int main(void)
{
int read;
float input_voltage, temperature;
UART_INIT(); // UART 통신 초기화
ADC_INIT(1); // AD 변환기 초기화
while(1)
{
// 온도 센서의 출력 전압을 ADC를 거쳐 읽는다.
read = read_ADC();
// 0에서 1023 사이의 값을 0V에서 5V 사이 값으로 변환한다.
input_voltage = read * 5.0 / 1023.0;
// 10mV에 1℃이므로 100을 곱해서 현재 온도를 얻는다.
temperature = input_voltage * 100.0;
UART_print16bitNumber((int)temperature); // 정수값으로 출력
UART_transmit('\n'); // 줄바꿈
_delay_ms(1000); // 1초에 한 번 출력
}
}
void Task1()
{
uint16_t cnt;
int8_t fd,val,chan;
uint16_t sample;
printf( "Task1 PID=%d\r\n",nrk_get_pid());
nrk_gpio_direction(NRK_BUTTON, NRK_PIN_INPUT);
nrk_gpio_direction(NRK_DEBUG_0, NRK_PIN_OUTPUT);
nrk_led_set(RED_LED);
do{} while(nrk_gpio_get(NRK_BUTTON)==1);
nrk_led_clr(RED_LED);
nrk_led_set(GREEN_LED);
// Initialize values here
ADC_INIT ();
ADC_ENABLE ();
ADC_SET_CHANNEL (2);
while(1) {
ADC_SAMPLE_SINGLE();
ADC_GET_SAMPLE_10(sample);
// Send sync byte
putchar(0x55);
putchar(sample>>8);
putchar(sample&0xff);
}
}
void power_init ()
{
ADC_INIT ();
ADC_ENABLE ();
ADC_VREF_VCC();
nrk_timer_int_configure( NRK_APP_TIMER_0, 1, 7373, calc_power);
ticks=0;
cycle_state=CYCLE_HIGH;
//cycle_state_last=CYCLE_UNKNOWN;
cycle_cnt=0;
cycle_avg=0;
cycle_started=0;
c1_center=496;
v_p2p_low=2000;
v_p2p_high=0;
c_p2p_low=2000;
c_p2p_high=0;
c_p2p_low2=2000;
c_p2p_high2=0;
rms_current=0;
rms_current2=0;
rms_voltage=0;
energy_total2=0;
energy_total=0;
energy_cycle2=0;
energy_cycle=0;
cummulative_energy2=0;
cummulative_energy=0;
total_secs=0;
v_last=VOLTAGE_LOW_THRESHOLD+10;
triggered=0;
nrk_gpio_direction(NRK_DEBUG_2, NRK_PIN_OUTPUT);
//startup_sock_state=nrk_eeprom_read_byte(0x100);
//if((startup_sock_state&0x01)==0x01)
// {
nrk_timer_int_start(NRK_APP_TIMER_0);
power_mon_enable();
socket_0_enable();
socket_0_active=1;
// }
//else {
//socket_0_active=0;
//power_mon_disable();
// nrk_kprintf( PSTR("Socket inactive\r\n"));
//}
//if((startup_sock_state&0x02)==0x02)
// {
socket_1_enable();
socket_1_active=1;
// }
// else {
// socket_1_active=0;
// }
}
// ****************************************************************************
// Fumctions for init-start-stop-read
// ****************************************************************************
void BSP_adc_init (void)
{
// Init all pins, configure speed, reference etc.
