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open-ameba/RTL00_SDKV35a/component/os/rtx/rtx_service.c
pvvx 8f1ce60a14 update
2017-05-11 21:20:52 +03:00

1109 lines
25 KiB
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/* RTX includes */
#include "osdep_service.h"
#include "tcm_heap.h"
#include <core_cmFunc.h>
//#include <stdlib.h>//malloc(), free()
//#include <string.h>//memcpy(), memcmp(), memset()
#include "platform_stdlib.h"
//#include <rt_HAL_CM.h>
//#include <RTX_CM_lib.h>
/********************* os depended utilities ********************/
#ifndef USE_MUTEX_FOR_SPINLOCK
#define USE_MUTEX_FOR_SPINLOCK 1
#endif
#define USE_HEAP_INFO 0
#define OS_TICK 1000
#define OS_TICK_RATE_MS (1000/OS_TICK)
//-----------------------------------------------------------------------
// Private Variables
//-----------------------------------------------------------------------
static unsigned long CriticalNesting = 0;
//-----------------------------------------------------------------------
// Misc Function
//-----------------------------------------------------------------------
int osdep_print = 0;
#define _func_enter_ do{\
if(osdep_print)\
printf("enter %s\r\n", __FUNCTION__);\
}while(0)
#define _func_exit_ do{\
if(osdep_print)\
printf("exit %s\r\n", __FUNCTION__);\
}while(0)
void save_and_cli()
{
_func_enter_;
__disable_irq();
_func_exit_;
}
void restore_flags()
{
_func_enter_;
__enable_irq();
_func_exit_;
}
void cli()
{
_func_enter_;
__disable_irq();
_func_exit_;
}
/* Not needed on 64bit architectures */
static unsigned int __div64_32(u64 *n, unsigned int base)
{
u64 rem = *n;
u64 b = base;
u64 res, d = 1;
unsigned int high = rem >> 32;
_func_enter_;
/* Reduce the thing a bit first */
res = 0;
if (high >= base) {
high /= base;
res = (u64) high << 32;
rem -= (u64) (high * base) << 32;
}
while ((u64)b > 0 && b < rem) {
b = b+b;
d = d+d;
}
do {
if (rem >= b) {
rem -= b;
res += d;
}
b >>= 1;
d >>= 1;
} while (d);
_func_exit_;
*n = res;
return rem;
}
/********************* os depended service ********************/
#if USE_HEAP_INFO
static uint32_t osFreeBytesRemaining=0x400;
#endif
static void _rtx_memset(void *pbuf, int c, u32 sz);
u8* _rtx_malloc(u32 sz)
{
_func_enter_;
void *p = NULL;
p = malloc(sz);
if(p != NULL){
#if USE_HEAP_INFO
osFreeBytesRemaining-=sz;
#endif
}
_func_exit_;
return p;
}
u8* _rtx_zmalloc(u32 sz)
{
_func_enter_;
u8 *pbuf = _rtx_malloc(sz);
if (pbuf != NULL){
#if USE_HEAP_INFO
osFreeBytesRemaining-=sz;
#endif
_rtx_memset(pbuf, 0, sz);
}
_func_exit_;
return pbuf;
}
static void (*ext_free)( void *p ) = NULL;
static uint32_t ext_upper = 0;
static uint32_t ext_lower = 0;
void rtw_set_mfree_ext( void (*free)( void *p ), uint32_t upper, uint32_t lower )
{
ext_free = free;
ext_upper = upper;
ext_lower = lower;
}
void _rtx_mfree(u8 *pbuf, u32 sz)
{
_func_enter_;
if( ((uint32_t)pbuf >= ext_lower) && ((uint32_t)pbuf < ext_upper) ){
if(ext_free)
ext_free(pbuf);
}else{
free(pbuf);
}
#if USE_HEAP_INFO
osFreeBytesRemaining+=sz;
#endif
}
static void _rtx_memcpy(void* dst, void* src, u32 sz)
