int main (void)
{
setup_test_environment();
int count;
// send 1000 msg on hwm 1000, receive 1000
count = test_defaults (1000,1000);
assert (count == 1000);
// send 6000 msg on hwm 2000, drops above hwm, only receive hwm
count = test_blocking (2000,6000);
assert (count == 6000);
return 0;
}
int main ()
{
setup_test_environment ();
UNITY_BEGIN ();
// repeat the test for both TCP, INPROC and IPC transports:
RUN_TEST (test_tcp);
RUN_TEST (test_inproc);
#if !defined(ZMQ_HAVE_WINDOWS) && !defined(ZMQ_HAVE_GNU)
RUN_TEST (test_ipc);
#endif
RUN_TEST (test_reset_hwm);
return UNITY_END ();
}
int main (void)
{
setup_test_environment();
// No filters
run_test<int> (0, 0, 0, 1);
#if defined ZMQ_HAVE_SO_PEERCRED || defined ZMQ_HAVE_LOCAL_PEERCRED
// Get the group and supplimental groups of the process owner
gid_t groups[100];
int ngroups = getgroups(100, groups);
assert (ngroups != -1);
gid_t group = getgid(), supgroup = group, notgroup = group + 1;
for (int i = 0; i < ngroups; i++) {
if (supgroup == group && group != groups[i])
supgroup = groups[i];
if (notgroup <= groups[i])
notgroup = groups[i] + 1;
}
// Test filter with UID of process owner
run_test<uid_t> (ZMQ_IPC_FILTER_UID, getuid(), 0, 1);
// Test filter with UID of another (possibly non-existent) user
run_test<uid_t> (ZMQ_IPC_FILTER_UID, getuid() + 1, 0, -1);
// Test filter with GID of process owner
run_test<gid_t> (ZMQ_IPC_FILTER_GID, group, 0, 1);
// Test filter with supplimental group of process owner
run_test<gid_t> (ZMQ_IPC_FILTER_GID, supgroup, 0, 1);
// Test filter with GID of another (possibly non-existent) group
run_test<gid_t> (ZMQ_IPC_FILTER_GID, notgroup, 0, -1);
# if defined ZMQ_HAVE_SO_PEERCRED
// Test filter with PID of current process
run_test<pid_t> (ZMQ_IPC_FILTER_PID, getpid(), 0, 1);
// Test filter with PID of another (possibly non-existent) process
run_test<pid_t> (ZMQ_IPC_FILTER_PID, getpid() + 1, 0, -1);
# else
// Setup of PID filter should fail with operation not supported error
run_test<pid_t> (ZMQ_IPC_FILTER_PID, getpid(), EINVAL, 0);
# endif
#else
run_test<uid_t> (ZMQ_IPC_FILTER_UID, 0, EINVAL, 0);
run_test<gid_t> (ZMQ_IPC_FILTER_GID, 0, EINVAL, 0);
run_test<pid_t> (ZMQ_IPC_FILTER_PID, 0, EINVAL, 0);
#endif // defined ZMQ_HAVE_SO_PEERCRED || defined ZMQ_HAVE_LOCAL_PEERCRED
return 0 ;
}
int main (void)
{
setup_test_environment ();
void *ctx = zmq_ctx_new ();
assert (ctx);
// client socket pings proxy over tcp
void *req = zmq_socket (ctx, ZMQ_REQ);
assert (req);
int rc = zmq_connect (req, "tcp://127.0.0.1:5563");
assert (rc == 0);
// Control socket receives terminate command from main over inproc
void *control = zmq_socket (ctx, ZMQ_PUB);
assert (control);
rc = zmq_bind (control, "inproc://control");
assert (rc == 0);
void *server_thread = zmq_threadstart(&server_task, ctx);
char buf[255];
rc = zmq_send(req, "msg1", 4, 0);
assert (rc == 4);
rc = zmq_recv(req, buf, 255, 0);
assert (rc == 4);
assert (memcmp (buf, "msg1", 4) == 0);
rc = zmq_send(req, "msg22", 5, 0);
assert (rc == 5);
rc = zmq_recv(req, buf, 255, 0);
assert (rc == 5);
assert (memcmp (buf, "msg22", 5) == 0);
rc = zmq_send (control, "TERMINATE", 9, 0);
assert (rc == 9);
rc = zmq_close (control);
assert (rc == 0);
rc = zmq_close (req);
assert (rc == 0);
zmq_threadclose (server_thread);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main (void)
{
setup_test_environment();
void *s1;
void *s2;
int i;
int j;
int rc;
void* threads [THREAD_COUNT];
for (j = 0; j != 10; j++) {
// Check the shutdown with many parallel I/O threads.
