zhengxuelong/未整理/sotfware/03_Test/myTest_templet-20220722/app/app_self_checking.c

#include "app_self_checking.h"
#include "usr_config.h"
#include "bsp_time.h"
#include "system.h"
#include "hal_ble_client.h"
#include "hal_ble_host.h"
#include "hal_mt.h"
#include "nrf_delay.h"
#include "app_charge.h"
#include "hal_imu.h"
#include "nrf_gpio.h"
#include "hal_battery.h"
#include "hal_ble_uart0.h"
#include "hal_led.h"
#include "ble_comm.h"
#include "tool.h"
#include "hal_mode_manage.h"
#include "app_flash.h"
#include "exception.h"

#define TEST_SUCCESS													0																					//测试成功
#define TEST_FAIL															1																					//测试失败
#define TEST_UNKNOWN													2																					//测试未知

#define TEST_ITEMS														4																					//非人工测试项数（前脚传感器、后脚传感器、电量、充电电流）

#define ENTER_SELF_CHECK											1																					//进入自检标志位
#define QUITE_SELF_CHECK											0																					//退出自检标志位

#define TEST_RESULT_LED_SUCCESS_GREEN					0
#define TEST_RESULT_LED_ERR_RED								(TEST_RESULT_LED_SUCCESS_GREEN+0x01)
#define TEST_RESULT_LED_ERR_BLUE							(TEST_RESULT_LED_SUCCESS_GREEN+0x02)
#define TEST_RESULT_LED_ERR_PURPLE						(TEST_RESULT_LED_SUCCESS_GREEN+0x03)
#define TEST_RESULT_LED_ERR_YELLOW						(TEST_RESULT_LED_SUCCESS_GREEN+0x04)
#define TEST_RESULT_LED_ERR_WHITE							(TEST_RESULT_LED_SUCCESS_GREEN+0x05)

#define APP_SELF_CHECKING_PROCESS_CYCLE				10																				//线程周期，单位ms

#define APP_SELF_CHECKING_READY_PROCESS_CYCLE	50																				//线程周期，单位ms

#define DISPLAY_TEST_RESULT_LED_TIME					1000																			//用灯显示测试结果的时间,单位ms

#define DISPLAY_TEST_RESULT_CONTINUE_TIME			3000																			//显示测试结果的总时间，单位ms

#define	SELF_CHECK_RECIVE_ORDER_TIMES					1																					//允许接受到的自检指令最大次数

#define BATTERY_TEST_VALUE										2500																			//电池必须大于2.5V，否则算异常

#define BATTERY_CHARGE_CHANGE_VALUE						80																				//自检前和自检期间的充电电压变化值,单位mv

#define TRIGGER_MONITOR_ACC_Z									1500																			//触发数据监测的加速度Z轴

#define ENTER_MONITOR_TIME										(10000/StandByPower_Interval)							//进入数据监测所需时间（10S）

#define MONITOR_DURATION_TIME									(60000/FullPower_Interval)								//数据监测至少需要维持的时间

static uint8_t  self_check_state = QUITE_SELF_CHECK;

static uint8_t  self_check_result_buff[TEST_ITEMS];

static uint8_t	self_check_recive_order_times = 0;																			//允许接受到的自检指令最大次数

static int16_t	before_check_charge_vol = 0;																						//自检前的充电电压

static uint32_t	enter_monitor_times = ENTER_MONITOR_TIME;																//进入数据监测所需时间

static uint8_t	enter_monitor_flag	=	0;																								//进入数据监测标志位

static uint32_t	monitor_duration	=	MONITOR_DURATION_TIME;															//数据监测至少需要维持的时间