{
_func_enter_;
memcpy(dst, src, sz);
_func_exit_;
}
static int _rtx_memcmp(void *dst, void *src, u32 sz)
{
_func_enter_;
//under Linux/GNU/GLibc, the return value of memcmp for two same mem. chunk is 0
if (!(memcmp(dst, src, sz)))
return _SUCCESS;
_func_exit_;
return _FAIL;
}
static void _rtx_memset(void *pbuf, int c, u32 sz)
{
_func_enter_;
memset(pbuf, c, sz);
_func_exit_;
}
static void _rtx_init_sema(_sema *sem, int init_val)
{
_func_enter_;
rtx_sema_t *p_sem = (rtx_sema_t *)_rtx_zmalloc(sizeof(rtx_sema_t));
if(p_sem == NULL){
goto err_exit;
}
#ifdef CMSIS_OS_RTX
p_sem->def.semaphore = p_sem->data;
#endif
*sem = (_sema)p_sem;
p_sem->id = osSemaphoreCreate(&p_sem->def, init_val);
if (p_sem->id == NULL){
goto err_exit;
}
_func_exit_;
return;
err_exit:
DBG_ERR("error");
if(p_sem)
_rtx_mfree((u8 *)p_sem, sizeof(rtx_sema_t));
*sem = NULL;
return;
}
static void _rtx_free_sema(_sema *sema)
{
_func_enter_;
if(*sema){
rtx_sema_t *p_sem = (rtx_sema_t *)(*sema);
osSemaphoreDelete(p_sem->id);
if(p_sem)
_rtx_mfree((u8 *)p_sem, sizeof(rtx_sema_t));
*sema = NULL;
}else
DBG_ERR("NULL pointer get");
_func_exit_;
}
static void _rtx_up_sema(_sema *sema)
{
if(*sema){
rtx_sema_t *p_sem = (rtx_sema_t *)(*sema);
osStatus status = osSemaphoreRelease(p_sem->id);
if ( status != osOK){
DBG_ERR("error %d", status);
}
}else
DBG_ERR("NULL pointer get");
_func_exit_;
}
static void _rtx_up_sema_from_isr(_sema *sema)
{
_func_enter_;
if(*sema){
rtx_sema_t *p_sem = (rtx_sema_t *)*sema;
osStatus status = osSemaphoreRelease(p_sem->id);
if (status != osOK){
DBG_ERR("error %d", status);
}
}else
DBG_ERR("NULL pointer get");
_func_exit_;
}
static u32 _rtx_down_sema(_sema *sema, u32 timeout_ms)
{
if(*sema){
rtx_sema_t *p_sem = (rtx_sema_t *)*sema;
if(timeout_ms == RTW_MAX_DELAY) {
timeout_ms = osWaitForever;
} else {
timeout_ms = rtw_ms_to_systime(timeout_ms);
}
if (osSemaphoreWait(p_sem->id, (timeout_ms != 0)?(timeout_ms):(osWaitForever)) >= 0)
return _TRUE;
}
return _FALSE;
}
static void _rtx_mutex_init(_mutex *mutex)
{
_func_enter_;
rtx_mutex_t *p_mut = (rtx_mutex_t *)_rtx_zmalloc(sizeof(rtx_mutex_t));
if(p_mut == NULL)
goto err_exit;
#ifdef CMSIS_OS_RTX
p_mut->def.mutex = (void *)p_mut->data;
#endif
*mutex = (_mutex)p_mut;
p_mut->id = osMutexCreate(&p_mut->def);
if (p_mut->id == NULL)
goto err_exit;
_func_exit_;
return;
err_exit:
DBG_ERR("error");
if(p_mut)
_rtx_mfree((u8 *)p_mut, sizeof(rtx_mutex_t));
*mutex = NULL;
return;
}
static void _rtx_mutex_free(_mutex *pmutex)
{
_func_enter_;
if(*pmutex){
rtx_mutex_t *p_mut = (rtx_mutex_t *)(*pmutex);
osMutexDelete(p_mut->id);
if(p_mut)
_rtx_mfree((u8 *)p_mut, sizeof(rtx_mutex_t));
}
_func_exit_;
}
static void _rtx_mutex_get(_mutex *pmutex)
{
_func_enter_;
if(*pmutex){
rtx_mutex_t *p_mut = (rtx_mutex_t *)(*pmutex);
if (osMutexWait(p_mut->id, 60 * 1000 / OS_TICK_RATE_MS) != osOK)
DBG_ERR("%s(%p) failed, retry\n", __FUNCTION__, p_mut);
}
_func_exit_;
}
static int _rtx_mutex_get_timeout(_mutex *pmutex, u32 timeout_ms)
{
_func_enter_;
if(*pmutex){
