int main(void) {
Led_Init(LED0);
Led_Disable(LED0);
Led_Init(LED1);
Led_Disable(LED1);
while(1) {
Led_Enable(LED1);
SysTick_Delay(500);
Led_Disable(LED1);
SysTick_Delay(500);
}
}
void assert_failed(uint8_t* file, uint32_t line)
{
Led_t blueLed;
Led_Init(&blueLed, GPIOC, GPIO_Pin_8);
Led_SetState(&blueLed, led_on);
while(1);
}
int main(void)
{
DAC_MCP4921_Init();
char uartReceiverBuffer[RECEIVER_SIZE];
UART_InitWithInt(9600);
Led_Init(); //DEBUG
while(1)
{
if(eReciever_GetStatus()==READY)
{
Reciever_GetStringCopy(uartReceiverBuffer);
DecodeMsg(uartReceiverBuffer);
if((ucTokenNr!=0)&&(asToken[0].eType==KEYWORD))
{
switch(asToken[0].uValue.eKeyword)
{
case DACSET:
if((asToken[1].eType==NUMBER)&&(asToken[1].uValue.uiNumber<0x0FFF))
DAC_MCP4921_Set_Adv(asToken[1].uValue.uiNumber);
//Led_StepRight();
break;
default:
break;
}
}
}
//if(Transmiter_GetStatus()==FREE){
// displayWatchValue();
//}
}
return 0;
}
int main(void)
{
// uint32_t pre = 0 ;
uint8_t* p = 0;
timer_config();
SPIx_Init();
Led_Init();
Key_Init();
Usart2_Init(9600);
// enc28j60_init(mac);
install_uart_dev();
stack_init();
// test_hardhandler(2,(int*)1);
my_tftp_init();
telnet_service_init();
// web_server_init();
// *p = 1 ;
#if 0
while(1)
{
stack_process();
Led_Process();
shell();
}
#endif
bootstart();
return 0 ;
}
/////////////////////////////////////////////////////////////////////////
/// \brief the first user code function to be called after the ARM M0
/// has initial.
/////////////////////////////////////////////////////////////////////////
void main(void)
{
uint8_t TempData;
FIFO_Initialiser();
Led_Init();
Tick_init();
SerialPort2.Open(115200);
for ( ;; )
{
if(SerialPort2.GetByte(&TempData))
{
if( FALSE == FIFO_Write(TempData) )
{
SerialPort2.SendString("Buffer is full");
FIFO_Initialiser();
}
SerialPort2.SendByte(TempData);
Led_Toggle();
}
}
}
///////////////////////////////////////////////////////////////////////////////
/// \brief Init the terminal program
///////////////////////////////////////////////////////////////////////////////
void Terminal_Init(void)
{
Led_Init();
Tick_init();
SerialPort2.Open(115200);
NumberOfByteReceived = 0;
DisplaySystemInformation();
}
int main (){
unsigned int iMainLoopCtr;
KeyboardInit();
Led_Init();
DetectorInit();
Timer1Interrupts_Init(250000,&Automat);
while(1){
iMainLoopCtr++;
}
}
int main(void)
{
I2C_Init();
Led_Init(); //for debug
char uartReceiverBuffer[RECEIVER_SIZE];
//UART_InitWithInt(9600);
Timer0Interrupts_Init(1000000, setPortPcf8574);
while(1){};
return 0;
}
int main(void)
{
//SysTick_Init();
Led_Init();
Usart1_Init();
while(1)
{
Led_Process();
}
}
int Main()
{
Led_Init() ;
while(1)
{
Led1_On() ;Delay() ;Led1_Off() ;
Led2_On() ;Delay() ;Led2_Off() ;
Led3_On() ;Delay() ;Led3_Off() ;
Led4_On() ;Delay() ;Led4_Off() ;
}
return 0;
}
void BSP_Init(void)
{
/*************** System Init *********************/
RInit();
/**************** NVIC Init **********************/
NVIC_Configuration();
/***************** Bsp Init **********************/
SysTest_Bsp_Init();
LcdMainInit();
Led_Init();
ADC_InitChannel();
VoltageSampleInit();// ADC
}
/////////////////////////////////////////////////////////////////////////
/// \brief the first user code function to be called after the ARM M0
/// has initial.
/////////////////////////////////////////////////////////////////////////
void main(void)
{
Led_Init();
Tick_init();
SerialPort2.Open(115200);
SerialPort2.SendString((uint8_t *)"Hello World!\r\n");
for ( ;; )
{
Tick_DelayMs(500); // Delay for 500ms = 1/2s
Led_Toggle(); // Toggle the LED. This should cause the LED to turn on every second
}
}
void Main(void)
{
Uart0_Init_all();
Led_Init() ;
Uart_Printf("\n%s\n", "Led相关引脚已经初始化完毕！请按任意键开始闪烁");
Uart_Getch();
while(1)
{
rGPFDAT &= 0x0F;
Uart_Printf("\n%s\n", "Led亮");
delay();
rGPFDAT |= 0xFF;
Uart_Printf("\n%s\n", "Led灭");
delay();
}
}
/* ===================================================================*/
void GPIOInit(void)
{
/*
* Initialize Port DRDY for input from MPU6050.
* Low when mpu6050 is ready to be read.
* Meanwhile, an interrupt will be triggered on falling edge
* calling MCU to read data from mpu6050.
*/
MPU6050_DRDY_Init(NULL);
/*
* Initialize PortA4 , the led indicates the calibration of mag
*/
Led_Init(NULL);
}
int main(void)
{
UART_Init();
microrl_terminalInit();
LoggerHAL_Init();
CommandLine_Init();
logger_Test();
Led_t greenLed;
Led_Init(&greenLed, GPIOC, GPIO_Pin_9);
Led_SetState(&greenLed, led_on);
while(1)
{
microrl_terminalProcess();
}
}
/////////////////////////////////////////////////////////////////////////
/// \brief the first user code function to be called after the ARM M0
/// has initial.
/////////////////////////////////////////////////////////////////////////
void main(void)
{
uint_fast8_t FifoReadReturnValue;
uint8_t TempData;
FIFO_Initialiser();
Led_Init();
Tick_init();
SerialPort2.Open(115200);
for ( ;; )
{
if(SerialPort2.GetByte(&TempData))
{
if( FALSE == FIFO_Write(TempData) )
{
FifoReadReturnValue = TRUE;
for( ; FifoReadReturnValue; )
{
FifoReadReturnValue = FIFO_Read(&TempData);
if( ERROR == FifoReadReturnValue )
{
break;
}
else if( TRUE == FifoReadReturnValue )
{
SerialPort2.SendByte(TempData);
}
}
}
Led_Toggle();
}
}
}
int main (){
unsigned int iMainLoopCtr;
KeyboardInit();
Led_Init();
DetectorInit();
sServo.eState=CALLIB;
Timer1Interrupts_Init(60000,&Automat);
while(1){
iMainLoopCtr++;
switch(eKeyboard_Read()){
case BUTTON_1:sServo.eState=CALLIB; break;
case BUTTON_2:sServo.uiDesiredPosition=50; break;
case BUTTON_3:sServo.uiDesiredPosition=100; break;
case BUTTON_4:sServo.uiDesiredPosition=150; break;
default: break;
}
}
}
void Servo_Init(unsigned int uiServoFrequency)
{
Led_Init();
DetectorInit();
Timer1Interrupts_Init(uiServoFrequency,&Automat);
}