/*-----------------以下属于数据监测线程的相关函数----------------------------*/
//监测前脚传感器数据（acc + gry + mag）
static void monitor_except_front_acc_gry_mag(int16_t *monitor_acc, int16_t *monitor_gry, int16_t *monitor_mag)
{
	#define MONITOR_FRONT_ACC_SUM	5
	#define MONITOR_FRONT_GRY_SUM	5
	#define MONITOR_FRONT_MAG_SUM	5
	
	static uint8_t	gry_err_sum, acc_err_sum, mag_err_sum;
	static int16_t 	last_gry[3], last_acc[3], last_mag[3];
//	SEGGER_RTT_printf(0,"front last_gry[0]=%d, last_gry[1]=%d, last_gry[2]=%d\r\n",last_gry[0],last_gry[1],last_gry[2]);
//	SEGGER_RTT_printf(0,"front last_acc[0]=%d, last_acc[1]=%d, last_acc[2]=%d\r\n",last_acc[0],last_acc[1],last_acc[2]);
//	SEGGER_RTT_printf(0,"front last_mag[0]=%d, last_mag[1]=%d, last_mag[2]=%d\r\n",last_mag[0],last_mag[1],last_mag[2]);
	if(monitor_gry != NULL){
		if(last_gry[0] == monitor_gry[0] && last_gry[1] == monitor_gry[1] && last_gry[2] == monitor_gry[2]){
			gry_err_sum++;
//			SEGGER_RTT_printf(0,"==>front gry_err_sum=%d\r\n",gry_err_sum);
			if(gry_err_sum >= MONITOR_FRONT_GRY_SUM){
				Except_SaveExceptype(EXCEPT_DATA_FRONT_GRY);
			}
		}else{
			gry_err_sum = 0;
		}
		last_gry[0] = monitor_gry[0];
		last_gry[1] = monitor_gry[1];
		last_gry[2] = monitor_gry[2];
	}

	if(monitor_acc != NULL){
		if(last_acc[0] == monitor_acc[0] && last_acc[1] == monitor_acc[1] && last_acc[2] == monitor_acc[2]){
			acc_err_sum++;
//			SEGGER_RTT_printf(0,"==>front acc_err_sum=%d\r\n",acc_err_sum);
			if(acc_err_sum >= MONITOR_FRONT_ACC_SUM){
				Except_SaveExceptype(EXCEPT_DATA_FRONT_ACC);
			}
		}else{
			acc_err_sum = 0;
		}
		last_acc[0] = monitor_acc[0];
		last_acc[1] = monitor_acc[1];
		last_acc[2] = monitor_acc[2];
	}
	
	if(monitor_mag != NULL){
		if(last_mag[0] == monitor_mag[0] && last_mag[1] == monitor_mag[1] && last_mag[2] == monitor_mag[2]){
			mag_err_sum++;
//			SEGGER_RTT_printf(0,"==>front mag_err_sum=%d\r\n",mag_err_sum);
			if(mag_err_sum >= MONITOR_FRONT_MAG_SUM){
				Except_SaveExceptype(EXCEPT_DATA_FRONT_MAG);
			}
		}else{
			mag_err_sum = 0;
		}
		last_mag[0] = monitor_mag[0];
		last_mag[1] = monitor_mag[1];
		last_mag[2] = monitor_mag[2];
	}
}
//监测后脚传感器数据（mag）		
static void monitor_except_back_mag(int16_t *monitor_mag)
{
	#define MONITOR_BACK_MAG_SUM	5
	
	static uint8_t mag_err_sum;
	static int16_t last_mag[3];
//	SEGGER_RTT_printf(0,"back last_mag[0]=%d, last_mag[1]=%d, last_mag[2]=%d\r\n",last_mag[0],last_mag[1],last_mag[2]);
	if(monitor_mag != NULL){
		if(last_mag[0] == monitor_mag[0] && last_mag[1] == monitor_mag[1] && last_mag[2] == monitor_mag[2]){
			mag_err_sum++;
//			SEGGER_RTT_printf(0,"==>back mag_err_sum=%d\r\n",mag_err_sum);
			if(mag_err_sum >= MONITOR_BACK_MAG_SUM){
				Except_SaveExceptype(EXCEPT_DATA_BACK_MAG);
			}
		}else{
			mag_err_sum = 0;
		}
		last_mag[0] = monitor_mag[0];
		last_mag[1] = monitor_mag[1];
		last_mag[2] = monitor_mag[2];
	}
}

