void ShutDownEventQueues(void)
{
EVQM_syslog(LOG_DEBUG, "EVENT Qs triggering exits.\n");
pthread_mutex_lock(&DBEventQueueMutex);
ev_async_send (event_db, &DBExitEventLoop);
pthread_mutex_unlock(&DBEventQueueMutex);
pthread_mutex_lock(&EventQueueMutex);
ev_async_send (EV_DEFAULT_ &ExitEventLoop);
pthread_mutex_unlock(&EventQueueMutex);
}
static void check_if_any_rtp_session_timedout(gpointer element,
gpointer user_data)
{
RTP_session *session = (RTP_session *)element;
time_t *last_packet_send_time = (time_t *)user_data;
time_t now = time(NULL);
/* Jmkn: get the last packet send time in all the session*/
if( last_packet_send_time != NULL &&
(session->last_packet_send_time > *last_packet_send_time)){
*last_packet_send_time = session->last_packet_send_time;
}
#if 0
/* Check if we didn't send any data for more then STREAM_BYE_TIMEOUT seconds
* this will happen if we are not receiving any more from live producer or
* if the stored stream ended.
*/
if ((session->track->properties.media_source == MS_live) &&
(now - session->last_packet_send_time) >= LIVE_STREAM_BYE_TIMEOUT) {
fnc_log(FNC_LOG_INFO, "[client] Soft stream timeout");
rtcp_send_sr(session, BYE);
}
/* If we were not able to serve any packet and the client ignored our BYE
* kick it by closing everything
*/
if (session->isBye != 0 &&
(now - session->last_packet_send_time) >= STREAM_TIMEOUT) {
fnc_log(FNC_LOG_INFO, "[client] Stream Timeout, client kicked off!");
ev_async_send(session->srv->loop, &session->client->ev_sig_disconnect);
}else{
#endif
/* send RTCP SDE */
rtcp_send_sr(session, SDES);
/* If we do not read RTCP report in 12 seconds .we will deal it as the client lost
connection,and end the child process.
*/
if(session->srv->srvconf.rtcp_heartbeat != 0 &&
session->last_rtcp_read_time != 0 &&
(now - session->last_rtcp_read_time)>=60)
{
fnc_log(FNC_LOG_INFO, "[client] Client Lost Connection\n");
ev_async_send(session->srv->loop, &session->client->ev_sig_disconnect);
}
#if 0
}
#endif
}
void nitro_async_schedule(nitro_async_t *a) {
pthread_mutex_lock(&the_runtime->l_async);
LL_APPEND(the_runtime->async_queue, a);
pthread_mutex_unlock(&the_runtime->l_async);
ev_async_send(the_runtime->the_loop,
&the_runtime->thread_wake);
}
spx_private void Sender(EV_P_ ev_async *watcher, int revents){/*{{{*/
ev_async_stop(loop, watcher);
struct server_context * ctx = (struct server_context *) watcher->data;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "Sender ctx is NULL");
return;
}
err_t err = Sender_WriteResponse(ctx->fd, ctx->response, &ctx->resp_len, &ctx->split_size);
if((0 == err)&&(0 == ctx->split_size)){
if(ctx->resp_size == ctx->resp_len){
RequestFinish(ctx);
}else{
int remain_size = ctx->resp_size - ctx->resp_len;
if(remain_size >= SPLIT_SIZE){
ctx->split_size = SPLIT_SIZE;
}else{
ctx->split_size = remain_size;
}
RegisterAayncWatcher(&ctx->async_watcher, Sender, ctx);
ev_async_start(loop, &ctx->async_watcher);
ev_async_send(loop, &ctx->async_watcher);
return;
}
}else{
if((EAGAIN == err || EWOULDBLOCK == err || EINTR == err)||(ctx->resp_size > 0)) {
ev_once(main_socket_loop, ctx->fd, EV_READ, ctx->timeout, Sender_ReWriteResponse, ctx);
