static void Task4(long t)
{
int wakedup;
rt_printk("\nTask4 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
wakedup = rt_tbx_broadcast(&bx, msg2, sizeof(msg2));
rt_printk("\nTask4=%lu, sending broadcast, wakedup=%d\n", count, wakedup);
rt_sleep(nano2count(DELAY + SHIFT));
}
rt_printk("\nTask4 suspends itself\n");
rt_task_suspend(rt_whoami());
}
static void Task1(long t)
{
int unsent;
rt_printk("\nTask1 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
unsent = rt_tbx_send(&bx, msg1, sizeof(msg1));
rt_printk("\nTask1=%lu, simple sending, unsent=%d %d\n", count, unsent, sizeof(msg1));
rt_sleep(nano2count(DELAY));
}
rt_printk("\nTask1 suspends itself\n");
rt_task_suspend(rt_whoami());
}
static void Task7(long t)
{
int unsent;
rt_printk("\nTask7 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
unsent = rt_tbx_urgent(&bx, msg3, sizeof(msg3));
rt_printk("\nTask7=%lu, urgent sending, unsent=%d\n", count, unsent);
rt_sleep(nano2count(3*DELAY + 2*SHIFT));
}
rt_printk("\nTask7 suspends itself\n");
cleanup = 1;
rt_task_suspend(rt_whoami());
}
int rt_tbx_receive_until(TBX *tbx, void *msg, int msg_size, RTIME time)
{
unsigned char type = TYPE_NONE, lock = 0;
char* temp;
RT_TASK *rt_current;
CHK_TBX_MAGIC;
if ((msg_size + sizeof(type)) > tbx->size) {
return -EMSGSIZE;
}
if (tbx_smx_wait_until(tbx, &(tbx->rcvsmx), time, rt_current = rt_whoami())) {
return msg_size;
}
temp = msg;
if (tbx_wait_msg_until(tbx, &tbx->avbs, msg_size + sizeof(type), time, &type, rt_current)) {
tbx_smx_signal(tbx, &(tbx->rcvsmx));
return msg_size;
}
tbx_receive_core(tbx, msg, &msg_size, type, &lock);
tbx_signal(tbx);
tbx_smx_signal(tbx, &(tbx->rcvsmx));
if(lock == 1) {
rt_sem_wait(&(tbx->bcbsmx));
}
return msg_size;
}
static void driver(int t)
{
RT_TASK *thread[NTASKS];
int i, l;
unsigned int msg = 0;
RTIME now;
for (i = 1; i < NTASKS; i++) {
thread[0] = rt_receive(0, &msg);
thread[msg] = thread[0];
}
for (i = 1; i < NTASKS; i++) {
rt_return(thread[i], i);
}
now = rt_get_time();
rt_task_make_periodic(rt_whoami(), now + NTASKS*tick_period, tick_period);
msg = 0;
l = LOOPS;
while(l--) {
for (i = 1; i < NTASKS; i++) {
cpu_used[hard_cpu_id()]++;
if (i%2) {
rt_rpc(thread[i], msg, &msg);
} else {
rt_send(thread[i], msg);
msg = 1 - msg;
}
rt_task_wait_period();
}
}
for (i = 1; i < NTASKS; i++) {
rt_send(thread[i], END);
}
}
int rt_tbx_broadcast_until(TBX *tbx, void *msg, int msg_size, RTIME time)
{
unsigned char type = TYPE_BROADCAST;
int wakedup;
RT_TASK *rt_current;
CHK_TBX_MAGIC;
if ((msg_size + sizeof(type)) > tbx->size) {
return -EMSGSIZE;
}
wakedup = tbx->waiting_nr;
if (wakedup == 0) {
return wakedup;
}
if (tbx_smx_wait_until(tbx, &(tbx->sndsmx), time, rt_current = rt_whoami())) {
return 0;
}
if (tbx_wait_room_until(tbx, &tbx->frbs, (msg_size + sizeof(type)), time, rt_current)) {
tbx_smx_signal(tbx, &(tbx->sndsmx));
return 0;
}
msg_size = tbxput(tbx, (char **)(&msg), msg_size, type);
tbx_signal(tbx);
tbx_smx_signal(tbx, &(tbx->sndsmx));
return wakedup;
}
static void Task1(long t)
{
int unsent;
MSG msg;
rt_printk("\nTask1 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
msg.progressive = count;
msg.sending_task = 1;
unsent = rt_tbx_send_if(&bx, (char*)&msg, sizeof(msg));
rt_printk("\nTask1=%lu, simple sending, unsent=%d\n", count, unsent);
rt_sleep(nano2count(DELAY));
