struct sockaddr *)&test_sa6_check);
memset(&i6buf, 0, 1024);
u_assert_int_eq(test_sa6.sin6_port, test_sa6_check.sin6_port);
/* copy socket_addr to p2p addr */
btc_p2p_address fromAddr;
btc_p2p_address_init(&fromAddr);
btc_p2p_address toAddr;
btc_p2p_address_init(&toAddr);
btc_addr_to_p2paddr((struct sockaddr *)&test_sa, &toAddr);
btc_p2paddr_to_addr(&toAddr, (struct sockaddr *)&test_sa_check);
u_assert_int_eq(test_sa.sin_port, test_sa_check.sin_port);
evutil_inet_ntop(AF_INET, &test_sa_check.sin_addr, i6buf, 1024);
u_assert_str_eq(i6buf, "10.0.0.1");
/* create a inv message struct */
btc_p2p_inv_msg inv_msg, inv_msg_check;
memset(&inv_msg, 0, sizeof(inv_msg));
uint256 hash = {0};
btc_p2p_msg_inv_init(&inv_msg, 1, hash);
btc_p2p_msg_inv_ser(&inv_msg, inv_msg_cstr);
struct const_buffer buf_inv = {inv_msg_cstr->str, inv_msg_cstr->len};
u_assert_int_eq(btc_p2p_msg_inv_deser(&inv_msg_check, &buf_inv), true);
u_assert_int_eq(inv_msg_check.type, 1);
u_assert_mem_eq(inv_msg_check.hash, inv_msg.hash, sizeof(inv_msg.hash));
cstr_free(inv_msg_cstr, true);
/* create a version message struct */
btc_p2p_version_msg version_msg;
memset(&version_msg, 0, sizeof(version_msg));
/* create a serialized version message */
btc_p2p_msg_version_init(&version_msg, &fromAddr, &toAddr, "client", false);
btc_p2p_msg_version_ser(&version_msg, version_msg_cstr);
/* create p2p message */
cstring *p2p_msg = btc_p2p_message_new((unsigned const char *)&btc_chainparams_main.netmagic, BTC_MSG_VERSION, version_msg_cstr->str, version_msg_cstr->len);
struct const_buffer buf = {p2p_msg->str, p2p_msg->len};
btc_p2p_msg_hdr hdr;
btc_p2p_deser_msghdr(&hdr, &buf);
u_assert_mem_eq(hdr.netmagic, &btc_chainparams_main.netmagic, 4);
u_assert_str_eq(hdr.command, BTC_MSG_VERSION);
u_assert_int_eq(hdr.data_len, version_msg_cstr->len);
u_assert_int_eq(buf.len, hdr.data_len);
u_assert_int_eq(buf.len, hdr.data_len);
u_assert_mem_eq(buf.p, version_msg_cstr->str, hdr.data_len);
btc_p2p_version_msg v_msg_check;
u_assert_int_eq(btc_p2p_msg_version_deser(&v_msg_check, &buf), true);
u_assert_int_eq(v_msg_check.version, BTC_PROTOCOL_VERSION);
u_assert_str_eq(v_msg_check.useragent, "client");
u_assert_int_eq(v_msg_check.start_height, 0);
cstr_free(p2p_msg, true);
cstr_free(version_msg_cstr, true);
/* getheaders */
uint256 genesis_hash = {0x00, 0x00, 0x00, 0x00, 0x00, 0x19, 0xd6, 0x68, 0x9c, 0x08, 0x5a, 0xe1, 0x65, 0x83, 0x1e, 0x93, 0x4f, 0xf7, 0x63, 0xae, 0x46, 0xa2, 0xa6, 0xc1, 0x72, 0xb3, 0xf1, 0xb6, 0x0a, 0x8c, 0xe2, 0x6f};
vector *blocklocators = vector_new(1, NULL);
vector_add(blocklocators, genesis_hash);
cstring *getheader_msg = cstr_new_sz(256);
btc_p2p_msg_getheaders(blocklocators, NULL, getheader_msg);
p2p_msg = btc_p2p_message_new((unsigned const char *)&btc_chainparams_main.netmagic, BTC_MSG_GETHEADERS, getheader_msg->str, getheader_msg->len);
buf.p = p2p_msg->str;
buf.len = p2p_msg->len;
btc_p2p_deser_msghdr(&hdr, &buf);
u_assert_str_eq(hdr.command, BTC_MSG_GETHEADERS);
u_assert_int_eq(hdr.data_len, getheader_msg->len);
uint256 hashstop_check;
vector *blocklocators_check = vector_new(1, free);
btc_p2p_deser_msg_getheaders(blocklocators_check, hashstop_check, &buf);
u_assert_mem_eq(NULLHASH, hashstop_check, sizeof(hashstop_check));
uint8_t *hash_loc_0 = vector_idx(blocklocators_check, 0);
u_assert_mem_eq(genesis_hash, hash_loc_0, sizeof(genesis_hash));
/* cleanup */
cstr_free(getheader_msg, true);
vector_free(blocklocators, true);
vector_free(blocklocators_check, true);
cstr_free(p2p_msg, true);
}
void test_logdb(logdb_log_db* (*new_func)())
{
logdb_log_db *db;
enum logdb_error error = 0;
cstring *key;// key= {"key0", 4};
cstring *value;// = {"val0", 4};
cstring *key1;
cstring *value1;
cstring *outtest;
cstring *value_test;
unsigned char testbin[4] = {0x00, 0x10, 0x20, 0x30};
cstring *value0;// = {"dumb", 4};
cstring *key2;// = {"pkey", 4};
cstring *value2;
