Example #1
0
END_TEST

/*
 * Check whether three nested sr_init() and sr_exit() calls work.
 * The three functions have three different contexts.
 * If any function returns != SR_OK (or segfaults) this test will fail.
 */
START_TEST(test_init_exit_3)
{
    int ret;
    struct sr_context *sr_ctx1, *sr_ctx2, *sr_ctx3;

    ret = sr_init(&sr_ctx1);
    fail_unless(ret == SR_OK, "sr_init() 1 failed: %d.", ret);
    ret = sr_init(&sr_ctx2);
    fail_unless(ret == SR_OK, "sr_init() 2 failed: %d.", ret);
    ret = sr_init(&sr_ctx3);
    fail_unless(ret == SR_OK, "sr_init() 3 failed: %d.", ret);
    ret = sr_exit(sr_ctx3);
    fail_unless(ret == SR_OK, "sr_exit() 3 failed: %d.", ret);
    ret = sr_exit(sr_ctx2);
    fail_unless(ret == SR_OK, "sr_exit() 2 failed: %d.", ret);
    ret = sr_exit(sr_ctx1);
    fail_unless(ret == SR_OK, "sr_exit() 1 failed: %d.", ret);
}
Example #2
0
int main(int argc, char *argv[])
{
    QString locale = QLocale::system().name();
    QApplication a(argc, argv);
    QTranslator translator;

    translator.load(QString("locale/sigrok-gui_") + locale);
    a.installTranslator(&translator);

    /* Set some application metadata. */
    QApplication::setApplicationVersion(APP_VERSION);
    QApplication::setApplicationName("sigrok-gui");
    QApplication::setOrganizationDomain("http://www.sigrok.org");

    /* Disable this to actually allow running the (pre-alpha!) GUI. */
    qDebug() << "The GUI is not yet usable, aborting.";
    // return 1;

    if (sr_init() != SR_OK) {
        qDebug() << "ERROR: libsigrok init failed.";
        return 1;
    }
    qDebug() << "libsigrok initialized successfully.";

    if (srd_init() != SRD_OK) {
        qDebug() << "ERROR: libsigrokdecode init failed.";
        return 1;
    }
    qDebug() << "libsigrokdecode initialized successfully.";

    w = new MainWindow;
    w->show();

    return a.exec();
}
Example #3
0
/** Do common setup for test_timely_consensus() and
 * test_early_consensus().  Call networkstatus_set_current_consensus()
 * on a constructed consensus and with an appropriately-modified
 * approx_time.  Callers expect presence or absence of appropriate log
 * messages and control events. */
static int
test_skew_common(void *arg, time_t now, unsigned long *offset)
{
  char *consensus = NULL;
  int retval = 0;

  *offset = strtoul(arg, NULL, 10);

  /* Initialize the SRV subsystem */
  MOCK(get_my_v3_authority_cert, get_my_v3_authority_cert_m);
  mock_cert = authority_cert_parse_from_string(AUTHORITY_CERT_1,
                                               strlen(AUTHORITY_CERT_1),
                                               NULL);
  sr_init(0);
  UNMOCK(get_my_v3_authority_cert);

  construct_consensus(&consensus, now);
  tt_assert(consensus);

  update_approx_time(now + *offset);

  mock_apparent_skew = 0;
  /* Caller will call UNMOCK() */
  MOCK(clock_skew_warning, mock_clock_skew_warning);
  /* Caller will call teardown_capture_of_logs() */
  setup_capture_of_logs(LOG_WARN);
  retval = networkstatus_set_current_consensus(consensus, strlen(consensus),
                                               "microdesc", 0,
                                               NULL);

 done:
  tor_free(consensus);
  return retval;
}
Example #4
0
void tcpipinit()
{
	prog_name= "kernel TCP/IP";

	mu_init(&mu_generic);
	mu_lock(&mu_generic);

	tcpip_dirinit();

	sr_init_cap_names();
	sr_set_cap_name(ETH_DEV0, "eth");
	sr_set_cap_name(IP_DEV0, "ip");
	sr_set_cap_name(TCP_DEV0, "tcp");
	sr_set_cap_name(UDP_DEV0, "udp");
#if 0
	sr_enable_linger_right();
#endif

	bf_init();
	clck_init();
	sr_init();
	eth_init();
	arp_init();
	ip_init();
	tcp_init();
	udp_init();
	add_default_gws();

	mu_unlock(&mu_generic);
	tcpip_chmod();
}
Example #5
0
void srtest_setup(void)
{
	int ret;

	ret = sr_init(&srtest_ctx);
	fail_unless(ret == SR_OK, "sr_init() failed: %d.", ret);
}
Example #6
0
int main (int argc, char **argv)
{

  g_type_init ();
  //sr_init_local ("/tmp/aa");
  //test ();
  sr_init ();
  test ();

  return 0;
}
Example #7
0
END_TEST

/*
 * Same as above, but sr_exit() in the "wrong" order.
 * This should work fine, it's not a bug to do this.
 */
START_TEST(test_init_exit_2_reverse)
{
    int ret;
    struct sr_context *sr_ctx1, *sr_ctx2;

    ret = sr_init(&sr_ctx1);
    fail_unless(ret == SR_OK, "sr_init() 1 failed: %d.", ret);
    ret = sr_init(&sr_ctx2);
    fail_unless(ret == SR_OK, "sr_init() 2 failed: %d.", ret);
    ret = sr_exit(sr_ctx1);
    fail_unless(ret == SR_OK, "sr_exit() 1 failed: %d.", ret);
    ret = sr_exit(sr_ctx2);
    fail_unless(ret == SR_OK, "sr_exit() 2 failed: %d.", ret);
}
Example #8
0
END_TEST

/* Check whether sr_init(NULL) fails as it should. */
START_TEST(test_init_null)
{
    int ret;

    ret = sr_log_loglevel_set(SR_LOG_NONE);
    fail_unless(ret == SR_OK, "sr_log_loglevel_set() failed: %d.", ret);

    ret = sr_init(NULL);
    fail_unless(ret != SR_OK, "sr_init(NULL) should have failed.");
}
Example #9
0
PRIVATE void nw_init()
{
	mq_init();
	qp_init();
	bf_init();
	clck_init();
	sr_init();
	eth_init();
	arp_init();
	psip_init();
	ip_init();
	tcp_init();
	udp_init();
}
Example #10
0
static void
mt_multi_stmt(stc *cx)
{
	cx->env = sp_env();
	t( cx->env != NULL );
	void *c = sp_ctl(cx->env);
	t( c != NULL );
	t( sp_set(c, "sophia.path", cx->suite->sophiadir) == 0 );
	t( sp_set(c, "scheduler.threads", "3") == 0 );
	t( sp_set(c, "log.path", cx->suite->logdir) == 0 );
	t( sp_set(c, "log.sync", "0") == 0 );
	t( sp_set(c, "log.rotate_sync", "0") == 0 );
	t( sp_set(c, "db", "test") == 0 );
	t( sp_set(c, "db.test.path", cx->suite->dir) == 0 );
	t( sp_set(c, "db.test.sync", "0") == 0 );
	cx->db = sp_get(c, "db.test");
	t( cx->db != NULL );
	t( sp_open(cx->env) == 0 );

