WDFJKEY/source/user/main.c

/*------------------------------------------------------------------------------
 * main.c
 * Copyright 2019 WDKL Electronics Co.,Ltd.
 * Description:
 * - This file implements the follow functions:
 * -
 * modification history
 * --------------------
 * 09:59am, 24.Sep.2019, written by dwd
 * --------------------
 ------------------------------------------------------------------------------*/

/*----------------------------------------------------------------------------
 *					I N C L U D E
 *--------------------------------------------------------------------------*/
#include "stm32f0xx.h"
#include "general.h" 
#include "mapp_ext.h"
#include "mapp_gpio.h"
#include "mapp_key.h"
#include "mapp_pwr.h"
#include "mapp_uart1.h"
#include "main.h"
#include "mapp_msg.h"
#include "mapp_arm.h"
#define OS_TIMER_1MS 1

/*------------------------------------------------------------------------------
 *						D E F I N E
 *------------------------------------------------------------------------------*/
#define WDKL_TYPE_FJI              0x2014100Bu             /*      病床分机    */
              

#define IAP_PACKET_SIZE                 ((U08)128)
#define FLASH_PAGE_SIZE                 ((U16)2048)

#define AppStoreAddressStart      ((U32)0x8000000)  //起始位
#define AppStoreAddress      ((U32)0x8008000)  //32K位置
#define AppStoreEndAddress      ((U32)0x8020000)  //128K位置


/*------------------------------------------------------------------------------
 *						G L O B A L
 *------------------------------------------------------------------------------*/
//ddconst U08 DeviceID[] __attribute__((at(0X8008000)))="SZFJI221016001";
const U08 DeviceMacInfo[] __attribute__((at(0X8003300)))="F301";
//const U08 DeviceVisionInfo[]   ={"HV20SV142103050"};
const U08 DeviceVisionInfo[]   ={"SZD101012502091"};

uint16_t X_Addata=0,Y_Addata=0;

/*----------------------------------------------------------------------------
 *					V A R I A B L E S
 *--------------------------------------------------------------------------*/
static VU08 s_vu8SysSched0Tmr     = 0;
static VU08 s_vu8SysSched1Tmr     = 0;
static VU08 s_vu8SysSched2Tmr     = 0;
static VU08 s_vu8SysSched3Tmr     = 0;


/*------------------------------------------------------------------------------
 *						P R O T O T Y P E
 *------------------------------------------------------------------------------*/
static void s_MainNvicCfg(void);
static void s_MainSysTickCfg(void);
static void s_MainPeripheralCfg(void);
static void s_MainIwdgCfg(void);
static void s_MainSysVarInit(void);
static void EraseFlash(U08 eraseCnt);
static void EraseFlashMultiple(U08 eraseCntStart,U08 eraseCntEnd);
static void s_FlashUnlockFunc(void);



//static U32 Get_ChipSerialNum(void);
//static void WriteEncrypt(void) ;
//--------------------------------------------------------
void strncpy_rom(U08* to,const  U08  from[],U08 size)
{
    while(size)
    {
        *to=*from;
        to++;
        from++;
        size--;
    }
    return;
}

void strncpy_u8(U08* to,U08* from,U08 size)
{
    while(size)
    {
        *to=*from;
        to++;
        from++;
        size--;
    }
    return;
}

U08  MEMCPY(void * to,void * from,U08 size)
{
    U08 *pTo = (U08 *)to;
    U08 *pFrom = (U08 *)from;
    if((NULL == pTo) || (NULL == pFrom))
    {
        return 0;
    }

    if(!((pTo >= pFrom + size) || (pFrom >= pTo + size)))
    {
        return 0;
    }

    while(size-- > 0)
    {
        *pTo++=*pFrom++;
    }
    return 1;
}


void MEMSET(void *buff,U08 data,U16 length)
{
    U16 i;
    U08 *p;

    p = (U08 *)buff;

    for(i=0;i<length;i++)
    {
        *p = data;
        p++;
    }
}

U08 StrnCmp(U08 *str1,U08 *str2,U08 size)
{
    U08  i;

    if(str1==str2)  return 0;
    for(i=0;i<size;++i)
    {
        if(*str1>*str2)                 return 1;
        else if(*str1<*str2)            return 1;
        else
        {
            ++str1;
            ++str2;
        }
    }
    return 0;
}