void app_self_checking_monitor_Process(void)
{
	int16_t 					group_num = 0;
	int16_t 					front_acc[3];
	int16_t						front_gry[3];
	int16_t						front_mag[3];
	int16_t						back_mag[3];
	static uint32_t 	tim =0;
	
	if(!IMU_IsNoSignal())return;		//配置期间不处理
	
	switch(hal_mode_get())
	{
		case HAL_MODE_SELF_CHECK:	
		if(monitor_duration > 0 && enter_monitor_flag)monitor_duration--;
		
		//用于测试，人为添加错误，判断逻辑是否正确。
//		static uint8_t test1 = 1;
//		if(test1){
//			Except_SaveExceptype(EXCEPT_DATA_FRONT_MAG);
//			test1 = 0;
//		}
		
		case HAL_MODE_GAME:
		case HAL_MODE_REALSTEP:																									// 游戏模式 + 实时计步模式 + 自检模式
			if(TIME_GetTicks()-tim>=FullPower_Interval){tim = TIME_GetTicks();
				group_num = IMU_Get_Front_Data_Num();
				for(int i=0;i<group_num;i++){
					IMU_Get_Front_Data(i, front_gry, front_acc, front_mag, NULL);
					monitor_except_front_acc_gry_mag(front_acc, front_gry, front_mag);//监测前脚传感器数据（acc + gry + mag）
				}
				IMU_Get_Back_Data(back_mag);
				monitor_except_back_mag(back_mag);																	//监测后脚传感器数据（mag）	
			}	
			break;
			
		case HAL_MODE_STANDBY:																									// 待机模式
			if(TIME_GetTicks()-tim>=StandByPower_Interval){tim = TIME_GetTicks();
				group_num = IMU_Get_Front_Data_Num();
				for(int i=0;i<group_num;i++){
					IMU_Get_Front_Data(i, NULL, front_acc, NULL, NULL);
					monitor_except_front_acc_gry_mag(front_acc, NULL, NULL);					//监测前脚传感器数据（acc）
				}
			}
			break;
		
		case HAL_MODE_NORMAL:																										// 正常模式
			if(TIME_GetTicks()-tim>=LowPower_Interval){tim = TIME_GetTicks();
				group_num = IMU_Get_Front_Data_Num();
				for(int i=0;i<group_num;i++){
					IMU_Get_Front_Data(i, NULL, front_acc, front_mag, NULL);
					monitor_except_front_acc_gry_mag(front_acc, NULL, front_mag);			//监测前脚传感器数据（acc + mag）
				}
			}
			break;
			
		default:
			break;
	}
	
}

/*-----------------以下属于自检流程线程的相关函数----------------------------*/
//人工测试（电机、指示灯）
static void app_self_checking_artificial(void)								
{
	uint32_t 				temp_result = 0;
	static uint8_t 	state = 0;
	static uint32_t display_times = 0;
	
