void basic_http_connection_impl::close(bool greaceful)
{
if (CLOSED==state_)
return;
set_cancel();
if (life_timer_)
{
life_timer_->cancel();
life_timer_.reset();
}
if (conn_retry_timer_)
{
conn_retry_timer_->cancel();
conn_retry_timer_.reset();
}
connection_=NULL;
if (greaceful&&!send_bufs_.empty())
{
state_=CLOSING;
}
else
{
error_code ec;
socket_impl_->async_close(
boost::bind(&this_type::__on_shutdown,socket_impl_,_1)
);
state_=CLOSED;
}
}
void reslimit::dec_cancel() {
#pragma omp critical (reslimit_cancel)
{
if (m_cancel > 0) {
set_cancel(m_cancel-1);
}
}
}
void solver_exp::init() {
m_atom2bvar.reset();
if (m_sat)
m_sat->collect_statistics(m_stats);
#pragma omp critical (smt_solver_exp)
{
m_sat = alloc(sat::solver, m_params, &m_bridge);
}
m_arith.collect_statistics(m_stats);
m_arith.reset();
set_cancel(m_cancel);
}
void async_wait(const duration_type& expiry_duration)
{
set_cancel();
next_op_stamp();
error_code ec;
status_ |= ASYNC_WAITING;
deadline_timer_.expires_from_now(expiry_duration, ec);
deadline_timer_.async_wait(
make_alloc_handler(boost::bind(&this_type::handle_timeout,
SHARED_OBJ_FROM_THIS, _1, false, op_stamp()))
);
}
void cancel()
{
error_code ec;
deadline_timer_.cancel(ec);
repeat_times_ = 0;
status_ = NOT_WAITING;
repeat_times_ = 0;
repeated_times_ = 0;
set_cancel();
next_op_stamp();
BOOST_ASSERT(is_idle());
}
virtual void cleanup() {
set_cancel(false);
}
void reslimit::inc_cancel() {
#pragma omp critical (reslimit_cancel)
{
set_cancel(m_cancel+1);
}
}
void reslimit::reset_cancel() {
#pragma omp critical (reslimit_cancel)
{
set_cancel(0);
}
}
int main (int argc, char **argv)
{
ArvCamera * camera;
ArvStream *stream;
ArvBuffer *buffer;
GOptionContext *context;
GError *error = NULL;
char memory_buffer[100000];
int i;
arv_g_thread_init (NULL);
arv_g_type_init ();
context = g_option_context_new (NULL);
g_option_context_add_main_entries (context, arv_option_entries, NULL);
if (!g_option_context_parse (context, &argc, &argv, &error)) {
g_option_context_free (context);
g_print ("Option parsing failed: %s\n", error->message);
g_error_free (error);
return EXIT_FAILURE;
}
g_option_context_free (context);
if (arv_option_max_frames < 0)
arv_option_max_errors_before_abort = -1;
save_buffer_fn = GetSaveBufferFn(arv_option_save_type);
arv_debug_enable (arv_option_debug_domains);
if (arv_option_camera_name == NULL)
g_print ("Looking for the first available camera\n");
else
g_print ("Looking for camera '%s'\n", arv_option_camera_name);
camera = arv_camera_new (arv_option_camera_name);
int errors = 0;
if (camera == NULL)
{
g_print("No device found");
return 1;
}
guint payload_size = arv_camera_get_payload(camera);
g_print ("payload size = %d (0x%x)\n", payload_size, payload_size);
stream = arv_camera_create_stream (camera, NULL, NULL);
if (arv_option_auto_buffer)
{
g_object_set (stream,"socket-buffer", ARV_GV_STREAM_SOCKET_BUFFER_AUTO,"socket-buffer-size", 0,NULL);
}
for (i = 0; i < 30; i++)
{
arv_stream_push_buffer (stream, arv_buffer_new (payload_size, NULL));
}
arv_camera_stop_acquisition(camera);
