/**************************************************************************//**
* @brief Button Handler
* Shared by GPIO Even and GPIO Odd interrupt handlers
*****************************************************************************/
void button_handler()
{
uint32_t interrupt_source = GPIO_IntGet();
/* Both buttons were pushed - toggle the timer */
if (pb1_is_pushed && pb0_is_pushed)
{
toggleTimer = true;
}
if (toggleTimer)
{
/* Wait for both buttons to be released */
if (!pb1_is_pushed && !pb0_is_pushed)
{
if (enableTimer)
{
SegmentLCD_Write("STOP");
time = old_time;
SegmentLCD_Number(time);
/* Disable RTC */
RTC_Enable(false);
}
else
{
SegmentLCD_Write("START");
old_time = time;
/* Enable RTC */
RTC_Enable(true);
}
enableTimer = !enableTimer;
toggleTimer = false;
return;
}
}
else
{
/* If only Push Button 0 was pressed - decrease the time */
if (!pb0_is_pushed && interrupt_source & 1 << PB0_PIN)
{
if (time > 0)
time--;
SegmentLCD_Number(time);
}
/* If only Push Button 1 was pressed - increase the time */
else if (!pb1_is_pushed && interrupt_source & 1 << PB1_PIN)
{
if (time < 9999)
time++;
SegmentLCD_Number(time);
}
}
}
/**************************************************************************//**
* @brief Cap sense values demo
*****************************************************************************/
void capSenseValues(void)
{
char msg[8];
uint8_t channel;
switch (subMode)
{
case(0):
snprintf(msg, 7, "Pad 0");
channel = CAPLESENSE_getSegmentChannel(0);
break;
case(1):
snprintf(msg, 7, "Pad 1");
channel = CAPLESENSE_getSegmentChannel(1);
break;
case(2):
snprintf(msg, 7, "Pad 2");
channel = CAPLESENSE_getSegmentChannel(2);
break;
case(3):
snprintf(msg, 7, "Pad 3");
channel = CAPLESENSE_getSegmentChannel(3);
break;
default:
snprintf(msg, 7, "Pad 0");
channel = CAPLESENSE_getSegmentChannel(0);
break;
}
SegmentLCD_Write(msg);
SegmentLCD_Number(CAPLESENSE_getNormalizedVal(channel));
}
/******************************************************************************
* @brief Main function
* The main file starts a timer and uses PRS to trigger an ADC conversion.
* It waits in EM1 until the ADC conversion is complete, then prints the
* result on the lcd.
*****************************************************************************/
int main(void)
{
/* Initialize chip */
CHIP_Init();
SegmentLCD_Init(false);
/* Enable clocks required */
CMU_ClockEnable(cmuClock_ADC0, true);
CMU_ClockEnable(cmuClock_PRS, true);
CMU_ClockEnable(cmuClock_TIMER0, true);
/* Select TIMER0 as source and TIMER0OF (Timer0 overflow) as signal (rising edge) */
PRS_SourceSignalSet(0, PRS_CH_CTRL_SOURCESEL_TIMER0, PRS_CH_CTRL_SIGSEL_TIMER0OF, prsEdgePos);
ADCConfig();
TimerConfig();
/* Stay in this loop forever */
while (1)
{
/* Enter EM1 and wait for timer triggered adc conversion */
EMU_EnterEM1();
/* Write result to LCD */
SegmentLCD_Number(adcResult);
/* Do other stuff */
int i;
for (i = 0; i < 10000; i++) ;
}
}
/**************************************************************************//**
* @brief LCD Blink Test
*****************************************************************************/
void BlinkTest(void)
{
SegmentLCD_EnergyMode(0, 1);