cstring *smp_value;
cstring *smp_key;
uint8_t txbin[10240];
uint8_t txbin_rev[10240];
char hexrev[98];
int outlenrev;
long fsize;
char *buf;
char *wrk_buf;
FILE *f;
unsigned int i;
char bufs[300][65];
rb_red_blk_node *nodetest;
unsigned int cnt = 0;
logdb_record* rec;
key = cstr_new("key0");
value = cstr_new("val0");
value0 = cstr_new("dumb");
value1 = cstr_new_sz(10);
value2 = cstr_new_sz(10);
key1 = cstr_new_sz(10);
key2 = cstr_new("key2");
cstr_append_buf(value2, testbin, sizeof(testbin));
cstr_append_buf(value2, testbin, sizeof(testbin));
cstr_append_buf(key1, key1str, strlen(key1str));
cstr_append_buf(value1, value1str, strlen(value1str));
unlink(dbtmpfile);
db = new_func();
u_assert_int_eq(logdb_load(db, "file_that_should_not_exists.dat", false, NULL), false);
u_assert_int_eq(logdb_load(db, dbtmpfile, true, NULL), true);
logdb_append(db, NULL, key, value);
logdb_append(db, NULL, key1, value1);
u_assert_int_eq(logdb_cache_size(db), 2);
outtest = logdb_find_cache(db, key1);
u_assert_int_eq(strcmp(outtest->str, value1str),0);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
u_assert_int_eq(logdb_count_keys(db), 2);
value_test = logdb_find(db, key1);
u_assert_int_eq(strcmp(value_test->str, value1str), 0);
value_test = logdb_find(db, key);
u_assert_int_eq(memcmp(value_test->str, value->str, value->len), 0);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
logdb_append(db, NULL, key2, value2);
logdb_flush(db);
logdb_free(db);
/* check if private key is available */
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, key2);
u_assert_int_eq(memcmp(value_test->str, value2->str, value2->len), 0);
value_test = logdb_find(db, key);
u_assert_int_eq(memcmp(value_test->str, value->str, value->len), 0);
/* delete a record */
logdb_delete(db, NULL, key2);
logdb_flush(db);
logdb_free(db);
/* find and check the deleted record */
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, key);
u_assert_int_eq(memcmp(value_test->str, value->str, value->len), 0);
value_test = logdb_find(db, key2);
u_assert_int_eq((int)value_test, 0); /* should be null */
/* overwrite a key */
logdb_append(db, NULL, key, value0);
value_test = logdb_find(db, key);
u_assert_int_eq(memcmp(value_test->str, value0->str, value0->len), 0);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
value_test = logdb_find(db, key);
u_assert_int_eq(memcmp(value_test->str, value0->str, value0->len), 0);
logdb_flush(db);
logdb_free(db);
/* simulate corruption */
f = fopen(dbtmpfile, "rb");
fseek(f, 0, SEEK_END);
fsize = ftell(f);
fseek(f, 0, SEEK_SET);
buf = malloc(fsize + 1);
fread(buf, fsize, 1, f);
fclose(f);
/* ---------------------------------------------------- */
wrk_buf = safe_malloc(fsize + 1);
memcpy(wrk_buf, buf, fsize);
wrk_buf[0] = 0x88; /* wrong header */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_WRONG_FILE_FORMAT);
logdb_free(db);
/* ---------------------------------------------------- */
memcpy(wrk_buf, buf, fsize);
wrk_buf[66] = 0x00; /* wrong checksum hash */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_CHECKSUM);
logdb_free(db);
/* ---------------------------------------------------- */
memcpy(wrk_buf, buf, fsize);
wrk_buf[42] = 0xFF; /* wrong value length */
unlink(dbtmpfile);
f = fopen(dbtmpfile, "wb");
fwrite(wrk_buf, 1, fsize, f);
fclose(f);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), false);
u_assert_int_eq(error, LOGDB_ERROR_DATASTREAM_ERROR);
logdb_free(db);
free(buf);
free(wrk_buf);
/* --- large db test */
unlink(dbtmpfile);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, true, NULL), true);
smp_key = cstr_new_sz(100);
smp_value = cstr_new_sz(100);
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
cstr_erase(smp_value, 0, smp_value->len);
cstr_append_buf(smp_value, txbin, outlen);
logdb_append(db, NULL, smp_key, smp_value);
}
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