}
rt_printk("\nTask1 suspends itself\n");
rt_task_suspend(rt_whoami());
}
static void Task4(long t)
{
int wakedup;
MSG msg;
rt_printk("\nTask4 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
msg.progressive = count;
msg.sending_task = 4;
wakedup = rt_tbx_broadcast(&bx, (char*)&msg, sizeof(msg));
rt_printk("\nTask4=%lu, sent broadcast, wakedup=%d\n", count, wakedup);
rt_sleep(nano2count(DELAY + SHIFT));
}
rt_printk("\nTask4 suspends itself\n");
rt_task_suspend(rt_whoami());
}
static void sighdl(void)
{
static unsigned long cnt = 0, rpt = 1000000000/PERIOD;
if (++cnt > rpt) {
rt_printk("FUN SIGHDL > # sw: %lu, tsk: %p.\n", rpt, rt_whoami());
rpt += 1000000000/PERIOD;
}
}
static void Task3(long t)
{
int status;
MSG buf;
rt_printk("\nTask3 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
memset((char*)&buf, 0, sizeof(buf));
status = rt_tbx_receive_if(&bx, (char*)&buf, sizeof(buf));
if (status == 0) {
rt_printk("\nTask3 received msgnr %u from task %u, status=%d\n", buf.progressive, buf.sending_task, status);
}
rt_sleep(nano2count(TIMEBASE));
}
rt_printk("\nTask3 suspends itself\n");
rt_task_suspend(rt_whoami());
}
//-----------------------------------------------------------------------------
void child_func(int arg) {
int i;
size_t n = 0;
char inBuf[50];
uint priority = 0;
int nMsgs = 0;
struct mq_attr my_attrs ={0,0,0,0};
mode_t my_mode = 0;
int my_oflags = (O_RDONLY | O_NONBLOCK);
mqd_t rx_q = INVALID_PQUEUE;
rt_printk("Starting child task %d\n", arg);
for(i = 0; i < 3; i++) {
rt_printk("child task %d, loop count %d\n", arg, i);
}
//Open the queue for reading
rx_q = mq_open("my_queue", my_oflags, my_mode, &my_attrs);
if (rx_q <= 0) {
rt_printk("ERROR: child cannot open my_queue\n");
} else {
//Get the message(s) off the pQueue
n = mq_getattr(rx_q, &my_attrs);
nMsgs = my_attrs.mq_curmsgs;
rt_printk("There are %d messages on the queue\n", nMsgs);
while(nMsgs-- > 0) {
n = mq_receive(rx_q, inBuf, sizeof(inBuf), &priority);
inBuf[n] = '\0';
//Report what happened
rt_printk("Child got >%s<, %d bytes at priority %d\n", inBuf,n, priority);
}
}
mq_close(rx_q);
mq_unlink("my_queue");
free_z_apps(rt_whoami());
rt_task_delete(rt_whoami());
}
static void Task7(long t)
{
int unsent;
MSG msg;
rt_printk("\nTask7 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
msg.progressive = count;
msg.sending_task = 7;
unsent = rt_tbx_urgent(&bx, (char*)&msg, sizeof(msg));
rt_printk("\nTask7=%lu, urgent sending, unsent=%d\n", count, unsent);
rt_sleep(nano2count(3*DELAY + 2*SHIFT));
}
rt_printk("\nTask7 suspends itself\n");
cleanup = 1;
rt_task_suspend(rt_whoami());
}
static void Task2(long t)
{
int status;
MSG buf;
rt_printk("\nTask2 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
memset((char*)&buf, 0, sizeof(buf));
status = rt_tbx_receive_timed(&bx, (char*)&buf, sizeof(buf),nano2count(TIMEOUT));
if (status == sizeof(buf)) {
rt_printk("\nTask2 receive timed out\n");
} else {
rt_printk("\nTask2 received msgnr %u from task %u, status=%d\n", buf.progressive, buf.sending_task, status);
}
rt_sleep(nano2count(DELAY));
}
rt_printk("\nTask2 suspends itself\n");
rt_task_suspend(rt_whoami());
}
RTAI_SYSCALL_MODE int rt_comedi_register_callback(void *dev, unsigned int subdev, unsigned int mask, int (*callback)(unsigned int, void *), void *task)