rtx_mutex_t *p_mut = (rtx_mutex_t *)(*pmutex);
if(timeout_ms == RTW_MAX_DELAY) {
timeout_ms = osWaitForever;
} else {
timeout_ms = rtw_ms_to_systime(timeout_ms);
}
if(osMutexWait(p_mut->id, timeout_ms / OS_TICK_RATE_MS) == osOK){
return _SUCCESS;
}
}
_func_exit_;
DBG_ERR("%s(%p) failed, retry\n", __FUNCTION__, pmutex);
return _FAIL;
}
static void _rtx_mutex_put(_mutex *pmutex)
{
_func_enter_;
if(*pmutex){
rtx_mutex_t *p_mut = (rtx_mutex_t *)(*pmutex);
if (osMutexRelease(p_mut->id) != osOK)
DBG_ERR("\r\ninternal counter of mutex is 0 or calling task is not the owner of the mutex");
}
_func_exit_;
}
static void _rtx_enter_critical(_lock *plock, _irqL *pirqL)
{
_func_enter_;
CriticalNesting++;
if(CriticalNesting == 1){
rt_tsk_lock();//tsk_lock & tsk_unlock should not be called nested
}
_func_exit_;
}
void mbed_die(void){
DBG_ERR(" %p die here", osThreadGetId());
__disable_irq();
while(1);
}
static void _rtx_exit_critical(_lock *plock, _irqL *pirqL)
{
_func_enter_;
if(CriticalNesting == 0){
DBG_ERR("die here");
HALT();
}
CriticalNesting--;
if(CriticalNesting == 0){
rt_tsk_unlock();
}
_func_exit_;
}
static void _rtx_enter_critical_from_isr(_lock *plock, _irqL *pirqL)
{
_func_enter_;
__disable_irq();
_func_exit_;
}
static void _rtx_exit_critical_from_isr(_lock *plock, _irqL *pirqL)
{
_func_enter_;
__enable_irq();
_func_exit_;
}
static int _rtx_enter_critical_mutex(_mutex *pmutex, _irqL *pirqL)
{
_func_enter_;
while(_rtx_mutex_get_timeout(pmutex, 60 * 1000 / OS_TICK_RATE_MS) != _SUCCESS)
DBG_ERR("\n\r[%p] %s(%p) failed, retry\n", osThreadGetId(), __FUNCTION__, pmutex);
_func_exit_;
return _SUCCESS;
}
static void _rtx_exit_critical_mutex(_mutex *pmutex, _irqL *pirqL)
{
_func_enter_;
_rtx_mutex_put(pmutex);
_func_exit_;
}
static void _rtx_spinlock_init(_lock *plock)
{
_func_enter_;
#if USE_MUTEX_FOR_SPINLOCK
_rtx_mutex_init(plock);
#endif
_func_exit_;
}
static void _rtx_spinlock_free(_lock *plock)
{
_func_enter_;
#if USE_MUTEX_FOR_SPINLOCK
if(plock != NULL){
_rtx_mutex_free(plock);
}
#endif
_func_exit_;
}
static void _rtx_spinlock(_lock *plock)
{
_func_enter_;
#if USE_MUTEX_FOR_SPINLOCK
_rtx_mutex_get(plock);
#endif
_func_exit_;
}
static void _rtx_spinunlock(_lock *plock)
{
_func_enter_;
#if USE_MUTEX_FOR_SPINLOCK
_rtx_mutex_put(plock);
#endif
_func_exit_;
}
static void _rtx_spinlock_irqsave(_lock *plock, _irqL *irqL)
{
_func_enter_;
_rtx_enter_critical(plock, irqL);
#if USE_MUTEX_FOR_SPINLOCK
_rtx_spinlock(plock);
#endif
_func_exit_;
}
static void _rtx_spinunlock_irqsave(_lock *plock, _irqL *irqL)
{
_func_enter_;
#if USE_MUTEX_FOR_SPINLOCK
_rtx_spinunlock(plock);
#endif
_rtx_exit_critical(plock, irqL);
_func_exit_;
}
static int _rtx_init_xqueue( _xqueue* queue, const char* name, u32 message_size, u32 number_of_messages )
{
_func_enter_;
rtx_mbox_t *mbox = (rtx_mbox_t *)_rtx_zmalloc(sizeof(rtx_mbox_t));
if (mbox == NULL ){
goto err_exit;
}
#ifdef CMSIS_OS_RTX
mbox->os_mailQ_q = (uint32_t)_rtx_zmalloc((4+number_of_messages)*sizeof(uint32_t));