void *ctx = zmq_ctx_new ();
assert (ctx);
zmq_ctx_set (ctx, ZMQ_IO_THREADS, 7);
s1 = zmq_socket (ctx, ZMQ_PUB);
assert (s1);
rc = zmq_bind (s1, "tcp://127.0.0.1:5560");
assert (rc == 0);
printf("Kicking off worker threads\n");
for (i = 0; i != THREAD_COUNT; i++) {
s2 = zmq_socket (ctx, ZMQ_SUB);
assert (s2);
threads [i] = zmq_threadstart(&worker, s2);
}
printf("Waiting on them to finish\n");
for (i = 0; i != THREAD_COUNT; i++) {
zmq_threadclose(threads [i]);
}
printf("Closing sockets\n");
rc = zmq_close (s1);
assert (rc == 0);
printf("Releasing context\n");
rc = zmq_ctx_term (ctx);
assert (rc == 0);
}
return 0;
}
int main (void)
{
setup_test_environment ();
void *ctx = zmq_ctx_new ();
assert (ctx);
// Control socket receives terminate command from main over inproc
void *control = zmq_socket (ctx, ZMQ_PUB);
assert (control);
int rc = zmq_bind (control, "inproc://control");
assert (rc == 0);
void *thread = zmq_threadstart(&server_task, ctx);
msleep (500); // Run for 500 ms
// Start a secondary publisher which writes data to the SUB-PUSH server socket
void *publisher = zmq_socket (ctx, ZMQ_PUB);
assert (publisher);
rc = zmq_connect (publisher, "tcp://127.0.0.1:15564");
assert (rc == 0);
msleep (50);
rc = zmq_send (publisher, "This is a test", 14, 0);
assert (rc == 14);
msleep (50);
rc = zmq_send (publisher, "This is a test", 14, 0);
assert (rc == 14);
msleep (50);
rc = zmq_send (publisher, "This is a test", 14, 0);
assert (rc == 14);
rc = zmq_send (control, "TERMINATE", 9, 0);
assert (rc == 9);
rc = zmq_close (publisher);
assert (rc == 0);
rc = zmq_close (control);
assert (rc == 0);
zmq_threadclose (thread);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main (void)
{
setup_test_environment ();
test_bind_before_connect ();
test_connect_before_bind ();
test_connect_before_bind_pub_sub ();
test_multiple_connects ();
test_multiple_threads ();
test_simultaneous_connect_bind_threads ();
test_identity ();
test_connect_only ();
test_unbind ();
test_shutdown_during_pend ();
return 0;
}
int main (void)
{
setup_test_environment();
int count;
// Default values are 1000 on send and 1000 one receive, so 2000 total
count = test_defaults ();
assert (count == 2000);
// Infinite send and receive buffer
count = test_inproc_bind_first (0, 0);
assert (count == MAX_SENDS);
count = test_inproc_connect_first (0, 0);
assert (count == MAX_SENDS);
// Infinite send buffer
count = test_inproc_bind_first (1, 0);
assert (count == MAX_SENDS);
count = test_inproc_connect_first (1, 0);
assert (count == MAX_SENDS);
// Infinite receive buffer
count = test_inproc_bind_first (0, 1);
assert (count == MAX_SENDS);
count = test_inproc_connect_first (0, 1);
assert (count == MAX_SENDS);
// Send and recv buffers hwm 1, so total that can be queued is 2
count = test_inproc_bind_first (1, 1);
assert (count == 2);
count = test_inproc_connect_first (1, 1);
assert (count == 2);
// Send hwm of 1, send before bind so total that can be queued is 1
count = test_inproc_connect_and_close_first (1, 0);
assert (count == 1);
// Send hwm of 1, send from bind side before connect so total that can be queued should be 1,
// however currently all messages get thrown away before the connect. BUG?
