int main(void) {
unsigned int i, j;
Board_init();
PWM_init(PWM_PORTX11 | PWM_PORTY04 | PWM_PORTY10 | PWM_PORTY12 | PWM_PORTZ06, FIRST_PERIOD);
printf("Uno PWM Test Harness\r\n");
printf("Ramping PWM from %d-%d%% in 10%% steps at %d with a delay between\r\n", MIN_RAMP, MAX_RAMP, FIRST_PERIOD);
unsigned char ch = 0;
for (j = MIN_RAMP; j <= MAX_RAMP; j += 100) {
PWM_setDutyCycle(PWM_PORTX11, j);
PWM_setDutyCycle(PWM_PORTY04, j + 20);
PWM_setDutyCycle(PWM_PORTY10, j + 40);
PWM_setDutyCycle(PWM_PORTY12, j + 60);
PWM_setDutyCycle(PWM_PORTZ06, j + 80);
printf("Outputting %d%% Duty Cycle\r\n", j / 10);
DELAY(10000);
}
printf("Setting Period to %d and repeating ramp\r\n", SECOND_PERIOD);
PWM_end();
PWM_init(PWM_PORTX11 | PWM_PORTY04 | PWM_PORTY10 | PWM_PORTY12 | PWM_PORTZ06, SECOND_PERIOD);
for (j = MIN_RAMP; j <= MAX_RAMP; j += 100) {
PWM_setDutyCycle(PWM_PORTX11, j);
PWM_setDutyCycle(PWM_PORTY04, j + 20);
PWM_setDutyCycle(PWM_PORTY10, j + 40);
PWM_setDutyCycle(PWM_PORTY12, j + 60);
PWM_setDutyCycle(PWM_PORTZ06, j + 80);
printf("Outputting %d%% Duty Cycle\r\n", j / 10);
DELAY(10000);
}
PWM_end();
return 0;
}
int main(void)
{
uint8_t current_state = 0; // Used to store the current state of TX state machine
uint16_t pulse_count = 0; // Used to store the current number of pulses
GPIO_init();
init_timer_0A();
init_timer_0B();
nvic_init();
PWM_init();
// IR Rx GPIO port (PB4) for asynch receive
init_IR_rx();
// Delay for microcontroller clock to stabilize
delay_timer_0A(500);
current_state = 1; // Activate the tx_state_machine
while(1)
{
// If the 562us timer expired then it is time to update state machine
/*
if (mod_period_flag) {
mod_period_flag = 0;
tx_state_machine(¤t_state, &pulse_count, IR_address, IR_data_GREEN); //<--- TX CHANGE HERE!!
}
*/
// If RX port senses an edge, store the timer count
if (rx_interrupt_flag) {
rx_interrupt_flag = 0;
rx_handler();
}
}
}
int main(void)
{
LEDS_init(); /* init the LEDs for this board */
IO_init(FAST_IO);
PWM_init(PWM_1|PWM_4); /* P0.0, P0.8 */
PWM_frequency(50); /* 50 Hz PWM output, 20ms */
LEDS_on(LED3);
while(1)
{
if (flashen_button())
{
PWM_pulsewidth_us (PWM_1, 1500); // Center
PWM_pulsewidth_us (PWM_4, 1500); // Center
LEDS_on(LED2);
}
else
{
PWM_pulsewidth_us (PWM_1, 1000); // 45º left
PWM_pulsewidth_us (PWM_4, 2000); // 45º right
LEDS_off(LED2);
}
}
}
int Main()
{
U32 freq=2500;
led_key_init(); //初始化LED和KEY
PWM_init(); //初始化PWM定时器
while(1)
{
if( !(GPGDAT &( 1<<0 )) ){ // K1 PWM值降低
freq =freq+300;
if(freq>5000) freq=2500;
TCMPB0 = freq; //数据手册里说：PWM功能可以通过使用TCMPBn实现。PWM频率由TCNTBn决定。
//这里通过改变TCMPB0来改变PWM的值。
//减小TCMPBn可以提高PWM值。增大TCMPBn可以降低PWM值。
led2_1_on();
} else
if(!(GPGDAT &( 1<<3 )) ){ // K2 PWM值增加
freq =freq-300;
if(freq<1000) freq=2500;
TCMPB0 = freq;
led3_4_on();
} else
if(!(GPGDAT &( 1<<5 )) ){ // K3 关闭蜂鸣器输出
ESC_PWM();
} else
if(!(GPGDAT &( 1<<6 )) ){ // K4 打开蜂鸣器输出
OPEN_PWM();
}
}
return 0;
}
int main(void)
{
CLK_init();
SYS_init();
UART_init();
ADC_init();
PWM_init(); //Initialize PWM (servos not running)
PWM_dutySet(500, 200);
_bis_SR_register(LPM0_bits + GIE); // interrupts enabled
while(1)
{
//_ldrL_ADCVal = _readADC(INCH_4); //Read ADC input on P2.1
//_ldrR_ADCVal = _readADC(INCH_5); //Read ADC input on P2.2
UART_puts((char *)"\n\r");
UART_puts((char *)"_ldrL_ADCVal: ");
UART_outdec(_ldrL_ADCVal, 0);
UART_puts((char *)"\n\r");
UART_puts((char *)"_ldrR_ADCVal: ");
UART_outdec(_ldrR_ADCVal, 0);
_delay_cycles(125000);
P1OUT ^= (BIT0 + BIT6);
}
}
void main(void) {
OS_Init(); // OS System init
ADC_init(); // Should be done first
PWM_init(); // Beware pwm ports go together with ANALOG in
setPortBIO(0x04); // Set port B in output mode
setPortDIO(0x00); // Set port D in output mode
XLCDInit(); // initialize the LCD module
XLCDClear();
// Push een kleine lijst
//push(2);
//push(1);
//push(3);
OS_Task_Create(0, Task_Server); // BT Connection
OS_Task_Create(1, Task_Hartbeat); // Show I am alive (called by scheduler)//
OS_Task_Create(1, Task_Run); // Run me through the maze (called by scheduler)//
OS_Task_Create(2, Task_Display); // be called by scheduler
OS_Run(); // Run scheduler
}
/*********************************************************************
* @fn SimpleBLEPeripheral_ProcessEvent
*
* @brief Simple BLE Peripheral Application Task event processor. This function
* is called to process all events for the task. Events
* include timers, messages and any other user defined events.
*
* @param task_id - The OSAL assigned task ID.
* @param events - events to process. This is a bit map and can
* contain more than one event.