	ssa a;
	ss_aopen(&a, &ss_stda);
	srscheme cmp;
	sr_schemeinit(&cmp);
	srkey *part = sr_schemeadd(&cmp, &a);
	t( sr_keysetname(part, &a, "key") == 0 );
	t( sr_keyset(part, &a, "u32") == 0 );
	ssinjection ij;
	memset(&ij, 0, sizeof(ij));
	srerror error;
	sr_errorinit(&error);
	srseq seq;
	sr_seqinit(&seq);
	sscrcf crc = ss_crc32c_function();
	sr r;
	sr_init(&r, &error, &a, &seq, SF_KV, SF_SRAW, &cmp, &ij, crc, NULL);

	soworkers w;
	so_workersinit(&w);
	void *ptr[2] = { cx->env, cx->db };
	t( so_workersnew(&w, &r, 5, multi_stmt_thread, (void*)ptr) == 0 );
	t( so_workersshutdown(&w, &r) == 0 );
	sr_schemefree(&cmp, &a);

	void *o = sp_get(c, "db.test.index.count");
	t( o != NULL );
	t( strcmp( sp_get(o, "value", NULL), "100000") == 0 );
	sp_destroy(o);

	t( sp_destroy(cx->env) == 0 );
}
Example #11
0
File: inet.c Project: 54niyu/minix
PRIVATE void nw_init()
{
#if DEBUG & 256
 { where(); printf("starting mq_init()\n"); }
#endif
	mq_init();
#if DEBUG & 256
 { where(); printf("starting bf_init()\n"); }
#endif
	bf_init();
#if DEBUG & 256
 { where(); printf("starting clck_init()\n"); }
#endif
	clck_init();
#if DEBUG & 256
 { where(); printf("starting sr_init()\n"); }
#endif
	sr_init();
#if DEBUG & 256
 { where(); printf("starting eth_init()\n"); }
#endif
	eth_init();
#if DEBUG & 256
 { where(); printf("starting arp_init()\n"); }
#endif
#if ENABLE_ARP
	arp_init();
#endif
#if DEBUG & 256
 { where(); printf("starting ip_init()\n"); }
#endif
#if ENABLE_IP
	ip_init();
#endif
#if DEBUG & 256
 { where(); printf("starting tcp_init()\n"); }
#endif
#if ENABLE_TCP
	tcp_init();
#endif
#if DEBUG & 256
 { where(); printf("starting udp_init()\n"); }
#endif
#if ENABLE_UDP
	udp_init();
#endif
}
Example #12
0
int main() {
    sr_init(SER_Pin, RCLK_Pin, SRCLK_Pin);

    int cycle = 0;

    while (1) {
        if (cycle > (1 << 8))
            cycle = 0;

        display_bit_pattern(cycle);
        _delay_ms(DELAY_MS);

        cycle++;
    }

    return 0;
}
Example #13
0
static void
svv_kv(stc *cx)
{
	sra a;
	sr_aopen(&a, &sr_stda);

	srkey cmp;
	sr_keyinit(&cmp);
	srkeypart *part = sr_keyadd(&cmp, &a);
	t( sr_keypart_setname(part, &a, "key") == 0 );
	t( sr_keypart_set(part, &a, "u32") == 0 );
	sr r;
	sr_init(&r, NULL, &a, NULL, SR_FKV, &cmp, NULL, NULL, NULL);

	uint32_t key = 123;
	uint32_t value = 321;

	srformatv pv;
	pv.key = (char*)&key;
	pv.r.size = sizeof(key);
	pv.r.offset = 0;

	svv *vv = sv_vbuild(&r, &pv, 1, (char*)&value, sizeof(value));
	t( vv != NULL );
	vv->flags = SVSET;
	vv->lsn = 10;
	sv v;
	sv_init(&v, &sv_vif, vv, NULL);

	t( sv_flags(&v) == SVSET );
	t( sv_lsn(&v) == 10 );
	sv_lsnset(&v, 8);
	t( sv_lsn(&v) == 8 );

	t( *(uint32_t*)sr_formatkey(sv_pointer(&v), 0) == key );
	t( sr_formatkey_size(sv_pointer(&v), 0) == sizeof(key) );

	t( *(uint32_t*)sr_formatvalue(SR_FKV, &cmp, sv_pointer(&v)) == value );
	t( sr_formatvalue_size(SR_FKV, &cmp, sv_pointer(&v), sv_size(&v) ) == sizeof(value) );

	sv_vfree(&a, vv);
	sr_keyfree(&cmp, &a);
}
Example #14
0
int main(int argc, char **argv)
{
	GOptionContext *context;
	GError *error;

	g_log_set_default_handler(logger, NULL);

	error = NULL;
	context = g_option_context_new(NULL);
	g_option_context_add_main_entries(context, optargs, NULL);

	if (!g_option_context_parse(context, &argc, &argv, &error)) {
		g_critical("%s", error->message);
		return 1;
	}

	/* Set the loglevel (amount of messages to output) for libsigrok. */
	if (sr_log_loglevel_set(opt_loglevel) != SR_OK)
		return 1;

	/* Set the loglevel (amount of messages to output) for libsigrokdecode. */
	if (srd_log_loglevel_set(opt_loglevel) != SRD_OK)
		return 1;

	if (sr_init() != SR_OK)
		return 1;

	if (opt_pds) {
		if (srd_init(NULL) != SRD_OK)
			return 1;
		if (register_pds(NULL, opt_pds) != 0)
			return 1;
		if (srd_pd_output_callback_add(SRD_OUTPUT_ANN,
				show_pd_annotations, NULL) != SRD_OK)
			return 1;
		if (setup_pd_stack() != 0)
			return 1;
		if (setup_pd_annotations() != 0)
			return 1;
	}

	if (setup_output_format() != 0)
		return 1;

	if (opt_version)
		show_version();
	else if (opt_list_devs)
		show_dev_list();
	else if (opt_input_file)
		load_input_file();
	else if (opt_samples || opt_time || opt_frames || opt_continuous)
		run_session();
	else if (opt_dev)
		show_dev_detail();
	else if (opt_pds)
		show_pd_detail();
	else
		printf("%s", g_option_context_get_help(context, TRUE, NULL));

	if (opt_pds)
		srd_exit();

	g_option_context_free(context);
	sr_exit();

	return 0;
}
Example #15
0
static void
test_router_pick_directory_server_impl(void *arg)
{
  (void)arg;

  networkstatus_t *con_md = NULL;
  char *consensus_text_md = NULL;
  int flags = PDS_IGNORE_FASCISTFIREWALL|PDS_RETRY_IF_NO_SERVERS;
  or_options_t *options = get_options_mutable();
  const routerstatus_t *rs = NULL;
  options->UseMicrodescriptors = 1;
  char *router1_id = NULL, *router2_id = NULL, *router3_id = NULL;
  node_t *node_router1 = NULL, *node_router2 = NULL, *node_router3 = NULL;
  config_line_t *policy_line = NULL;
  time_t now = time(NULL);
  int tmp_dirport1, tmp_dirport3;