count = test_inproc_bind_and_close_first (1, 0);
//assert (count == 1);
return 0;
}
int main (void)
{
setup_test_environment ();
UNITY_BEGIN ();
RUN_TEST (test_ctx_destroy);
RUN_TEST (test_ctx_shutdown);
RUN_TEST (test_zmq_ctx_term_null_fails);
RUN_TEST (test_zmq_term_null_fails);
RUN_TEST (test_zmq_ctx_shutdown_null_fails);
RUN_TEST (
test_poller_exists_with_socket_on_zmq_ctx_term_non_thread_safe_socket);
RUN_TEST (
test_poller_exists_with_socket_on_zmq_ctx_term_thread_safe_socket);
return UNITY_END ();
}
int main (void)
{
setup_test_environment ();
UNITY_BEGIN ();
RUN_TEST (test_bind_before_connect);
RUN_TEST (test_connect_before_bind);
RUN_TEST (test_connect_before_bind_pub_sub);
RUN_TEST (test_connect_before_bind_ctx_term);
RUN_TEST (test_multiple_connects);
RUN_TEST (test_multiple_threads);
RUN_TEST (test_simultaneous_connect_bind_threads);
RUN_TEST (test_routing_id);
RUN_TEST (test_connect_only);
RUN_TEST (test_unbind);
RUN_TEST (test_shutdown_during_pend);
return UNITY_END ();
}
int main (void)
{
setup_test_environment ();
test_single_connect_ipv4 ();
test_multi_connect_ipv4 ();
test_multi_connect_ipv4_same_port ();
test_single_connect_ipv6 ();
test_multi_connect_ipv6 ();
test_multi_connect_ipv6_same_port ();
return 0 ;
}
int main (void)
{
setup_test_environment ();
test_single_connect ("tcp://127.0.0.1:*");
test_multi_connect ("tcp://127.0.0.1:*");
test_multi_connect_same_port ("tcp://127.0.0.1:*");
test_single_connect ("tcp://[::1]:*");
test_multi_connect ("tcp://[::1]:*");
test_multi_connect_same_port ("tcp://[::1]:*");
return 0;
}
int main (void)
{
UNITY_BEGIN ();
zmq::initialize_network ();
setup_test_environment ();
RUN_TEST (test_create);
RUN_TEST (test_add_fd_and_start_and_receive_data);
RUN_TEST (test_add_fd_and_remove_by_timer);
#if defined _WIN32
RUN_TEST (test_add_fd_with_pending_failing_connect);
#endif
zmq::shutdown_network ();
return UNITY_END ();
}
int main (void)
{
setup_test_environment();
int count;
// send 1000 msg on hwm 1000, receive 1000
count = test_defaults (1000,1000);
assert (count == 1000);
// send 6000 msg on hwm 2000, drops above hwm, only receive hwm
count = test_blocking (2000,6000);
assert (count == 6000);
// hwm should apply to the messages that have already been received
test_reset_hwm ();
return 0;
}
int main (void)
{
setup_test_environment();
void *socket;
int i;
int j;
int rc;
void* threads [THREAD_COUNT];
for (j = 0; j != 10; j++) {
// Check the shutdown with many parallel I/O threads.
struct thread_data tdata;
tdata.ctx = zmq_ctx_new ();
assert (tdata.ctx);
zmq_ctx_set (tdata.ctx, ZMQ_IO_THREADS, 7);
socket = zmq_socket (tdata.ctx, ZMQ_PUB);
assert (socket);
rc = zmq_bind (socket, "tcp://127.0.0.1:*");
assert (rc == 0);
size_t len = MAX_SOCKET_STRING;
rc = zmq_getsockopt (socket, ZMQ_LAST_ENDPOINT, tdata.endpoint, &len);
assert (rc == 0);
for (i = 0; i != THREAD_COUNT; i++) {
threads [i] = zmq_threadstart(&worker, &tdata);
}
for (i = 0; i != THREAD_COUNT; i++) {
zmq_threadclose(threads [i]);
}
rc = zmq_close (socket);
assert (rc == 0);
rc = zmq_ctx_term (tdata.ctx);
assert (rc == 0);
}
return 0;
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
const char *binds [] = { "inproc://a", "tcp://127.0.0.1:5555" };
const char *connects [] = { "inproc://a", "tcp://localhost:5555" };
for (int transport = 0; transport < 2; transport++) {
bind_address = binds [transport];
connect_address = connects [transport];
// SHALL route outgoing messages to connected peers using a round-robin
// strategy.
test_round_robin_out (ctx);
// The request and reply messages SHALL have this format on the wire:
// * A delimiter, consisting of an empty frame, added by the REQ socket.