*
* @return events not processed
*/
uint16 SimpleBLEPeripheral_ProcessEvent( uint8 task_id, uint16 events )
{
//tasksArr[] ÊÇ11¸öTaskµÄ×îºóÒ»¸ö£¬ÓÉOSAL ϵͳ½øÐе÷¶È¡£ÓÐʱ¼äÀ´ÁË£¬Óø÷½·¨´¦Àí¡£³õʼ»¯OSAL_SimpleBLEperipheal
VOID task_id; // OSAL required parameter that isn't used in this function
if ( events & SYS_EVENT_MSG )
{
uint8 *pMsg;
if ( (pMsg = osal_msg_receive( simpleBLEPeripheral_TaskID )) != NULL )
{
simpleBLEPeripheral_ProcessOSALMsg( (osal_event_hdr_t *)pMsg );
// Release the OSAL message
VOID osal_msg_deallocate( pMsg );
}
// return unprocessed events
return (events ^ SYS_EVENT_MSG);
}
if ( events & SBP_START_DEVICE_EVT )
{
// Start the Device Õâ¸öÊÇÉ豸ÓÐ״̬±ä»¯²Å»áµ÷ÓõĻص÷º¯Êý
VOID GAPRole_StartDevice( &simpleBLEPeripheral_PeripheralCBs );
// Start Bond Manager
VOID GAPBondMgr_Register( &simpleBLEPeripheral_BondMgrCBs );
// Set timer for first periodic event
//init LED
PWM_init();
init_QI_Switch(1);
//dataChange(1,0);
//osal_start_timerEx( simpleBLEPeripheral_TaskID, SBP_PERIODIC_EVT, SBP_PERIODIC_EVT_PERIOD );
//LedChange();
return ( events ^ SBP_START_DEVICE_EVT );
}
if ( events & SBP_PERIODIC_EVT )
{
//osal_start_timerEx( simpleBLEPeripheral_TaskID, SBP_PERIODIC_EVT, SBP_PERIODIC_EVT_PERIOD );
//Ö´ÐеƹâchangeµÄº¯Êý
if(P1_1 == 1){
//HalLcdWriteString("HEIGH",HAL_LCD_LINE_4);
}else{
//HalLcdWriteString("LOW",HAL_LCD_LINE_4);
}
LedChange();
return (events ^ SBP_PERIODIC_EVT);
}
// Discard unknown events
return 0;
}
void initialize_hardware(){
sysclock_init();
LPC_MRT->Channel[0].CTRL=(1u<<1); //multi-rate timer canal 0 en mode 'one-shot interrupt'
assign_pins(); // assignation des périphériques aux broches
//LPC_SYSCON->IRQLATENCY=40;
NVIC_SetPriority(SCT_IRQn,0); // plus haute priorité d'interruption
NVIC_SetPriority(MRT_IRQn,3); // plus basse priorité
PWM_init();
SPI0_init();
}//f()
/**
* @brief Main program.
* @param None
* @retval None
*/
int main(void)
{
RCC_ClocksTypeDef RCC_Clocks;
/* SysTick end of count event each 10ms */
RCC_GetClocksFreq(&RCC_Clocks);
SysTick_Config(RCC_Clocks.HCLK_Frequency / 100);
/********************输出 初始化 ******************/
PWM_init();
STM324xG_LCD_Init();
LCD_Clear(BLACK);/* Clear the LCD */
LCD_SetBackColor(BLACK);/* Set the LCD Back Color */
LCD_SetTextColor(WHITE);/* Set the LCD Text Color */
LCD_DisplayStringLine(LINE(0), " Hello jaja. I'm xiaohei01");
/********************输入 初始化 ******************/
NVIC_PriorityGroupConfig(NVIC_PriorityGroup_3);/*!< 3 bits for pre-emption priority 1 bits for subpriority */
Encoder_init(); //encoder tim8
usart_init();//通信COM usart2 115200
IMU_init();
if (get_mode()==1)
{
IMU_BE10();
}
KEY_init();
AD_Init();
GPS_int();
TIM2_Configuration();
printf("uart init OK 2 \r\n");
while(1)
{
if(LCD_flag)
{
LCD_flag=0;
lcd_refresh();
}
}
}
int main(void)
{
ADC_Config();
PID_init();
PWM_init(405);
sei();
while(1)
{
//TODO:: Please write your application code
}
cli();
}
int main()
{
#if defined(PIC32_PINGUINO) || defined(PIC32_PINGUINO_OTG)
TRISDbits.TRISD9=1; // because PORTB is shared with SDA on Olimex board
TRISDbits.TRISD10=1; // because PORTB is shared with SCL on Olimex board
#endif
SystemConfig(80000000); // default clock frequency is 80Mhz
// default peripheral freq. is 40MHz (cf. system.c)
// All pins of PORTB as digital IOs
#ifdef __32MX220F032D__
ANSELA = 0;
ANSELB = 0;
ANSELC = 0;
#else
AD1PCFG = 0xFFFF;
#endif
#ifdef __ANALOG__
analog_init();
#endif
#ifdef __MILLIS__
millis_init();
#endif
#ifdef __PWM__
PWM_init();
#endif
#ifdef __USBCDC
CDC_init();
#endif
#ifdef __RTCC__
RTCC_init();
#endif
setup();
while (1)
{
#ifdef __USBCDC
CDCTxService();
#endif
loop();
}
return(0);
}
inline void setup_handles(void){
myClk = CLK_init((void *)CLK_BASE_ADDR, sizeof(CLK_Obj));
myPll = PLL_init((void *)PLL_BASE_ADDR, sizeof(PLL_Obj));
myWDog = WDOG_init((void *)WDOG_BASE_ADDR, sizeof(WDOG_Obj));
myCpu = CPU_init((void *)NULL, sizeof(CPU_Obj));
myFlash = FLASH_init((void *)FLASH_BASE_ADDR, sizeof(FLASH_Obj));
myGpio = GPIO_init((void *)GPIO_BASE_ADDR, sizeof(GPIO_Obj));
myPie = PIE_init((void *)PIE_BASE_ADDR, sizeof(PIE_Obj));
mySci = SCI_init((void *)SCIA_BASE_ADDR, sizeof(SCI_Obj));
myAdc = ADC_init((void *)ADC_BASE_ADDR, sizeof(ADC_Obj));
myPwm1 = PWM_init((void *)PWM_ePWM1_BASE_ADDR, sizeof(PWM_Obj));
}
int main()
{
// default peripheral freq. is CPUCoreFrequency / 2 (cf. system.c)
#if defined(__32MX220F032D__)||defined(__32MX250F128B__)||defined(__32MX220F032B__)
SystemConfig(40000000); // default clock frequency is 40Mhz
#else
SystemConfig(80000000); // default clock frequency is 80Mhz
#endif
IOsetSpecial();
IOsetDigital();
IOsetRemap();
#ifdef __ANALOG__
analog_init();
#endif
#ifdef __MILLIS__
millis_init();
#endif
#ifdef __PWM__
PWM_init();
#endif
#ifdef __USBCDC
CDC_init();
#endif
#ifdef __RTCC__
RTCC_init();
#endif
setup();
while (1)
{
#ifdef __USBCDC
#if defined(__32MX220F032D__)||defined(__32MX250F128B__)||defined(__32MX220F032B__)
USB_Service( );
#else
CDCTxService();
#endif
#endif
loop();
}
return(0);
}
int main(void)
{
GPIO_init();
Timer_init();
PWM_init();
ADC_init();
NVIC_init();
// infinite loop
while (1)
{
}
}
/*
* ======== EK_TM4C123GXL_initPWM ========
*/
void EK_TM4C123GXL_initPWM(void) {
/* Enable PWM peripherals */
SysCtlPeripheralEnable(SYSCTL_PERIPH_PWM1);
/*
* Enable PWM output on GPIO pins. Board_LED1 and Board_LED2 are now
* controlled by PWM peripheral - Do not use GPIO APIs.