mbox->os_mailQ_m = (uint32_t)_rtx_zmalloc((3 + (message_size+3)/4)*number_of_messages);
if((mbox->os_mailQ_q == 0) || (mbox->os_mailQ_m == 0))
goto err_exit;
mbox->os_mailQ_p[0] = (void *)mbox->os_mailQ_q;
mbox->os_mailQ_p[1] = (void *)mbox->os_mailQ_m;
mbox->def.pool = mbox->os_mailQ_p;
mbox->def.queue_sz = number_of_messages;
mbox->def.item_sz = message_size;
#endif
*queue = (_xqueue)mbox;
mbox->id = osMailCreate(&mbox->def, NULL);
if(mbox->id == NULL)
goto err_exit;
_func_exit_;
return _SUCCESS;
err_exit:
DBG_ERR("%s error\r\n", __FUNCTION__);
if(mbox){
if(mbox->os_mailQ_q)
_rtx_mfree((u8 *)mbox->os_mailQ_q, ((4+number_of_messages)*sizeof(uint32_t)));
if(mbox->os_mailQ_m)
_rtx_mfree((u8 *)mbox->os_mailQ_m, ((3 + (message_size+3)/4)*number_of_messages));
_rtx_mfree((u8 *)mbox, sizeof(rtx_mbox_t));
*queue = NULL;
}
return _FAIL;
}
static int _rtx_push_to_xqueue( _xqueue* queue, void* message, u32 timeout_ms )
{
_func_enter_;
void *mptr;
rtx_mbox_t *mbox;
if(timeout_ms == RTW_MAX_DELAY) {
timeout_ms = osWaitForever;
} else {
timeout_ms = rtw_ms_to_systime(timeout_ms);
}
if (*queue != NULL){
mbox = (rtx_mbox_t *)(*queue);
mptr = osMailAlloc(mbox->id, timeout_ms); // Allocate memory
_rtx_memcpy(mptr, message, mbox->def.item_sz);
if(osMailPut(mbox->id, mptr) != osOK ){
DBG_ERR("%s error\n", __FUNCTION__);
return _FAIL;
}
}
_func_exit_;
return _SUCCESS;
}
static int _rtx_pop_from_xqueue( _xqueue* queue, void* message, u32 timeout_ms )
{
_func_enter_;
if(timeout_ms == RTW_WAIT_FOREVER) {
timeout_ms = osWaitForever;
} else {
timeout_ms = rtw_ms_to_systime(timeout_ms);
}
if (*queue != NULL){
rtx_mbox_t *mbox = (rtx_mbox_t *)(*queue);
osEvent evt;
evt = osMailGet(mbox->id, timeout_ms );
if (evt.status == osEventMail) {
_rtx_memcpy(message, evt.value.p, mbox->def.item_sz);
osMailFree(mbox->id, evt.value.p);
_func_exit_;
return _SUCCESS;
}
}
DBG_ERR("[%p] %s error", osThreadGetId(), __FUNCTION__);
return _FAIL;
}
static int _rtx_deinit_xqueue( _xqueue* queue )
{
_func_enter_;
if(*queue != NULL){
rtx_mbox_t *mbox = (rtx_mbox_t *)(*queue);
if(mbox->os_mailQ_q)
_rtx_mfree((u8 *)mbox->os_mailQ_q, ((4+mbox->def.queue_sz)*sizeof(uint32_t)));
if(mbox->os_mailQ_m)
_rtx_mfree((u8 *)mbox->os_mailQ_m, ((3 + (mbox->def.item_sz+3)/4)*mbox->def.queue_sz));
_rtx_mfree((u8 *)mbox, sizeof(rtx_mbox_t));
*queue = NULL;
}
_func_exit_;
return 0;
}
static u32 _rtx_get_current_time(void)
{
_func_enter_;
return rt_time_get();
_func_exit_;
}
static u32 _rtx_systime_to_ms(u32 systime)
{
return systime * OS_TICK_RATE_MS;
}
static u32 _rtx_systime_to_sec(u32 systime)
{
return systime / OS_TICK;
}
static u32 _rtx_ms_to_systime(u32 ms)
{
return ms / OS_TICK_RATE_MS;
}
static u32 _rtx_sec_to_systime(u32 sec)
{
return sec * OS_TICK;
}
static void _rtx_msleep_os(int ms)
{
_func_enter_;
osDelay(ms);
_func_exit_;
}
static void _rtx_usleep_os(int us)
{
_func_enter_;
#if defined(STM32F2XX) || defined(STM32F4XX) || defined(STM32F10X_XL)
// FreeRTOS does not provide us level delay. Use busy wait
WLAN_BSP_UsLoop(us);
#elif defined(CONFIG_PLATFORM_8195A) || defined(CONFIG_PLATFORM_8711B)