// * One or more data frames, comprising the message visible to the
// application.
test_req_message_format (ctx);
// SHALL block on sending, or return a suitable error, when it has no
// connected peers.
test_block_on_send_no_peers (ctx);
// SHALL accept an incoming message only from the last peer that it sent a
// request to.
// SHALL discard silently any messages received from other peers.
// PH: this test is still failing; disabled for now to allow build to
// complete.
// test_req_only_listens_to_current_peer (ctx);
}
int rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0 ;
}
int main (void)
{
setup_test_environment ();
void *ctx = zmq_ctx_new ();
assert (ctx);
void *sock = zmq_socket (ctx, ZMQ_PUB);
assert (sock);
int rc = zmq_connect (sock, "tcp://localhost:1234");
assert (rc == 0);
rc = zmq_connect (sock, "tcp://[::1]:1234");
assert (rc == 0);
rc = zmq_connect (sock, "tcp://localhost:invalid");
assert (rc == -1);
rc = zmq_connect (sock, "tcp://in val id:1234");
assert (rc == -1);
rc = zmq_connect (sock, "tcp://");
assert (rc == -1);
rc = zmq_connect (sock, "tcp://192.168.0.200:*");
assert (rc == -1);
rc = zmq_connect (sock, "invalid://localhost:1234");
assert (rc == -1);
assert (errno == EPROTONOSUPPORT);
rc = zmq_close (sock);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main(void)
{
setup_test_environment ();
test_basic ();
test_unsubscribe_manual ();
const char *frontend;
const char *backend;
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
frontend = "ipc://frontend";
backend = "ipc://backend";
test_xpub_proxy_unsubscribe_on_disconnect (frontend, backend);
test_missing_subscriptions (frontend, backend);
#endif
frontend = "tcp://127.0.0.1:5560";
backend = "tcp://127.0.0.1:5561";
test_xpub_proxy_unsubscribe_on_disconnect (frontend, backend);
test_missing_subscriptions (frontend, backend);
return 0;
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
void *sb = zmq_socket (ctx, ZMQ_REP);
assert (sb);
int rc = zmq_bind (sb, "inproc://a");
assert (rc == 0);
rc = zmq_unbind (sb, "inproc://a");
assert (rc == 0);
rc = zmq_close (sb);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main (void) {
setup_test_environment ();
void *ctx = zmq_ctx_new ();
assert (ctx);
void *stream = zmq_socket (ctx, ZMQ_STREAM);
assert (stream);
void *dealer = zmq_socket (ctx, ZMQ_DEALER);
assert (dealer);
int rc = zmq_bind (stream, "tcp://127.0.0.1:5555");
assert (rc >= 0);
rc = zmq_connect (dealer, "tcp://127.0.0.1:5555");
assert (rc >= 0);
zmq_send (dealer, "", 0, 0);
zmq_msg_t ident, empty;
zmq_msg_init (&ident);
rc = zmq_msg_recv (&ident, stream, 0);
assert (rc >= 0);
rc = zmq_msg_init_data (&empty, (void *) "", 0, NULL, NULL);
assert (rc >= 0);
rc = zmq_msg_send (&ident, stream, ZMQ_SNDMORE);
assert (rc >= 0);
rc = zmq_msg_close (&ident);
assert (rc >= 0);
rc = zmq_msg_send (&empty, stream, 0);
assert (rc >= 0);
// This close used to fail with Bad Address
rc = zmq_msg_close (&empty);
assert (rc >= 0);
close_zero_linger (dealer);
close_zero_linger (stream);
zmq_ctx_term (ctx);
}
int main (void)
{
setup_test_environment ();
fprintf (stderr, "NULL mechanism\n");
test_zap_errors (&socket_config_null_server, NULL,
&socket_config_null_client, NULL);
fprintf (stderr, "PLAIN mechanism\n");
test_zap_errors (&socket_config_plain_server, NULL,
&socket_config_plain_client, NULL);
if (zmq_has ("curve")) {
fprintf (stderr, "CURVE mechanism\n");
setup_testutil_security_curve ();
curve_client_data_t curve_client_data = {
valid_server_public, valid_client_public, valid_client_secret};
test_zap_errors (&socket_config_curve_server, valid_server_secret,
&socket_config_curve_client, &curve_client_data);
}
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
// Spawn ZAP handler
void *zap_thread = zmq_threadstart (&zap_handler, ctx);
// Server socket will accept connections
void *server = zmq_socket (ctx, ZMQ_DEALER);
assert (server);
int rc = zmq_setsockopt (server, ZMQ_IDENTITY, "IDENT", 6);
assert (rc == 0);
rc = zmq_bind (server, "tcp://*:9999");
assert (rc == 0);
// Client socket that will try to connect to server
void *client = zmq_socket (ctx, ZMQ_DEALER);
assert (client);
rc = zmq_connect (client, "tcp://localhost:9999");
assert (rc == 0);
bounce (server, client);
rc = zmq_close (client);
assert (rc == 0);
rc = zmq_close (server);
assert (rc == 0);
// Shutdown
rc = zmq_ctx_term (ctx);
assert (rc == 0);
// Wait until ZAP handler terminates.