*/
GPIOPinConfigure(GPIO_PF2_M1PWM6);
GPIOPinConfigure(GPIO_PF3_M1PWM7);
GPIOPinTypePWM(GPIO_PORTF_BASE, GPIO_PIN_2 | GPIO_PIN_3);
PWM_init();
}
int main(void)
{
init_gpio();
init_timer_A();
PWM_init();
PWM0->_2_LOAD = 4999;
//PWM0->_2_CMPA = 4846;
while(1)
{
sweep_counter_clockwise();
sweep_clockwise();
}
}
int main(void){
uint16_t v0,v1,v2;
double t0,t1,t2;
char t_chr[7];
memset(t_chr, '\0', sizeof(t_chr));
USART_init(MYUBRR);
/* Remove garbage from serial terminal */
USART_transmit('\r');
ADC_init();
PWM_init();
while(1){
v0 = ADC_read(0); /* read from ADC0 */
v1 = ADC_read(1); /* read from ADC0 */
v2 = ADC_read(2); /* read from ADC0 */
t0 = v0 / 4;
t1 = v1 / 4;
t2 = v2 / 4;
dtostrf(t0, 5, 1, t_chr);
USART_write("0: ");
USART_write(t_chr);
USART_write("\r\n");
dtostrf(t1, 5, 1, t_chr);
USART_write("1: ");
USART_write(t_chr);
USART_write("\r\n");
dtostrf(t2, 5, 1, t_chr);
USART_write("2: ");
USART_write(t_chr);
USART_write("\r\n");
OCR0A = t0;
OCR0B = t1;
OCR2A = t2;
_delay_ms(500);
}
return 1;
}
int main(void)
{
char display_string1[] = "*Hello Amigos. Rolling Banner!*";
char display_string2[] = "+-+-+-+-+";
uint8_t i;
init_gpio(); // Initialize GPIO
init_timer_A(); // Initialize TIMER0->TIMERA as 16-bit, one-shot and counts down
init_timer_B(); // Init TIMER0B as 16-bit, periodic and counts down
nvic_init(); // Init NVIC for TIMER0B
init_pushButton();
// Initialize LCD display
LCD_init();
PWM_init();
for(i=0; display_string1[i] != '\0'; i++)
{
send_data(display_string1[i]);
delay_timer(100);
// Since screen has enough to display 16 chars per line, if going off line, start shifting screen.
if ( i >= 14 )
send_command(0x18);
}
send_command(0x2); // Return cursor home
send_command(0xC0); // Go to line 2
for(i=0; display_string2[i] != '\0'; i++)
{
send_data(display_string2[i]);
delay_timer(100);
// Since screen has enough to display 16 chars per line, if going off line, start shifting screen.
if ( i >= 14 )
send_command(0x18);
}
interrupt_timer(scroll_delay); // Interrupt timer handler scrolls the screen
//send_command(0x18); // Shift display to the right by 1
//send_command(0x8); // Turn display off
//send_command(0xF); // Turn display on, cursor ON, cursor position ON
//GPIOF->DATA |= (1UL << 3); //LED ON
//GPIOF->DATA &= ~(1UL << 3); //LED OFF
while(1)
{}
}
void main_init(void) {
OSC_init();
TRISA = 0b11100111; // SWB,SWG,SWR,Vcap,x,ADCB,ADCG,ADCR
TRISB = 0b00000000; // PGD,PGC,x,PWMW,x,PWMB,PWMG,PWMR
TRISC = 0b10111010; // RX,TX,D+,D-,Vusb,x,T1OSI,T1OSO
ANCON0 = 0b11111000; // AN2,AN1,AN0 is analog
ANCON1 = 0b00011111; // all digital
INTCON2bits.RBPU = 0; // PORTB Pull-Up Enable
timer0_init(8); // ?
timer1_init(0, T1OSC); // ?
timer3_init(2); // button?
RTCC_init();
PWM_init(PR_VALUE); //250 is 3kHz
USB_CDC_init();
}
int main(void) {
wdt_enable(WDTO_2S); /* Enable watchdog timer 2s */
hardwareInit(); /* Initialize hardware (I/O) */
usbInit(); /* Initialize USB stack processing */
Setup_init();
speed_init();
PWM_init();
KeyScan_init();
switch (Setup_key12LED){
case Setup_key12LED_Always:
case Setup_key12LED_OftenOn:
PWM_setOutputLevel(0,PWM_TotalLevel);
PWM_setOutputLevel(1,PWM_TotalLevel);
break;
case Setup_key12LED_Never:
case Setup_key12LED_OftenOff:
PWM_setOutputLevel(0,0);
PWM_setOutputLevel(1,0);
}
sei(); /* Enable global interrupts */
WorkMode_set(WorkMode_Unused);
for(;;){ /* Main loop */
wdt_reset(); /* Reset the watchdog */
usbPoll();
if(KeyScan_keyChanged && usbInterruptIsReady()){
KeyScan_keyChanged = 0;
buildReport();
usbSetInterrupt(reportBuffer, sizeof(reportBuffer));
}else{
if(TIFR0&(1<<TOV0)){
TIFR0 |= 1<<TOV0;
PWM_Generator();
}
}
}
return 0;
}
/*
* ======== MSP_EXP432P401R_initPWM ========
*/
void MSP_EXP432P401R_initPWM(void)
{
/* Use Port Map on Port2 get Timer outputs on pins with LEDs (2.1, 2.2) */
// const uint8_t portMap [] = {
// PM_NONE, PM_TA1CCR1A, PM_TA1CCR2A, PM_NONE,
// PM_NONE, PM_NONE, PM_NONE, PM_NONE
//};
/* Mapping capture compare registers to Port 2 */
//MAP_PMAP_configurePorts((const uint8_t *) portMap, (0x40005000) - (0x0010), 1,
// PMAP_DISABLE_RECONFIGURATION);
/* Enable PWM output on GPIO pins */
MAP_GPIO_setAsPeripheralModuleFunctionOutputPin(GPIO_PORT_P2,
GPIO_PIN1 | GPIO_PIN2, GPIO_PRIMARY_MODULE_FUNCTION);
PWM_init();
}
int main(void)
{
init_gpio();
/* Setup Timers */
init_timer_0A();
init_timer_0B();
// Default to theremin on startup
turn_on_red_LED();
PWM_init();
init_ADC();
init_nvic();
init_pushButton();
while(1)
{}
}
// ***********************************************************
// Main program
//
int main(void) {
DDRD = 0x30; //4-5-pins output
DDRB = 0xFF; //
DDRC = 0xFF; //
// External interrupt adjustments
GICR |= 1 << INT0; //Enable INT0 (PD2)
MCUCR &= ~(1 << ISC01); //The low level of INT0 generates an interrupt request.
MCUCR &= ~(1 << ISC00);
//UART Port speed 115200 for the crystal freq. 7.3MHz
USART_init ();
ADC_init();
PWM_init();
USART_transmit('c');// Change the directory on
USART_transmit('d');//ARM to home. Cannot run
USART_transmit(' ');///home/status STATUS__
USART_transmit('/');//need to cd to /home
USART_transmit('h');
USART_transmit('o');
USART_transmit('m');
USART_transmit('e');
USART_transmit(0x0A);
while(1) {
//Check if the status of controller changed then send via UART otherwise don't send
if (memcmp ((char *)&PREV_AVR_STATUS, (char *)&AVR_STATUS, sizeof (avr_status)) != 0 ) {
send_status();
//after sending the status make the previous status - actual
memcpy ((char *)&PREV_AVR_STATUS, (char *)&AVR_STATUS, sizeof (avr_status));
}
_delay_us(10); // time which regulate the frequency of checking the status
} // Infinite loop
}//int main(void)
int main(void)
{
PWM_init();
CF_init(&alpha, &beta);
PID_init(&pid_x, &pid_y);
Flags_init();
Timer1_init();
Twi_init();
Usart_init();
deviceInit_adc();
deviceInit_rc();
if(!deviceInit() || !Flags_getBit(flags_deviceAdcInitialised) || !Flags_getBit(flags_deviceRcInitialised))
{
_exit();
}
// todo: workaround for slave initialization
deviceInitialize(deviceID_slave, _true);
// todo: workaround for gps initialization
deviceInitialize(deviceID_gps, _true);
//enable interrupts
_enableInterrupts();
while(1);
}
int main(void)
{
uint16_t send_status_timeout = 25;
uint32_t pos;
uint8_t button_state = 0;
uint8_t manual_dim_direction = 0;
// delay 1s to avoid further communication with uart or RFM12 when my programmer resets the MC after 500ms...