// set the bit depth
ArvDevice * device = arv_camera_get_device(camera);
ArvGcNode * feature = arv_device_get_feature(device, "PixelFormat");
char * pix_format = "Mono8";
if (arv_option_pixel_format == 14)
pix_format = "Mono14";
arv_gc_feature_node_set_value_from_string(ARV_GC_FEATURE_NODE(feature), pix_format, NULL);
if (arv_option_pixel_format == 14)
{
feature = arv_device_get_feature(device, "CMOSBitDepth");
arv_gc_feature_node_set_value_from_string(ARV_GC_FEATURE_NODE(feature), "bit14bit", NULL);
}
signal (SIGINT, set_cancel);
signal (SIGQUIT, set_cancel);
int captured_frames = 0;
guint64 timeout=1000000;
#define _CAN_STOP (arv_option_max_frames > 0 && captured_frames >= arv_option_max_frames)
arv_camera_start_acquisition(camera);
do {
g_usleep (100000);
do {
buffer = arv_stream_timeout_pop_buffer (stream, timeout);
if (buffer == NULL) break;
ArvBufferStatus status = arv_buffer_get_status(buffer);
fprintf(stderr, "Status is %d\n", status);
if (status == ARV_BUFFER_STATUS_SUCCESS)
{
if (timeout > 100000) timeout -= 1000;
errors = 0;
if (save_buffer_fn != NULL)
{
struct timespec timestamp;
clock_gettime(CLOCK_REALTIME, ×tamp);
char filename[BUFSIZ];
if (strcmp(arv_option_save_prefix,"") != 0)
{
sprintf(filename, "%s/%s%d.%s", arv_option_save_dir,arv_option_save_prefix, captured_frames, arv_option_save_type);
}
else
{
sprintf(filename, "%s/%d.%03ld.%s", arv_option_save_dir, (int)timestamp.tv_sec, (long)(timestamp.tv_nsec/1.0e6), arv_option_save_type);
}
if ((*save_buffer_fn)(buffer, filename) == false)
{
g_print("Couldn't save frame %d to %s\n", captured_frames, filename);
set_cancel(SIGQUIT);
}
g_print("Saved frame %d to %s\n", captured_frames, filename);
char latest[] = "latest.png";
sprintf(latest, "latest.%s", arv_option_save_type);
unlink(latest);
symlink(filename, latest);
}
captured_frames++;
g_usleep(arv_option_sample_period);
}
else
{
if (timeout < 10000000) timeout+=1000;
fprintf(stderr, "%d errors out of %d allowed\n", errors, arv_option_max_errors_before_abort);
arv_camera_stop_acquisition(camera);
if (++errors > arv_option_max_errors_before_abort && arv_option_max_errors_before_abort >= 0)
{
set_cancel(SIGQUIT);
}
else
{
arv_camera_start_acquisition(camera);
}
}
arv_stream_push_buffer (stream, buffer);
} while (!cancel && buffer != NULL && !_CAN_STOP);
} while (!cancel && !_CAN_STOP);
arv_camera_stop_acquisition(camera);
guint64 n_processed_buffers; guint64 n_failures; guint64 n_underruns;
arv_stream_get_statistics (stream, &n_processed_buffers, &n_failures, &n_underruns);
g_print ("Processed buffers = %Lu\n", (unsigned long long) n_processed_buffers);
g_print ("Failures = %Lu\n", (unsigned long long) n_failures);
g_print ("Underruns = %Lu\n", (unsigned long long) n_underruns);
g_object_unref (stream);
g_object_unref (camera);
return (errors > 0);
}
void tactic::reset_cancel() {
#pragma omp critical (tactic_cancel)
{
set_cancel(false);
}
}
void tactic::cancel() {
#pragma omp critical (tactic_cancel)
{
set_cancel(true);
}
}
void reset_cancel() { set_cancel(false); }
void cancel() { set_cancel(true); }