zmq_threadclose (zap_thread);
return 0;
}
int main (void)
{
int64_t more;
size_t more_size = sizeof(more);
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
void *sb = zmq_socket (ctx, ZMQ_PUB);
assert (sb);
int rc = zmq_bind (sb, "inproc://a");
assert (rc == 0);
void *sc = zmq_socket (ctx, ZMQ_SUB);
assert (sc);
rc = zmq_connect (sc, "inproc://a");
assert (rc == 0);
memset(&more, 0xFF, sizeof(int64_t));
zmq_getsockopt(sc, ZMQ_RCVMORE, &more, &more_size);
assert (more_size == sizeof(int));
assert (more == 0);
// Cleanup
rc = zmq_close (sc);
assert (rc == 0);
rc = zmq_close (sb);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0 ;
}
void do_check(void* sb, void* sc, unsigned int msgsz)
{
setup_test_environment();
int rc;
int sum =0;
for (int i = 0; i < 10; i++)
{
zmq_msg_t msg;
zmq_msg_init_size(&msg, msgsz);
void * data = zmq_msg_data(&msg);
memcpy(data,&i, sizeof(int));
rc = zmq_msg_send(&msg,sc,i==9 ? 0 :ZMQ_SNDMORE);
assert (rc == (int)msgsz);
zmq_msg_close(&msg);
sum += i;
}
struct iovec ibuffer[32] ;
memset(&ibuffer[0], 0, sizeof(ibuffer));
size_t count = 10;
rc = zmq_recviov(sb,&ibuffer[0],&count,0);
assert (rc == 10);
int rsum=0;
for(;count;--count)
{
int v;
memcpy(&v,ibuffer[count-1].iov_base,sizeof(int));
rsum += v;
assert(ibuffer[count-1].iov_len == msgsz);
// free up the memory
free(ibuffer[count-1].iov_base);
}
assert ( sum == rsum );
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
const char *binds [] = { "inproc://a", "tcp://127.0.0.1:5555" };
const char *connects [] = { "inproc://a", "tcp://localhost:5555" };
for (int transport = 0; transport < 2; ++transport) {
bind_address = binds [transport];
connect_address = connects [transport];
// PUSH: SHALL route outgoing messages to connected peers using a
// round-robin strategy.
test_push_round_robin_out (ctx);
// PULL: SHALL receive incoming messages from its peers using a fair-queuing
// strategy.
test_pull_fair_queue_in (ctx);
// PUSH: SHALL block on sending, or return a suitable error, when it has no
// available peers.
test_push_block_on_send_no_peers (ctx);
// PUSH and PULL: SHALL create this queue when a peer connects to it. If
// this peer disconnects, the socket SHALL destroy its queue and SHALL
// discard any messages it contains.
