void *_thread_start_local (void* arg) {
//writeDebug("In _thread_start *************");
struct Msg* msg = (struct Msg*) arg;
//fprintf(stderr, "Message place is: %d\n", msg->placeTo);
_thread_sethere(msg->placeTo);
// dump_memory(1, msg->tb.addr, msg->tb.sz);
task_create();
method_t method = *((method_t*)(msg->tb.addr+sizeof(_task*)));
void* params = (void*)(msg->tb.addr+sizeof(_task*)+sizeof(method_t));
//writeDebug("passed this point32_t ************");
//if(method == 31) fprintf(stderr, "CREATE ASYNC PASSGED BEFORE: %u\n", method);
_thread_run_local(method, params);
//uint64_t value = (((_task*) _thread_getspecific()) -> total_memory);
//if(value != 0){
//fprintf(stderr, "TOTAL MEMORY USED =%lu=\n", value);
//}
//if(method == 31) fprintf(stderr, "CREATE ASYNC PASSGED AFTER: %u\n", method);
task_destroy();
volatile _task* parent = *((_task**)msg->tb.addr);
//fprintf(stderr, "THIS IS TASK START %x\n", parent);
volatile place_t parent_place = msg->placeFrom;
task_deregister_send((void*)parent, parent_place);
//writeDebug("passed this point32_t ================");
free(msg->tb.addr);
_deallocate_msg_only(msg);
if(!USE_THREAD_POOL){
_thread_exit(NULL);
}
}
FUNC_NORETURN void fiber_abort(void)
{
/* Do normal thread exit cleanup, then give up CPU control */
_thread_exit(_nanokernel.current);
_nano_fiber_swap();
}
void fiber_delayed_start_cancel(void *handle)
{
struct tcs *cancelled_tcs = (struct tcs *)handle;
int key = irq_lock();
_nano_timeout_abort(cancelled_tcs);
_thread_exit(cancelled_tcs);
irq_unlock(key);
}
void *_ack_thread_start (void* arg) {
struct Msg* msg = (struct Msg*) arg;
_task* parent = *((_task**)msg->tb.addr);
_thread_sethere(msg->placeTo);
task_deregister(parent);
_deallocate_msg(msg);
if(!USE_THREAD_POOL){
_thread_exit(NULL);
}
}