/*----------------------------------------------------------------------
// Function uses    : SysDelayUs
// Input  parameter :
// Output parameter :
// Use  Function    : delay 1us timer.
// Reserve  date    : 11:10am, 17.Apr.2012, written by Sirius
 ----------------------------------------------------------------------*/
void SysDelayUs(U16 dlyus)
{
    U16 i = 0;

    while (dlyus--) {
        i = 15;
        while (i--);
    }
}

/*----------------------------------------------------------------------
// Function uses    : SysDelayMs
// Input  parameter :
// Output parameter :
// Use  Function    : delay 1ms timer.
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/
void SysDelayMs(U16 dlyms)
{
    U16 i = 0;

    while (dlyms--) {
        i = 6200;
        while (i--);
    }
}

/*----------------------------------------------------------------------
// Function uses    : SysTickISR
// Input  parameter :
// Output parameter :
// Use  Function    : Decrements the TimingDelay variable,tick every 5ms.
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
//---------------------------------------------------------------------*/
void SysTickISR(void)
{
	  static U08 u8systimecnt =0;
    if (s_vu8SysSched0Tmr != 0xff)   { s_vu8SysSched0Tmr++;    }
    if (s_vu8SysSched1Tmr != 0xff)   { s_vu8SysSched1Tmr++;    }
    if (s_vu8SysSched2Tmr != 0xff)   { s_vu8SysSched2Tmr++;    }
    if (s_vu8SysSched3Tmr != 0xff)   { s_vu8SysSched3Tmr++;    }
		if (gtArm.uarttxcnt != 0xff)    { gtArm.uarttxcnt++;    }
	 
    /*--- Power task timer ---*/
    PwrTaskTmr();

    ArmTaskTmr();
      /*---I2C task timer---*/
		u8systimecnt ++;
	
}
void SosLedState(U08 u8sta)
{
    static U08 u8cnt =0;
	if (u8sta ==0) {
		LED_EMEGENCY_ON ;	
	} else if (u8sta ==1) {
		LED_EMEGENCY_OFF ;	
	} else if (u8sta ==2) {
		u8cnt ++;
		if (u8cnt <5) {
			LED_EMEGENCY_OFF ;		
		} else  if (u8cnt >=9) {
			LED_EMEGENCY_ON ;	
			u8cnt =0;
		} else  if (u8cnt >5) {
				LED_EMEGENCY_ON ;	
		}
	}
}

void DoorLedState(void)
{
   	 static U08 u8cnt[4] ={0};

	if (gtArm.DoorLed[0] == 0) {
		 LED_RED_OFF;	
	} else if (gtArm.DoorLed[0]  ==1) {
			LED_RED_ON ;	
	} else if (gtArm.DoorLed[0]  ==2) {
	 	u8cnt[0] ++;
		if (u8cnt[0]  <5) {
			LED_RED_ON ;	
		} else if (u8cnt[0]  >=9) {
			u8cnt[0] =0;
			 LED_RED_OFF;	
		}  else if (u8cnt[0]  >5) {
			 LED_RED_OFF;	
		}
	}

	if (gtArm.DoorLed[1] == 0) {
		LED_BLUE_OFF ;	
	} else if (gtArm.DoorLed[1]  ==1) {
		 LED_BLUE_ON;
	} else if (gtArm.DoorLed[1]  ==2) {
	 	u8cnt[1] ++;
		if (u8cnt[1]  <5) {
			 LED_BLUE_ON;	
		} else if (u8cnt[1]  >=9) {
			u8cnt[1] =0;
			LED_BLUE_OFF ;	
		}  else if (u8cnt[1]  >5) {
			LED_BLUE_OFF ;	
		}
	}

	if (gtArm.DoorLed[2] == 0) {
		LED_GREEN_OFF;	
	} else if (gtArm.DoorLed[2]  ==1) {
		LED_GREEN_ON ;	
	} else if (gtArm.DoorLed[2]  ==2) {
	 	u8cnt[2] ++;
		if (u8cnt[2]  <5) {
			LED_GREEN_ON ;	
		} else if (u8cnt[2]  >=9) {
			u8cnt[2] =0;
			LED_GREEN_OFF;	
		}  else if (u8cnt[2]  >5) {
			LED_GREEN_OFF;	
		}
	}


