void block_process_in_kernel(int pid)
{
processNode * aux;
timeslot = 1;
if(ready == NULL)
{
_yield();
return;
}
aux = ((processNode*)ready);
if(aux->process->pid == pid)
{
aux->process->state = BLOCKED;
}else{
while(aux->next != NULL && ((processNode*)aux->next)->process->pid != pid)
aux = ((processNode*)aux->next);
if(aux->next == NULL)
{
_yield();
return;
}
((processNode*)aux->next)->process->state = BLOCKED;
}
_yield();
return;
}
qword sys_leave(qword rsi, qword rdx, qword rcx, qword r8, qword r9) {
if (getForegroundPid() == getCurrentPid()) {
setForeground(1); // give forground to shell
}
changeProcessState(getCurrentPid(), DEAD);
_yield();
return 0;
}
uint64_t
coroutine_sleep(uint64_t msecs) {
struct coroutine *co = _running_coroutine();
co->status = STATUS_ASYNC;
if (msecs == 0) {
co->status = STATUS_QUEUE;
_queue(co->sched, co);
}
// FIXME insert co to sleeping queue, wait for wakeup.
return (uint64_t)(uintptr_t)_yield(co);
}
qword sys_yield(qword rsi, qword rdx, qword rcx, qword r8, qword r9) {
_yield();
return 0;
}
void *
coroutine_yield() {
struct coroutine *co = _running_coroutine();
co->status = STATUS_QUEUE;
return _yield(co);
}
void
coroutine_exit() {
struct coroutine *co = _running_coroutine();
co->status = STATUS_EXITING;
_yield(co);
}
void yield_send(T data) {
_has_data = true;
_data = data;
_yield();
}
void yield() {
_has_data = false;
_yield();
}
void yield() {
_yield();
}
/** yield **/
bool Coroutine::yield(Object* yield_param){
return _yield(yield_param, STATUS_WAITING);
}
/* Yield current thread */
void _ThreadYield(void)
{
/* Call the extern */
_yield();
}