return;
}else{
SpxLog2(g_log, SpxLogError, err,"Sender Failed");
RequestException(ctx, bad_request);
}
}
}/*}}}*/
spx_private void ParserRequest(EV_P_ ev_async *watcher, int revents){/*{{{*/
ev_async_stop(loop, watcher);
err_t err = 0;
struct server_context * ctx = (struct server_context *) watcher->data;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "ParserRequest ctx is NULL");
return;
}
printf("\n----------------CLIENT:%d xxxxxxxxxxxxxxxxxx CTX:%d-----------------------\n", ctx->fd, GetCTXCount());
if(NULL != ctx->request){
//msg_print(ctx->request, ctx->req_size);
long handle_size = ctx->ServerHandler(ctx->req_size, ctx->request, &ctx->response);
if (-1 == handle_size){
RequestException(ctx, bad_request);
} else{
ctx->resp_size = handle_size;
ctx->life_cycle = SEND_RESPONSE;
RegisterAayncWatcher(&ctx->async_watcher,SendResponse, ctx);
ev_async_start(loop, &ctx->async_watcher);
ev_async_send(loop, &ctx->async_watcher);
}
} else{
RequestException(ctx, bad_request);
}
}/*}}}*/
spx_private void SendResponse(EV_P_ ev_async *watcher, int revents){/*{{{*/
ev_async_stop(loop, watcher);
err_t err = 0;
struct server_context * ctx = (struct server_context *) watcher->data;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "SendResponse ctx is NULL");
return;
}
if(NULL != ctx->response){
//headers(ctx->fd, ctx->resp_size);
int remain_size = ctx->resp_size - ctx->resp_len;
if(remain_size >= SPLIT_SIZE){
ctx->split_size = SPLIT_SIZE;
}else{
ctx->split_size = remain_size;
}
RegisterAayncWatcher(&ctx->async_watcher, Sender, ctx);
ev_async_start(loop, &ctx->async_watcher);
ev_async_send(loop, &ctx->async_watcher);
}else{
RequestException(ctx, bad_request);
}
}/*}}}*/
void proc_emu_on_io_in(struct connection *con, struct processor_data *pd)
{
g_debug("%s con %p pd %p", __PRETTY_FUNCTION__, con, pd);
struct emu_ctx *ctx = pd->ctx;
int offset = MAX(ctx->offset-300, 0);
void *streamdata = NULL;
int32_t size = bistream_get_stream(pd->bistream, bistream_in, offset, -1, &streamdata);
int ret = 0;
if( size != -1 )
{
struct emu *e = emu_new();
#if 0
emu_cpu_debugflag_set(emu_cpu_get(e), instruction_string);
emu_log_level_set(emu_logging_get(e),EMU_LOG_DEBUG);
#endif
ret = emu_shellcode_test(e, streamdata, size);
emu_free(e);
ctx->offset += size;
if( ret >= 0 )
{
struct incident *ix = incident_new("dionaea.shellcode.detected");
GAsyncQueue *aq = g_async_queue_ref(g_dionaea->threads->cmds);
g_async_queue_push(aq, async_cmd_new(async_incident_report, ix));
g_async_queue_unref(aq);
ev_async_send(g_dionaea->loop, &g_dionaea->threads->trigger);
g_debug("shellcode found offset %i", ret);
profile(ctx->config, con, streamdata, size, ret);
pd->state = processor_done;
}
g_free(streamdata);
}
}
bool MatchServerTest::RequestPublic(int index, char* sendBuffer, unsigned int len) {
struct sockaddr_in mAddr;
bzero(&mAddr, sizeof(mAddr));
mAddr.sin_family = AF_INET;
mAddr.sin_port = htons(mPort + 1);
mAddr.sin_addr.s_addr = inet_addr(mIp.c_str());
int iFlag = 1;
int fd;
if ((fd = socket(AF_INET, SOCK_STREAM, 0)) == -1) {
printf("# MatchServerTest::RequestPublic( Create socket error ) \n");