	switch(state){
		case 0:
			Process_SetHoldOn(app_self_checking_artificial,1);
			//测试电机是否正常
//			MT_Run(100);
			//显示其余的非人工测试结果
			for(int i=0;i<TEST_ITEMS;i++)temp_result +=self_check_result_buff[i];
//			SEGGER_RTT_printf(0,"temp_result=%d\n",temp_result);
			if(temp_result == TEST_SUCCESS){																			//如果全部测试通过
				LED_Start(LED_SELF_CHECK,COLOR_GREEN);
				nrf_gpio_pin_write(PIN_LED_RUN,LED_SMALL_ENABLE);
				Process_UpdatePeroid(app_self_checking_artificial,DISPLAY_TEST_RESULT_LED_TIME);
				state = 1;
				break;
			}else{																																//没有全部通过
				static uint8_t loop = 0;
				if(self_check_result_buff[loop++] != TEST_SUCCESS){
					switch(loop)
					{
						case TEST_RESULT_LED_ERR_RED:
							if(self_check_result_buff[loop-1] != TEST_UNKNOWN)LED_Start(LED_SELF_CHECK,COLOR_RED);
							else LED_Start(LED_SELF_CHECK,COLOR_WHITE);
						break;
						case TEST_RESULT_LED_ERR_BLUE:
							if(self_check_result_buff[loop-1] != TEST_UNKNOWN)LED_Start(LED_SELF_CHECK,COLOR_BLUE);
							else LED_Start(LED_SELF_CHECK,COLOR_WHITE);
						break;
						case TEST_RESULT_LED_ERR_PURPLE:
							if(self_check_result_buff[loop-1] != TEST_UNKNOWN)LED_Start(LED_SELF_CHECK,COLOR_PURPLE);
							else LED_Start(LED_SELF_CHECK,COLOR_WHITE);
						break;
						case TEST_RESULT_LED_ERR_YELLOW:
							if(self_check_result_buff[loop-1] != TEST_UNKNOWN)LED_Start(LED_SELF_CHECK,COLOR_YELLOW);
							else LED_Start(LED_SELF_CHECK,COLOR_WHITE);
						break;				
					}
					Process_UpdatePeroid(app_self_checking_artificial,DISPLAY_TEST_RESULT_LED_TIME);
				}else{
					Process_UpdatePeroid(app_self_checking_artificial,0);						//通过的某项就跳过等待时间。
				}
				if(loop == TEST_ITEMS){
					loop = 0;
					state = 1;
				}
			}
			break;
		case 1:
			for(int i=0;i<TEST_ITEMS;i++)temp_result +=self_check_result_buff[i];
			temp_result = (temp_result == 0) ? DISPLAY_TEST_RESULT_LED_TIME : (temp_result * DISPLAY_TEST_RESULT_LED_TIME);//跑完一次case0的时间
			if((temp_result * ++display_times) <= DISPLAY_TEST_RESULT_CONTINUE_TIME){
				state = 0;
				break;
			}
			display_times = 0;
			Process_UpdatePeroid(app_self_checking_artificial,0);
			LED_Stop(LED_SELF_CHECK);
			nrf_gpio_pin_write(PIN_LED_RUN,LED_SMALL_DISABLE);
			state = 0;
			Process_SetHoldOn(app_self_checking_artificial,0);
			Process_Stop(app_self_checking_artificial);
			break;
		default:state=0;Process_UpdatePeroid(app_self_checking_artificial,0);break;
	}
	
}

//测试前脚IMU和地磁是否正常
static void app_checking_front_sensor(uint8_t *check_result)
{
	int16_t 	acc_front[3];
	int16_t  	gry_front[3];
	int16_t		mag6310_front[3];
	int32_t		timestamp_front;

	for(int i=0; i < IMU_Get_Front_Data_Num(); i++)
	{
		
		IMU_Get_Front_Data(i, gry_front, acc_front, mag6310_front, &timestamp_front);
		
		if( (gry_front[0] == 0 && gry_front[1] == 0 && gry_front[2] == 0) || \
				(acc_front[0] == 0 && acc_front[1] == 0 && acc_front[2] == 0) || \
				(mag6310_front[0] == 0 && mag6310_front[1] == 0 && mag6310_front[2] == 0) ||
				(timestamp_front == 0))
		{
			*check_result = TEST_FAIL;
		}
		else if(mFlash.exception.except_data_front_acc || mFlash.exception.except_data_front_gry || mFlash.exception.except_data_front_mag){
			*check_result = TEST_FAIL;
		}
		else if(monitor_duration)*check_result = TEST_UNKNOWN;
	}
}

//测试后脚地磁是否正常
static void app_checking_back_sensor(uint8_t *check_result)
{
	static int16_t	mag6310_back[3];
	