// *** Test disabled until libzmq does this properly ***
// test_destroy_queue_on_disconnect (ctx);
}
int rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0 ;
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
void *sb = zmq_socket (ctx, ZMQ_DEALER);
assert (sb);
int rc = zmq_bind (sb, "ipc://@tmp-tester");
assert (rc == 0);
char endpoint[200];
size_t size = sizeof(endpoint);
rc = zmq_getsockopt (sb, ZMQ_LAST_ENDPOINT, endpoint, &size);
assert (rc == 0);
rc = strncmp(endpoint, "ipc://@tmp-tester", size);
assert (rc == 0);
void *sc = zmq_socket (ctx, ZMQ_DEALER);
assert (sc);
rc = zmq_connect (sc, "ipc://@tmp-tester");
assert (rc == 0);
bounce (sb, sc);
rc = zmq_close (sc);
assert (rc == 0);
rc = zmq_close (sb);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0 ;
}
int main (void)
{
setup_test_environment();
// Create the infrastructure
void *ctx = zmq_ctx_new ();
assert (ctx);
void *sb = zmq_socket (ctx, ZMQ_ROUTER);
assert (sb);
int val = 0;
int rc = zmq_setsockopt (sb, ZMQ_LINGER, &val, sizeof (val));
assert (rc == 0);
do_bind_and_verify (sb, "tcp://127.0.0.1:5560");
do_bind_and_verify (sb, "tcp://127.0.0.1:5561");
rc = zmq_close (sb);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0 ;
}
int main (void)
{
setup_test_environment ();
void *ctx = zmq_ctx_new ();
assert (ctx);
// Create few sockets
void *vent = zmq_socket (ctx, ZMQ_PUSH);
assert (vent);
int rc = zmq_bind (vent, "tcp://127.0.0.1:55556");
assert (rc == 0);
void *sink = zmq_socket (ctx, ZMQ_PULL);
assert (sink);
rc = zmq_connect (sink, "tcp://127.0.0.1:55556");
assert (rc == 0);
void *bowl = zmq_socket (ctx, ZMQ_PULL);
assert (bowl);
#if defined(ZMQ_SERVER) && defined(ZMQ_CLIENT)
void *server = zmq_socket (ctx, ZMQ_SERVER);
assert (server);
rc = zmq_bind (server, "tcp://127.0.0.1:55557");
assert (rc == 0);
void *client = zmq_socket (ctx, ZMQ_CLIENT);
assert (client);
#endif
// Set up poller
void* poller = zmq_poller_new ();
zmq_poller_event_t event;
// waiting on poller with no registered sockets should report error
rc = zmq_poller_wait(poller, &event, 0);
assert (rc == -1);
assert (errno == ETIMEDOUT);
// register sink
rc = zmq_poller_add (poller, sink, sink, ZMQ_POLLIN);
assert (rc == 0);
// Send a message
char data[1] = {'H'};
rc = zmq_send_const (vent, data, 1, 0);
assert (rc == 1);
// We expect a message only on the sink
rc = zmq_poller_wait (poller, &event, -1);
assert (rc == 0);
assert (event.socket == sink);
assert (event.user_data == sink);
rc = zmq_recv (sink, data, 1, 0);
assert (rc == 1);
// We expect timed out
rc = zmq_poller_wait (poller, &event, 0);
assert (rc == -1);
assert (errno == ETIMEDOUT);
// Stop polling sink
rc = zmq_poller_remove (poller, sink);
assert (rc == 0);
// Check we can poll an FD
rc = zmq_connect (bowl, "tcp://127.0.0.1:55556");
assert (rc == 0);
#if defined _WIN32
SOCKET fd;
size_t fd_size = sizeof (SOCKET);
#else
int fd;
size_t fd_size = sizeof (int);
#endif
rc = zmq_getsockopt (bowl, ZMQ_FD, &fd, &fd_size);
assert (rc == 0);
rc = zmq_poller_add_fd (poller, fd, bowl, ZMQ_POLLIN);
assert (rc == 0);
rc = zmq_poller_wait (poller, &event, 500);
assert (rc == 0);
assert (event.socket == NULL);
assert (event.fd == fd);
assert (event.user_data == bowl);
zmq_poller_remove_fd (poller, fd);
#if defined(ZMQ_SERVER) && defined(ZMQ_CLIENT)
// Polling on thread safe sockets
rc = zmq_poller_add (poller, server, NULL, ZMQ_POLLIN);
assert (rc == 0);
rc = zmq_connect (client, "tcp://127.0.0.1:55557");
assert (rc == 0);
rc = zmq_send_const (client, data, 1, 0);
assert (rc == 1);
rc = zmq_poller_wait (poller, &event, 500);
assert (rc == 0);
assert (event.socket == server);
assert (event.user_data == NULL);
rc = zmq_recv (server, data, 1, 0);
assert (rc == 1);
// Polling on pollout
rc = zmq_poller_modify (poller, server, ZMQ_POLLOUT | ZMQ_POLLIN);
assert (rc == 0);
rc = zmq_poller_wait (poller, &event, 0);
assert (rc == 0);
assert (event.socket == server);
assert (event.user_data == NULL);
assert (event.events == ZMQ_POLLOUT);
#endif
// Destory sockets, poller and ctx
rc = zmq_close (sink);
assert (rc == 0);
rc = zmq_close (vent);
assert (rc == 0);
rc = zmq_close (bowl);
assert (rc == 0);
#if defined(ZMQ_SERVER) && defined(ZMQ_CLIENT)
rc = zmq_close (server);
assert (rc == 0);
rc = zmq_close (client);
assert (rc == 0);
#endif
// Test error - null poller pointers
rc = zmq_poller_destroy (NULL);
assert (rc == -1 && errno == EFAULT);
void *null_poller = NULL;
rc = zmq_poller_destroy (&null_poller);
assert (rc == -1 && errno == EFAULT);
rc = zmq_poller_destroy (&poller);
assert(rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main (void)
{
setup_test_environment();
int rc;
char buf[BUF_SIZE];
size_t buf_size;
const char *ep = "tcp://127.0.0.1:5560";
const char *ep_wc_tcp = "tcp://127.0.0.1:*";
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
const char *ep_wc_ipc = "ipc://*";
#endif
#if defined ZMQ_HAVE_VMCI
const char *ep_wc_vmci = "vmci://*:*";
#endif
// Create infrastructure.