return false;
}
setsockopt(fd, IPPROTO_TCP, TCP_NODELAY, (const char *)&iFlag, sizeof(iFlag));
setsockopt(fd, SOL_SOCKET, SO_REUSEADDR, &iFlag, sizeof(iFlag));
if( connect(fd, (struct sockaddr *)&mAddr, sizeof(mAddr)) != -1 ) {
// printf("# MatchServerTest::RequestPublic( Connect ok, index : %d ) \n", index);
if( send(fd, sendBuffer, strlen(sendBuffer), 0) > 0 ) {
// 开始监听接收
mRequestList.PushBack(fd);
ev_async_send(mLoop, &mAsync_send_watcher);
return true;
} else {
// 关闭连接
close(fd);
}
} else {
printf("# MatchServerTest::RequestPublic( Connect fail ) \n");
}
return false;
}
void user_worker(gpointer psession, gpointer data)
{
user_session_t *usersession = (user_session_t *) psession;
struct msg_addr_set *gmsg;
int ret;
gboolean sess_ok = TRUE;
if (g_mutex_trylock(usersession->rw_lock)) {
while (sess_ok && (gmsg = g_async_queue_try_pop(usersession->workunits_queue))) {
if (gmsg == GINT_TO_POINTER(0x1)) {
debug_log_message(VERBOSE_DEBUG, DEBUG_AREA_USER,
"reading message from \"%s\"",
usersession->user_name);
ret = tls_user_check_activity(usersession);
switch (ret) {
case NU_EXIT_OK:
case NU_EXIT_CONTINUE:
break;
case NU_EXIT_ERROR:
log_message(INFO, DEBUG_AREA_USER,
"Problem reading message from \"%s\"",
usersession->user_name);
usersession->pending_disconnect = TRUE;
sess_ok = FALSE;
break;
}
} else {
debug_log_message(VERBOSE_DEBUG, DEBUG_AREA_USER,
"writing message to \"%s\"",
usersession->user_name);
/* send message */
ret = nussl_write(usersession->nussl,
(char*)gmsg->msg,
ntohs(gmsg->msg->length));
g_free(gmsg->msg);
g_free(gmsg);
if (ret < 0) {
debug_log_message(VERBOSE_DEBUG, DEBUG_AREA_USER,
"client disconnect");
usersession->pending_disconnect = TRUE;
sess_ok = FALSE;
break;
}
}
}
/* send socket back to user select no message are waiting */
g_async_queue_push(mx_queue, usersession);
g_mutex_unlock(usersession->rw_lock);
ev_async_send(usersession->srv_context->loop,
&usersession->srv_context->client_injector_signal);
} else {
debug_log_message(VERBOSE_DEBUG, DEBUG_AREA_USER,
"client locked at %s:%d", __FILE__, __LINE__);
}
return;
}
static void accept_cb(struct ev_loop *loop, struct ev_io *w, int revents)
{
int client_fd;
struct sockaddr_in client_addr;
socklen_t client_len = sizeof(client_addr);
if (EV_ERROR & revents)
{
perror(" w got invalid event");
return;
}
client_fd = accept(w->fd, (struct sockaddr *)&client_addr, &client_len);
if (client_fd == -1) {
return;
}
setnonblock(client_fd) ;
if (!ev_async_pending(&async_watcher)) {
pthread_mutex_lock(&lock);
memset(&swap, 0, sizeof(swap));
swap.fd = client_fd;
swap.state = NOTINIT;
swap.start_time = 1384227300;
swap.in_used = 1;
pthread_mutex_unlock(&lock);
ev_async_send(work_loop, &async_watcher);
}
}
void *ZipFile::Save_Thread(void *data) {
save_closure_t *save = (save_closure_t *)data;
int ret = zip_close(save->zf->archive);
pthread_mutex_lock(&save->mutex);
if (ret < 0) {
std::stringstream s;
s << "Error while saving in zip archive: " << zip_strerror(save->zf->archive) << "\n";
save->error = new std::string(s.str());
} else {
// We assume that reopening is ok here..