ADC_INIT();
adc_raw8 = 0;
adc_raw_minor_bit = 0;
}
void init_adc()
{
// Initialize values here
DDRA = 0x80;
ADC_INIT ();
ADC_ENABLE ();
ADC_SET_CHANNEL (0);
}
double RTD::tempC() // main function to read the RTD temperature in degree Celsius
{
MUX_SELECT(_nChannel);
ADC_INIT();
long adcRaw = ADC_READ();
double rtdTempC = OHM2CELSIUS(ADC_2_mV(adcRaw));
return rtdTempC;
}
//串口打印变阻器模拟信号数值
void W1_ADC(int *read_xpdata){
ADC_INIT(); //初始化AD控制寄存器
/*****串口打印ADC数据函数****/
while(rADCCON & 0x1); //因为成功启动A/D转换后，该位会
//自动清零，因此在这里检查ADC是否真正启动
while(!(rADCCON & (1<<15))); //使用查询方式等待ADC转换结束
*read_xpdata=(int)(rADCDAT0&0x3ff); //读取ADCDAT0后十位
Uart_Printf("\n HELLO ADC# W1值为： %04d ",*read_xpdata);//串口输出ADCDAT0后十位值
Delay(500);
}
//------------------------------------------------------------------------------------
// MAIN Routine
//------------------------------------------------------------------------------------
void main(void)
{
unsigned short int analogval;
unsigned char *analoghi, *analoglow;
float VREF = 3; //Voltage reference
float result; // ADC voltage result
short int result_high = 0;
short int result_low = 4095;
char samples = 0;
short int accum[16] = {0}; // Still compute the average
char i;
unsigned long int sum = 0;
unsigned int avg;
float result_dec1; // Need 2 variables to hold the decimal value to prevent overflow
float result_dec2;
analoglow = (char *) &analogval;
analoghi = analoglow + 1;
WDTCN = 0xDE; // Disable the watchdog timer
WDTCN = 0xAD;
PORT_INIT(); // Initialize the Crossbar and GPIO
SYSCLK_INIT(); // Initialize the oscillator
UART0_INIT(); // Initialize UART0
ADC_INIT(); // Initialize ADC0
INTERRUPT_INIT();
DAC_INIT();
while(1)
{
//dig_val = dig_val + 50; // Generate the sawtooth
SFRPAGE = ADC0_PAGE;
AD0INT = 0; // Clear the "conversion done" flag
AD0BUSY = 1; // Start A/D Conversion
while (AD0INT == 0); // Wait for the conversion to finish
*analoglow = ADC0L; // Read the low byte
*analoghi = ADC0H; // Read the high byte
SFRPAGE = DAC0_PAGE; // Output the digital value through the DAC
DAC0L = analogval << 0; //digval;
DAC0H = analogval >> 8; //digval >> 8;
SFRPAGE = UART0_PAGE;
//result = analogval*2.4/(float)4095;
// Compute the average
//result_dec1 = (1000*result-1000*(int)result);
//result_dec2 = (1000*(result_dec1-(int)result_dec1));
// Erase screen and move cursor to home position
//printf("Voltage reading: %d.%03d%03d\n\r", (int)result, (int)result_dec1, (int)result_dec2);
}
}
int main(void)
{
int read;
ADC_INIT(0); // AD 변환기 초기화
INIT_TIMER1();
while(1)
{
read = read_ADC(); // 가변저항 값 읽기
OCR1A = PULSE_MIN + (int)(3.48 * read);
_delay_ms(ROTATION_DELAY);
}
}
int main(void)
{
int read, actualVCC;
ADC_INIT(0x0E); // 15번 채널 선택
UART_INIT(); // UART 통신 초기화
while(1)
{
read = read_ADC(); // 15번 채널 값 읽기
actualVCC = 1125300L / read; // mV 단위로 변환
UART_print16bitNumber(actualVCC); // AVCC 값 출력
UART_printString("\n"); // 줄 바꿈
_delay_ms(1000); // 1초에 한 번 읽음
}
}
void
audio_init()
{
uint8_t i;
// Initialize values here
DDRA = 0x80;
ADC_INIT ();
ADC_ENABLE ();
ADC_SET_CHANNEL (MIC_PIN);
audio_index=0; // set index to 0
for(i=0; i<AUDIO_BUFS; i++ )
{
audio_cnt[i]=0; // clear buffer counts
}
printf( "Audio init\r" );
}
int main(void)
{
int value;
uint8_t on_off;
ADC_INIT(0);
PORT_INIT();
while(1)
{
value = read_ADC() >> 7;
on_off = 0;
for(int i = 0; i <= value; i++){
on_off |= (0x01 << i);
}
PORTD = on_off;
}
}
/**
* @brief Main function. Executes all initialization and terminate its thread.