{
if (task == NULL) {
task = rt_whoami();
}
((RT_TASK *)task)->resumsg = 0;
RTAI_COMEDI_LOCK(dev, subdev);
rt_printk("COMEDI REGISTER CALLBACK: dev = %p, subdev = %u, mask = %u, callback = %p, task = %p.\n", dev, subdev, mask, callback, task);
RTAI_COMEDI_UNLOCK(dev, subdev);
return 0;
}
void child_func(int arg)
{
int *explode = 0;
rt_printk("Starting child task %d\n", arg);
for(counters[arg] = 0; counters[arg] < 10; counters[arg]++) {
// rt_printk("Child task %d, loop count %d\n", arg, counters[arg]);
rt_task_wait_period();
}
*explode = 0;
rt_task_suspend(rt_whoami());
}
void parent_func(int arg)
{
int i;
rt_printk("Starting parent task %d\n", arg);
for (i = 0; i < NUM_CHILDREN; i++) {
rt_task_init(&child_task[i], child_func, i, STACK_SIZE, PRIORITY, 0, 0);
rt_set_task_trap_handler(&child_task[i], 14, my_trap_handler);
rt_task_make_periodic(&child_task[i], rt_get_time() + period, period*i);
}
rt_task_suspend(rt_whoami());
}
static void Task2(long t)
{
int status;
MSG buf;
rt_printk("\nTask2 (%p) starting\n", rt_whoami());
while (1) {
memset((char*)&buf, 0, sizeof(buf));
status = rt_tbx_receive(&bx, (char*)&buf, sizeof(buf));
rt_printk("\nTask2 received msgnr %u from task %u, status=%d\n", buf.progressive, buf.sending_task, status);
}
}
static void Task3(long t)
{
int status;
char buf[100];
rt_printk("\nTask3 (%p) starting\n", rt_whoami());
while (1) {
status = rt_tbx_receive(&bx, buf, sizeof(msg1));
rt_printk("\nTask3 received %s, status=%d\n", buf, status);
memset(buf, 0, sizeof(buf));
}
}
static void SomeOtherThingsTodo( void *var1, int var2 )
{
// This function acts like a synchronous thread.
// Function rt_qReceive(...) does whatever is necessary to receive proxies,
// messages and schedule the execution of both static and dynamic QBLK's.
rt_printk( "QBLK Says: Hello World\n" );
count++;
// Reschedule for execution in one second.
if(count < 12) rt_qBlkWait( &Main, nano2count( 1000000000 ));
else rt_task_suspend(rt_whoami());
}
void *thread_func(void *arg) {
int i;
int r_c;
int my_policy;
pthread_t self;
struct sched_param my_param;
RT_TASK *rtai_task_ptr;
self = pthread_self();
rt_printk("Starting pthread: %s, id: %ld\n", (char *)arg, self);
if(( r_c = pthread_getschedparam(self, &my_policy, &my_param)) != 0) {
rt_printk("pthread: %s, pthread_getschedparam error: %d\n", (char *)arg, r_c);
}
rt_printk("pthread: %s, Created with following scheduling parameters.\n", (char *)arg);
rt_printk("pthread: %s, running at %s/%d\n", (char *)arg,
(my_policy == SCHED_FIFO ? "FIFO"
: (my_policy == SCHED_RR ? "RR"
: (my_policy == SCHED_OTHER ? "OTHER"
: "unknown"))),
my_param.sched_priority);
rtai_task_ptr = rt_whoami();
rt_printk("pthread: %s, RTAI priority: %d\n", (char *)arg, rtai_task_ptr->priority);
if(( r_c = pthread_mutex_lock(&test_op.lock)) != 0) {
rt_printk("pthread %s, Cannot gain mutex: %d\n", (char *)arg, r_c);
}
for(i = 0; i < 5; i++) {
rt_printk("pthread: %s, loop count %d\n", (char *)arg, i);
test_op.t_buffer_data[test_op.t_buffer_pos] = self + i;
test_op.t_buffer_tid[test_op.t_buffer_pos] = self;
test_op.t_buffer_pos++;
}
if(( r_c = pthread_mutex_unlock(&test_op.lock)) != 0) {
rt_printk("pthread %s - Error unlocking mutex: %d\n", (char *)arg, r_c);
}
pthread_exit("b");
return(NULL);
}
/****
* Proxy txqueue wakeup manager.