  (void)arg;

  MOCK(usable_consensus_flavor, mock_usable_consensus_flavor);

  /* With no consensus, we must be bootstrapping, regardless of time or flavor
   */
  mock_usable_consensus_flavor_value = FLAV_NS;
  tt_assert(networkstatus_consensus_is_bootstrapping(now));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2000));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2*24*60*60));
  tt_assert(networkstatus_consensus_is_bootstrapping(now - 2*24*60*60));

  mock_usable_consensus_flavor_value = FLAV_MICRODESC;
  tt_assert(networkstatus_consensus_is_bootstrapping(now));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2000));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2*24*60*60));
  tt_assert(networkstatus_consensus_is_bootstrapping(now - 2*24*60*60));

  /* Init SR subsystem. */
  MOCK(get_my_v3_authority_cert, get_my_v3_authority_cert_m);
  mock_cert = authority_cert_parse_from_string(AUTHORITY_CERT_1,
                                               strlen(AUTHORITY_CERT_1),
                                               NULL);
  sr_init(0);
  UNMOCK(get_my_v3_authority_cert);

  /* No consensus available, fail early */
  rs = router_pick_directory_server_impl(V3_DIRINFO, (const int) 0, NULL);
  tt_ptr_op(rs, OP_EQ, NULL);

  construct_consensus(&consensus_text_md, now);
  tt_assert(consensus_text_md);
  con_md = networkstatus_parse_vote_from_string(consensus_text_md,
                                                strlen(consensus_text_md),
                                                NULL,
                                                NS_TYPE_CONSENSUS);
  tt_assert(con_md);
  tt_int_op(con_md->flavor,OP_EQ, FLAV_MICRODESC);
  tt_assert(con_md->routerstatus_list);
  tt_int_op(smartlist_len(con_md->routerstatus_list), OP_EQ, 3);
  tt_assert(!networkstatus_set_current_consensus_from_ns(con_md,
                                                 "microdesc"));

  /* If the consensus time or flavor doesn't match, we are still
   * bootstrapping */
  mock_usable_consensus_flavor_value = FLAV_NS;
  tt_assert(networkstatus_consensus_is_bootstrapping(now));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2000));
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2*24*60*60));
  tt_assert(networkstatus_consensus_is_bootstrapping(now - 2*24*60*60));

  /* With a valid consensus for the current time and flavor, we stop
   * bootstrapping, even if we have no certificates */
  mock_usable_consensus_flavor_value = FLAV_MICRODESC;
  tt_assert(!networkstatus_consensus_is_bootstrapping(now + 2000));
  tt_assert(!networkstatus_consensus_is_bootstrapping(con_md->valid_after));
  tt_assert(!networkstatus_consensus_is_bootstrapping(con_md->valid_until));
  tt_assert(!networkstatus_consensus_is_bootstrapping(con_md->valid_until
                                                      + 24*60*60));
  /* These times are outside the test validity period */
  tt_assert(networkstatus_consensus_is_bootstrapping(now + 2*24*60*60));
  tt_assert(networkstatus_consensus_is_bootstrapping(now - 2*24*60*60));

  nodelist_set_consensus(con_md);
  nodelist_assert_ok();

  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  /* We should not fail now we have a consensus and routerstatus_list
   * and nodelist are populated. */
  tt_ptr_op(rs, OP_NE, NULL);

  /* Manipulate the nodes so we get the dir server we expect */
  router1_id = tor_malloc(DIGEST_LEN);
  memset(router1_id, TEST_DIR_ROUTER_ID_1, DIGEST_LEN);
  router2_id = tor_malloc(DIGEST_LEN);
  memset(router2_id, TEST_DIR_ROUTER_ID_2, DIGEST_LEN);
  router3_id = tor_malloc(DIGEST_LEN);
  memset(router3_id, TEST_DIR_ROUTER_ID_3, DIGEST_LEN);

  node_router1 = node_get_mutable_by_id(router1_id);
  node_router2 = node_get_mutable_by_id(router2_id);
  node_router3 = node_get_mutable_by_id(router3_id);

  node_router1->is_possible_guard = 1;

  node_router1->is_running = 0;
  node_router3->is_running = 0;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router2_id, DIGEST_LEN));
  rs = NULL;
  node_router1->is_running = 1;
  node_router3->is_running = 1;

  node_router1->rs->is_v2_dir = 0;
  node_router3->rs->is_v2_dir = 0;
  tmp_dirport1 = node_router1->rs->dir_port;
  tmp_dirport3 = node_router3->rs->dir_port;
  node_router1->rs->dir_port = 0;
  node_router3->rs->dir_port = 0;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router2_id, DIGEST_LEN));
  rs = NULL;
  node_router1->rs->is_v2_dir = 1;
  node_router3->rs->is_v2_dir = 1;
  node_router1->rs->dir_port = tmp_dirport1;
  node_router3->rs->dir_port = tmp_dirport3;

  node_router1->is_valid = 0;
  node_router3->is_valid = 0;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router2_id, DIGEST_LEN));
  rs = NULL;
  node_router1->is_valid = 1;
  node_router3->is_valid = 1;

  /* Manipulate overloaded */

  node_router2->rs->last_dir_503_at = now;
  node_router3->rs->last_dir_503_at = now;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router1_id, DIGEST_LEN));
  node_router2->rs->last_dir_503_at = 0;
  node_router3->rs->last_dir_503_at = 0;

  /* Set a Fascist firewall */
  flags &= ~ PDS_IGNORE_FASCISTFIREWALL;
  policy_line = tor_malloc_zero(sizeof(config_line_t));
  policy_line->key = tor_strdup("ReachableORAddresses");
  policy_line->value = tor_strdup("accept *:442, reject *:*");
  options->ReachableORAddresses = policy_line;
  policies_parse_from_options(options);

  node_router1->rs->or_port = 444;
  node_router2->rs->or_port = 443;
  node_router3->rs->or_port = 442;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router3_id, DIGEST_LEN));
  node_router1->rs->or_port = 442;
  node_router2->rs->or_port = 443;
  node_router3->rs->or_port = 444;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router1_id, DIGEST_LEN));

  /* Fascist firewall and overloaded */
  node_router1->rs->or_port = 442;
  node_router2->rs->or_port = 443;
  node_router3->rs->or_port = 442;
  node_router3->rs->last_dir_503_at = now;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router1_id, DIGEST_LEN));
  node_router3->rs->last_dir_503_at = 0;