SegmentLCD_EnergyMode(1, 1);
SegmentLCD_EnergyMode(2, 1);
SegmentLCD_EnergyMode(3, 1);
SegmentLCD_EnergyMode(4, 1);
/* 2 minutes to midnight */
SegmentLCD_Number(2358);
SegmentLCD_Symbol(LCD_SYMBOL_COL10, 1);
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, 1);
SegmentLCD_Symbol(LCD_SYMBOL_EFM32, 1);
SegmentLCD_Write(" EFM32 ");
LCD->BACTRL |= LCD_BACTRL_BLINKEN;
while (LCD->SYNCBUSY) ;
EM2Sleep(2000);
SegmentLCD_EnergyMode(4, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(3, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(2, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(1, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(0, 0);
LCD->BACTRL &= ~LCD_BACTRL_BLINKEN;
while (LCD->SYNCBUSY) ;
}
/**************************************************************************//**
* @brief LESENSE_IRQHandler
* Interrupt Service Routine for LESENSE Interrupt Line
*****************************************************************************/
void LESENSE_IRQHandler(void)
{
/* Read interrupts flags */
uint32_t intFlags = LESENSE_IntGet();
/* Clear interrupts */
LESENSE_IntClear(LESENSE_IFC_DEC | LESENSE_IFC_DECERR);
/* Enable clock for LCD. */
CMU_ClockEnable(cmuClock_LCD, true);
/* Wait until SYNCBUSY_CTRL flag is cleared. */
LCD_SyncBusyDelay(LCD_SYNCBUSY_CTRL);
/* Enable LCD. */
LCD_Enable(true);
/* If there is a decoder error stop trap execution in this loop */
if (intFlags & LESENSE_IF_DECERR)
{
/* DECODER ERROR */
SegmentLCD_Write(LCSENSE_ERROR_STRING);
while (1) ;
}
/* Write PCNT counter number the LCD */
SegmentLCD_Number(PCNT_CounterGet(PCNT0));
/* Disable RTC first to reset counter */
RTC_Enable(false);
/* Set compare value */
RTC_CompareSet(0, RTC_COMP_VALUE);
/* Enable RTC */
RTC_Enable(true);
}
void lcd_write_number(int value)
{
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 0);
SegmentLCD_Symbol(LCD_SYMBOL_DEGC, 0);
SegmentLCD_Symbol(LCD_SYMBOL_DEGF, 0);
SegmentLCD_Number(value);
}
/**************************************************************************//**
* @brief LESENSE_IRQHandler
* Interrupt Service Routine for LESENSE Interrupt Line
*****************************************************************************/
void LESENSE_IRQHandler(void)
{
/* Clear interrupt flag */
LESENSE_IntClear(LESENSE_IFS_DEC);
SegmentLCD_Number(++proximityCounter);
}
/**************************************************************************//**
* @brief Cap sense values demo
*****************************************************************************/
void capSenseBars(void)
{
int barNum;
int sliderPos;
const char bars[3] = {'{', '!', '1' };
char msg[8];
sliderPos = CAPLESENSE_getSliderPosition();
SegmentLCD_Number(sliderPos);
if (sliderPos == -1)
{
SegmentLCD_Write("SLIDER");
}
else
{
/* Clear the msg string */
snprintf(msg, 7, " ");
/* There are 21 possible "bars" on the display, while there are 48 slider
* positions. This maps these 48 into 21 slider positions. */
barNum = (sliderPos * 21) / 48;
msg[barNum / 3] = bars[barNum %3];
SegmentLCD_Write(msg);
}
}
/**************************************************************************//**
* @brief Update clock and wait in EM2 for RTC tick.