_delay_ms(1000);
util_init();
check_eeprom_compatibility(DEVICETYPE_DIMMER);
// read packetcounter, increase by cycle and write back
packetcounter = e2p_generic_get_packetcounter() + PACKET_COUNTER_WRITE_CYCLE;
e2p_generic_set_packetcounter(packetcounter);
// read device id
device_id = e2p_generic_get_deviceid();
// pwm translation table is not used if first byte is 0xFF
use_pwm_translation = (0xFF != eeprom_read_UIntValue8(EEPROM_BRIGHTNESSTRANSLATIONTABLE_BYTE,
EEPROM_BRIGHTNESSTRANSLATIONTABLE_BIT, 8, 0, 0xFF));
// TODO: read (saved) dimmer state from before the eventual powerloss
/*for (i = 0; i < SWITCH_COUNT; i++)
{
uint16_t u16 = eeprom_read_word((uint16_t*)EEPROM_POS_SWITCH_STATE + i * 2);
switch_state[i] = (uint8_t)(u16 & 0b1);
switch_timeout[i] = u16 >> 1;
}*/
// read last received station packetcounter
station_packetcounter = e2p_dimmer_get_basestationpacketcounter();
led_blink(500, 500, 3);
osccal_init();
uart_init();
UART_PUTS ("\r\n");
UART_PUTF4("smarthomatic Dimmer v%u.%u.%u (%08lx)\r\n", VERSION_MAJOR, VERSION_MINOR, VERSION_PATCH, VERSION_HASH);
UART_PUTS("(c) 2013..2014 Uwe Freese, www.smarthomatic.org\r\n");
osccal_info();
UART_PUTF ("DeviceID: %u\r\n", device_id);
UART_PUTF ("PacketCounter: %lu\r\n", packetcounter);
UART_PUTF ("Use PWM translation table: %u\r\n", use_pwm_translation);
UART_PUTF ("Last received base station PacketCounter: %u\r\n\r\n", station_packetcounter);
// init AES key
eeprom_read_block (aes_key, (uint8_t *)EEPROM_AESKEY_BYTE, 32);
rfm12_init();
PWM_init();
io_init();
setPWMDutyCyclePercent(0);
timer0_init();
// DEMO to measure the voltages of different PWM settings to calculate the pwm_lookup table
/*while (42)
{
uint16_t i;
for (i = 0; i <= 1024; i = i + 100)
{
UART_PUTF ("PWM value OCR1A: %u\r\n", i);
OCR1A = i;
led_blink(500, 6500, 1);
}
}*/
// DEMO 0..100..0%, using the pwm_lookup table and the translation table in EEPROM.
/*while (42)
{
float i;
for (i = 0; i <= 100; i = i + 0.05)
{
led_blink(10, 10, 1);
setPWMDutyCycle(i);
}
for (i = 99.95; i > 0; i = i - 0.05)
{
led_blink(10, 10, 1);
setPWMDutyCycle(i);
}
}*/
// set initial switch state
/*for (i = 0; i < SWITCH_COUNT; i++)
{
switchRelais(i, switch_state[i]);
}*/
sei();
// DEMO 30s
/*animation_length = 30;
animation_length = (uint32_t)((float)animation_length * 1000 / ANIMATION_CYCLE_MS);
start_brightness = 0;
end_brightness = 255;
animation_position = 0;*/
while (42)
{
if (rfm12_rx_status() == STATUS_COMPLETE)
{
uint8_t len = rfm12_rx_len();
if ((len == 0) || (len % 16 != 0))
{
UART_PUTF("Received garbage (%u bytes not multiple of 16): ", len);
print_bytearray(bufx, len);
}
else // try to decrypt with all keys stored in EEPROM
{
memcpy(bufx, rfm12_rx_buffer(), len);
UART_PUTS("Before decryption: ");
print_bytearray(bufx, len);
aes256_decrypt_cbc(bufx, len);
UART_PUTS("Decrypted bytes: ");
print_bytearray(bufx, len);
if (!pkg_header_check_crc32(len))
{
UART_PUTS("Received garbage (CRC wrong after decryption).\r\n");
}
else
{
process_packet(len);
}
}
// tell the implementation that the buffer can be reused for the next data.
rfm12_rx_clear();
}
_delay_ms(ANIMATION_UPDATE_MS);
// React on button press.
// - abort animation
// - switch off, when brightness > 0
// - switch on otherwise
if (!(BUTTON_PORT & (1 << BUTTON_PIN))) // button press
{
if (button_state == 0)
{
UART_PUTS("Button pressed\r\n");
animation_length = 0;
animation_position = 0;
}
if (button_state < 5)
{
button_state++;
}
else // manual dimming
{
if (manual_dim_direction) // UP
{
if (current_brightness < 100)
{
current_brightness = (uint8_t)current_brightness / 2 * 2 + 2;
setPWMDutyCyclePercent(current_brightness);
}
else
{
UART_PUTS("manual dimming DOWN\r\n");
manual_dim_direction = 0;
}
}
else // DOWN
{
if (current_brightness > 0)
{
current_brightness = (((uint8_t)current_brightness - 1) / 2) * 2;
setPWMDutyCyclePercent(current_brightness);
}
else
{
UART_PUTS("manual dimming UP\r\n");
manual_dim_direction = 1;
}
}
}
}
else if (button_state && (BUTTON_PORT & (1 << BUTTON_PIN))) // button release
{
UART_PUTS("Button released\r\n");
if (button_state < 5) // short button press
{
if (current_brightness > 0)
{
UART_PUTS(" -> 0%\r\n");
setPWMDutyCyclePercent(0);
}
else
{
UART_PUTS(" -> 100%\r\n");
setPWMDutyCyclePercent(100);
}
}
else
{
// reverse dim direction
manual_dim_direction = !manual_dim_direction;
}
button_state = 0;
}
// update brightness according animation_position, updated by timer0
if (animation_length > 0)
{
pos = animation_position; // copy value to avoid that it changes in between by timer interrupt
UART_PUTF2("%lu/%lu, ", pos, animation_length);
if (pos == animation_length)
{
UART_PUTF("END Brightness %u%%, ", end_brightness);
setPWMDutyCyclePercent((float)end_brightness);
animation_length = 0;
animation_position = 0;
}
else
{
float brightness = (start_brightness + ((float)end_brightness - start_brightness) * pos / animation_length);
UART_PUTF("Br.%u%%, ", (uint32_t)(brightness));
setPWMDutyCyclePercent(brightness);
}
}
// send status from time to time
if (send_status_timeout == 0)
{
send_status_timeout = SEND_STATUS_EVERY_SEC * (1000 / ANIMATION_UPDATE_MS);
send_dimmer_status();
led_blink(200, 0, 1);
}
else if (version_status_cycle >= SEND_VERSION_STATUS_CYCLE)
{
version_status_cycle = 0;
send_version_status();
led_blink(200, 0, 1);
}
rfm12_tick();
send_status_timeout--;
checkSwitchOff();
}
// never called
// aes256_done(&aes_ctx);
}
/*
* ======== Board_initPWM ========
*/
void Board_initPWM(void)
{
PWM_init();
}
void main(void)
{
CPU_Handle myCpu;
PLL_Handle myPll;
WDOG_Handle myWDog;
// Initialize all the handles needed for this application
myClk = CLK_init((void *)CLK_BASE_ADDR, sizeof(CLK_Obj));
myCpu = CPU_init((void *)NULL, sizeof(CPU_Obj));