  /* Fascists against OR and Dir */
  policy_line = tor_malloc_zero(sizeof(config_line_t));
  policy_line->key = tor_strdup("ReachableAddresses");
  policy_line->value = tor_strdup("accept *:80, reject *:*");
  options->ReachableDirAddresses = policy_line;
  policies_parse_from_options(options);
  node_router1->rs->or_port = 442;
  node_router2->rs->or_port = 441;
  node_router3->rs->or_port = 443;
  node_router1->rs->dir_port = 80;
  node_router2->rs->dir_port = 80;
  node_router3->rs->dir_port = 81;
  node_router1->rs->last_dir_503_at = now;
  rs = router_pick_directory_server_impl(V3_DIRINFO, flags, NULL);
  tt_ptr_op(rs, OP_NE, NULL);
  tt_assert(tor_memeq(rs->identity_digest, router1_id, DIGEST_LEN));
  node_router1->rs->last_dir_503_at = 0;

 done:
  UNMOCK(usable_consensus_flavor);

  if (router1_id)
    tor_free(router1_id);
  if (router2_id)
    tor_free(router2_id);
  if (router3_id)
    tor_free(router3_id);
  if (options->ReachableORAddresses ||
      options->ReachableDirAddresses)
    policies_free_all();
  tor_free(consensus_text_md);
  networkstatus_vote_free(con_md);
}
Example #16
0
static void
sd_read_gt0(void)
{
	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &st_r.r, 1, 0, 0, 0, NULL) == 0);

	int key = 7;
	addv(&b, &st_r.r, 3, 0, &key);
	key = 8;
	addv(&b, &st_r.r, 4, 0, &key);
	key = 9;
	addv(&b, &st_r.r, 5, 0, &key);
	sd_buildend(&b, &st_r.r);

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &st_r.r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &st_r.r, &b, sizeof(sdseal));
	t( rc == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));

	ssfile f;
	ss_fileinit(&f, &st_r.vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&st_r.r, &f, NULL) == 0 );
	t( sd_writepage(&st_r.r, &f, NULL, &b) == 0 );
	t( sd_indexcommit(&index, &st_r.r, &id, NULL, f.size) == 0 );
	t( sd_writeindex(&st_r.r, &f, NULL, &index) == 0 );
	t( sd_seal(&st_r.r, &f, NULL, &index, 0) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &st_r.a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 0,
		.compression_if  = NULL,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &st_r.r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 9);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&st_r.vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &st_r.r);
	sd_buildfree(&b, &st_r.r);
	ss_buffree(&xfbuf, &st_r.a);
	ss_buffree(&buf, &st_r.a);
}

static void
sd_read_gt1(void)
{
	ssfile f;
	ss_fileinit(&f, &st_r.vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&st_r.r, &f, NULL) == 0 );

	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &st_r.r, 1, 0, 0, 0, NULL) == 0);

	int key = 7;
	addv(&b, &st_r.r, 3, 0, &key);
	key = 8;
	addv(&b, &st_r.r, 4, 0, &key);
	key = 9;
	addv(&b, &st_r.r, 5, 0, &key);
	sd_buildend(&b, &st_r.r);
	uint64_t poff = f.size;
	t( sd_writepage(&st_r.r, &f, NULL, &b) == 0 );

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &st_r.r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &st_r.r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &st_r.r) == 0 );

	t( sd_buildbegin(&b, &st_r.r, 1, 0, 0, 0, NULL) == 0);
	key = 10;
	addv(&b, &st_r.r, 6, 0, &key);
	key = 11;
	addv(&b, &st_r.r, 7, 0, &key);
	key = 13;
	addv(&b, &st_r.r, 8, 0, &key);
	sd_buildend(&b, &st_r.r);
	poff = f.size;
	t( sd_writepage(&st_r.r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &st_r.r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &st_r.r) == 0 );

	t( sd_buildbegin(&b, &st_r.r, 1, 0, 0, 0, NULL) == 0);
	key = 15;
	addv(&b, &st_r.r, 9, 0, &key);
	key = 18;
	addv(&b, &st_r.r, 10, 0, &key);
	key = 20;
	addv(&b, &st_r.r, 11, 0, &key);
	sd_buildend(&b, &st_r.r);
	poff = f.size;
	t( sd_writepage(&st_r.r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &st_r.r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &st_r.r) == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));

	t( sd_indexcommit(&index, &st_r.r, &id, NULL, f.size) == 0 );
	t( sd_writeindex(&st_r.r, &f, NULL, &index) == 0 );
	t( sd_seal(&st_r.r, &f, NULL, &index, 0) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &st_r.a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 0,
		.compression_if  = NULL,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &st_r.r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	/* page 0 */
	t( ss_iteratorhas(&it) != 0 );
	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 9);
	ss_iteratornext(&it);

	/* page 1 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 10);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 11);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 13);
	ss_iteratornext(&it);

	/* page 2 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 15);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 18);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &st_r.r, 0, NULL) == 20);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&st_r.vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &st_r.r);
	sd_buildfree(&b, &st_r.r);
	ss_buffree(&xfbuf, &st_r.a);
	ss_buffree(&buf, &st_r.a);
}

static void
sd_read_gt0_compression_zstd(void)
{
	ssa a;
	ss_aopen(&a, &ss_stda);
	ssa aref;
	ss_aopen(&aref, &ss_stda);
	ssvfs vfs;
	ss_vfsinit(&vfs, &ss_stdvfs);
	sfscheme cmp;
	sf_schemeinit(&cmp);
	sffield *field = sf_fieldnew(&a, "key");
	t( sf_fieldoptions(field, &a, "u32,key(0)") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	field = sf_fieldnew(&a, "value");
	t( sf_fieldoptions(field, &a, "string") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	t( sf_schemevalidate(&cmp, &a) == 0 );
	ssinjection ij;
	memset(&ij, 0, sizeof(ij));
	srstat stat;
	memset(&stat, 0, sizeof(stat));
	srerror error;
	sr_errorinit(&error);
	srseq seq;
	sr_seqinit(&seq);
	sscrcf crc = ss_crc32c_function();
	sr r;
	sr_init(&r, NULL, &error, &a, &aref, &vfs, NULL, NULL, &seq, SF_RAW,
	        NULL, &cmp, &ij, &stat, crc);

	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_zstdfilter) == 0);

	int key = 7;
	addv(&b, &r, 3, 0, &key);
	key = 8;
	addv(&b, &r, 4, 0, &key);
	key = 9;
	addv(&b, &r, 5, 0, &key);
	t( sd_buildend(&b, &r) == 0 );

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &r, &b, sizeof(sdseal));
	t( rc == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));

	ssfile f;
	ss_fileinit(&f, &vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&r, &f, NULL) == 0 );
	t( sd_writepage(&r, &f, NULL, &b) == 0 );
	t( sd_indexcommit(&index, &r, &id, NULL, f.size) == 0 );
	t( sd_writeindex(&r, &f, NULL, &index) == 0 );
	t( sd_seal(&r, &f, NULL, &index, 0) == 0 );

	t( sd_buildcommit(&b, &r) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 1,
		.compression_if  = &ss_zstdfilter,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 9);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &r);
	sd_buildfree(&b, &r);

	ss_buffree(&xfbuf, &a);
	ss_buffree(&buf, &a);
	sf_schemefree(&cmp, &a);
}

static void
sd_read_gt0_compression_lz4(void)
{
	ssa a;
	ss_aopen(&a, &ss_stda);
	ssa aref;
	ss_aopen(&aref, &ss_stda);
	ssvfs vfs;
	ss_vfsinit(&vfs, &ss_stdvfs);
	sfscheme cmp;
	sf_schemeinit(&cmp);
	sffield *field = sf_fieldnew(&a, "key");
	t( sf_fieldoptions(field, &a, "u32,key(0)") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	field = sf_fieldnew(&a, "value");
	t( sf_fieldoptions(field, &a, "string") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	t( sf_schemevalidate(&cmp, &a) == 0 );
	ssinjection ij;
	memset(&ij, 0, sizeof(ij));
	srstat stat;
	memset(&stat, 0, sizeof(stat));
	srerror error;
	sr_errorinit(&error);
	srseq seq;
	sr_seqinit(&seq);
	sscrcf crc = ss_crc32c_function();
	sr r;
	sr_init(&r, NULL, &error, &a, &aref, &vfs, NULL, NULL, &seq, SF_RAW,
	        NULL, &cmp, &ij, &stat, crc);