	IMU_Get_Back_Data(mag6310_back);
	if(mag6310_back[0] == 0 && mag6310_back[1] == 0 && mag6310_back[2] == 0)*check_result = TEST_FAIL;
	else if(mFlash.exception.except_data_back_mag)*check_result = TEST_FAIL;
	else if(monitor_duration)*check_result = TEST_UNKNOWN;
}

//测试电量检测是否正常
static void app_checking_bat(uint8_t *check_result)
{
	int16_t cur_vol;
	int16_t	bat;
	
	cur_vol = ADC_RESULT_IN_MILLI_VOLTS(ADC_GetValue(PIN_ADC_CHARGMEASURE_CHANNEL));
	bat = ADC_RESULT_IN_MILLI_VOLTS(ADC_GetValue(PIN_ADC_BAT_CHANNEL))*5/3;
//	SEGGER_RTT_printf(0,"app_checking_bat cur_vol:%d  before_check_charge_vol:%d  cur_vol-before_check_charge_vol:%d\r\n",cur_vol,before_check_charge_vol,cur_vol-before_check_charge_vol);
	//电池小于2.5V或充电电压变化小于阈值且电池电压大于4V
	if(bat <= BATTERY_TEST_VALUE || ((cur_vol-before_check_charge_vol)<BATTERY_CHARGE_CHANGE_VALUE && bat > 4000))*check_result = TEST_FAIL;
	else if(monitor_duration)*check_result = TEST_UNKNOWN;
}

//测试充电电流是否正常
static void app_checking_charge(uint8_t *check_result)
{
	int16_t cur_vol;
	
	cur_vol = ADC_GetValue(PIN_ADC_CHARGMEASURE_CHANNEL);
	cur_vol = ADC_RESULT_IN_MILLI_VOLTS(cur_vol);
//	SEGGER_RTT_printf(0,"app_checking_charge cur_vol:%d  before_check_charge_vol:%d  cur_vol-before_check_charge_vol:%d\r\n",cur_vol,before_check_charge_vol,cur_vol-before_check_charge_vol);
	//当电池电量满了，不充电（经测试，哪怕电量满了，充电电压也有10+mv）
	//当电池电量没满，充电（经测试，电量没满的充电电压跟电池电压有关，最小充电电压100+mv）	
	if((cur_vol-before_check_charge_vol)<BATTERY_CHARGE_CHANGE_VALUE)*check_result = TEST_FAIL;
	else if(monitor_duration)*check_result = TEST_UNKNOWN;
}

//发送非人工检测结果，只有在插上充电时，才配置串口
static void app_self_check_send_result(uint8_t *buf, uint8_t datalen)
{
	uint32_t txd,rxd;
	UART0_GetPinConfig(&txd, &rxd);
	UART0_Initialize(PIN_TXD_BLE,PIN_RXD_BLE,UART_HZ);
	for(int i=0;i<10;i++)
	{
		UART0_Tx_Send(0,UART0_T_SELF_CHECK_ACK,buf,datalen);
	}
	UART0_Initialize(txd,rxd,UART_HZ);
}
//触发自检配置用于监测数据变化，不需要通过串口发送结果。
static void app_self_checking_monitor_trigger(void)
{
	static uint32_t 	tim =0;
	
	if(TIME_GetTicks()-tim>=StandByPower_Interval){tim = TIME_GetTicks();
		int16_t front_acc[3];
		if(IMU_Get_Front_Data_Num() >= 1)IMU_Get_Front_Data(IMU_Get_Front_Data_Num()-1, NULL, front_acc, NULL, NULL);
//		SEGGER_RTT_printf(0,"front_acc[0]=%d\r,front_acc[1]=%d\r,front_acc[2]=%d\r\n",front_acc[0],front_acc[1],front_acc[2]);
		if(front_acc[2] >= TRIGGER_MONITOR_ACC_Z){
			if(enter_monitor_times == 0){
				if(hal_mode_get() != HAL_MODE_SELF_CHECK){
					hal_mode_set(HAL_MODE_SELF_CHECK);		//维持一段时间，开启自检模式
					enter_monitor_flag = 1;
				}
				enter_monitor_times = ENTER_MONITOR_TIME;
			}else{
				enter_monitor_times--;
			}
		}else{
			enter_monitor_times = ENTER_MONITOR_TIME;
			if(enter_monitor_flag && self_check_state != ENTER_SELF_CHECK){
				enter_monitor_flag = 0;
				if(hal_mode_get() != HAL_MODE_NORMAL)hal_mode_set(HAL_MODE_NORMAL);					//关闭自检模式
			}
		}				
	}