int err;
save->zf->archive = zip_open(save->zf->file_name.c_str(), ZIP_CREATE, &err);
}
save->done = true;
pthread_mutex_unlock(&save->mutex);
ev_async_send(EV_DEFAULT_UC_ ¬ifier);
return NULL;
}
spx_private void ReciveRequest(EV_P_ ev_async *watcher, int revents){/*{{{*/
ev_async_stop(loop, watcher);
struct server_context * ctx = (struct server_context *) watcher->data;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "ReciveRequest ctx is NULL");
return;
}
err_t err = ReciveRequest_GetRequest_ReadRequest(ctx->fd, ctx->request, &ctx->req_len);
if(0 == err){
RegisterAayncWatcher(&ctx->async_watcher, ParserRequest, ctx);
ev_async_start(loop, &ctx->async_watcher);
ev_async_send(loop, &ctx->async_watcher);
printf("buf:%s\n",ctx->request);
return;
}else{
if(EAGAIN == err || EWOULDBLOCK == err || EINTR == err) {
ev_once(loop, ctx->fd, EV_READ, ctx->timeout, ReciveRequest_GetRequest, ctx);
return;
}else{
SpxLog2(g_log, SpxLogError, err,"ReciveRequest_GetRequest_ReadRequest Failed");
if( -1 == err)
CloseCTX(ctx);
else
RequestException(ctx, bad_request);
return;
}
}
}/*}}}*/
/* the actual thread entrypoint passed to pthread_create() */
static void *uv__thread_run(void *arg) {
/* synchronously get the entrypoint and call it */
uv_thread_shared_t *hnd = (uv_thread_shared_t *)arg;
pthread_mutex_lock(&hnd->mtx);
uv_thread_run thread_run = hnd->options->thread_run;
void *thread_arg = hnd->options->thread_arg;
/* ... any other processing depending on thread or options here ... */
pthread_cond_signal(&hnd->cond);
pthread_mutex_unlock(&hnd->mtx);
void *result = (*thread_run)(hnd, thread_arg);
/* close any pipes created */
if(hnd->stdin_fd != -1) uv__close(hnd->stdin_fd);
if(hnd->stdout_fd != -1) uv__close(hnd->stdout_fd);
if(hnd->stderr_fd != -1) uv__close(hnd->stderr_fd);
/* synchronously notify exit to the client event loop */
pthread_mutex_lock(&hnd->mtx);
uv_thread_t *thread = hnd->thread_handle;
if(thread) {
/* copy these before they disappear ... */
thread->exit_status = hnd->exit_status;
thread->term_signal = hnd->term_signal;
ev_async_send(thread->loop->ev, &thread->thread_watcher);
}
hnd->thread_id = 0;
pthread_mutex_unlock(&hnd->mtx);
/* if the handle had gone already, delete shared handle */
if(!thread)
uv__thread_shared_delete(hnd);
return result;
}
void fsock_thread_schedule_task (struct fsock_thread *self,
struct fsock_task * task) {
fsock_mutex_lock (&self->sync);
fsock_queue_push (&self->jobs, &task->item);
ev_async_send (self->loop, &self->job_async);
fsock_mutex_unlock (&self->sync);
}
static void run_tasklet(gpointer data, gpointer userdata) {
liTaskletPool *pool = userdata;
liTasklet *t = data;
t->run_cb(t->data);
g_async_queue_push(pool->finished, t);
ev_async_send(pool->loop, &pool->finished_watcher);
}
/*
* EV send async trigger for new commands to send
* (External to the event loop)
*/
static inline void
_eredis_ev_send_trigger (eredis_t *e)
{
if (IS_READY(e) && !IS_SHUTDOWN(e) && !e->send_async_pending) {
e->send_async_pending = 1;
ev_async_send( e->loop, &e->send_async );
}
}
// When writing these settings we must lock
inline void dwt_update_settings(void* data)
{
// tell the DUMMY_WORKER thread to copy the settings from the pointers we gave it
pthread_mutex_lock(&(thread_control.settings_lock));
memcpy(&dummy_settings, data, sizeof(dummy_settings));
pthread_mutex_unlock(&(thread_control.settings_lock));
ev_async_send(thread_control.EV_A, &(thread_control.update_settings));
}
static void
quit (MilterEventLoop *loop)
{
MilterLibevEventLoopPrivate *priv;