*
* Waits blocking for a wakeup message in its mailbox and calls the rtdevice
* specific wakeup function (if one is registered) after a message arrived.
*/
void proxy_wakeup_manager_task (int mgr_id) {
struct rtnet_msg msg;
struct rtnet_mgr *mgr = (struct rtnet_mgr *)mgr_id;
rt_printk("RTnet: Proxy txqueue wakeup manager started. (%p)\n", rt_whoami());
while(1) {
rt_mbx_receive(&(mgr->mbx), &msg, sizeof(struct rtnet_msg));
if ((msg.msg_type==WAKEUP) && (msg.rtdev)) {
if (msg.rtdev->rt_wakeup_xmit) {
msg.rtdev->proxy_wakeup_xmit(msg.rtdev);
}
}
}
}
static void Task4(long t)
{
int wakedup;
MSG msg;
rt_printk("\nTask4 (%p) starting\n", rt_whoami());
while (count < MAXCOUNT) {
count++;
msg.progressive = count;
msg.sending_task = 4;
/*
* Please note that tasks using rt_receive_if() will not receive
* this message because they aren't sleeping
*/
wakedup = rt_tbx_broadcast_if(&bx, (char*)&msg, sizeof(msg));
if (wakedup > 0) {
rt_printk("\nTask4=%lu, sent broadcast, wakedup=%d\n", count, wakedup);
}
rt_sleep(nano2count(DELAY + SHIFT));
}
rt_printk("\nTask4 suspends itself\n");
rt_task_suspend(rt_whoami());
}
/****
* Realtime txqueue wakeup manager.
*
* Waits blocking for a wakeup message in its mailbox and calls the rtdevice
* specific wakeup function (if one is registered) after a message arrived.
* After processing the realtime txqueue, a wakeup message is sent to the
* proxy wakeup manager.
*/
void rt_wakeup_manager_task (int mgr_id) {
struct rtnet_msg msg;
struct rtnet_mgr *mgr = (struct rtnet_mgr *)mgr_id;
rt_printk("RTnet: Realtime txqueue wakeup manager started. (%p)\n", rt_whoami());
while(1) {
rt_mbx_receive(&(mgr->mbx), &msg, sizeof(struct rtnet_msg));
if ((msg.msg_type==WAKEUP) && (msg.rtdev)) {
if (msg.rtdev->rt_wakeup_xmit) {
msg.rtdev->rt_wakeup_xmit(msg.rtdev);
}
}
// The next call should depend on the not yet specified returncode of rt_wakeup_xmit().