*****************************************************************************/
void clockLoop(void)
{
LCD_FrameCountInit_TypeDef frameInit;
LCD_AnimInit_TypeDef animInit;
/* Write Gecko and display, and light up the colon between hours and minutes. */
SegmentLCD_Symbol(LCD_SYMBOL_COL10, 1);
SegmentLCD_Write("Wonder");
/* Setup frame counter */
frameInit.enable = true; /* Enable framecounter */
frameInit.top = 15; /* Generate event every 15 frames. */
frameInit.prescale = lcdFCPrescDiv1; /* No prescaling */
LCD_FrameCountInit(&frameInit);
/* Animate half ring - by special board design it is possible to achieve */
/* "slide in/slide out" effect */
animInit.enable = true; /* Enable animation after initialization. */
animInit.AReg = 0x00; /* Initial A register value */
animInit.BReg = 0x0F; /* Initial B register value */
animInit.AShift = lcdAnimShiftLeft; /* Shift A register left */
animInit.BShift = lcdAnimShiftLeft; /* Shift B register left */
animInit.animLogic = lcdAnimLogicOr; /* Enable segment if A or B */
animInit.startSeg = 8; /* Initial animation segment */
LCD_AnimInit(&animInit);
while (1)
{
checkVoltage();
SegmentLCD_Number(hours * 100 + minutes);
EMU_EnterEM2(true);
}
}
/**************************************************************************//**
* @brief LCD Blink Test
*****************************************************************************/
void BlinkTest(void)
{
SegmentLCD_EnergyMode(0, 1);
SegmentLCD_EnergyMode(1, 1);
SegmentLCD_EnergyMode(2, 1);
SegmentLCD_EnergyMode(3, 1);
SegmentLCD_EnergyMode(4, 1);
/* 2 minutes to midnight */
SegmentLCD_Number(2358);
SegmentLCD_Symbol(LCD_SYMBOL_COL10, 1);
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, 1);
SegmentLCD_Symbol(LCD_SYMBOL_EFM32, 1);
SegmentLCD_Write(" EFM32 ");
LCD_BlinkEnable(true);
LCD_SyncBusyDelay(0xFFFFFFFF) ;
EM2Sleep(2000);
SegmentLCD_EnergyMode(4, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(3, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(2, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(1, 0);
EM2Sleep(62);
SegmentLCD_EnergyMode(0, 0);
LCD_BlinkEnable(false);
LCD_SyncBusyDelay(0xFFFFFFFF);
}
// Function used to update the display
// No bounds checking.
void display_time(const uint16_t set_hours, const uint16_t set_minutes)
{
display_hours = set_hours;
display_minutes = set_minutes;
SegmentLCD_Number(display_hours * 100 + display_minutes);
}
/**************************************************************************//**
* @brief Real Time Counter Interrupt Handler
*****************************************************************************/
void RTC_IRQHandler(void)
{
/* Clear interrupt source */
RTC_IntClear(RTC_IFC_COMP0);
time--;
SegmentLCD_Number(time);
if (time == 0)
{
SegmentLCD_Write("DONE");
time = old_time;
/* Disable RTC */
RTC_Enable(false);
enableTimer = false;
}
SegmentLCD_Number(time);
}
/******************************************************************************
* @brief Main function
*****************************************************************************/
int main(void)
{
/* Initialize chip */
CHIP_Init();
/* Enable code view */
setupSWO();
/* Initialize LCD */
SegmentLCD_Init(false);
/* Enable the HFPER clock */
CMU_ClockEnable(cmuClock_HFPER, true);
/* Configure RTC and GPIO */
rtc_setup();
gpio_setup();
/* Stay in this loop forever */
while (1)
{
/* Wait for Push Button 1 to be pressed */
while (GPIO_PinInGet(PB0_PORT, PB0_PIN)) ;
/* and released, so that we do not exit the while loop below immediately */
while (!GPIO_PinInGet(PB0_PORT, PB0_PIN)) ;
/* Reset time */
time = 0;
/* Disable LCD */
LCD_Enable(true);
/* Update time until Push Button 1 is pressed again */
while (1)
{
if (RTC_CounterGet() == 0)
{
SegmentLCD_Number(++time);
}
if (!GPIO_PinInGet(PB0_PORT, PB0_PIN))
break;
}
/* Delay while showing the result on the LCD */
for (uint32_t delay = 0; delay < 30; delay++)
{
/* Wait for the RTC to overflow once */
while (RTC_CounterGet() != 0) ;