//DBG_ERR("%s: Please Implement micro-second delay\n", __FUNCTION__);
HalDelayUs(us);
#else
// #error "Please implement hardware dependent micro second level sleep here"
#endif
_func_exit_;
}
static void _rtx_mdelay_os(int ms)
{
_func_enter_;
osDelay(ms);
_func_exit_;
}
static void _rtx_udelay_os(int us)
{
_func_enter_;
#if defined(STM32F2XX) || defined(STM32F4XX) || defined(STM32F10X_XL)
// FreeRTOS does not provide us level delay. Use busy wait
WLAN_BSP_UsLoop(us);
#elif defined(CONFIG_PLATFORM_8195A) || defined(CONFIG_PLATFORM_8711B)
//RtlUdelayOS(us);
HalDelayUs(us);
#else
// #error "Please implement hardware dependent micro second level sleep here"
#endif
_func_exit_;
}
static void _rtx_yield_os(void)
{
_func_enter_;
osThreadYield();
_func_exit_;
}
static void _rtx_ATOMIC_SET(ATOMIC_T *v, int i)
{
atomic_set(v,i);
}
static int _rtx_ATOMIC_READ(ATOMIC_T *v)
{
return atomic_read(v);
}
static void _rtx_ATOMIC_ADD(ATOMIC_T *v, int i)
{
save_and_cli();
v->counter += i;
restore_flags();
}
static void _rtx_ATOMIC_SUB(ATOMIC_T *v, int i)
{
save_and_cli();
v->counter -= i;
restore_flags();
}
static void _rtx_ATOMIC_INC(ATOMIC_T *v)
{
save_and_cli();
v->counter++;
restore_flags();
}
static void _rtx_ATOMIC_DEC(ATOMIC_T *v)
{
save_and_cli();
v->counter--;
restore_flags();
}
static int _rtx_ATOMIC_ADD_RETURN(ATOMIC_T *v, int i)
{
int temp;
save_and_cli();
temp = v->counter;
temp += i;
v->counter = temp;
restore_flags();
return temp;
}
static int _rtx_ATOMIC_SUB_RETURN(ATOMIC_T *v, int i)
{
int temp;
save_and_cli();
temp = v->counter;
temp -= i;
v->counter = temp;
restore_flags();
return temp;
}
static int _rtx_ATOMIC_INC_RETURN(ATOMIC_T *v)
{
return _rtx_ATOMIC_ADD_RETURN(v, 1);
}
static int _rtx_ATOMIC_DEC_RETURN(ATOMIC_T *v)
{
return _rtx_ATOMIC_SUB_RETURN(v, 1);
}
static u64 _rtx_modular64(u64 n, u64 base)
{
unsigned int __base = (base);
unsigned int __rem;
_func_enter_;
if (((n) >> 32) == 0) {
__rem = (unsigned int)(n) % __base;
(n) = (unsigned int)(n) / __base;
}
else
__rem = __div64_32(&(n), __base);
_func_exit_;
return __rem;
}
/* Refer to ecos bsd tcpip codes */
static int _rtx_arc4random(void)
{
_func_enter_;
u32 res = _rtx_get_current_time();
static unsigned long seed = 0xDEADB00B;
seed = ((seed & 0x007F00FF) << 7) ^
((seed & 0x0F80FF00) >> 8) ^ // be sure to stir those low bits
(res << 13) ^ (res >> 9); // using the clock too!
_func_exit_;
return (int)seed;
}
static int _rtx_get_random_bytes(void *buf, u32 len)
{
#if 1 //becuase of 4-byte align, we use the follow code style.
unsigned int ranbuf;
unsigned int *lp;
int i, count;
count = len / sizeof(unsigned int);
lp = (unsigned int *) buf;
_func_enter_;
for(i = 0; i < count; i ++) {
lp[i] = _rtx_arc4random();
len -= sizeof(unsigned int);
}
if(len > 0) {
ranbuf = _rtx_arc4random();
_rtx_memcpy(&lp[i], &ranbuf, len);
}
_func_exit_;
return 0;
#else
unsigned long ranbuf, *lp;
lp = (unsigned long *)buf;
while (len > 0) {
ranbuf = _rtx_arc4random();
*lp++ = ranbuf; //this op need the pointer is 4Byte-align!