}

void CallLedState(void)
{
   	static U08 u8cnt = 0;
	  static U08 u8cnt2 = 0;

	 if (gtArm.callled_red  == 1 ) {
	 	u8cnt ++;
		if (u8cnt <5) {
			LED_R_ON;
		} else  if (u8cnt >=9) {
			u8cnt  =0;
			LED_R_OFF;
		}  else  if (u8cnt > 5) {
			LED_R_OFF;
		}
	} else  if (gtArm.callled_red  == 2 ) { 
		LED_R_ON;
	}  else  {
		LED_R_OFF;
	} 
	
	if (gtArm.callled_yel  == 1 ) {
			u8cnt2 ++;
			if (u8cnt2 <5) {
				LED_Y_ON;
			} else  if (u8cnt2 >=9) {
				u8cnt2  =0;
				LED_Y_OFF;
			}  else  if (u8cnt2 > 5) {
				LED_Y_OFF;
			}
	} else  if (gtArm.callled_yel  == 2 ) { 
		LED_Y_ON;
	}  else  {
		LED_Y_OFF;
	} 

}

void LED_Task(void)
{
	static U08 uLedKeyStae =0;
	static U08 u8time =0;
	static U08 u8cnt =0;
	static U08 u8cnt2 =0;


#if 0
	u8time ++;
	if (gtArm.LedKeyState  != uLedKeyStae) {
	 	u8time =0;
			if (gtArm.LedKeyState == 13) {
				u8cnt ++;
				if (u8cnt > 10) {
					u8cnt2 ++;
					u8cnt =0;
					LED_GREEN_OFF;
				} else if (u8cnt > 5) {
					LED_GREEN_OFF;
				} else {
						LED_GREEN_ON;
				}
				if (u8cnt2 >2) {
					u8cnt2 =0;
					gtArm.LedKeyState =0;
				}
			} else if (gtArm.LedKeyState == 12) {
				u8cnt ++;
				if (u8cnt > 10) {
					u8cnt2 ++;
					u8cnt =0;
					LED_GREEN_OFF;
				} else if (u8cnt > 5) {
					LED_GREEN_OFF;
				} else {
						LED_GREEN_ON;
				}
				if (u8cnt2 >0) {
					u8cnt2 =0;
					gtArm.LedKeyState =0;
				}
			} else if (gtArm.LedKeyState == 11) {
				u8cnt ++;
				if (u8cnt > 10) {
					u8cnt2 ++;
					u8cnt =0;
					LED_GREEN_OFF;
				} else if (u8cnt > 5) {
					LED_GREEN_OFF;
				} else {
						LED_GREEN_ON;
				}
				if (u8cnt2 >0) {
					u8cnt2 =0;
					gtArm.LedKeyState =0;
				}
			} else {
				u8cnt2 =0;
			}
			uLedKeyStae =  gtArm.LedKeyState ;
	}
	
  if (u8time >50) {  //5秒后清除按键
		u8time =0;
		gtArm.LedKeyState =0;
		 uLedKeyStae =  gtArm.LedKeyState ;
	}
	#endif
	SosLedState(gtArm.Uled);
	DoorLedState();  
	CallLedState();

}


/*----------------------------------------------------------------------
// Function uses    : main
// Input  parameter :
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/
int main(void)
{	 
	
    
    s_MainSysTickCfg();                     /* Configure the systick */
    s_MainPeripheralCfg();                  /* Peripheral Configuration */
     s_MainNvicCfg();                        /* NVIC configuration */
   s_MainSysVarInit();
		s_MainIwdgCfg();
#if 0
		// 使能GPIOA的时钟
    RCC->AHBENR |= RCC_AHBENR_GPIOAEN;

    // 配置PA7为输出模式
    GPIOA->MODER &= ~(GPIO_MODER_MODER7);  // 清除MODER7位
    GPIOA->MODER |= GPIO_MODER_MODER7_0;   // 设置MODER7位为01，即输出模式