void *ctx = zmq_ctx_new ();
assert (ctx);
void *push = zmq_socket (ctx, ZMQ_PUSH);
assert (push);
rc = zmq_bind (push, ep);
assert (rc == 0);
void *pull = zmq_socket (ctx, ZMQ_PULL);
assert (pull);
rc = zmq_connect (pull, ep);
assert (rc == 0);
// Pass one message through to ensure the connection is established
rc = zmq_send (push, "ABC", 3, 0);
assert (rc == 3);
rc = zmq_recv (pull, buf, sizeof (buf), 0);
assert (rc == 3);
// Unbind the listening endpoint
rc = zmq_unbind (push, ep);
assert (rc == 0);
// Allow unbind to settle
msleep (SETTLE_TIME);
// Check that sending would block (there's no outbound connection)
rc = zmq_send (push, "ABC", 3, ZMQ_DONTWAIT);
assert (rc == -1 && zmq_errno () == EAGAIN);
// Clean up
rc = zmq_close (pull);
assert (rc == 0);
rc = zmq_close (push);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
// Create infrastructure
ctx = zmq_ctx_new ();
assert (ctx);
push = zmq_socket (ctx, ZMQ_PUSH);
assert (push);
rc = zmq_connect (push, ep);
assert (rc == 0);
pull = zmq_socket (ctx, ZMQ_PULL);
assert (pull);
rc = zmq_bind (pull, ep);
assert (rc == 0);
// Pass one message through to ensure the connection is established.
rc = zmq_send (push, "ABC", 3, 0);
assert (rc == 3);
rc = zmq_recv (pull, buf, sizeof (buf), 0);
assert (rc == 3);
// Disconnect the bound endpoint
rc = zmq_disconnect (push, ep);
assert (rc == 0);
// Allow disconnect to settle
msleep (SETTLE_TIME);
// Check that sending would block (there's no inbound connections).
rc = zmq_send (push, "ABC", 3, ZMQ_DONTWAIT);
assert (rc == -1 && zmq_errno () == EAGAIN);
// Clean up.
rc = zmq_close (pull);
assert (rc == 0);
rc = zmq_close (push);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
// Create infrastructure (wild-card binding)
ctx = zmq_ctx_new ();
assert (ctx);
push = zmq_socket (ctx, ZMQ_PUSH);
assert (push);
rc = zmq_bind (push, ep_wc_tcp);
assert (rc == 0);
pull = zmq_socket(ctx, ZMQ_PULL);
assert(pull);
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
rc = zmq_bind (pull, ep_wc_ipc);
assert (rc == 0);
#endif
#if defined ZMQ_HAVE_VMCI
void *req = zmq_socket (ctx, ZMQ_REQ);
assert (req);
rc = zmq_bind (req, ep_wc_vmci);
assert (rc == 0);
#endif
// Unbind sockets binded by wild-card address
buf_size = sizeof(buf);
rc = zmq_getsockopt (push, ZMQ_LAST_ENDPOINT, buf, &buf_size);
assert (rc == 0);
rc = zmq_unbind (push, buf);
assert (rc == 0);
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
buf_size = sizeof(buf);
rc = zmq_getsockopt (pull, ZMQ_LAST_ENDPOINT, buf, &buf_size);
assert (rc == 0);
rc = zmq_unbind (pull, buf);
assert (rc == 0);
#endif
#if defined ZMQ_HAVE_VMCI
buf_size = sizeof(buf);
rc = zmq_getsockopt (req, ZMQ_LAST_ENDPOINT, buf, &buf_size);
assert (rc == 0);
rc = zmq_unbind(req, buf);
assert (rc == 0);
#endif
// Clean up.