len -= sizeof(ranbuf);
}
return 0;
#endif
}
static u32 _rtx_GetFreeHeapSize(void)
{
#if USE_HEAP_INFO
return osFreeBytesRemaining;
#else
return 0;
#endif
}
//#if CONFIG_USE_TCM_HEAP
//void *tcm_heap_malloc(int size);
//#endif
static int _rtx_create_task(struct task_struct *ptask, const char *name,
u32 stack_size, u32 priority, thread_func_t func, void *thctx)
{
_func_enter_;
rtx_thread_data_t *thread_hdl = NULL;
u32 stacksize = stack_size * 4; //sizeof(DWORD)
if(!func)
goto err_exit;
thread_hdl = (rtx_thread_data_t *)_rtx_zmalloc(sizeof(rtx_thread_data_t));
if(thread_hdl == NULL)
goto err_exit;
#ifdef CMSIS_OS_RTX
#ifndef __MBED_CMSIS_RTOS_CA9
thread_hdl->def.stack_pointer = (void *)_rtx_malloc(stacksize);
if(thread_hdl->def.stack_pointer == NULL)
goto err_exit;
#endif
if(priority > osPriorityRealtime){
DBG_ERR("[%s]priority is higher than osPriorityRealtime", name);
priority = osPriorityRealtime;
}
thread_hdl->def.pthread = (os_pthread)func;
thread_hdl->def.tpriority = (osPriority)priority;
thread_hdl->def.stacksize = stacksize;
#endif
ptask->task = (_thread_hdl_)thread_hdl;
ptask->task_name = name;
ptask->blocked = 0;
ptask->callback_running = 0;
_rtx_init_sema(&ptask->wakeup_sema, 0);
_rtx_init_sema(&ptask->terminate_sema, 0);
//rtw_init_queue(&wq->work_queue);
thread_hdl->id = osThreadCreate(&thread_hdl->def, thctx);
if(thread_hdl->id == NULL)
goto err_exit;
return _SUCCESS;
err_exit:
if(thread_hdl){
_rtx_free_sema(&ptask->wakeup_sema);
_rtx_free_sema(&ptask->terminate_sema);
_rtx_memset((u8 *)ptask, 0, sizeof(*ptask));
#ifndef __MBED_CMSIS_RTOS_CA9
if(thread_hdl->def.stack_pointer)
_rtx_mfree((void *)thread_hdl->def.stack_pointer, thread_hdl->def.stacksize);
#endif
_rtx_mfree((u8 *)thread_hdl, sizeof(rtx_thread_data_t));
}
DBG_ERR("Create Task \"%s\" Failed! \n", ptask->task_name);
return _FAIL;
}
static void _rtx_delete_task(struct task_struct *ptask)
{
_func_enter_;
rtx_thread_data_t *thread_hdl = (rtx_thread_data_t *)ptask->task;
if (!thread_hdl){
DBG_ERR("_rtx_delete_task(): ptask is NULL!\n");
return;
}
ptask->blocked = 1;
_rtx_up_sema(&ptask->wakeup_sema);
_rtx_down_sema(&ptask->terminate_sema, TIMER_MAX_DELAY);
osThreadTerminate(thread_hdl->id);
#ifndef __MBED_CMSIS_RTOS_CA9
if(thread_hdl->def.stack_pointer)
_rtx_mfree((void *)thread_hdl->def.stack_pointer, thread_hdl->def.stacksize);
#endif
_rtx_mfree((u8 *)thread_hdl, sizeof(rtx_thread_data_t));
//rtw_deinit_queue(&wq->work_queue);
_rtx_free_sema(&ptask->wakeup_sema);
_rtx_free_sema(&ptask->terminate_sema);
ptask->task = NULL;
DBG_TRACE("Delete Task \"%s\"\n", ptask->task_name);
_func_exit_;
}
void _rtx_wakeup_task(struct task_struct *ptask)
{
_func_enter_;
if(ptask)
_rtx_up_sema(&ptask->wakeup_sema);
_func_exit_;
}
static void _rtx_thread_enter(char *name)
{
_func_enter_;
DBG_INFO("\n\rRTKTHREAD %s\n", name);
_func_exit_;
}
static void _rtx_thread_exit(void)
{
_func_enter_;
osThreadId id = osThreadGetId();
osThreadTerminate(id);
_func_exit_;
}
/*****************************************************