while (RTC_CounterGet() == 0) ;
}
/* Disable LCD */
LCD_Enable(false);
}
}
void lcd_write_temperature(int temperature, bool celcius)
{
SegmentLCD_Number(temperature);
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 1);
if (celcius)
SegmentLCD_Symbol(LCD_SYMBOL_DEGC, 1);
else
SegmentLCD_Symbol(LCD_SYMBOL_DEGF, 1);
}
/**************************************************************************//**
* @brief GPIO Interrupt handler (PB9)
* Saves the number to the userpage
*****************************************************************************/
void GPIO_ODD_IRQHandler(void)
{
/* Acknowledge interrupt */
GPIO_IntClear(1 << 9);
/* Increase data - Wrap at 10000 */
userData.number = (userData.number + 1) % 10000;
/* Update the display */
SegmentLCD_Number(userData.number);
}
/**************************************************************************//**
* @brief GPIO Interrupt Handler
*****************************************************************************/
void GPIO_IRQHandler_2(void)
{
/* Get the interrupt source, either Push Button 2 (pin B11) or pin D3 */
uint32_t interrupt_source = GPIO_IntGet();
/* Push Button 2 (pin B11) */
if (interrupt_source & (1 << PB1_PIN))
{
GPIO_IntClear(1 << PB1_PIN);
SegmentLCD_Write("Clear");
time = 0;
enableCount = false;
SegmentLCD_Number(time);
}
/* Pin D3 - channel 3 => 2^3 */
if (interrupt_source & (1 << 3))
{
/* Operations can be made atomic, i.e. it cannot be interrupted by
* interrupts with higher priorities, by disabling iterrupts. Uncomment
* __disable_irq(); and __enable_irq(); to see how the update of the time
* is delayed by the dummy loop below.*/
/* __disable_irq(); */
/* Toggle enableGecko */
if (enableGecko)
enableGecko = false;
else
enableGecko = true;
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, enableGecko);
/* This dummy loop is intended to illustrate the different levels of
* priority. The timer will continue to update the LCD display, but
* interrupts produced by Push Button 1 and 2 will not be served until
* after this function has finished. */
for (uint32_t tmp = 0; tmp < 2000000; tmp++) ;
GPIO_IntClear(1 << 3);
/* Enable interrupts again */
/* __enable_irq(); */
}
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
/* Initialize chip */
CHIP_Init();
SegmentLCD_Init(true);
initRTC();
initGPIO();
/* Initial LCD content */
SegmentLCD_Number(time);
while (1)
{
/* Go to EM2 */
EMU_EnterEM2(true);
/* Wait for interrupts */
}
}
/**************************************************************************//**
* @brief TIMER0 Interrupt Handler. Writes interrupt count to LCD display
*****************************************************************************/
void TIMER0_IRQHandler(void)
{
/* Clear TIMER0 OF interrupt flag. */
/* Do not need to check other flags since we know this is the only one enabled */
TIMER_IntClear(TIMER0, TIMER_IFC_OF);
/* Increment interrupt count and write to LCD */
interruptCount++;
SegmentLCD_Number(interruptCount);
/* Wait until interrupt has been serviced 5 times */
if (interruptCount >= 5)
{
/* Clear SLEEPONEXIT to go back to main after ISR */
SCB->SCR &= ~SCB_SCR_SLEEPONEXIT_Msk;
/* Stop TIMER0 */
TIMER0->CMD = TIMER_CMD_STOP;
}
}
/**************************************************************************//**
* @brief ScrollText demo
*****************************************************************************/
void capSenseScrollText(void)
{
char msg[10];
int sliderPos;
static int oldSliderPos = -2;
int offset;
sliderPos = CAPLESENSE_getSliderPosition();
if (oldSliderPos != sliderPos)
{
oldSliderPos = sliderPos;
SegmentLCD_Number(sliderPos);
if (sliderPos == -1)
sliderPos = 0;
offset = ((strlen(message) - 7) * sliderPos) / 48;
snprintf(msg, 8, "%s", message + offset);
SegmentLCD_Write(msg);
}
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
/* Chip errata */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
/* Initialize LCD controller without boost */
SegmentLCD_Init(false);