	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_lz4filter) == 0);

	int key = 7;
	addv(&b, &r, 3, 0, &key);
	key = 8;
	addv(&b, &r, 4, 0, &key);
	key = 9;
	addv(&b, &r, 5, 0, &key);
	t( sd_buildend(&b, &r) == 0 );

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &r, &b, sizeof(sdseal));
	t( rc == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));

	t( sd_indexcommit(&index, &r, &id, NULL, 0) == 0 );

	ssfile f;
	ss_fileinit(&f, &vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&r, &f, NULL) == 0 );
	t( sd_writepage(&r, &f, NULL, &b) == 0 );
	t( sd_indexcommit(&index, &r, &id, NULL, f.size) == 0 );
	t( sd_writeindex(&r, &f, NULL, &index) == 0 );
	t( sd_seal(&r, &f, NULL, &index, 0) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	t( sd_buildcommit(&b, &r) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 1,
		.compression_if  = &ss_lz4filter,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 9);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &r);
	sd_buildfree(&b, &r);

	ss_buffree(&xfbuf, &a);
	ss_buffree(&buf, &a);
	sf_schemefree(&cmp, &a);
}

static void
sd_read_gt1_compression_zstd(void)
{
	ssa a;
	ss_aopen(&a, &ss_stda);
	ssa aref;
	ss_aopen(&aref, &ss_stda);
	ssvfs vfs;
	ss_vfsinit(&vfs, &ss_stdvfs);
	sfscheme cmp;
	sf_schemeinit(&cmp);
	sffield *field = sf_fieldnew(&a, "key");
	t( sf_fieldoptions(field, &a, "u32,key(0)") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	field = sf_fieldnew(&a, "value");
	t( sf_fieldoptions(field, &a, "string") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	t( sf_schemevalidate(&cmp, &a) == 0 );
	ssinjection ij;
	memset(&ij, 0, sizeof(ij));
	srstat stat;
	memset(&stat, 0, sizeof(stat));
	srerror error;
	sr_errorinit(&error);
	srseq seq;
	sr_seqinit(&seq);
	sscrcf crc = ss_crc32c_function();
	sr r;
	sr_init(&r, NULL, &error, &a, &aref, &vfs, NULL, NULL, &seq, SF_RAW,
	        NULL, &cmp, &ij, &stat, crc);

	ssfile f;
	ss_fileinit(&f, &vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&r, &f, NULL) == 0 );

	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_zstdfilter) == 0);

	int key = 7;
	addv(&b, &r, 3, 0, &key);
	key = 8;
	addv(&b, &r, 4, 0, &key);
	key = 9;
	addv(&b, &r, 5, 0, &key);
	sd_buildend(&b, &r);
	uint64_t poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );
	sd_buildreset(&b, &r);

	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_zstdfilter) == 0);
	key = 10;
	addv(&b, &r, 6, 0, &key);
	key = 11;
	addv(&b, &r, 7, 0, &key);
	key = 13;
	addv(&b, &r, 8, 0, &key);
	sd_buildend(&b, &r);
	poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );
	sd_buildreset(&b, &r);

	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_zstdfilter) == 0);
	key = 15;
	addv(&b, &r, 9, 0, &key);
	key = 18;
	addv(&b, &r, 10, 0, &key);
	key = 20;
	addv(&b, &r, 11, 0, &key);
	sd_buildend(&b, &r);
	poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));
	t( sd_indexcommit(&index, &r, &id, NULL, f.size) == 0 );

	t( sd_writeindex(&r, &f, NULL, &index) == 0 );
	t( sd_seal(&r, &f, NULL, &index, 0) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 1,
		.compression_if  = &ss_zstdfilter,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	/* page 0 */
	t( ss_iteratorhas(&it) != 0 );
	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 9);
	ss_iteratornext(&it);

	/* page 1 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 10);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 11);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 13);
	ss_iteratornext(&it);

	/* page 2 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 15);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 18);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 20);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &r);
	sd_buildfree(&b, &r);
	ss_buffree(&buf, &a);
	ss_buffree(&xfbuf, &a);
	sf_schemefree(&cmp, &a);
}

static void
sd_read_gt1_compression_lz4(void)
{
	ssa a;
	ss_aopen(&a, &ss_stda);
	ssa aref;
	ss_aopen(&aref, &ss_stda);
	ssvfs vfs;
	ss_vfsinit(&vfs, &ss_stdvfs);
	sfscheme cmp;
	sf_schemeinit(&cmp);
	sffield *field = sf_fieldnew(&a, "key");
	t( sf_fieldoptions(field, &a, "u32,key(0)") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	field = sf_fieldnew(&a, "value");
	t( sf_fieldoptions(field, &a, "string") == 0 );
	t( sf_schemeadd(&cmp, &a, field) == 0 );
	t( sf_schemevalidate(&cmp, &a) == 0 );
	ssinjection ij;
	memset(&ij, 0, sizeof(ij));
	srstat stat;
	memset(&stat, 0, sizeof(stat));
	srerror error;
	sr_errorinit(&error);
	srseq seq;
	sr_seqinit(&seq);
	sscrcf crc = ss_crc32c_function();
	sr r;
	sr_init(&r, NULL, &error, &a, &aref, &vfs, NULL, NULL, &seq, SF_RAW,
	        NULL, &cmp, &ij, &stat, crc);

	ssfile f;
	ss_fileinit(&f, &vfs);
	t( ss_filenew(&f, "./0000.db") == 0 );
	t( sd_writeseal(&r, &f, NULL) == 0 );

	sdbuild b;
	sd_buildinit(&b);
	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_lz4filter) == 0);

	int key = 7;
	addv(&b, &r, 3, 0, &key);
	key = 8;
	addv(&b, &r, 4, 0, &key);
	key = 9;
	addv(&b, &r, 5, 0, &key);
	sd_buildend(&b, &r);
	uint64_t poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	sdindex index;
	sd_indexinit(&index);
	t( sd_indexbegin(&index, &r) == 0 );

	int rc;
	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );
	sd_buildreset(&b, &r);