    // 设置PA7输出高电平
    GPIOA->BSRR = GPIO_BSRR_BS_7;
	
	        if (s_vu8SysSched0Tmr >= OS_TIMER_5MS) {   /* Schedule 5ms task with priority 0 */
            s_vu8SysSched0Tmr = 0;
            ArmTxTask();
			      KeyPB0Check();
            continue;
        }
	
#endif

    while (1) {
   
		
     IWDG_ReloadCounter();                       /* Reload IWDG counter */

				
				if (s_vu8SysSched0Tmr >= OS_TIMER_5MS) {   /* Schedule 5ms task with priority 0 */
            s_vu8SysSched0Tmr = 0;
            ArmTxTask();
			      KeyPB0Check();
					  KeyPA8Check();
            continue;
        }


        if (s_vu8SysSched1Tmr >= OS_TIMER_35MS) {   /* Schedule 35ms task with priority 1 */
            s_vu8SysSched1Tmr = 0;
             ArmRxTask();
             KeyTask();
						
            continue;
        }

        if (s_vu8SysSched2Tmr >= OS_TIMER_100MS) {  /* Schedule 100ms task with priority 2*/
            s_vu8SysSched2Tmr = 0;
            PwrTask();
            ExtTask();
						LED_Task();
            continue;
        }
				 if (s_vu8SysSched3Tmr >= OS_TIMER_35MS) {  /* Schedule 100+ms task with priority 2*/
            s_vu8SysSched3Tmr = 0;
           	
            continue;
        }
				 
    }
}


/*----------------------------------------------------------------------
// Function uses    : s_MainNvicCfg
// Input  parameter : Configures Vector Table base location.
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/
static void s_MainNvicCfg(void)
{
	
	RCC_ClocksTypeDef get_rcc_clock;//???
	
	NVIC_InitTypeDef NVIC_InitStructure;

	
	RCC_GetClocksFreq(&get_rcc_clock);
	/* Configure one bit for preemption priority */
	/* Enable the CAN1 RX0 Interrupt */
	//NVIC_InitStructure.NVIC_IRQChannel = CEC_CAN_IRQn;
	//NVIC_InitStructure.NVIC_IRQChannelPriority = 1;
	//NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE;
	//NVIC_Init(&NVIC_InitStructure);

	/* Enable DVD USART3 USART4 Interrupt */
	NVIC_InitStructure.NVIC_IRQChannelPriority = 1;
	NVIC_InitStructure.NVIC_IRQChannel = USART1_IRQn;
	NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE;
	NVIC_Init(&NVIC_InitStructure);

}
/*----------------------------------------------------------------------
// Function uses    : s_MainSysTickCfg
// Input  parameter :
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/

static void s_MainSysTickCfg(void)
{
    /* This example shows how to configure the SysTick to generate a time base equal to
       5 ms. The system clock is set to 24 MHz on Value line devices and to 72 MHz on
       other devices, the SysTick is clocked by the AHB clock (HCLK).
       prm == (N.[ms] * SystemCoreClock / 1000).
    */
    if (SysTick_Config(SystemCoreClock / OS_TICKS_PER_SEC))
    {
        /* Capture error */
        while (1);
    }
}



/*----------------------------------------------------------------------
// Function uses    : s_MainPeripheralCfg
// Input  parameter : Configures the different peripheral.
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/
static void s_MainPeripheralCfg(void)
{
	U32 u32prm =0;
	/*--- GPIO   ---*/
  	GpioCfgInit();

	/*---UART1   ---*/

	 Uart1CfgInit();
 
	
	/*---AD----*/
	//AdcCfgInit();
 
	u32prm =*(U32*)(0X8003300);
	if ((u32prm !=0) && (u32prm !=0xffffff) ) {
			//gtArm.SlaveFJZHmac = TO_WORD(LO_BYTE(u16prm), HI_BYTE(u16prm));
			gtArm.FJKeymac = HexToInt(u32prm);
			//	gtArm.SlaveFJZHmac = u16prm;
		}
}
/*----------------------------------------------------------------------
// Function uses    : s_MainIwdgCfg
// Input  parameter :
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
 ----------------------------------------------------------------------*/
static void s_MainIwdgCfg(void)
{
    /* IWDG timeout equal to 2000 ms (the timeout may varies due to LSI frequency
     dispersion) */
    /* Enable write access to IWDG_PR and IWDG_RLR registers */
    IWDG_WriteAccessCmd(IWDG_WriteAccess_Enable);

