/*
** Usage: thread_result ID
**
** Wait on the most recent operation to complete, then return the
** result code from that operation.
*/
static int tcl_thread_result(
void *NotUsed,
Tcl_Interp *interp, /* The TCL interpreter that invoked this command */
int argc, /* Number of arguments */
const char **argv /* Text of each argument */
){
int i;
const char *zName;
if( argc!=2 ){
Tcl_AppendResult(interp, "wrong # args: should be \"", argv[0],
" ID", 0);
return TCL_ERROR;
}
i = parse_thread_id(interp, argv[1]);
if( i<0 ) return TCL_ERROR;
if( !threadset[i].busy ){
Tcl_AppendResult(interp, "no such thread", 0);
return TCL_ERROR;
}
thread_wait(&threadset[i]);
switch( threadset[i].rc ){
case SQLITE_OK: zName = "SQLITE_OK"; break;
case SQLITE_ERROR: zName = "SQLITE_ERROR"; break;
case SQLITE_PERM: zName = "SQLITE_PERM"; break;
case SQLITE_ABORT: zName = "SQLITE_ABORT"; break;
case SQLITE_BUSY: zName = "SQLITE_BUSY"; break;
case SQLITE_LOCKED: zName = "SQLITE_LOCKED"; break;
case SQLITE_NOMEM: zName = "SQLITE_NOMEM"; break;
case SQLITE_READONLY: zName = "SQLITE_READONLY"; break;
case SQLITE_INTERRUPT: zName = "SQLITE_INTERRUPT"; break;
case SQLITE_IOERR: zName = "SQLITE_IOERR"; break;
case SQLITE_CORRUPT: zName = "SQLITE_CORRUPT"; break;
case SQLITE_FULL: zName = "SQLITE_FULL"; break;
case SQLITE_CANTOPEN: zName = "SQLITE_CANTOPEN"; break;
case SQLITE_PROTOCOL: zName = "SQLITE_PROTOCOL"; break;
case SQLITE_EMPTY: zName = "SQLITE_EMPTY"; break;
case SQLITE_SCHEMA: zName = "SQLITE_SCHEMA"; break;
case SQLITE_CONSTRAINT: zName = "SQLITE_CONSTRAINT"; break;
case SQLITE_MISMATCH: zName = "SQLITE_MISMATCH"; break;
case SQLITE_MISUSE: zName = "SQLITE_MISUSE"; break;
case SQLITE_NOLFS: zName = "SQLITE_NOLFS"; break;
case SQLITE_AUTH: zName = "SQLITE_AUTH"; break;
case SQLITE_FORMAT: zName = "SQLITE_FORMAT"; break;
case SQLITE_RANGE: zName = "SQLITE_RANGE"; break;
case SQLITE_ROW: zName = "SQLITE_ROW"; break;
case SQLITE_DONE: zName = "SQLITE_DONE"; break;
default: zName = "SQLITE_Unknown"; break;
}
Tcl_AppendResult(interp, zName, 0);
return TCL_OK;
}
static int relayTee(Connection *Conn,int fcbsize,int fsbsize,int server){
int scerr,cserr;
XFlash Xf;
fprintf(stderr,"---relayTee\n");
Xf.xf_Conn = Conn;
Xf.xf_xfsockfd = -1;
Xf.xf_xfsockfp = 0;
if( server ){
Xf.xf_cstid = thread_fork(0,0,"XFlash-CS",(IFUNCP)XCS,&Xf);
Xf.xf_sctid = thread_fork(0,0,"XFlash-SC",(IFUNCP)XSC,&Xf,fsbsize);
Xf.xf_fptid = thread_fork(0,0,"XFlash-Player",(IFUNCP)XFP,&Xf,server);
cserr = thread_wait(Xf.xf_cstid,0);
scerr = thread_wait(Xf.xf_sctid,1);
sv1log("---- XFinished %X/%d %X/%d\n",
PRTID(Xf.xf_cstid),cserr,PRTID(Xf.xf_sctid),scerr);
}else{
XFP(&Xf,server);
}
return 0;
}
int main()
{
/*用默认属性初始化互斥锁*/
pthread_mutex_init(&mut,NULL);
printf("我是主函数哦，我正在创建线程，呵呵\n");
thread_create();
printf("我是主函数哦，我正在等待线程完成任务阿，呵呵\n");
thread_wait();
printf("两个线程已经结束\n");
sleep(5);
printf("结束\n");
return 0;
}
static void*
event_loop(void* arg) {
event_block_t* block;
event_t* event = 0;
FOUNDATION_UNUSED(arg);