rt_mbx_send_if(&(proxy_wakeup_manager.mbx), &msg, sizeof (struct rtnet_msg));
}
}
void fun(int t)
{
char buf[64];
pid_t from;
int msglen;
rt_printk("Task %p starts.\n", rt_lxrt_whoami());
// init a qBlk
rt_InitTickQueue();
rt_qBlkInit( &Main, SomeOtherThingsTodo, 0, 0);
rt_qBlkWait( &Main, nano2count(1000000000));
from = rt_qReceive( 0, buf, sizeof(buf), &msglen);
rt_task_suspend(rt_whoami());
rt_printk("Task %p Oops.\n", rt_lxrt_whoami());
}
int rt_tbx_send(TBX *tbx, void *msg, int msg_size)
{
unsigned char type = TYPE_NORMAL;
RT_TASK *rt_current;
CHK_TBX_MAGIC;
if ((msg_size + sizeof(type)) > tbx->size) {
return -EMSGSIZE;
}
if (tbx_smx_wait(tbx, &(tbx->sndsmx), rt_current = rt_whoami())) {
return msg_size;
}
if (tbx_wait_room(tbx, &tbx->frbs, msg_size + sizeof(type), rt_current)) {
tbx_smx_signal(tbx, &(tbx->sndsmx));
return msg_size;
}
msg_size = tbxput(tbx, (char **)(&msg), msg_size, type);
tbx_signal(tbx);
tbx_smx_signal(tbx, &(tbx->sndsmx));
return msg_size;
}
int _rtapi_task_self_hook(void) {
RT_TASK *ptr;
int n;
/* ask OS for pointer to its data for the current task */
ptr = rt_whoami();
if (ptr == NULL) {
/* called from outside a task? */
return -EINVAL;
}
/* find matching entry in task array */
n = 1;
while (n <= RTAPI_MAX_TASKS) {
if (ostask_array[n] == ptr) {
/* found a match */
return n;
}
n++;
}
return -EINVAL;
}
int rt_tbx_urgent_until(TBX *tbx, void *msg, int msg_size, RTIME time)
{
unsigned char type = TYPE_URGENT;
RT_TASK *rt_current;
CHK_TBX_MAGIC;
if ((msg_size + sizeof(type)) > tbx->size) {
return -EMSGSIZE;
}
if (tbx_smx_wait_until(tbx, &(tbx->sndsmx), time, rt_current = rt_whoami())) {
return msg_size;
}
if (tbx_wait_room_until(tbx, &tbx->frbs, (msg_size + sizeof(type)), time, rt_current)) {
tbx_smx_signal(tbx, &(tbx->sndsmx));
return msg_size;
}
msg_size = tbxbackput(tbx, (char **)(&msg), msg_size, type);
tbx_signal(tbx);
tbx_smx_signal(tbx, &(tbx->sndsmx));
return msg_size;
}
void *control_func(void *arg) {
int i;
int r_c;
int my_policy;
pthread_t self;
pthread_t thread_id = 0;
pthread_attr_t new_attr;
struct sched_param my_param;
RT_TASK *rtai_task_ptr;
self = pthread_self();
rt_printk("Starting control pthread: %s, id: %ld\n", (char *)arg, self);
if(( r_c = pthread_getschedparam(self, &my_policy, &my_param)) != 0) {
rt_printk("pthread: %s, pthread_getschedparam error: %d\n", (char *)arg, r_c);
}
rt_printk("pthread: %s, Created with following scheduling parameters.\n", (char *)arg);
rt_printk("pthread: %s, running at %s/%d\n", (char *)arg,
(my_policy == SCHED_FIFO ? "FIFO"
: (my_policy == SCHED_RR ? "RR"
: (my_policy == SCHED_OTHER ? "OTHER"
: "unknown"))),
my_param.sched_priority);
rtai_task_ptr = rt_whoami();
rt_printk("pthread: %s, RTAI priority: %d\n", (char *)arg, rtai_task_ptr->priority);
// Initialise & lock the mutex: test_op
pthread_mutex_init(&test_op.lock, NULL);
test_op.t_buffer_pos = 0;
for(i = 0; i < T_BUFFER_SIZE; i++) {
test_op.t_buffer_data[i] = 0;
test_op.t_buffer_tid[i] = 0;
}
if(( r_c = pthread_mutex_lock(&test_op.lock)) != 0) {
rt_printk("pthread %s, Cannot gain mutex: %d\n", (char *)arg, r_c);
}
// Create an application thread.
if(( r_c = pthread_attr_init(&new_attr) ) != 0 ) {
rt_printk("pthread %s, Error initialising thread attributes: %d\n", (char *)arg, r_c);
}
if(( r_c = pthread_attr_setschedpolicy(&new_attr, SCHED_FIFO) ) != 0 ) {
rt_printk("pthread %s, Error setting thread attribute scheduling parameters: %d\n", (char *)arg, r_c);
}
// Create NUM_THREADS application pthreads, each thread with increasing priority.
for(i = 0; i < NUM_THREADS; i++) {
my_param.sched_priority = 12 + i;
if(( r_c = pthread_attr_setschedparam(&new_attr, &my_param) ) != 0 ) {
rt_printk("pthread %s, Error setting thread attribute scheduling parameters: %d\n", (char *)arg, r_c);
}
if(( r_c = pthread_create(&thread_id, &new_attr, thread_func, "application pthread mutex tester")) != 0 ) {
rt_printk("mutex priority inheritance test - Application thread creation failed: %d\n", r_c);
}
}
// Display control thread priority.