priv = MILTER_LIBEV_EVENT_LOOP_GET_PRIVATE(loop);
ev_async_send(priv->ev_loop, priv->breaker);
}
spx_private void ReciveRequest(EV_P_ ev_async *watcher, int revents){/*{{{*/
ev_async_stop(loop, watcher);
struct server_context * ctx = (struct server_context *) watcher->data;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "ReciveRequest ctx is NULL");
return;
}
if(READ_HEADER == ctx->life_cycle){
char buf[LOG_HEADER_SIZE] = {0};
size_t len = 0;
err_t err = ReciveRequest_GetRequest_ReadRequest(ctx->fd, buf, &len, LOG_HEADER_SIZE);
if(0 == err){
log_header_unpack(buf, ctx->header);
char * request = (char *) calloc(1, sizeof(char)*ctx->header->req_size);
if(NULL == request){
SpxLog2(g_log, SpxLogError, err,"calloc log_header failed");
return;
}
ctx->req_size = ctx->header->req_size;
ctx->request = request;
ctx->life_cycle = READ_REQUEST;
} else{
if(EAGAIN == err || EWOULDBLOCK == err || EINTR == err) {
ev_once(loop, ctx->fd, EV_READ, ctx->timeout, ReciveRequest_GetRequest, ctx);
return;
} else{
SpxLog2(g_log, SpxLogError, err,"Read header failed");
CloseCTX(ctx);
return;
}
}
}
if(READ_REQUEST == ctx->life_cycle){
printf("---------------ReadRequest-------------\n");
printf("req_size:%d\n", (int)ctx->req_size);
err_t err = ReciveRequest_GetRequest_ReadRequest(ctx->fd, ctx->request, &ctx->req_len, ctx->req_size);
printf("read request complete\n" );
if(0 == err){
ctx->life_cycle = PARSE_REQUEST;
RegisterAayncWatcher(&ctx->async_watcher, ParserRequest, ctx);
ev_async_start(loop, &ctx->async_watcher);
ev_async_send(loop, &ctx->async_watcher);
return;
}else{
if(EAGAIN == err || EWOULDBLOCK == err || EINTR == err) {
ev_once(loop, ctx->fd, EV_READ, ctx->timeout, ReciveRequest_GetRequest, ctx);
return;
}else{
SpxLog2(g_log, SpxLogError, err,"ReciveRequest_GetRequest_ReadRequest Failed");
CloseCTX(ctx);
return;
}
}
}
}/*}}}*/
void EventDispatcherLibEv::wakeUp(void)
{
Q_D(EventDispatcherLibEv);
if (d->m_wakeups.testAndSetAcquire(0, 1))
{
ev_async_send(d->m_base, &d->m_wakeup);
}
}
/*==============================================================================
* Name : void Client_switch_to_recv(CONN_INFO* conn)
* Abstr : Start the io watcher to waiting for data
* Params : CONN_INFO* conn : connection with db server
* Return :
* Modify :
*=============================================================================*/
static void Client_switch_to_recv(CONN_INFO* conn)
{
/* io wathcer switch to waiting for data */
ev_io_init(&conn->io_wt, Client_recv_cb, conn->fd, EV_READ);
ev_io_start(host_loop, &conn->io_wt);
/* notice the host loop */
ev_async_send(host_loop, &async_wt);
}
/*==============================================================================
* Name : void Client_switch_to_test(CONN_INFO* conn)
* Abstr : Start the socket test watcher
* Params : CONN_INFO* conn : connection with db server
* Return :
* Modify :
*=============================================================================*/
static void Client_switch_to_test(CONN_INFO* conn)
{
/* io wathcer switch to testing status */
ev_io_init(&conn->io_wt, Client_test_cb, conn->fd, EV_READ | EV_WRITE);
ev_io_start(host_loop, &conn->io_wt);
/* notice the host loop */
ev_async_send(host_loop, &async_wt);
}
/*==============================================================================
* Name : void Client_switch_to_start(CONN_INFO* conn)
* Abstr : Start the connection restart timer
* Params : CONN_INFO* conn : connection with db server
* Return :
* Modify :
*=============================================================================*/