    /* IWDG counter clock: 40KHz(LSI) / 32 = 1.25 KHz */
    IWDG_SetPrescaler(IWDG_Prescaler_128);

    /* Set counter reload value to 499 */
    IWDG_SetReload(1000); 

    /* Reload IWDG counter */
    IWDG_ReloadCounter();

    /* Enable IWDG (the LSI oscillator will be enabled by hardware) */
    IWDG_Enable();
}

/*----------------------------------------------------------------------
// Function uses    : s_MainSysVarInit
// Input  parameter :
// Output parameter :
// Use  Function    :
// Reserve  date    : 10:10am, 9.Sep.2019, written by dwd
//---------------------------------------------------------------------*/
static void s_MainSysVarInit(void)
{
	s_vu8SysSched0Tmr     = 0;
	s_vu8SysSched1Tmr     = 0;
	s_vu8SysSched2Tmr     = 0;
  s_vu8SysSched3Tmr     = 0;

	/*--- POWER   ---*/
	PwrVarInit();
	/*--- UART1   ---*/
	/*--- KEY   ---*/
	KeyVarInit();

	/*---dvd---*/
	ArmValInit();
	/*---ext---*/
	ExtValInit();
	/*---msg---*/
	OSQInit();
}

void FlashCheckWriteProtect(void)
{
    unsigned int BlockNbr       = 0;
    unsigned int UserMemoryMask = 0;
    
    BlockNbr = (AppStoreAddress - 0x08000000) >> 12;

    /* Compute the mask to test if the Flash memory, where the user program will be
     loaded, is write protected */
    UserMemoryMask = ((unsigned int)~((1 << BlockNbr) - 1));
    
    /* Test if any page of Flash memory where program user will be loaded is write protected */
    if ((FLASH_GetWriteProtectionOptionByte() & UserMemoryMask) != UserMemoryMask) {
        FLASH_EraseOptionBytes();
    }
}

static void EraseFlash(U08 eraseCnt)
{

     FLASH_ClearFlag(FLASH_FLAG_EOP | FLASH_FLAG_PGERR | FLASH_FLAG_WRPERR);
     FLASH_ErasePage(AppStoreAddress + (FLASH_PAGE_SIZE * eraseCnt));  
}

static void EraseFlashMultiple(U08 eraseCntStart,U08 eraseCntEnd)
{
    U08 u8prm =0;
    U08 u8diff =0;
    FLASH_ClearFlag(FLASH_FLAG_EOP | FLASH_FLAG_PGERR | FLASH_FLAG_WRPERR);
    u8diff = eraseCntEnd -eraseCntStart;
    for (u8prm =0;u8prm < u8diff;u8prm++) {
       FLASH_ErasePage( AppStoreAddressStart+(FLASH_PAGE_SIZE * (eraseCntStart +u8prm)));  
    }
}

static void s_FlashUnlockFunc(void)
{
   FLASH_Unlock();
   FlashCheckWriteProtect();
   EraseFlash(32);   
}
  //FLASH_ProgramHalfWord(AppStoreAddress, u16sncnt); //写FLASH值
   //stIap.totalSN = *(u32*)(AppStoreAddress);       //读FLASH位置

//读取指定地址的半字(16位数据)
 //也是按照半字读出，即每次读2个字节数据返回
 U16 FLASH_ReadHalfWord(U32 address)
 {
     return *(__IO U16*)address; 
}

//从指定地址开始读取多个数据
void FLASH_ReadMoreData(U32 startAddress,U16 *readData,U16 countToRead)
{
	U16 dataIndex;
	for(dataIndex=0;dataIndex<countToRead;dataIndex++)
	{
		readData[dataIndex]=FLASH_ReadHalfWord(startAddress+dataIndex*2);
	}
}