************timer data block, defined in rt_CMSIS.c*********
// Timer definitions
#define osTimerInvalid 0
#define osTimerStopped 1
#define osTimerRunning 2
// Timer structures
typedef struct os_timer_cb_ { // Timer Control Block
struct os_timer_cb_ *next; // Pointer to next active Timer, (u8 *)data[0:3]
uint8_t state; // Timer State, (u8 *)data[4]
uint8_t type; // Timer Type (Periodic/One-shot), (u8 *)data[5]
uint16_t reserved; // Reserved, (u8 *)data[6:7]
uint16_t tcnt; // Timer Delay Count, (u8 *)data[8:9]
uint16_t icnt; // Timer Initial Count, (u8 *)data[10:11]
void *arg; // Timer Function Argument, (u8 *)data[12:15]
osTimerDef_t *timer; // Pointer to Timer definition, (u8 *)data[16:19]
} os_timer_cb;
*****************************************************/
_timerHandle _rtx_timerCreate( const signed char *pcTimerName,
osdepTickType xTimerPeriodInTicks,
u32 uxAutoReload,
void * pvTimerID,
TIMER_FUN pxCallbackFunction )
{
_func_enter_;
rtx_tmr_t *tmr = (rtx_tmr_t *)_rtx_zmalloc(sizeof(rtx_tmr_t));
os_timer_type type = (uxAutoReload == _TRUE)?osTimerPeriodic:osTimerOnce;
if(tmr == NULL)
goto err_exit;
#ifdef CMSIS_OS_RTX
tmr->def.ptimer = (os_ptimer)pxCallbackFunction;
tmr->def.timer = (void *)tmr->data;
#endif
if(pvTimerID == NULL)
pvTimerID = (void *)tmr;
tmr->id = osTimerCreate(&tmr->def, type, pvTimerID);
if(tmr->id == NULL)
goto err_exit;
_func_exit_;
return (_timerHandle)tmr;
err_exit:
DBG_ERR("error");
if(tmr)
_rtx_mfree((u8 *)tmr, sizeof(rtx_tmr_t));
return NULL;
}
u32 _rtx_timerDelete( _timerHandle xTimer,
osdepTickType xBlockTime )
{
_func_enter_;
rtx_tmr_t *tmr = (rtx_tmr_t *) xTimer;
osStatus status = osTimerDelete(tmr->id);
_rtx_mfree((u8 *)tmr, sizeof(rtx_tmr_t));
if(status != osOK){
DBG_ERR("error %d", status);
return _FAIL;
}
_func_exit_;
return _SUCCESS;
}
u32 _rtx_timerIsTimerActive( _timerHandle xTimer )
{
_func_enter_;
rtx_tmr_t *tmr = (rtx_tmr_t *) xTimer;
u8 *data = (u8 *)tmr->data;
_func_exit_;
switch(data[4]){
case 2U:
return _TRUE;
default:
return _FALSE;
}
}
u32 _rtx_timerStop( _timerHandle xTimer,
osdepTickType xBlockTime )
{
_func_enter_;
rtx_tmr_t *tmr = (rtx_tmr_t *) xTimer;
osStatus status = osTimerStop(tmr->id);
_func_exit_;
if(status == osOK)
return _SUCCESS;
DBG_ERR("error %d\n", status);
return _FAIL;
}
u32 _rtx_timerChangePeriod( _timerHandle xTimer,
osdepTickType xNewPeriod,
osdepTickType xBlockTime )
{
_func_enter_;
rtx_tmr_t *tmr = (rtx_tmr_t *) xTimer;
osStatus ret;
if(xNewPeriod == 0)
xNewPeriod += 1;
xNewPeriod = _rtx_systime_to_ms(xNewPeriod);
ret = osTimerStart(tmr->id, xNewPeriod);
_func_exit_;
if(ret == osOK)
return _SUCCESS;
DBG_ERR("%s error\n", __FUNCTION__);
return _FAIL;
}
//void _rtx_acquire_wakelock()
//{
//#if defined(configUSE_WAKELOCK_PMU) && (configUSE_WAKELOCK_PMU == 1)
// acquire_wakelock(WAKELOCK_WLAN);
//#endif
//}
//void _rtx_release_wakelock()
//{
//#if defined(configUSE_WAKELOCK_PMU) && (configUSE_WAKELOCK_PMU == 1)
// release_wakelock(WAKELOCK_WLAN);
//#endif
//}
u8 _rtx_get_scheduler_state(void)
{
_func_enter_;
int32_t state = osKernelRunning();