	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_lz4filter) == 0);
	key = 10;
	addv(&b, &r, 6, 0, &key);
	key = 11;
	addv(&b, &r, 7, 0, &key);
	key = 13;
	addv(&b, &r, 8, 0, &key);
	sd_buildend(&b, &r);
	poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );
	sd_buildreset(&b, &r);

	t( sd_buildbegin(&b, &r, 1, 0, 0, 1, &ss_lz4filter) == 0);
	key = 15;
	addv(&b, &r, 9, 0, &key);
	key = 18;
	addv(&b, &r, 10, 0, &key);
	key = 20;
	addv(&b, &r, 11, 0, &key);
	sd_buildend(&b, &r);
	poff = f.size;
	t( sd_writepage(&r, &f, NULL, &b) == 0 );

	rc = sd_indexadd(&index, &r, &b, poff);
	t( rc == 0 );
	t( sd_buildcommit(&b, &r) == 0 );

	sdid id;
	memset(&id, 0, sizeof(id));
	t( sd_indexcommit(&index, &r, &id, NULL, f.size) == 0 );

	t( sd_writeindex(&r, &f, NULL, &index) == 0 );
	t( sd_seal(&r, &f, NULL, &index, 0) == 0 );

	ssmmap map;
	t( ss_vfsmmap(&st_r.vfs, &map, f.fd, f.size, 1) == 0 );

	ssbuf buf;
	ss_bufinit(&buf);
	ssbuf xfbuf;
	ss_bufinit(&xfbuf);
	t( ss_bufensure(&xfbuf, &a, 1024) == 0 );

	ssiter index_iter;
	ssiter page_iter;

	sdreadarg arg = {
		.index           = &index,
		.buf             = &buf,
		.buf_xf          = &xfbuf,
		.buf_read        = NULL,
		.index_iter      = &index_iter,
		.page_iter       = &page_iter,
		.mmap            = &map,
		.memory          = NULL,
		.file            = NULL,
		.o               = SS_GT,
		.use_memory      = 0,
		.use_mmap        = 1,
		.use_mmap_copy   = 0,
		.use_compression = 1,
		.compression_if  = &ss_lz4filter,
		.has             = 0,
		.has_vlsn        = 0,
		.r               = &r
	};

	ssiter it;
	ss_iterinit(sd_read, &it);
	ss_iteropen(sd_read, &it, &arg, NULL, 0);
	t( ss_iteratorhas(&it) == 1 );

	/* page 0 */
	t( ss_iteratorhas(&it) != 0 );
	sv *v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 7);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 8);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 9);
	ss_iteratornext(&it);

	/* page 1 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 10);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 11);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 13);
	ss_iteratornext(&it);

	/* page 2 */
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 15);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 18);
	ss_iteratornext(&it);
	v = ss_iteratorof(&it);
	t( *(int*)sv_field(v, &r, 0, NULL) == 20);
	ss_iteratornext(&it);
	t( ss_iteratorhas(&it) == 0 );
	ss_iteratorclose(&it);

	ss_fileclose(&f);
	t( ss_vfsmunmap(&st_r.vfs, &map) == 0 );
	t( ss_vfsunlink(&vfs, "./0000.db") == 0 );

	sd_indexfree(&index, &r);
	sd_buildfree(&b, &r);
	ss_buffree(&buf, &a);
	ss_buffree(&xfbuf, &a);
	sf_schemefree(&cmp, &a);
}

stgroup *sd_read_group(void)
{
	stgroup *group = st_group("sdread");
	st_groupadd(group, st_test("gt0", sd_read_gt0));
	st_groupadd(group, st_test("gt1", sd_read_gt1));
	st_groupadd(group, st_test("gt0_compression_zstd", sd_read_gt0_compression_zstd));
	st_groupadd(group, st_test("gt0_compression_lz4", sd_read_gt0_compression_lz4));
	st_groupadd(group, st_test("gt1_compression_zstd", sd_read_gt1_compression_zstd));
	st_groupadd(group, st_test("gt1_compression_lz4", sd_read_gt1_compression_lz4));
	return group;
}
Example #17
0
/** Test that we will use our directory guards to fetch mds even if we don't
 *  have any dirinfo (tests bug #23862). */
static void
test_directory_guard_fetch_with_no_dirinfo(void *arg)
{
  int retval;
  char *consensus_text_md = NULL;
  or_options_t *options = get_options_mutable();
  time_t now = time(NULL);

  (void) arg;

  hibernate_set_state_for_testing_(HIBERNATE_STATE_LIVE);

  /* Initialize the SRV subsystem */
  MOCK(get_my_v3_authority_cert, get_my_v3_authority_cert_m);
  mock_cert = authority_cert_parse_from_string(AUTHORITY_CERT_1,
                                               strlen(AUTHORITY_CERT_1),
                                               NULL);
  sr_init(0);
  UNMOCK(get_my_v3_authority_cert);

  /* Initialize the entry node configuration from the ticket */
  options->UseEntryGuards = 1;
  options->StrictNodes = 1;
  get_options_mutable()->EntryNodes = routerset_new();
  routerset_parse(get_options_mutable()->EntryNodes,
                  "2121212121212121212121212121212121212121", "foo");

  /* Mock some functions */
  dummy_state = tor_malloc_zero(sizeof(or_state_t));
  MOCK(get_or_state, get_or_state_replacement);
  MOCK(directory_initiate_request, mock_directory_initiate_request);
  /* we need to mock this one to avoid memleaks */
  MOCK(circuit_guard_state_new, mock_circuit_guard_state_new);

  /* Call guards_update_all() to simulate loading our state file (see
   * entry_guards_load_guards_from_state() and ticket #23989). */
  guards_update_all();

  /* Test logic: Simulate the arrival of a new consensus when we have no
   * dirinfo at all. Tor will need to fetch the mds from the consensus. Make
   * sure that Tor will use the specified entry guard instead of relying on the
   * fallback directories. */

  /* Fixup the dirconn that will deliver the consensus */
  dir_connection_t *conn = dir_connection_new(AF_INET);
  tor_addr_from_ipv4h(&conn->base_.addr, 0x7f000001);
  conn->base_.port = 8800;
  TO_CONN(conn)->address = tor_strdup("127.0.0.1");
  conn->base_.purpose = DIR_PURPOSE_FETCH_CONSENSUS;
  conn->requested_resource = tor_strdup("ns");

  /* Construct a consensus */
  construct_consensus(&consensus_text_md, now);
  tt_assert(consensus_text_md);

  /* Place the consensus in the dirconn */
  response_handler_args_t args;
  memset(&args, 0, sizeof(response_handler_args_t));
  args.status_code = 200;
  args.body = consensus_text_md;
  args.body_len = strlen(consensus_text_md);

  /* Update approx time so that the consensus is considered live */
  update_approx_time(now+1010);

  setup_capture_of_logs(LOG_DEBUG);

  /* Now handle the consensus */
  retval = handle_response_fetch_consensus(conn, &args);
  tt_int_op(retval, OP_EQ, 0);