event_stream_set_beacon(system_event_stream(), &thread_self()->beacon);
while (!_test_should_terminate) {
block = event_stream_process(system_event_stream());
event = 0;
while ((event = event_next(block, event))) {
switch (event->id) {
case FOUNDATIONEVENT_START:
#if FOUNDATION_PLATFORM_IOS || FOUNDATION_PLATFORM_ANDROID || FOUNDATION_PLATFORM_PNACL
log_debug(HASH_TEST, STRING_CONST("Application start event received"));
_test_should_start = true;
#endif
break;
case FOUNDATIONEVENT_TERMINATE:
#if FOUNDATION_PLATFORM_IOS || FOUNDATION_PLATFORM_ANDROID || FOUNDATION_PLATFORM_PNACL
log_debug(HASH_TEST, STRING_CONST("Application stop/terminate event received"));
_test_should_terminate = true;
break;
#else
log_warn(HASH_TEST, WARNING_SUSPICIOUS, STRING_CONST("Terminating tests due to event"));
process_exit(-2);
#endif
case FOUNDATIONEVENT_FOCUS_GAIN:
_test_have_focus = true;
break;
case FOUNDATIONEVENT_FOCUS_LOST:
_test_have_focus = false;
break;
default:
break;
}
test_event(event);
}
thread_wait();
}
log_debug(HASH_TEST, STRING_CONST("Application event thread exiting"));
return 0;
}
int main(int argc, char *argv[])
{
thread_t *nThread;
unsigned n = 0;
gmactime_t st, en;
setParam<unsigned>(&nIter, nIterStr, nIterDefault);
setParam<unsigned>(&vecSize, vecSizeStr, vecSizeDefault);
barrier_init(&barr, nIter + 1);
assert(eclCompileSource(kernel) == eclSuccess);
nThread = (thread_t *)malloc(nIter * sizeof(thread_t));
unsigned *ids = (unsigned *)malloc(nIter * sizeof(unsigned));
getTime(&st);
for(n = 0; n < nIter; n++) {
ids[n] = n;
nThread[n] = thread_create(check, &ids[n]);
}
// Alloc & init input data
ecl_error ret = eclMalloc((void **)&a, vecSize * sizeof(float));
assert(ret == eclSuccess);
for(n = 0; n < 32; n++) {
// Call the kernel
size_t globalSize = vecSize;
ecl_kernel kernel;
assert(eclGetKernel("accum", &kernel) == eclSuccess);
assert(eclSetKernelArgPtr(kernel, 0, a) == eclSuccess);
assert(eclCallNDRange(kernel, 1, NULL, &globalSize, NULL) == eclSuccess);
barrier_wait(&barr);
// Wait for the threads to do stuff
barrier_wait(&barr);
}
for(n = 0; n < nIter; n++) {
thread_wait(nThread[n]);
}
getTime(&en);
printTime(&st, &en, "Total: ", "\n");
free(ids);
free(nThread);
return 0;
}
void *sensor_thread(void *args)
{
while(true) {
thread_wait(5000);
/*
* read_and_send_sensor_event executes a command
* (default here is a filtered output of lm-sensors)
* then sends its output as a port event message
*/
if (sensor_active)
read_and_send_sensor_event();
}
return NULL;
}
static void call_functions(kz_syscall_type_t type, kz_syscall_param_t *p)
{
/* システム・コールの実行中にcurrentが書き換わるので注意 */
switch (type) {
case KZ_SYSCALL_TYPE_RUN: /* kz_run() */
p->un.run.ret = thread_run(p->un.run.func, p->un.run.name,
p->un.run.priority, p->un.run.stacksize,
p->un.run.argc, p->un.run.argv);
break;
case KZ_SYSCALL_TYPE_EXIT: /* kz_exit() */
/* TCBが消去されるので，戻り値を書き込んではいけない */
thread_exit();
break;
case KZ_SYSCALL_TYPE_WAIT: /* kz_wait() */
p->un.wait.ret = thread_wait();
break;