}

void app_self_checking_Process(void)
{
	static uint8_t wait_times = 20 + 1;					// 预防IMU初始化失败，重复几次才初始化成功的情况，所以等待时间为初始化失败上限+1
	
	//触发自检配置用于监测数据变化，不需要通过串口发送结果。
	if(hal_mode_get() == HAL_MODE_SELF_CHECK || hal_mode_get() == HAL_MODE_STANDBY)app_self_checking_monitor_trigger();
	//触发自检配置用于自检流程，需要通过串口发送结果。
	if(self_check_state == ENTER_SELF_CHECK){
		
		if(wait_times-- != 0)return;
		
		wait_times = 20 + 1;
	
		memset(self_check_result_buff,TEST_SUCCESS,TEST_ITEMS);
		
		if(app_charge_Getstate()!=BLE_Client_T_CHARGE_PULLOUT){
			//如果插上充电，测试充电电流是否正常
			app_checking_charge(&self_check_result_buff[3]);
		}
		
		if(hal_mode_get() == HAL_MODE_SELF_CHECK){
			//测试前脚IMU和地磁是否正常
			app_checking_front_sensor(&self_check_result_buff[0]);
		}else{
			//前脚传感器损坏
			self_check_result_buff[0] = TEST_FAIL;
		}
		
		//测试后脚地磁是否正常
		app_checking_back_sensor(&self_check_result_buff[1]);
		
		//测试电量检测是否正常
		app_checking_bat(&self_check_result_buff[2]);

		
		//发送非人工检测结果，只有在插上充电时，才配置串口
		if(app_charge_Getstate()!=BLE_Client_T_CHARGE_PULLOUT){
			app_self_check_send_result(self_check_result_buff, TEST_ITEMS);
		}
		
		//关闭自检模式
		hal_mode_set(HAL_MODE_NORMAL);
		self_check_state = QUITE_SELF_CHECK;
		
//		self_check_result_buff[0] = TEST_FAIL;
//		self_check_result_buff[1] = TEST_FAIL;
//		self_check_result_buff[2] = TEST_FAIL;
//		self_check_result_buff[3] = TEST_FAIL;
		
//		self_check_result_buff[0] = TEST_SUCCESS;
//		self_check_result_buff[1] = TEST_SUCCESS;
//		self_check_result_buff[2] = TEST_SUCCESS;
//		self_check_result_buff[3] = TEST_SUCCESS;
		
		for(int j=0; j <TEST_ITEMS; j++ ){
			SEGGER_RTT_printf(0,"=================>self_check_result_buff[%d] = %d\r\n",j,self_check_result_buff[j]);
		}
		
		//开启需要人工去测试的线程
		Process_Start(0,"app_self_checking_artificial",app_self_checking_artificial);																								

	}else if(app_charge_Getstate()==BLE_Client_T_CHARGE_PULLOUT){
		//更新可接受的自检指令最大次数
		self_check_recive_order_times = SELF_CHECK_RECIVE_ORDER_TIMES;
		//用于判断充电芯片和电池是否断线
		int16_t	temp_vol = ADC_RESULT_IN_MILLI_VOLTS(ADC_GetValue(PIN_ADC_CHARGMEASURE_CHANNEL));
		before_check_charge_vol = before_check_charge_vol > temp_vol ? temp_vol : before_check_charge_vol;	
	}
	