myFlash = FLASH_init((void *)FLASH_BASE_ADDR, sizeof(FLASH_Obj));
myGpio = GPIO_init((void *)GPIO_BASE_ADDR, sizeof(GPIO_Obj));
myPie = PIE_init((void *)PIE_BASE_ADDR, sizeof(PIE_Obj));
myPll = PLL_init((void *)PLL_BASE_ADDR, sizeof(PLL_Obj));
myPwm1 = PWM_init((void *)PWM_ePWM1_BASE_ADDR, sizeof(PWM_Obj));
myPwm2 = PWM_init((void *)PWM_ePWM2_BASE_ADDR, sizeof(PWM_Obj));
myPwm3 = PWM_init((void *)PWM_ePWM3_BASE_ADDR, sizeof(PWM_Obj));
myPwm4 = PWM_init((void *)PWM_ePWM4_BASE_ADDR, sizeof(PWM_Obj));
myWDog = WDOG_init((void *)WDOG_BASE_ADDR, sizeof(WDOG_Obj));
// Perform basic system initialization
WDOG_disable(myWDog);
CLK_enableAdcClock(myClk);
(*Device_cal)();
CLK_disableAdcClock(myClk);
//Select the internal oscillator 1 as the clock source
CLK_setOscSrc(myClk, CLK_OscSrc_Internal);
// Setup the PLL for x12 /2 which will yield 60Mhz = 10Mhz * 12 / 2
PLL_setup(myPll, PLL_Multiplier_12, PLL_DivideSelect_ClkIn_by_2);
// Disable the PIE and all interrupts
PIE_disable(myPie);
PIE_disableAllInts(myPie);
CPU_disableGlobalInts(myCpu);
CPU_clearIntFlags(myCpu);
// If running from flash copy RAM only functions to RAM
#ifdef _FLASH
memcpy(&RamfuncsRunStart, &RamfuncsLoadStart, (size_t)&RamfuncsLoadSize);
#endif
// Step 1. Initialize System Control:
// PLL, WatchDog, enable Peripheral Clocks
// This example function is found in the f2802x_SysCtrl.c file.
// InitSysCtrl();
// Step 2. Initialize GPIO:
// This example function is found in the f2802x_Gpio.c file and
// illustrates how to set the GPIO to it's default state.
// InitGpio(); // Skipped for this example
// InitEPwmGpio();
// Step 3. Clear all interrupts and initialize PIE vector table:
// Disable CPU interrupts
// DINT;
// Initialize the PIE control registers to their default state.
// The default state is all PIE interrupts disabled and flags
// are cleared.
// This function is found in the f2802x_PieCtrl.c file.
// InitPieCtrl();
// Disable CPU interrupts and clear all CPU interrupt flags:
// IER = 0x0000;
// IFR = 0x0000;
// Initialize the PIE vector table with pointers to the shell Interrupt
// Service Routines (ISR).
// This will populate the entire table, even if the interrupt
// is not used in this example. This is useful for debug purposes.
// The shell ISR routines are found in f2802x_DefaultIsr.c.
// This function is found in f2802x_PieVect.c.
// InitPieVectTable();
// For this case just init GPIO pins for EPwm1, EPwm2, EPwm3, EPwm4
GPIO_setPullUp(myGpio, GPIO_Number_0, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_1, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_0, GPIO_0_Mode_EPWM1A);
GPIO_setMode(myGpio, GPIO_Number_1, GPIO_1_Mode_EPWM1B);
GPIO_setPullUp(myGpio, GPIO_Number_2, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_3, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_2, GPIO_2_Mode_EPWM2A);
GPIO_setMode(myGpio, GPIO_Number_3, GPIO_3_Mode_EPWM2B);
GPIO_setPullUp(myGpio, GPIO_Number_4, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_5, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_4, GPIO_4_Mode_EPWM3A);
GPIO_setMode(myGpio, GPIO_Number_5, GPIO_5_Mode_EPWM3B);
GPIO_setPullUp(myGpio, GPIO_Number_6, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_7, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_6, GPIO_6_Mode_EPWM4A);
GPIO_setMode(myGpio, GPIO_Number_7, GPIO_7_Mode_EPWM4B);
// Setup a debug vector table and enable the PIE
PIE_setDebugIntVectorTable(myPie);
PIE_enable(myPie);
CLK_enablePwmClock(myClk, PWM_Number_1);
CLK_enablePwmClock(myClk, PWM_Number_2);
CLK_enablePwmClock(myClk, PWM_Number_3);
CLK_enablePwmClock(myClk, PWM_Number_4);
CLK_enableHrPwmClock(myClk);
// For this example, only initialize the ePWM
// Step 4. User specific code, enable interrupts:
UpdateFine = 1;
PeriodFine = 0;
status = SFO_INCOMPLETE;
// Calling SFO() updates the HRMSTEP register with calibrated MEP_ScaleFactor.
// HRMSTEP must be populated with a scale factor value prior to enabling
// high resolution period control.
while (status== SFO_INCOMPLETE) // Call until complete
{
status = SFO();
if (status == SFO_ERROR)
{
error(); // SFO function returns 2 if an error occurs & # of MEP steps/coarse step
} // exceeds maximum of 255.
}
// Some useful Period vs Frequency values
// SYSCLKOUT = 60 MHz 40 MHz
// --------------------------------------
// Period Frequency Frequency
// 1000 60 kHz 40 kHz
// 800 75 kHz 50 kHz
// 600 100 kHz 67 kHz
// 500 120 kHz 80 kHz
// 250 240 kHz 160 kHz
// 200 300 kHz 200 kHz
// 100 600 kHz 400 kHz
// 50 1.2 Mhz 800 kHz
// 25 2.4 Mhz 1.6 MHz
// 20 3.0 Mhz 2.0 MHz
// 12 5.0 MHz 3.3 MHz
// 10 6.0 MHz 4.0 MHz
// 9 6.7 MHz 4.4 MHz
// 8 7.5 MHz 5.0 MHz
// 7 8.6 MHz 5.7 MHz
// 6 10.0 MHz 6.6 MHz
// 5 12.0 MHz 8.0 MHz
//====================================================================
// ePWM and HRPWM register initialization
//====================================================================
CLK_disableTbClockSync(myClk);
HRPWM_Config(myPwm1, 30); // ePWMx target
HRPWM_Config(myPwm2, 30); // ePWMx target
HRPWM_Config(myPwm3, 30); // ePWMx target
HRPWM_Config(myPwm4, 30); // ePWMx target
CLK_enableTbClockSync(myClk);
PWM_forceSync(myPwm1);
PWM_forceSync(myPwm2);
PWM_forceSync(myPwm3);
PWM_forceSync(myPwm4);
for(;;)
{
// Sweep PeriodFine as a Q16 number from 0.2 - 0.999
for(PeriodFine = 0x3333; PeriodFine < 0xFFBF; PeriodFine++)
{
if(UpdateFine)
{
/*
// Because auto-conversion is enabled, the desired
// fractional period must be written directly to the
// TBPRDHR (or TBPRDHRM) register in Q16 format
// (lower 8-bits are ignored)
EPwm1Regs.TBPRDHR = PeriodFine;
// The hardware will automatically scale
// the fractional period by the MEP_ScaleFactor
// in the HRMSTEP register (which is updated
// by the SFO calibration software).