case KZ_SYSCALL_TYPE_SLEEP: /* kz_sleep() */
p->un.sleep.ret = thread_sleep();
break;
case KZ_SYSCALL_TYPE_WAKEUP: /* kz_wakeup() */
p->un.wakeup.ret = thread_wakeup(p->un.wakeup.id);
break;
case KZ_SYSCALL_TYPE_GETID: /* kz_getid() */
p->un.getid.ret = thread_getid();
break;
case KZ_SYSCALL_TYPE_CHPRI: /* kz_chpri() */
p->un.chpri.ret = thread_chpri(p->un.chpri.priority);
break;
case KZ_SYSCALL_TYPE_KMALLOC: /* kz_kmalloc() */
p->un.kmalloc.ret = thread_kmalloc(p->un.kmalloc.size);
break;
case KZ_SYSCALL_TYPE_KMFREE: /* kz_kmfree() */
p->un.kmfree.ret = thread_kmfree(p->un.kmfree.p);
break;
case KZ_SYSCALL_TYPE_SEND: /* kz_send() */
p->un.send.ret = thread_send(p->un.send.id,
p->un.send.size, p->un.send.p);
break;
case KZ_SYSCALL_TYPE_RECV: /* kz_recv() */
p->un.recv.ret = thread_recv(p->un.recv.id,
p->un.recv.sizep, p->un.recv.pp);
break;
case KZ_SYSCALL_TYPE_SETINTR: /* kz_setintr() */
p->un.setintr.ret = thread_setintr(p->un.setintr.type,
p->un.setintr.handler);
break;
default:
break;
}
}
net_timer(uint32_t arg)
{
struct timer_thread *t = (struct timer_thread *) arg;
for (;;) {
uint32_t cur = sys_time_msec();
lwip_core_lock();
t->func();
lwip_core_unlock();
thread_wait(0, 0, cur + t->msec);
}
}
int main() {
int arg = 100;
printf(1, "Chillin' for %d tics.\n", arg);
thread_create(&chill, (void *)&arg);
int toc;
int tic = tim();
while((toc = tim()) < tic + 50);
printf(1, "Just kidding! Chillin' for %d tics.\n", (arg = 500));
thread_wait();
printf(1, "\nChillin' complete.\n");
exit();
}
/* Run given thread until it reaches address stopat. */
bool fncall_runtil(thread_t * thread, address_t stopat) {
/* TODO: Be more verbose about errors. */
insn_t insn;
insn_kind_t kind;
assert(!thread->state.slavemode);
info("Running thread %s until it reaches %p (runtil).", str_thread(thread), (void *) stopat);
thread->state.slavemode = true;
kind = (stopat & 0x1) ? INSN_KIND_THUMB : INSN_KIND_ARM;
if (!patch_read_insn_detect_kind(thread, stopat, &insn, &kind))
goto fail;
/* Patch instruction. */
if (!patch_insn(thread, stopat, kind, get_breakpoint_insn(kind)))
goto fail;
thread_continue(thread, 0);
while (1) {
thread_wait(thread, false);
if (thread->state.dead)
goto fail;
if ((thread->state.signo == SIGSEGV) || (thread->state.signo == SIGTRAP) || (thread->state.signo == SIGBUS)) {
struct pt_regs regs;
thread_get_regs(thread, ®s);
if (arch_get_pc(®s) == (stopat & 0xfffffffe)) {
/* This is the signal we were waiting for. */
break;
}
}
warning("Unexpected signal %s received during runtil in thread %s. The signal will be delivered.",
str_signal(thread->state.signo), str_thread(thread));
dump_thread(thread);
void callback(segment_t * segment) {
verbose("%s\n", str_segment(segment));
}
segment_iter(thread->process, callback);
/* Deliver the signal. */
thread_continue(thread, 0);
}
void fork_handler(int sig)
{
change_sig(SIGUSR1, 1);
thread_wait(¤t->thread.mode.skas.switch_buf,
current->thread.mode.skas.fork_buf);
force_flush_all();
if(current->thread.prev_sched == NULL)
panic("blech");