//	//地磁触发自检
//	else if((IMU_GetCurrentMode() == STATE_LOW_POWER_MODE) && app_charge_Getstate()!=BLE_Client_T_CHARGE_PULLOUT){
//		int16_t mag[3];
//		if(IMU_Get_Front_Data_Num() >= 1)IMU_Get_Front_Data(IMU_Get_Front_Data_Num()-1, NULL, NULL, mag, NULL);
//		int32_t front_mag_norm;
//		front_mag_norm  = (int32_t)(sqrt((float) (mag[0] * mag[0] + mag[1] * mag[1] + mag[2] * mag[2])));
////			SEGGER_RTT_printf(0,"front_mag_norm=%d\r\n",front_mag_norm);
//		if(front_mag_norm>=20000){
//			hal_mode_set(HAL_MODE_SELF_CHECK);						//开机，开启自检模式
//			self_check_state = ENTER_SELF_CHECK;
//		}
//	}
	
//		//上电5秒触发自检
//		static uint32_t 	tim2 =0;
//		if(TIME_GetTicks()-tim2>=5000){tim2 = TIME_GetTicks();
//			static int time_test_check=1;
//			if(time_test_check){
//				hal_mode_set(HAL_MODE_SELF_CHECK);						//开机，开启自检模式
//				self_check_state = ENTER_SELF_CHECK;
//				time_test_check=0;
//			}
//		}

	
//	//用于测量充电电压、电池电压、电量百分比
//	int16_t bat;
//	int16_t	vol;
//	if(app_charge_Getstate()!=BLE_Client_T_CHARGE_PULLOUT){
//		bat = ADC_GetValue(PIN_ADC_BAT_CHANNEL);
//		bat = ADC_RESULT_IN_MILLI_VOLTS(bat)*5/3;
//		SEGGER_RTT_printf(0,"charge!!! %d %d %d\r\n",before_check_charge_vol,bat,GetBatteryPersent());
//	}else{
//		bat = ADC_GetValue(PIN_ADC_BAT_CHANNEL);
//		bat = ADC_RESULT_IN_MILLI_VOLTS(bat)*5/3;
//		SEGGER_RTT_printf(0,"no charge!!! %d %d %d\r\n",before_check_charge_vol,bat,GetBatteryPersent());
//	}

}

void app_self_checking_ready_Process(void)
{
	char advname_buf[100];
	int adv_len;
	
	if(app_charge_Getstate()!=BLE_Client_T_CHARGE_PULLOUT && self_check_recive_order_times){
		slave_get_advname_len(&adv_len);
		slave_get_advname(advname_buf, adv_len);
		uint32_t txd,rxd;
		UART0_GetPinConfig(&txd, &rxd);
		UART0_Initialize(PIN_TXD_BLE,UART0_INVALID_PIN,UART_HZ);
		UART0_Tx_Send(0,UART0_T_SELF_CHECK_RDY,(uint8_t*)advname_buf,adv_len);
//		SEGGER_RTT_printf(0,"advname_buf:%s  len:%d\n",advname_buf,adv_len);
		UART0_Initialize(txd,rxd,UART_HZ);
	}
}

void cb_UART0_R_SELF_CHECK_ASK(void* handle)
{
	if(self_check_recive_order_times){
		hal_mode_set(HAL_MODE_SELF_CHECK);							//串口接收自检指令，开启自检模式
		self_check_state = ENTER_SELF_CHECK;		
		self_check_recive_order_times--;
	}
}

void app_self_checking_Init(void)
{
	UART0_Rx_Regist(UART0_R_SELF_CHECK_ASK,cb_UART0_R_SELF_CHECK_ASK);
	Process_Start(0,"app_self_checking_monitor_Process",app_self_checking_monitor_Process);
	Process_Start(APP_SELF_CHECKING_PROCESS_CYCLE,"app_self_checking_Process",app_self_checking_Process);
	Process_Start(APP_SELF_CHECKING_READY_PROCESS_CYCLE,"app_self_checking_ready_Process",app_self_checking_ready_Process);
}