// Hardware conversion:
// MEP delay movement = ((TBPRDHR(15:0) >> 8) * HRMSTEP(7:0) + 0x80) >> 8
*/
// for(i=1;i<PWM_CH;i++)
// {
// (*ePWM[i]).TBPRDHR = PeriodFine; //In Q16 format
// }
PWM_setPeriodHr(myPwm1, PeriodFine);
PWM_setPeriodHr(myPwm2, PeriodFine);
PWM_setPeriodHr(myPwm3, PeriodFine);
PWM_setPeriodHr(myPwm4, PeriodFine);
}
else
{
// No high-resolution movement on TBPRDHR.
// for(i=1;i<PWM_CH;i++)
// {
// (*ePWM[i]).TBPRDHR = 0;
// }
PWM_setPeriodHr(myPwm1, 0);
PWM_setPeriodHr(myPwm2, 0);
PWM_setPeriodHr(myPwm3, 0);
PWM_setPeriodHr(myPwm4, 0);
}
// Call the scale factor optimizer lib function SFO()
// periodically to track for any change due to temp/voltage.
// This function generates MEP_ScaleFactor by running the
// MEP calibration module in the HRPWM logic. This scale
// factor can be used for all HRPWM channels. HRMSTEP
// register is automatically updated by the SFO function.
status = SFO(); // in background, MEP calibration module continuously updates MEP_ScaleFactor
if (status == SFO_ERROR) {
error(); // SFO function returns 2 if an error occurs & # of MEP steps/coarse step
} // exceeds maximum of 255.
} // end PeriodFine for loop
} // end infinite for loop
} // end main
void main(void)
{
CPU_Handle myCpu;
PLL_Handle myPll;
WDOG_Handle myWDog;
// Initialize all the handles needed for this application
myClk = CLK_init((void *)CLK_BASE_ADDR, sizeof(CLK_Obj));
myCpu = CPU_init((void *)NULL, sizeof(CPU_Obj));
myFlash = FLASH_init((void *)FLASH_BASE_ADDR, sizeof(FLASH_Obj));
myGpio = GPIO_init((void *)GPIO_BASE_ADDR, sizeof(GPIO_Obj));
myPie = PIE_init((void *)PIE_BASE_ADDR, sizeof(PIE_Obj));
myPll = PLL_init((void *)PLL_BASE_ADDR, sizeof(PLL_Obj));
myPwm1 = PWM_init((void *)PWM_ePWM1_BASE_ADDR, sizeof(PWM_Obj));
myPwm2 = PWM_init((void *)PWM_ePWM2_BASE_ADDR, sizeof(PWM_Obj));
myPwm3 = PWM_init((void *)PWM_ePWM3_BASE_ADDR, sizeof(PWM_Obj));
myPwm4 = PWM_init((void *)PWM_ePWM4_BASE_ADDR, sizeof(PWM_Obj));
myWDog = WDOG_init((void *)WDOG_BASE_ADDR, sizeof(WDOG_Obj));
// Perform basic system initialization
WDOG_disable(myWDog);
CLK_enableAdcClock(myClk);
(*Device_cal)();
CLK_disableAdcClock(myClk);
//Select the internal oscillator 1 as the clock source
CLK_setOscSrc(myClk, CLK_OscSrc_Internal);
// Setup the PLL for x12 /2 which will yield 60Mhz = 10Mhz * 12 / 2
PLL_setup(myPll, PLL_Multiplier_12, PLL_DivideSelect_ClkIn_by_2);
// Disable the PIE and all interrupts
PIE_disable(myPie);
PIE_disableAllInts(myPie);
CPU_disableGlobalInts(myCpu);
CPU_clearIntFlags(myCpu);
// If running from flash copy RAM only functions to RAM
#ifdef _FLASH
memcpy(&RamfuncsRunStart, &RamfuncsLoadStart, (size_t)&RamfuncsLoadSize);
#endif
// Step 1. Initialize System Control:
// PLL, WatchDog, enable Peripheral Clocks
// This example function is found in the f2802x_SysCtrl.c file.
// InitSysCtrl();
// Step 2. Initialize GPIO:
// This example function is found in the f2802x_Gpio.c file and
// illustrates how to set the GPIO to it's default state.
// InitGpio(); // Skipped for this example
// InitEPwmGpio();
// Step 3. Clear all interrupts and initialize PIE vector table:
// Disable CPU interrupts
// DINT;
// Initialize the PIE control registers to their default state.
// The default state is all PIE interrupts disabled and flags
// are cleared.
// This function is found in the f2802x_PieCtrl.c file.
// InitPieCtrl();
// Disable CPU interrupts and clear all CPU interrupt flags:
// IER = 0x0000;
// IFR = 0x0000;
// Initialize the PIE vector table with pointers to the shell Interrupt
// Service Routines (ISR).
// This will populate the entire table, even if the interrupt
// is not used in this example. This is useful for debug purposes.
// The shell ISR routines are found in f2802x_DefaultIsr.c.
// This function is found in f2802x_PieVect.c.
// InitPieVectTable();
// For this case just init GPIO pins for EPwm1, EPwm2, EPwm3, EPwm4
GPIO_setPullUp(myGpio, GPIO_Number_0, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_1, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_0, GPIO_0_Mode_EPWM1A);
GPIO_setMode(myGpio, GPIO_Number_1, GPIO_1_Mode_EPWM1B);
GPIO_setPullUp(myGpio, GPIO_Number_2, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_3, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_2, GPIO_2_Mode_EPWM2A);
GPIO_setMode(myGpio, GPIO_Number_3, GPIO_3_Mode_EPWM2B);
GPIO_setPullUp(myGpio, GPIO_Number_4, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_5, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_4, GPIO_4_Mode_EPWM3A);
GPIO_setMode(myGpio, GPIO_Number_5, GPIO_5_Mode_EPWM3B);
GPIO_setPullUp(myGpio, GPIO_Number_6, GPIO_PullUp_Disable);
GPIO_setPullUp(myGpio, GPIO_Number_7, GPIO_PullUp_Disable);
GPIO_setMode(myGpio, GPIO_Number_6, GPIO_6_Mode_EPWM4A);
GPIO_setMode(myGpio, GPIO_Number_7, GPIO_7_Mode_EPWM4B);
// Setup a debug vector table and enable the PIE
PIE_setDebugIntVectorTable(myPie);
PIE_enable(myPie);
// Step 4. Initialize the Device Peripherals:
CLK_enablePwmClock(myClk, PWM_Number_1);
CLK_enablePwmClock(myClk, PWM_Number_2);
CLK_enablePwmClock(myClk, PWM_Number_3);
CLK_enablePwmClock(myClk, PWM_Number_4);
CLK_enableHrPwmClock(myClk);
// For this example, only initialize the ePWM
// Step 5. User specific code, enable interrupts:
// Calling SFO() updates the HRMSTEP register with calibrated MEP_ScaleFactor.
// HRMSTEP must be populated with a scale factor value prior to enabling
// high resolution period control.
status = SFO_INCOMPLETE;
while (status== SFO_INCOMPLETE) // Call until complete
{
status = SFO();
if (status == SFO_ERROR)
{
error(); // SFO function returns 2 if an error occurs & # of MEP steps/coarse step
} // exceeds maximum of 255.