schedule_tail(current->thread.prev_sched);
current->thread.prev_sched = NULL;
userspace(¤t->thread.regs.regs);
}
int main()
{
/*用默认属性初始化互斥锁*/
// int a=1;long int b=2;//linux 32下int与long int均为4字节
// printf("%d\n", sizeof(a));
// printf("%d\n", sizeof(b));
pthread_mutex_init(&mut,NULL);
printf("我是主函数哦，我正在创建线程，呵呵\n");
thread_create();
printf("我是主函数哦，我正在等待线程完成任务阿，呵呵\n");
thread_wait();
return 0;
}
void usb_close(void)
{
unsigned int thread = usb_thread_entry;
usb_thread_entry = 0;
if (thread == 0)
return;
#ifndef USB_STATUS_BY_EVENT
tick_remove_task(usb_tick);
#endif
usb_monitor_enabled = false;
queue_post(&usb_queue, USB_QUIT, 0);
thread_wait(thread);
}
/*
* Yield the cpu to another process, and go to sleep, on the specified
* wait channel WC, whose associated spinlock is LK. Calling wakeup on
* the channel will make the thread runnable again. The spinlock must
* be locked. The call to thread_switch unlocks it; we relock it
* before returning.
*/
void
wchan_sleep(struct wchan* wc, struct spinlock* lk) {
asm volatile ("mfence" ::: "memory");
/* may not sleep in an interrupt handler */
assert(!thisthread->in_interrupt);
/* must hold the spinlock */
assert(spinlock_held(lk));
/* must not hold other spinlocks */
assert(thiscpu->spinlocks == 1);
thread_wait(wc, lk);
spinlock_acquire(lk);
}
static void call_functions(kz_syscall_type_t type, kz_syscall_param_t *p)
{
switch(type){
case KZ_SYSCALL_TYPE_RUN:
p->un.run.ret = thread_run(p->un.run.func, p->un.run.name,
p->un.run.priority,
p->un.run.stacksize,
p->un.run.argc, p->un.run.argv);
break;
case KZ_SYSCALL_TYPE_EXIT:
thread_exit();
break;
case KZ_SYSCALL_TYPE_WAIT:
p->un.wait.ret = thread_wait();
break;
case KZ_SYSCALL_TYPE_SLEEP:
p->un.sleep.ret = thread_sleep();
break;
case KZ_SYSCALL_TYPE_WAKEUP:
p->un.wakeup.ret = thread_wakeup(p->un.wakeup.id);
break;
case KZ_SYSCALL_TYPE_GETID:
p->un.getid.ret = thread_getid();
break;
case KZ_SYSCALL_TYPE_CHPRI:
p->un.chpri.ret = thread_chpri(p->un.chpri.priority);
break;
case KZ_SYSCALL_TYPE_KMALLOC:
p->un.kmalloc.ret = thread_kmalloc(p->un.kmalloc.size);
break;
case KZ_SYSCALL_TYPE_KMFREE:
p->un.kmfree.ret = thread_kmfree(p->un.kmfree.p);
break;
case KZ_SYSCALL_TYPE_SEND:
p->un.send.ret = thread_send(p->un.send.id,
p->un.send.size,
p->un.send.p);
break;
case KZ_SYSCALL_TYPE_RECV:
p->un.recv.ret = thread_recv(p->un.recv.id,
p->un.recv.sizep,
p->un.recv.pp);
break;
default:
break;
}
}
int main (void) {
mutex_init(&lock);
int i, rc;
int arg[10] = {100,200,300,400,500,600,700,800,900,1000};
for (i=0; i<1; i++) {
rc = thread_create (&thread_func, (void*) (arg));
mutex_lock(&lock);
printf (1, "created thread with pid %d\n", rc);
mutex_unlock(&lock);
}
thread_wait();
printf(1,"parent exiting\n");
exit();
}
int waitthreads(){
int ix;
int tid;
int fin = 0;
int mytid = getthreadid();
for( ix = 0; ix < elnumof(threads); ix++ ){
if( tid = threads[ix].t_id ){
if( tid != mytid ){
if( thread_wait(tid,1) == 0 ){
fin++;
}
}
}
}
return fin;
}
/*
* Allocate a buffer in the kernel heap.