u8 state_out = OS_SCHEDULER_NOT_STARTED;
switch(state){
case 1: state = OS_SCHEDULER_RUNNING; break;
case 0: state = OS_SCHEDULER_SUSPENDED; break;
default: break;
}
_func_exit_;
return state_out;
}
const struct osdep_service_ops osdep_service = {
_rtx_malloc, //rtw_vmalloc
_rtx_zmalloc, //rtw_zvmalloc
_rtx_mfree, //rtw_vmfree
_rtx_malloc, //rtw_malloc
_rtx_zmalloc, //rtw_zmalloc
_rtx_mfree, //rtw_mfree
_rtx_memcpy, //rtw_memcpy
_rtx_memcmp, //rtw_memcmp
_rtx_memset, //rtw_memset
_rtx_init_sema, //rtw_init_sema
_rtx_free_sema, //rtw_free_sema
_rtx_up_sema, //rtw_up_sema
_rtx_up_sema_from_isr,//rtw_up_sema_from_isr
_rtx_down_sema, //rtw_down_sema
_rtx_mutex_init, //rtw_mutex_init
_rtx_mutex_free, //rtw_mutex_free
_rtx_mutex_get, //rtw_mutex_get
_rtx_mutex_get_timeout, //rtw_mutex_get_timeout
_rtx_mutex_put, //rtw_mutex_put
_rtx_enter_critical, //rtw_enter_critical
_rtx_exit_critical, //rtw_exit_critical
_rtx_enter_critical_from_isr, //rtw_enter_critical_from_isr
_rtx_exit_critical_from_isr, //rtw_exit_critical_from_isr
NULL, //rtw_enter_critical_bh
NULL, //rtw_exit_critical_bh
_rtx_enter_critical_mutex, //rtw_enter_critical_mutex
_rtx_exit_critical_mutex, //rtw_exit_critical_mutex
_rtx_spinlock_init, //rtw_spinlock_init
_rtx_spinlock_free, //rtw_spinlock_free
_rtx_spinlock, //rtw_spin_lock
_rtx_spinunlock, //rtw_spin_unlock
_rtx_spinlock_irqsave, //rtw_spinlock_irqsave
_rtx_spinunlock_irqsave, //rtw_spinunlock_irqsave
_rtx_init_xqueue,//rtw_init_xqueue
_rtx_push_to_xqueue,//rtw_push_to_xqueue
_rtx_pop_from_xqueue,//rtw_pop_from_xqueue
_rtx_deinit_xqueue,//rtw_deinit_xqueue
_rtx_get_current_time, //rtw_get_current_time
_rtx_systime_to_ms, //rtw_systime_to_ms
_rtx_systime_to_sec, //rtw_systime_to_sec
_rtx_ms_to_systime, //rtw_ms_to_systime
_rtx_sec_to_systime, //rtw_sec_to_systime
_rtx_msleep_os, //rtw_msleep_os
_rtx_usleep_os, //rtw_usleep_os
_rtx_mdelay_os, //rtw_mdelay_os
_rtx_udelay_os, //rtw_udelay_os
_rtx_yield_os, //rtw_yield_os
_rtx_ATOMIC_SET, //ATOMIC_SET
_rtx_ATOMIC_READ, //ATOMIC_READ
_rtx_ATOMIC_ADD, //ATOMIC_ADD
_rtx_ATOMIC_SUB, //ATOMIC_SUB
_rtx_ATOMIC_INC, //ATOMIC_INC
_rtx_ATOMIC_DEC, //ATOMIC_DEC
_rtx_ATOMIC_ADD_RETURN, //ATOMIC_ADD_RETURN
_rtx_ATOMIC_SUB_RETURN, //ATOMIC_SUB_RETURN
_rtx_ATOMIC_INC_RETURN, //ATOMIC_INC_RETURN
_rtx_ATOMIC_DEC_RETURN, //ATOMIC_DEC_RETURN
_rtx_modular64, //rtw_modular64
_rtx_get_random_bytes, //rtw_get_random_bytes
_rtx_GetFreeHeapSize, //rtw_getFreeHeapSize
_rtx_create_task, //rtw_create_task
_rtx_delete_task, //rtw_delete_task
_rtx_wakeup_task, //rtw_wakeup_task
_rtx_thread_enter, //rtw_thread_enter
_rtx_thread_exit, //rtw_thread_exit
_rtx_timerCreate, //rtw_timerCreate,
_rtx_timerDelete, //rtw_timerDelete,
_rtx_timerIsTimerActive, //rtw_timerIsTimerActive,
_rtx_timerStop, //rtw_timerStop,
_rtx_timerChangePeriod, //rtw_timerChangePeriod
NULL, // rtw_acquire_wakelock
NULL, // rtw_release_wakelock
NULL, //rtw_wakelock_timeout
_rtx_get_scheduler_state // rtw_get_scheduler_state
};
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