}
// Some useful PWM period vs Frequency values
// TBCLK = 60 MHz
//===================
// Period Freq
// 1000 30 KHz
// 800 37.5 KHz
// 600 50 KHz
// 500 60 KHz
// 250 120 KHz
// 200 150 KHz
// 100 300 KHz
// 50 600 KHz
// 30 1 MHz
// 25 1.2 MHz
// 20 1.5 MHz
// 12 2.5 MHz
// 10 3 MHz
// 9 3.3 MHz
// 8 3.8 MHz
// 7 4.3 MHz
// 6 5.0 MHz
// 5 6.0 MHz
//====================================================================
// ePWM and HRPWM register initialization
//====================================================================
Period = 500;
PeriodFine=0xFFBF;
CLK_disableTbClockSync(myClk);
HRPWM_Config(myPwm1, Period, 1);
HRPWM_Config(myPwm2, Period, 0);
HRPWM_Config(myPwm3, Period, 0);
HRPWM_Config(myPwm4, Period, 0);
CLK_enableTbClockSync(myClk);
// Software Control variables
Increment_Freq = 1;
Increment_Freq_Fine = 1;
IsrTicker = 0;
UpdatePeriod = 0;
UpdatePeriodFine = 0;
// User control variables:
UpdateCoarse = 0;
UpdateFine = 1;
// Reassign ISRs.
PIE_registerPieIntHandler(myPie, PIE_GroupNumber_3, PIE_SubGroupNumber_1,
(intVec_t)&MainISR);
// Enable PIE group 3 interrupt 1 for EPWM1_INT
PIE_enableInt(myPie, PIE_GroupNumber_3, PIE_InterruptSource_EPWM1);
// Enable CNT_zero interrupt using EPWM1 Time-base
PWM_setIntMode(myPwm1, PWM_IntMode_CounterEqualZero); // Select INT on Zero event
PWM_enableInt(myPwm1); // Enable INT
PWM_setIntPeriod(myPwm1, PWM_IntPeriod_FirstEvent); // Generate INT on 3rd event
PWM_clearIntFlag(myPwm1);
// Enable CPU INT3 for EPWM1_INT:
CPU_enableInt(myCpu, CPU_IntNumber_3);
// Enable global Interrupts and higher priority real-time debug events:
CPU_enableGlobalInts(myCpu);
CPU_enableDebugInt(myCpu);
PWM_forceSync(myPwm1); // Synchronize high resolution phase to start HR period
for(;;)
{
// The below code controls coarse edge movement
if(UpdateCoarse==1)
{
if(Increment_Freq==1) //Increase frequency to 600 kHz
Period= Period - 1;
else
Period= Period + 1; //Decrease frequency to 300 kHz
if(Period<100 && Increment_Freq==1)
Increment_Freq=0;
else if(Period>500 && Increment_Freq==0)
Increment_Freq=1;
UpdatePeriod=1;
}
// The below code controls high-resolution fine edge movement
if(UpdateFine==1)
{
if(Increment_Freq_Fine==1) // Increase high-resolution frequency
PeriodFine=PeriodFine-1;
else
PeriodFine=PeriodFine+1; // Decrement high-resolution frequency
if(PeriodFine<=0x3333 && Increment_Freq_Fine==1)
Increment_Freq_Fine=0;
else if(PeriodFine>= 0xFFBF && Increment_Freq_Fine==0)
Increment_Freq_Fine=1;
UpdatePeriodFine=1;
}
// Call the scale factor optimizer lib function SFO()
// periodically to track for any change due to temp/voltage.
// This function generates MEP_ScaleFactor by running the
// MEP calibration module in the HRPWM logic. This scale
// factor can be used for all HRPWM channels. HRMSTEP
// register is automatically updated by the SFO function.
status = SFO(); // in background, MEP calibration module continuously updates MEP_ScaleFactor
if (status == SFO_ERROR)
{
error(); // SFO function returns 2 if an error occurs & # of MEP steps/coarse step
} // exceeds maximum of 255.
}
}// end main
int main(void)
{
uint16_t send_status_timeout = 25;
uint32_t station_packetcounter;
uint32_t pos;
uint8_t button_state = 0;
uint8_t manual_dim_direction = 0;
// delay 1s to avoid further communication with uart or RFM12 when my programmer resets the MC after 500ms...
_delay_ms(1000);
util_init();
check_eeprom_compatibility(DEVICE_TYPE_DIMMER);
osccal_init();
// read packetcounter, increase by cycle and write back
packetcounter = eeprom_read_dword((uint32_t*)EEPROM_POS_PACKET_COUNTER) + PACKET_COUNTER_WRITE_CYCLE;
eeprom_write_dword((uint32_t*)EEPROM_POS_PACKET_COUNTER, packetcounter);
// read device id and write to send buffer
device_id = eeprom_read_byte((uint8_t*)EEPROM_POS_DEVICE_ID);
use_pwm_translation = 1; //eeprom_read_byte((uint8_t*)EEPROM_POS_USE_PWM_TRANSLATION);
// TODO: read (saved) dimmer state from before the eventual powerloss
/*for (i = 0; i < SWITCH_COUNT; i++)
{
uint16_t u16 = eeprom_read_word((uint16_t*)EEPROM_POS_SWITCH_STATE + i * 2);
switch_state[i] = (uint8_t)(u16 & 0b1);
switch_timeout[i] = u16 >> 1;
}*/
// read last received station packetcounter
station_packetcounter = eeprom_read_dword((uint32_t*)EEPROM_POS_STATION_PACKET_COUNTER);
led_blink(200, 200, 5);
#ifdef UART_DEBUG
uart_init(false);
UART_PUTS ("\r\n");
UART_PUTS ("smarthomatic Dimmer V1.0 (c) 2013 Uwe Freese, www.smarthomatic.org\r\n");
osccal_info();
UART_PUTF ("Device ID: %u\r\n", device_id);
UART_PUTF ("Packet counter: %lu\r\n", packetcounter);
UART_PUTF ("Use PWM translation table: %u\r\n", use_pwm_translation);
UART_PUTF ("Last received station packet counter: %u\r\n\r\n", station_packetcounter);
#endif
// init AES key
eeprom_read_block (aes_key, (uint8_t *)EEPROM_POS_AES_KEY, 32);
rfm12_init();
PWM_init();
io_init();
setPWMDutyCycle(0);
timer0_init();
// DEMO to measure the voltages of different PWM settings to calculate the pwm_lookup table
/*while (42)
{
uint16_t i;
for (i = 0; i <= 1024; i = i + 100)
{
UART_PUTF ("PWM value OCR1A: %u\r\n", i);
OCR1A = i;
led_blink(500, 6500, 1);
}
}*/
// DEMO 0..100..0%, using the pwm_lookup table and the translation table in EEPROM.