* Suspends calling thread until enough memory
* is available to satisfy the request.
* The returned buffer is filled with zeroes.
*
* Parameters:
* size - size in bytes of buffer to allocate
*
* Returns:
* pointer to allocated, zero-filled buffer
*/
void *mem_alloc(size_t size)
{
extern void *malloc(size_t);
void *buf;
bool iflag;
iflag = int_begin_atomic();
while ((buf = malloc(size)) == 0) {
thread_wait(&s_heap_waitqueue);
}
int_end_atomic(iflag);
/* fill buffer with zeroes */
memset(buf, '\0', size);
return buf;
}
void fork_handler(int sig)
{
change_sig(SIGUSR1, 1);
thread_wait(¤t->thread.mode.skas.switch_buf,
current->thread.mode.skas.fork_buf);
force_flush_all();
if(current->thread.prev_sched == NULL)
panic("blech");
schedule_tail(current->thread.prev_sched);
current->thread.prev_sched = NULL;
/* Handle any immediate reschedules or signals */
interrupt_end();
userspace(¤t->thread.regs.regs);
}
struct Act *
ipc_target_block(struct ipc_target *ipt)
{
struct Act *act;
ipt_lock(ipt);
while ((act = ipt->ipt_acts) == 0) {
/* XXX mp unsafe */
ipt->ipt_waiting = 1;
ipt_unlock(ipt);
thread_wait((int)&ipt->ipt_acts, FALSE);
ipt_lock(ipt);
}
ipt->ipt_acts = act->ipt_next;
ipt_unlock(ipt);
return act;
}
void* thread_func (void *arg) {
int j;
int *ptr;
ptr = (int *) arg;
mutex_lock(&lock);
printf(1, "I am thread with pid %d and now I'll create 10 more threads and pass the array\n", getpid());
mutex_unlock(&lock);
for (j=0; j<10; j++) {
int rc = thread_create (&thread2_func, (void *)(ptr+j));
mutex_lock(&lock);
printf (1, "created thread with pid %d\n", rc);
mutex_unlock(&lock);
}
thread_wait();
mutex_lock(&lock);
printf(1, "exiting from thread_func\n");
mutex_unlock(&lock);
exit();
}
/*
* Allocate a physical memory frame.
* Suspends calling thread until a frame is available.
*/
struct frame *mem_alloc_frame(frame_state_t initial_state, int initial_refcount)
{
struct frame *frame;
bool iflag;
iflag = int_begin_atomic();
while (frame_list_is_empty(&s_freelist)) {
thread_wait(&s_frame_waitqueue);
}
frame = frame_list_remove_first(&s_freelist);
frame->state = initial_state;
frame->refcount = initial_refcount;
int_end_atomic(iflag);
return frame;
}
void main() {
loops = 5;
numconsumers = 3;
mutex_init(&mutex);
cond_init(&fill);
cond_init(&empty);
//printf(1,"lock after init %d\n",(&mutex)->lock);
int cons[numconsumers];
int * arg = malloc(sizeof(int));
*arg = 1;
// create threads (producer and consumers)
int prod = thread_create(producer, arg);
int i;
for (i = 0; i < numconsumers; i++)
*arg = i;
cons[i] = thread_create(consumer, arg);
// wait for producer and consumers to finish
thread_wait();
exit();
}
void net_client_destroy (NetClient *client)
{
if (!client) {
error (InvalidArgument);
return;
}
if (client->epoll) {
if (!net_client_epoll_stop (client->epoll)) {
error (FunctionCall);
return;
}
}
if (client->thread) {
thread_wait (client->thread);
thread_destroy (client->thread);
}
if (client->epoll) {
net_client_epoll_deallocate (client->epoll);
}
memory_destroy (client);
}
int main(int argc, char *argv[])
{
struct tm *cur_time;
time_t begin, end;
/* begin: time interval from 1970-01-01::00:00:00 */
begin = time(&begin);
cur_time = localtime(&begin);
printf("begin time is %d:%d:%d\r\n",
cur_time->tm_hour, cur_time->tm_min, cur_time->tm_sec);
/* wait for a while */
thread_wait(5);
/* end: time interval from 1970-01-01::00:00:00 */
end = time(&end);
cur_time = localtime(&end);
printf("end time is %d:%d:%d\r\n",
cur_time->tm_hour, cur_time->tm_min, cur_time->tm_sec);
return 0;