rc = zmq_close (pull);
assert (rc == 0);
rc = zmq_close (push);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
// Create infrastructure (wild-card binding)
ctx = zmq_ctx_new ();
assert (ctx);
push = zmq_socket (ctx, ZMQ_PUSH);
assert (push);
rc = zmq_bind (push, ep_wc_tcp);
assert (rc == 0);
pull = zmq_socket(ctx, ZMQ_PULL);
assert(pull);
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
rc = zmq_bind (pull, ep_wc_ipc);
assert (rc == 0);
#endif
#if defined ZMQ_HAVE_VMCI
req = zmq_socket (ctx, ZMQ_REQ);
assert (req);
rc = zmq_bind (req, ep_wc_vmci);
assert (rc == 0);
#endif
// Sockets binded by wild-card address can't be unbinded by wild-card address
rc = zmq_unbind (push, ep_wc_tcp);
assert (rc == -1 && zmq_errno () == ENOENT);
#if !defined ZMQ_HAVE_WINDOWS && !defined ZMQ_HAVE_OPENVMS
rc = zmq_unbind (pull, ep_wc_ipc);
assert (rc == -1 && zmq_errno () == ENOENT);
#endif
#if defined ZMQ_HAVE_VMCI
rc = zmq_unbind (req, ep_wc_vmci);
assert (rc == -1 && zmq_errno () == ENOENT);
#endif
// Clean up.
rc = zmq_close (pull);
assert (rc == 0);
rc = zmq_close (push);
assert (rc == 0);
rc = zmq_ctx_term (ctx);
assert (rc == 0);
return 0;
}
int main (void)
{
setup_test_environment();
void *ctx = zmq_ctx_new ();
assert (ctx);
// Spawn ZAP handler
// We create and bind ZAP socket in main thread to avoid case
// where child thread does not start up fast enough.
void *handler = zmq_socket (ctx, ZMQ_REP);
assert (handler);
int rc = zmq_bind (handler, "inproc://zeromq.zap.01");
assert (rc == 0);
void *zap_thread = zmq_threadstart (&zap_handler, handler);
// We bounce between a binding server and a connecting client
// We first test client/server with no ZAP domain
// Libzmq does not call our ZAP handler, the connect must succeed
void *server = zmq_socket (ctx, ZMQ_DEALER);
assert (server);
void *client = zmq_socket (ctx, ZMQ_DEALER);
assert (client);
rc = zmq_bind (server, "tcp://127.0.0.1:9000");
assert (rc == 0);
rc = zmq_connect (client, "tcp://127.0.0.1:9000");
assert (rc == 0);
bounce (server, client);
close_zero_linger (client);
close_zero_linger (server);
// Now define a ZAP domain for the server; this enables
// authentication. We're using the wrong domain so this test
// must fail.
server = zmq_socket (ctx, ZMQ_DEALER);
assert (server);
client = zmq_socket (ctx, ZMQ_DEALER);
assert (client);
rc = zmq_setsockopt (server, ZMQ_ZAP_DOMAIN, "WRONG", 5);
assert (rc == 0);
rc = zmq_bind (server, "tcp://127.0.0.1:9001");
assert (rc == 0);
rc = zmq_connect (client, "tcp://127.0.0.1:9001");
assert (rc == 0);
expect_bounce_fail (server, client);
close_zero_linger (client);
close_zero_linger (server);
// Now use the right domain, the test must pass
server = zmq_socket (ctx, ZMQ_DEALER);
assert (server);
client = zmq_socket (ctx, ZMQ_DEALER);
assert (client);
rc = zmq_setsockopt (server, ZMQ_ZAP_DOMAIN, "TEST", 4);
assert (rc == 0);
rc = zmq_bind (server, "tcp://127.0.0.1:9002");
assert (rc == 0);
rc = zmq_connect (client, "tcp://127.0.0.1:9002");
assert (rc == 0);
bounce (server, client);
close_zero_linger (client);
close_zero_linger (server);
// Shutdown
rc = zmq_ctx_term (ctx);
assert (rc == 0);
// Wait until ZAP handler terminates
zmq_threadclose (zap_thread);
return 0;
}