  /* Make sure that our primary guard was chosen */
  expect_log_msg_containing("Selected primary guard router3");

 done:
  tor_free(consensus_text_md);
  tor_free(dummy_state);
  connection_free_minimal(TO_CONN(conn));
  entry_guards_free_all();
  teardown_capture_of_logs();
}
Example #18
0
int main(int argc, char **argv)
{
	g_log_set_default_handler(logger, NULL);

	if (parse_options(argc, argv)) {
		return 1;
	}

	/* Set the loglevel (amount of messages to output) for libsigrok. */
	if (sr_log_loglevel_set(opt_loglevel) != SR_OK)
		goto done;

	if (sr_init(&sr_ctx) != SR_OK)
		goto done;

#ifdef HAVE_SRD
	/* Set the loglevel (amount of messages to output) for libsigrokdecode. */
	if (srd_log_loglevel_set(opt_loglevel) != SRD_OK)
		goto done;

	if (opt_pds) {
		if (srd_init(NULL) != SRD_OK)
			goto done;
		if (srd_session_new(&srd_sess) != SRD_OK) {
			g_critical("Failed to create new decode session.");
			goto done;
		}
		if (register_pds(opt_pds, opt_pd_annotations) != 0)
			goto done;
		if (setup_pd_stack(opt_pds, opt_pd_stack, opt_pd_annotations) != 0)
			goto done;

		/* Only one output type is ever shown. */
		if (opt_pd_binary) {
			if (setup_pd_binary(opt_pd_binary) != 0)
				goto done;
			if (srd_pd_output_callback_add(srd_sess, SRD_OUTPUT_BINARY,
					show_pd_binary, NULL) != SRD_OK)
				goto done;
		} else if (opt_pd_meta) {
			if (setup_pd_meta(opt_pd_meta) != 0)
				goto done;
			if (srd_pd_output_callback_add(srd_sess, SRD_OUTPUT_META,
					show_pd_meta, NULL) != SRD_OK)
				goto done;
		} else {
			if (opt_pd_annotations)
				if (setup_pd_annotations(opt_pd_annotations) != 0)
					goto done;
			if (srd_pd_output_callback_add(srd_sess, SRD_OUTPUT_ANN,
					show_pd_annotations, NULL) != SRD_OK)
				goto done;
		}
	}
#endif

	if (opt_version)
		show_version();
	else if (opt_input_format && opt_show)
		show_input();
	else if (opt_output_format && opt_show)
		show_output();
	else if (opt_transform_module && opt_show)
		show_transform();
	else if (opt_scan_devs)
		show_dev_list();
#ifdef HAVE_SRD
	else if (opt_pds && opt_show)
		show_pd_detail();
#endif
	else if (opt_show)
		show_dev_detail();
	else if (opt_input_file)
		load_input_file();
	else if (opt_get)
		get_option();
	else if (opt_set)
		set_options();
	else if (opt_samples || opt_time || opt_frames || opt_continuous)
		run_session();
	else
		show_help();

#ifdef HAVE_SRD
	if (opt_pds)
		srd_exit();
#endif

done:
	if (sr_ctx)
		sr_exit(sr_ctx);

	return 0;
}
Example #19
0
int main(int argc, char **argv)
{
    int c;
    char *host   = ((char*)(DEFAULT_HOST));
    char *user = 0;
    char *server = ((char*)(DEFAULT_SERVER));
    char *rtable = ((char*)(DEFAULT_RTABLE));
    char *sr_template = NULL;
    unsigned int port = DEFAULT_PORT;
    unsigned int topo = DEFAULT_TOPO;
    char *logfile = 0;
    struct sr_instance sr;

    sr.f_interface[0] = 'n';
    sr.f_interface[1] = 'o';
    sr.f_interface[2] = '\0';

    sr.number_of_lsus = 5;


    printf("Using %s\n", VERSION_INFO);

    while ((c = getopt(argc, argv, "hs:v:p:u:t:r:l:T:f:c:")) != EOF)
    {
        switch (c)
        {
            case 'h':
                usage(argv[0]);
                exit(0);
                break;
            case 'p':
                port = atoi((char *) optarg);
                break;
            case 't':
                topo = atoi((char *) optarg);
                break;
            case 'v':
                host = optarg;
                break;
            case 'u':
                user = optarg;
                break;
            case 's':
                server = optarg;
                break;
            case 'l':
                logfile = optarg;
                break;
            case 'r':
                rtable = optarg;
                break;
            case 'T':
                sr_template = optarg;
                break;

            case 'f':
                for (unsigned int i = 0; i < strlen(optarg); i++)
                {
                    sr.f_interface[i] = optarg[i];
                }
                sr.f_interface[strlen(optarg)] = '\0';
                break;

            case 'c':
                sr.number_of_lsus = atoi((char *) optarg);
                break;

        } /* switch */
    } /* -- while -- */

    /* -- zero out sr instance -- */
    sr_init_instance(&sr);

    /* -- set up routing table from file -- */
    if(sr_template == NULL) {
        sr.sr_template[0] = '\0';
        sr_load_rt_wrap(&sr, rtable);
    }
    else
        strncpy(sr.sr_template, sr_template, 30);

    sr.topo_id = topo;
    strncpy(sr.host,host,32);

    if(! user )
    { sr_set_user(&sr); }
    else
    { strncpy(sr.user, user, 32); }

    /* -- set up file pointer for logging of raw packets -- */
    if(logfile != 0)
    {
        sr.logfile = sr_dump_open(logfile,0,PACKET_DUMP_SIZE);
        if(!sr.logfile)
        {
            fprintf(stderr,"Error opening up dump file %s\n",
                    logfile);
            exit(1);
        }
    }

    Debug("Client %s connecting to Server %s:%d\n", sr.user, server, port);
    if(sr_template)
        Debug("Requesting topology template %s\n", sr_template);
    else {
        Debug("Requesting topology %d\n", topo);
        port = 12345; /* DGU TMP: use old port (no auth needed) */
        Debug("(falling back to original port for -t type connection)\n");
    }

    /* connect to server and negotiate session */
    if(sr_connect_to_server(&sr,port,server) == -1)
    {
        return 1;
    }

    if(sr_template != NULL) { /* we've recv'd the rtable now, so read it in */
        Debug("Connected to new instantiation of topology template %s\n", sr_template);
        sr_load_rt_wrap(&sr, ((char*)("rtable.vrhost")));
    }

    /* call router init (for arp subsystem etc.) */
    sr_init(&sr);

    /* -- whizbang main loop ;-) */
    while( sr_read_from_server(&sr) == 1);

    sr_destroy_instance(&sr);

    return 0;
}/* -- main -- */
Example #20
0
File: report.c Project: ADTL/TinyG
void sr_unit_tests(void)
{
	sr_init();
	tg.communications_mode = STAT_JSON_MODE;
	sr_run_status_report();
}
Example #21
0
int main(int argc, char **argv)
{
    int c;
    char *host   = DEFAULT_HOST;
    char *client = 0;
    char *server = DEFAULT_SERVER;
    char *rtable = DEFAULT_RTABLE;
    unsigned int port = DEFAULT_PORT;
    unsigned int topo = DEFAULT_TOPO;
    char *logfile = 0;
    struct sr_instance sr;

    while ((c = getopt(argc, argv, "hs:v:p:c:t:r:l:")) != EOF)
    {
        switch (c) 
        {
            case 'h':
                usage(argv[0]); 
                exit(0);
                break;
            case 'p':
                port = atoi((char *) optarg);
                break;
            case 't':
                topo = atoi((char *) optarg);
                break;
            case 'v':
                host = optarg; 
                break;
            case 'c':
                client = optarg; 
                break;
            case 's':
                server = optarg; 
                break;
            case 'l':
                logfile = optarg; 
                break;
            case 'r':
                rtable = optarg; 
                break;
        } /* switch */
    } /* -- while -- */