/*while (42)
{
float i;
for (i = 0; i <= 100; i = i + 0.05)
{
led_blink(10, 10, 1);
setPWMDutyCycle(i);
}
for (i = 99.95; i > 0; i = i - 0.05)
{
led_blink(10, 10, 1);
setPWMDutyCycle(i);
}
}*/
// set initial switch state
/*for (i = 0; i < SWITCH_COUNT; i++)
{
switchRelais(i, switch_state[i]);
}*/
sei();
// DEMO 30s
/*animation_length = 30;
animation_length = (uint32_t)((float)animation_length * 1000 / ANIMATION_CYCLE_MS);
start_brightness = 0;
end_brightness = 255;
animation_position = 0;*/
while (42)
{
if (rfm12_rx_status() == STATUS_COMPLETE)
{
uint8_t len = rfm12_rx_len();
if ((len == 0) || (len % 16 != 0))
{
UART_PUTF("Received garbage (%u bytes not multiple of 16): ", len);
printbytearray(bufx, len);
}
else // try to decrypt with all keys stored in EEPROM
{
memcpy(bufx, rfm12_rx_buffer(), len);
//UART_PUTS("Before decryption: ");
//printbytearray(bufx, len);
aes256_decrypt_cbc(bufx, len);
//UART_PUTS("Decrypted bytes: ");
//printbytearray(bufx, len);
uint32_t assumed_crc = getBuf32(len - 4);
uint32_t actual_crc = crc32(bufx, len - 4);
//UART_PUTF("Received CRC32 would be %lx\r\n", assumed_crc);
//UART_PUTF("Re-calculated CRC32 is %lx\r\n", actual_crc);
if (assumed_crc != actual_crc)
{
UART_PUTS("Received garbage (CRC wrong after decryption).\r\n");
}
else
{
//UART_PUTS("CRC correct, AES key found!\r\n");
UART_PUTS(" Received: ");
printbytearray(bufx, len - 4);
// decode command and react
uint8_t sender = bufx[0];
UART_PUTF(" Sender: %u\r\n", sender);
if (sender != 0)
{
UART_PUTF("Packet not from base station. Ignoring (Sender ID was: %u).\r\n", sender);
}
else
{
uint32_t packcnt = getBuf32(1);
UART_PUTF(" Packet Counter: %lu\r\n", packcnt);
// check received counter
if (0) //packcnt <= station_packetcounter)
{
UART_PUTF2("Received packet counter %lu is lower than last received counter %lu. Ignoring packet.\r\n", packcnt, station_packetcounter);
}
else
{
// write received counter
station_packetcounter = packcnt;
eeprom_write_dword((uint32_t*)EEPROM_POS_STATION_PACKET_COUNTER, station_packetcounter);
// check command ID
uint8_t cmd = bufx[5];
UART_PUTF(" Command ID: %u\r\n", cmd);
if (cmd != 141) // ID 141 == Dimmer Request
{
UART_PUTF("Received unknown command ID %u. Ignoring packet.\r\n", cmd);
}
else
{
// check device id
uint8_t rcv_id = bufx[6];
UART_PUTF(" Receiver ID: %u\r\n", rcv_id);
if (rcv_id != device_id)
{
UART_PUTF("Device ID %u does not match. Ignoring packet.\r\n", rcv_id);
}
else
{
// read animation mode and parameters
uint8_t animation_mode = bufx[7] >> 5;
// TODO: Implement support for multiple dimmers (e.g. RGB)
// uint8_t dimmer_bitmask = bufx[7] & 0b111;
animation_length = getBuf16(8);
start_brightness = bufx[10];
end_brightness = bufx[11];
UART_PUTF(" Animation Mode: %u\r\n", animation_mode); // TODO: Set binary mode like 00010110
//UART_PUTF(" Dimmer Bitmask: %u\r\n", dimmer_bitmask);
UART_PUTF(" Animation Time: %us\r\n", animation_length);
UART_PUTF(" Start Brightness: %u\r\n", start_brightness);
UART_PUTF(" End Brightness: %u\r\n", end_brightness);
animation_length = (uint32_t)((float)animation_length * 1000 / ANIMATION_CYCLE_MS);
animation_position = 0;
/* TODO: Write to EEPROM (?)
// write back switch state to EEPROM
switch_state[i] = req_state;
switch_timeout[i] = req_timeout;
eeprom_write_word((uint16_t*)EEPROM_POS_SWITCH_STATE + i * 2, u16);
*/
// send acknowledge
UART_PUTS("Sending ACK:\r\n");
// set device ID (base station has ID 0 by definition)
bufx[0] = device_id;
// update packet counter
packetcounter++;
if (packetcounter % PACKET_COUNTER_WRITE_CYCLE == 0)
{
eeprom_write_dword((uint32_t*)0, packetcounter);
}
setBuf32(1, packetcounter);
// set command ID "Generic Acknowledge"
bufx[5] = 1;
// set sender ID of request
bufx[6] = sender;
// set Packet counter of request
setBuf32(7, station_packetcounter);
// zero unused bytes
bufx[11] = 0;
// set CRC32
uint32_t crc = crc32(bufx, 12);
setBuf32(12, crc);
// show info
UART_PUTF(" CRC32: %lx\r\n", crc);
uart_putstr(" Unencrypted: ");
printbytearray(bufx, 16);
rfm12_sendbuf();
UART_PUTS(" Send encrypted: ");
printbytearray(bufx, 16);
UART_PUTS("\r\n");
rfm12_tick();
led_blink(200, 0, 1);
send_status_timeout = 25;
}
}
}
}
}
}
// tell the implementation that the buffer can be reused for the next data.
rfm12_rx_clear();
}
_delay_ms(ANIMATION_UPDATE_MS);
// React on button press.
// - abort animation
// - switch off, when brightness > 0
// - switch on otherwise
if (!(BUTTON_PORT & (1 << BUTTON_PIN))) // button press
{
if (button_state == 0)
{
UART_PUTS("Button pressed\r\n");
animation_length = 0;
animation_position = 0;
}
if (button_state < 5)
{
button_state++;
}
else // manual dimming
{
if (manual_dim_direction) // UP
{
if (current_brightness < 100)
{
current_brightness = (uint8_t)current_brightness / 2 * 2 + 2;
setPWMDutyCycle(current_brightness);
}
else
{
UART_PUTS("manual dimming DOWN\r\n");
manual_dim_direction = 0;
}
}
else // DOWN
{
if (current_brightness > 0)
{
current_brightness = (((uint8_t)current_brightness - 1) / 2) * 2;
setPWMDutyCycle(current_brightness);
}
else
{
UART_PUTS("manual dimming UP\r\n");
manual_dim_direction = 1;
}
}
}
}
else if (button_state && (BUTTON_PORT & (1 << BUTTON_PIN))) // button release
{
UART_PUTS("Button released\r\n");
if (button_state < 5) // short button press
{
if (current_brightness > 0)
{
UART_PUTS(" -> 0%\r\n");
setPWMDutyCycle(0);
}
else
{
UART_PUTS(" -> 100%\r\n");
setPWMDutyCycle(100);
}
}
else
{
// reverse dim direction
manual_dim_direction = !manual_dim_direction;
}
button_state = 0;
}
// update brightness according animation_position, updated by timer0
if (animation_length > 0)
{
pos = animation_position; // copy value to avoid that it changes in between by timer interrupt
UART_PUTF2("%lu/%lu, ", pos, animation_length);
if (pos == animation_length)
{
UART_PUTF("END Brightness %u%%, ", end_brightness * 100 / 255);
setPWMDutyCycle((float)end_brightness * 100 / 255);
animation_length = 0;
animation_position = 0;
}
else
{
float brightness = (start_brightness + ((float)end_brightness - start_brightness) * pos / animation_length) * 100 / 255;
UART_PUTF("Br.%u%%, ", (uint32_t)(brightness));
setPWMDutyCycle(brightness);
}
}
// send status from time to time
if (send_status_timeout == 0)
{
send_status_timeout = SEND_STATUS_EVERY_SEC * (1000 / ANIMATION_UPDATE_MS);
send_dimmer_status();
led_blink(200, 0, 1);
}
rfm12_tick();
send_status_timeout--;
checkSwitchOff();
}