}
/*
** Usage: thread_wait ID
**
** Wait on thread ID to reach its idle state.
*/
static int tcl_thread_wait(
void *NotUsed,
Tcl_Interp *interp, /* The TCL interpreter that invoked this command */
int argc, /* Number of arguments */
const char **argv /* Text of each argument */
){
int i;
if( argc!=2 ){
Tcl_AppendResult(interp, "wrong # args: should be \"", argv[0],
" ID", 0);
return TCL_ERROR;
}
i = parse_thread_id(interp, argv[1]);
if( i<0 ) return TCL_ERROR;
if( !threadset[i].busy ){
Tcl_AppendResult(interp, "no such thread", 0);
return TCL_ERROR;
}
thread_wait(&threadset[i]);
return TCL_OK;
}
int main() {
THREAD *t = thread_new();
thread_setFunction(t, sub, NULL);
thread_run(t);
int i;
for (i = 0; i < 10; ++i) {
if (thread_isRunning(t)) {
printf ("Thread 1 is still running\n");
sleep(1);
}
}
thread_wait(t);
printf("Thread 1 has the status %d\n", thread_getStatus(t));
printf("Thread 1 has the exit-code %d\n", thread_getExit(t));
thread_free(t);
return EXIT_SUCCESS;
}
void new_thread_handler(int sig)
{
int (*fn)(void *), n;
void *arg;
fn = current->thread.request.u.thread.proc;
arg = current->thread.request.u.thread.arg;
change_sig(SIGUSR1, 1);
thread_wait(¤t->thread.mode.skas.switch_buf,
current->thread.mode.skas.fork_buf);
if(current->thread.prev_sched != NULL)
schedule_tail(current->thread.prev_sched);
current->thread.prev_sched = NULL;
/* The return value is 1 if the kernel thread execs a process,
* 0 if it just exits
*/
n = run_kernel_thread(fn, arg, ¤t->thread.exec_buf);
if(n == 1)
userspace(¤t->thread.regs.regs);
else do_exit(0);
}
/**
* The entry point for the imap thread. It just go into the wait state and
* then frees all resources when finished
*
* @param test
*/
static void imap_thread_entry(void *test)
{
if (thread_parent_task_can_contiue())
{
thread_wait(NULL,NULL,NULL,0);
imap_free(imap_server);
free(imap_folder);
free(imap_local_path);
if (imap_connection)
{
tcp_disconnect(imap_connection);
imap_connection = NULL;
}
if (imap_socket_lib_open)
{
close_socket_lib();
imap_socket_lib_open = 0;
}
}
}
int CMain::Run()
{
if(m_Server.Init(this, m_Config.m_aBindAddr, m_Config.m_Port))
return 1;
if(ReadConfig())
return 1;
// Start JSON Update Thread
m_JSONUpdateThreadData.m_ReloadRequired = 2;
m_JSONUpdateThreadData.pClients = m_aClients;
m_JSONUpdateThreadData.pConfig = &m_Config;
void *LoadThread = thread_create(JSONUpdateThread, &m_JSONUpdateThreadData);
//thread_detach(LoadThread);
while(gs_Running)
{
if(gs_ReloadConfig)
{
if(ReadConfig())
return 1;
m_Server.NetBan()->UnbanAll();
gs_ReloadConfig = 0;
}
m_Server.Update();
// wait for incomming data
net_socket_read_wait(*m_Server.Network()->Socket(), 10);
}
dbg_msg("server", "Closing.");
m_Server.Network()->Close();
thread_wait(LoadThread);
return 0;
}