static void Client_switch_to_start(CONN_INFO* conn)
{
/* start the connection after 120s */
ev_timer_init(&conn->t_wt, Client_start_cb, timer_array[TID_CONN_START].t_val, 0.);
ev_timer_start(host_loop, &conn->t_wt);
/* notice the host loop */
ev_async_send(host_loop, &async_wt);
}
bool LinkageWorker::SendCommand(Runnable *command)
{
MutexLocker locker(_mutex);
_commands.push_back(command);
locker.Unlock();
ev_async_send(_loop, _async);
return true;
}
static void
sigint_callback(EV_P_ ev_signal *w, int revents)
{
if (revents & EV_SIGNAL) {
printf("Call signal_callback\n");
printf("ev_async_send 调用前%d\n", ev_async_pending(&async_watcher));
ev_async_send(EV_A, &async_watcher); //这里回调用async_callback
printf("ev_async_send 调用后%d\n", ev_async_pending(&async_watcher));
}
}
void scheduler_impl_t::activate(fiber_impl_t* fiber) {
assert(!fiber->is_terminated());
std::unique_lock<spinlock_t> guard(activated_lock_);
if(fiber->is_linked()) return;
activated_fibers_.push_back(*fiber);
guard.unlock();
ev_async_send(ev_loop_, &activate_);
}
int jack_callback (jack_nframes_t nframes, void *arg) {
int jack_bsize = nframes * sizeof(jack_default_audio_sample_t);
const char *jack_b = jack_port_get_buffer(output_port, nframes);
if (jack_ringbuffer_write(ringbuf, (void *) jack_b, jack_bsize) < jack_bsize) {
fprintf(stderr, "buffer underrun!\n");
}
if ( rtmp_i && jack_ringbuffer_read_space(ringbuf) >= (buffer_samples * sizeof(jack_default_audio_sample_t)) ) {
ev_async_send(loop, &async);
}
return 0;
}
void Loop::quit()
{
_quit = true;
if (nullptr != _loop) {
if (std::this_thread::get_id() == _owner) {
ev_break(_loop);
} else {
SLOG(INFO) << "quit async!";
ev_async_send(_loop, &_async);
}
}
}
spx_private void Sender_ReWriteResponse(int revents, void *arg){/*{{{*/
struct server_context *ctx = (struct server_context *) arg;
if(NULL == ctx){
SpxLog1(g_log, SpxLogError, "Sender ctx is NULL");
return;
}
if(EV_ERROR & revents){
SpxLog1(g_log, SpxLogError, "EV_ERROR");
return;
}
if(EV_TIMEOUT & revents){
if((ctx->resp_retry++) >= RETRY_TIMES){
RequestException(ctx, bad_request);
SpxLog1(g_log, SpxLogError, "EV_TIMEOUT");
return;
}else{
ev_once(main_socket_loop, ctx->fd, EV_WRITE, ctx->timeout, Sender_ReWriteResponse, ctx);
return;
}
}
if(EV_WRITE & revents){
err_t err = Sender_WriteResponse(ctx->fd, ctx->response, &ctx->resp_len, &ctx->split_size);
if((0 == err)&&(0 == ctx->split_size)){
if(ctx->resp_size == ctx->resp_len){
RequestFinish(ctx);
}else{
int remain_size = ctx->resp_size - ctx->resp_len;
if(remain_size >= SPLIT_SIZE){
ctx->split_size = SPLIT_SIZE;
}else{
ctx->split_size = remain_size;
}
RegisterAayncWatcher(&ctx->async_watcher, Sender, ctx);
ev_async_start(main_socket_loop, &ctx->async_watcher);
ev_async_send(main_socket_loop, &ctx->async_watcher);
return;
}
}else{
if((EAGAIN == err || EWOULDBLOCK == err || EINTR == err)||(ctx->resp_size > 0)) {
ev_once(main_socket_loop, ctx->fd, EV_READ, ctx->timeout, Sender_ReWriteResponse, ctx);
return;
}else{
SpxLog2(g_log, SpxLogError, err,"Sender Failed");
RequestException(ctx, bad_request);
}
}
}
}/*}}}*/
/**
* Sends an event to the AsyncEvent object which will trigger it in the event
* loop.
*
* @return boolean false if the object is not attached to an event loop
*/
PHP_METHOD(AsyncEvent, send)
{
event_object *obj = (event_object *)zend_object_store_get_object(getThis() TSRMLS_CC);
if(event_has_loop(obj))
{
ev_async_send(obj->loop_obj->loop, (ev_async*)obj->watcher);
RETURN_BOOL(1);
}
RETURN_BOOL(0);
}