    /* -- zero out sr instance -- */
    sr_init_instance(&sr);

    /* -- set up routing table from file -- */
    if(sr_load_rt(&sr, rtable) != 0)
    {
        fprintf(stderr,"Error setting up routing table from file %s\n",
                rtable);
        exit(1);
    }


    printf("Loading routing table\n");
    printf("---------------------------------------------\n");
    sr_print_routing_table(&sr);
    printf("---------------------------------------------\n");

    sr.topo_id = topo;
    strncpy(sr.host,host,32);

    if(! client )
    { sr_set_user(&sr); }
    else
    { strncpy(sr.user, client, 32); }

    /* -- set up file pointer for logging of raw packets -- */
    if(logfile != 0)
    {
        sr.logfile = sr_dump_open(logfile,0,PACKET_DUMP_SIZE);  
        if(!sr.logfile)
        {
            fprintf(stderr,"Error opening up dump file %s\n",
                    logfile);
            exit(1);
        }
    }

    Debug("Client %s connecting to Server %s:%d\n", sr.user, server, port);
    Debug("Requesting topology %d\n", topo);

    /* connect to server and negotiate session */
    if(sr_connect_to_server(&sr,port,server) == -1)
    {
        return 1;
    }

    /* call router init (for arp subsystem etc.) */
    sr_init(&sr);
    
    /* -- whizbang main loop ;-) */
    while( sr_read_from_server(&sr) == 1);
   
    sr_destroy_instance(&sr);

    return 0;
}/* -- main -- */
Example #22
0
int
main( int argc, char **argv )
{
    /* these could also be declared as "void *" */
    simple_reader *srd, *sri;
    int index = -1;

    int nindex = 0, nindex_used = 0;
    int ndata = 0, nkeep = 0;

    if( argc < 3 ) {
        fprintf( stderr, "Usage: %s  FILE  INDEX  >  TRIMMED_FILE\n", argv[0] );
        fprintf( stderr, "  **NOTE: assumes sorted INDEX (monotonically increasing)\n" );
        return EXIT_FAILURE;
    }

    srd = sr_init( argv[1] );   /* input DATA file */
    sri = sr_init( argv[2] );   /* input INDEX file */
    fprintf( stderr, "TRIMMING:   %s\n", sr_filename( srd ) );
    fprintf( stderr, "FROM INDEX: %s\n", sr_filename( sri ) );

    /* loop over input data file */
    while( sr_readline( srd ) ) {
        char *line;

        line = sr_line( srd );

        if( sr_line_isempty( srd ) )
            continue;
        if( '#' == line[0] )
            continue;

        ndata += 1;
        /* ndata is the appropriate 1-based input index, comments and blank lines skipped */

        while( index < ndata ) {
            index = get_next_index( sri, index );
            if( index < 1 )
                break;
            nindex += 1;
        }

        if( ndata == index ) {
            nkeep += 1;
            fprintf( stdout, "%s\n", line );
        }

        if( sr_eof( sri ) )
            break;
    }

    nindex_used = nindex;

    /* check to see how much longer index is */
    while( !sr_eof( sri ) ) {
        index = get_next_index( sri, index );
        if( index < 1 )
            break;
        nindex += 1;
    }
    fprintf( stderr, "INDEX: used %d of %d entries\n", nindex_used, nindex );

    srd = sr_kill( srd );
    sri = sr_kill( sri );

    fprintf( stderr, "INPUT: kept %d of %d read (could be truncated due to short INDEX)\n",
             nkeep, ndata );

    return EXIT_SUCCESS;
}
Example #23
0
int main(int argc, char *argv[])
{
	int ret = 0;
	struct sr_context *sr_ctx = NULL;
	const char *open_file = NULL;

	QApplication a(argc, argv);

	// Set some application metadata
    	QApplication::setApplicationVersion(DS_VERSION_STRING);
    	QApplication::setApplicationName("DSLogic(Beta)");
    	QApplication::setOrganizationDomain("http://www.DreamSourceLab.com");

	// Parse arguments
	while (1) {
		static const struct option long_options[] = {
			{"loglevel", required_argument, 0, 'l'},
			{"version", no_argument, 0, 'V'},
			{"help", no_argument, 0, 'h'},
			{0, 0, 0, 0}
		};

		const int c = getopt_long(argc, argv,
			"l:Vh?", long_options, NULL);
		if (c == -1)
			break;

		switch (c) {
		case 'l':
		{
			const int loglevel = atoi(optarg);
			sr_log_loglevel_set(loglevel);

#ifdef ENABLE_DECODE
			srd_log_loglevel_set(loglevel);
#endif

			break;
		}

		case 'V':
			// Print version info
			fprintf(stdout, "%s %s\n", DS_TITLE, DS_VERSION_STRING);
			return 0;

		case 'h':
		case '?':
			usage();
			return 0;
		}
	}

	if (argc - optind > 1) {
		fprintf(stderr, "Only one file can be openened.\n");
		return 1;
	} else if (argc - optind == 1)
		open_file = argv[argc - 1];

	// Initialise libsigrok
	if (sr_init(&sr_ctx) != SR_OK) {
		qDebug() << "ERROR: libsigrok init failed.";
		return 1;
	}

	do {

#ifdef ENABLE_DECODE
        QDir dir(QCoreApplication::applicationDirPath());
        assert(dir.cd("decoders"));
        std::string str = dir.absolutePath().toStdString() + "/";
        strcpy(decoders_path, str.c_str());

		// Initialise libsigrokdecode
		if (srd_init(NULL) != SRD_OK) {
			qDebug() << "ERROR: libsigrokdecode init failed.";
			break;
		}

		// Load the protocol decoders
		srd_decoder_load_all();
#endif

		try {
			// Create the device manager, initialise the drivers
			pv::DeviceManager device_manager(sr_ctx);

			// Initialise the main window
            		pv::MainWindow w(device_manager, open_file);
            		QFile qss(":/stylesheet.qss");
            		qss.open(QFile::ReadOnly);
            		a.setStyleSheet(qss.readAll());
            		qss.close();
			w.show();

			// Run the application
			ret = a.exec();

		} catch(std::exception e) {
			qDebug() << e.what();
		}

#ifdef ENABLE_DECODE
		// Destroy libsigrokdecode
		srd_exit();
#endif

	} while (0);

	// Destroy libsigrok
	if (sr_ctx)
		sr_exit(sr_ctx);

	return ret;
}