outtest = logdb_find(db, smp_key);
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
u_assert_int_eq(outlen, outtest->len);
}
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
memcpy(hexrev, tx->txhash, sizeof(tx->txhash));
utils_reverse_hex(hexrev, strlen(tx->txhash));
outlenrev = sizeof(tx->txhash) / 2;
utils_hex_to_bin(hexrev, txbin_rev, strlen(hexrev), &outlenrev);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
outtest = logdb_find(db, smp_key);
outlen = strlen(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
u_assert_int_eq(outlen, outtest->len);
/* hash transaction data and check hashes */
if (strlen(tx->hextx) > 2)
{
uint8_t tx_hash_check[SHA256_DIGEST_LENGTH];
sha256_Raw(txbin, outlen, tx_hash_check);
sha256_Raw(tx_hash_check, 32, tx_hash_check);
u_assert_int_eq(memcmp(tx_hash_check, txbin_rev, SHA256_DIGEST_LENGTH), 0);
}
}
/* check all records */
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
logdb_delete(db, NULL, smp_key);
}
u_assert_int_eq(logdb_count_keys(db), 0);
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), 0);
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
cstr_erase(smp_value, 0, smp_value->len);
cstr_append_buf(smp_value, txbin, outlen);
logdb_append(db, NULL, smp_key, smp_value);
}
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
logdb_flush(db);
logdb_free(db);
db = new_func();
error = 0;
u_assert_int_eq(logdb_load(db, dbtmpfile, false, &error), true);
u_assert_int_eq(error, LOGDB_SUCCESS);
u_assert_int_eq(logdb_count_keys(db), (sizeof(sampledata) / sizeof(sampledata[0])));
if(new_func == logdb_rbtree_new)
{
logdb_rbtree_db* handle = (logdb_rbtree_db *)db->cb_ctx;
size_t size = rbtree_count(handle->tree);
nodetest = NULL;
while ((nodetest = rbtree_enumerate_next(handle->tree)))
{
rec = (logdb_record *)nodetest->info;
utils_bin_to_hex((unsigned char *)rec->key->str, rec->key->len, bufs[cnt]);
for(i = 0; i < cnt; i++)
{
u_assert_int_eq(strcmp(bufs[i], bufs[cnt]) != 0, 1);
}
cnt++;
}
u_assert_int_eq(size, cnt);
}
for (i = 0; i < (sizeof(sampledata) / sizeof(sampledata[0])); i++) {
const struct txtest *tx = &sampledata[i];
uint8_t hashbin[sizeof(tx->txhash) / 2];
int outlen = sizeof(tx->txhash) / 2;
utils_hex_to_bin(tx->txhash, hashbin, strlen(tx->txhash), &outlen);
cstr_erase(smp_key, 0, smp_key->len);
cstr_append_buf(smp_key, hashbin, outlen);
outlen = sizeof(tx->hextx) / 2;
utils_hex_to_bin(tx->hextx, txbin, strlen(tx->hextx), &outlen);
cstr_erase(smp_value, 0, smp_value->len);
cstr_append_buf(smp_value, txbin, outlen);
logdb_append(db, NULL, smp_key, smp_value);
}
logdb_flush(db);
logdb_free(db);
/* test switch mem mapper after initialitaion. */
db = logdb_new();
logdb_set_memmapper(db, &logdb_rbtree_mapper, NULL);
logdb_flush(db);
logdb_free(db);
unlink(dbtmpfile);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, true, NULL), true);
// create transaction, don't store
logdb_txn* txn = logdb_txn_new();
logdb_append(db, txn, key, value);
logdb_append(db, txn, key1, value1);
u_assert_int_eq(logdb_cache_size(db), 0);
logdb_txn_free(txn);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
// db should still be empty
u_assert_int_eq(logdb_count_keys(db), 0);
// create transaction, store it this time
txn = logdb_txn_new();
logdb_append(db, txn, key, value);
logdb_append(db, txn, key1, value1);
logdb_txn_commit(db, txn);
u_assert_int_eq(logdb_cache_size(db), 2);
logdb_txn_free(txn);
logdb_flush(db);
logdb_free(db);
db = new_func();
u_assert_int_eq(logdb_load(db, dbtmpfile, false, NULL), true);
// now we should have the two persisted items from the txn
u_assert_int_eq(logdb_count_keys(db), 2);
logdb_flush(db);
logdb_free(db);
cstr_free(key, true);
cstr_free(value, true);
cstr_free(value0, true);
cstr_free(value1, true);
cstr_free(value2, true);
cstr_free(key1, true);
cstr_free(key2, true);
cstr_free(smp_key, true);
cstr_free(smp_value, true);
}