* @param None
* @retval None
*/
int main(void)
{
///////////////////////////////////////////////////////////////////////////////////////////
/* Configure the MPU attributes as Write Through */
MPU_Config();
/* Enable the CPU Cache */
CPU_CACHE_Enable();
// initialize CMSIS-RTOS
osKernelInitialize();
///////////////////////////////////////////////////////////////////////////////////////////
// Hardware initialize
if( HAL_Init() != HAL_OK)
Error_Handler();
if( ConfigureDMA(&g_DmaHandle, &g_AdcHandle) != HAL_OK)
Error_Handler();
if( ADC_INIT(&g_AdcHandle) != HAL_OK)
Error_Handler();
BSP_SDRAM_Init();
Touch_Initialize();
///////////////////////////////////////////////////////////////////////////////////////////
/* Configure the System clock to have a frequency of 216 MHz */
SystemClock_Config();
// Thread initialization
Init_TH_GUI();
Init_TH_Touch();
// RTOS Start Kernel
osKernelStart(); // start thread execution
// Get Main Thread ID
Main_thID = osThreadGetId();
///////////////////////////////////////////////////////////////////////////////////////////
// Start data acquire
HAL_ADC_Start_DMA(&g_AdcHandle, values, ADC_BUFFER_LENGTH);
///////////////////////////////////////////////////////////////////////////////////////////
// Terminate main thread
osThreadTerminate(Main_thID);
/* Infinite loop */
while (1) { }
}
//------------------------------------------------------------------------------------
// MAIN Routine
//------------------------------------------------------------------------------------
void main(void)
{
unsigned char adcValH[3];
unsigned char adcValL[3];
unsigned int result;
unsigned short int analogval;
unsigned char analoghi, analoglow;
float VREF = 3;
WDTCN = 0xDE; // Disable the watchdog timer
WDTCN = 0xAD;
PORT_INIT(); // Initialize the Crossbar and GPIO
SYSCLK_INIT(); // Initialize the oscillator
ADC_INIT(); // Initialize ADC0
DAC_INIT();
MAC_INIT();
adcValH[2] = adcValH[1] = adcValL[2] = adcValL[1] = 0;
result = 0;
while(1)
{
SFRPAGE = ADC0_PAGE;
AD0INT = 0; // Clear the "conversion done" flag
AD0BUSY = 1; // Start A/D Conversion
while (AD0INT == 0); // Wait for the conversion to finish
analoglow = ADC0L; // Read the low byte
analoghi = ADC0H; // Read the high byte
analogval = analoghi<<8 | analoglow;
// Update the variables in the filter equation
adcValH[2] = adcValH[1]; // x(k-2) high byte
adcValH[1] = adcValH[0]; // x(k-1) high byte
adcValL[2] = adcValL[1]; // x(k-2) low byte
adcValL[1] = adcValL[0]; // x(k-1) low byte
adcValH[0] = analoghi; // x(k) high and low bytes
adcValL[0] = analoglow;
SFRPAGE = MAC0_PAGE;
MAC0CF |= 0x08; // Clear MAC
// Load the MAC with the correct values and compute the filter equation
MAC0AH = 0x28;
MAC0AL = 0x00;
MAC0BH = adcValH[0];
MAC0BL = adcValL[0];
MAC0BH = adcValH[2];
MAC0BL = adcValL[2];
MAC0AH = 0x1E;
MAC0AL = 0xC4;
MAC0BH = adcValH[1];
MAC0BL = adcValL[1];
MAC0AH = 0x26;
MAC0AL = 0x00;
SFRPAGE = MAC0_PAGE; // Delay with any dummy command
result = (int)MAC0RNDH<<8 | MAC0RNDL; // Read the result from the rounding engine
SFRPAGE = DAC0_PAGE; // Output the result through the DAC
DAC0L = result;
DAC0H = result>>8;
}
}