if(( r_c = pthread_getschedparam(self, &my_policy, &my_param)) != 0) {
rt_printk("pthread: %s, pthread_getschedparam error: %d\n", (char *)arg, r_c);
}
rt_printk("pthread: %s, Priority should now be raised due to inheritance.\n", (char *)arg);
rt_printk("pthread: %s, running at %s/%d\n", (char *)arg,
(my_policy == SCHED_FIFO ? "FIFO"
: (my_policy == SCHED_RR ? "RR"
: (my_policy == SCHED_OTHER ? "OTHER"
: "unknown"))),
my_param.sched_priority);
rt_printk("pthread: %s, RTAI priority: %d\n", (char *)arg, rtai_task_ptr->priority);
rt_printk("pthread: %s, id: %ld, about to unlock mutex.\n", (char *)arg, self);
if(( r_c = pthread_mutex_unlock(&test_op.lock)) != 0) {
rt_printk("pthread %s - Error unlocking mutex: %d\n", (char *)arg, r_c);
}
rt_printk("pthread: %s, Priority should now be back to original.\n", (char *)arg);
rt_printk("pthread: %s, running at %s/%d\n", (char *)arg,
(my_policy == SCHED_FIFO ? "FIFO"
: (my_policy == SCHED_RR ? "RR"
: (my_policy == SCHED_OTHER ? "OTHER"
: "unknown"))),
my_param.sched_priority);
rt_printk("pthread: %s, RTAI priority: %d\n", (char *)arg, rtai_task_ptr->priority);
pthread_exit("a");
return(NULL);
}
void parent_func(int arg) {
int i;
int my_oflags, n = 0;
mode_t my_mode;
struct mq_attr my_attrs;
char inBuf[50];
uint priority = 0;
static const char str1[23] = "Test string number one\0";
static const char str2[28] = "This is test string num 2!!\0";
static const char str3[22] = "Test string number 3!\0";
static const char str4[34] = "This is test string number four!!\0";
struct Msg {
const char *str;
int str_size;
uint prio;
};
uint nMsgs = 4;
static const struct Msg myMsgs[4] =
{
{str1, 23, 5},
{str2, 28, 1},
{str3, 22, 6},
{str4, 34, 7},
};
#ifdef STEP_TRACE
//Wait for the debugger to say GO!
while(!zdbg) {
rt_task_wait_period();
}
#endif
rt_printk("Starting parent task %d\n", arg);
for(i = 0; i < 5; i++) {
rt_printk("parent task %d, loop count %d\n", arg, i);
}
//Create and open a queue
my_oflags = O_RDWR | O_CREAT | O_NONBLOCK;
my_mode = S_IRUSR | S_IWUSR | S_IRGRP;
my_attrs.mq_maxmsg = 10;
my_attrs.mq_msgsize = 50;
my_q = mq_open("my_queue", my_oflags, my_mode, &my_attrs);
if (my_q > 0) {
rt_printk("Putting %d messages on queue\n", nMsgs);
for (i = 0; i < nMsgs; i++) {
//Put messages on the queue
rt_printk("Sending: %s\n", myMsgs[i].str);
n = mq_send(my_q, myMsgs[i].str, myMsgs[i].str_size, myMsgs[i].prio);
rt_printk("Parent put message 1 of %d bytes on queue at priority %d\n",
n, myMsgs[i].prio);
}
} else {
rt_printk("ERROR: could not create my_queue\n");
}
//Now receive stuff back from the queue
for(i = 0; i < nMsgs; i++) {
n = mq_receive(my_q, inBuf, sizeof(inBuf), &priority);
if (n > 0) {
inBuf[n] = '\0';
rt_printk("Parent got >%s< from queue\n", inBuf);
}
}
mq_close(my_q);
mq_unlink("my_queue");
free_z_apps(rt_whoami());
rt_task_delete(rt_whoami());
}
void
__default_terminate(void)
{
while(1)
rt_task_suspend(rt_whoami());
}