/* Disable all segments */
SegmentLCD_AllOff();
/* Copy contents of the userpage (flash) into the userData struct */
memcpy((void *) &userData, (void *) USERPAGE, sizeof(UserData_TypeDef));
/* Special case for uninitialized data */
if (userData.number > 10000)
userData.number = 0;
if (userData.numWrites == 0xFFFFFFFF)
userData.numWrites = 0;
/* Display the number */
SegmentLCD_Number(userData.number);
/* Setup GPIO interrupts. PB0 to increase number, PB1 to save to flash */
gpioSetup();
/* No save has occured yet */
recentlySaved = false;
/* Main loop - just scroll informative text describing the current state of
* the system */
while (1)
{
switch (currentError)
{
case mscReturnInvalidAddr:
ScrollText(" ERROR: INVALID ADDRESS ");
break;
case mscReturnLocked:
ScrollText(" ERROR: USER PAGE IS LOCKED ");
break;
case mscReturnTimeOut:
ScrollText(" ERROR: TIMEOUT OCCURED ");
break;
case mscReturnUnaligned:
ScrollText(" ERROR: UNALIGNED ACCESS ");
default:
if (recentlySaved)
{
recentlySaved = false;
SegmentLCD_Number(userData.numWrites);
ScrollText(" SAVE NUMBER ");
}
else
{
SegmentLCD_Number(userData.number);
ScrollText(" PRESS PB0 TO INCREASE NUMBER. PB1 TO SAVE TO INTERNAL FLASH ");
}
break;
}
}
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
SYSTEM_ChipRevision_TypeDef revision;
char string[8];
int i;
uint32_t temp;
/* Chip revision alignment and errata fixes */
CHIP_Init();
/* Initialize DVK board register access */
BSP_Init(BSP_INIT_DEFAULT);
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
CMU_ClockEnable(cmuClock_HFPER, true);
CMU_ClockEnable(cmuClock_ADC0, true);
CMU_ClockEnable(cmuClock_GPIO, true);
/* Initialize LCD controller without boost */
SegmentLCD_Init(false);
SegmentLCD_AllOff();
/* Check for revision after revision B. Chips with revision earlier than */
/* Revision C has known problems with the internal temperature sensor. */
/* Display a warning in this case */
SYSTEM_ChipRevisionGet(&revision);
if (revision.minor < 2)
{
SegmentLCD_Write("WARNING");
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(true);
SegmentLCD_Write("REV C+");
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(true);
SegmentLCD_Write("REQUIRD");
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(true);
}
/* Enable board control interrupts */
BSP_InterruptDisable(0xffff);
BSP_InterruptFlagsClear(0xffff);
BSP_InterruptEnable(BC_INTEN_JOYSTICK);
temperatureIRQInit();
/* Setup ADC for sampling internal temperature sensor. */
setupSensor();
/* Main loop - just read temperature and update LCD */
while (1)
{
/* Start one ADC sample */
ADC_Start(ADC0, adcStartSingle);
/* Wait in EM1 for ADC to complete */
EMU_EnterEM1();
/* Read sensor value */
temp = ADC_DataSingleGet(ADC0);
/* Convert ADC sample to Fahrenheit / Celsius and print string to display */
if (showFahrenheit)
{
/* Show Fahrenheit on alphanumeric part of display */
i = (int)(convertToFahrenheit(temp) * 10);
snprintf(string, 8, "%2d,%1d%%F", (i/10), i%10);
/* Show Celsius on numeric part of display */
i = (int)(convertToCelsius(temp) * 10);
SegmentLCD_Number(i*10);
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 1);
}
else
{
/* Show Celsius on alphanumeric part of display */
i = (int)(convertToCelsius(temp) * 10);
snprintf(string, 8, "%2d,%1d%%C", (i/10), i%10);
/* Show Fahrenheit on numeric part of display */
i = (int)(convertToFahrenheit(temp) * 10);
SegmentLCD_Number(i*10);
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 1);
}
SegmentLCD_Write(string);
/* Sleep for 2 seconds in EM 2 */
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(true);
}
}
/**************************************************************************//**
* @brief ACMP_setup
* Configures and starts the ACMP
*****************************************************************************/
void ACMP_setup(void)
{
/* Enable necessary clocks */
CMU_ClockEnable(cmuClock_ACMP0, true);
CMU_ClockEnable(cmuClock_GPIO, true);
/* Configure PC4 as input with pull down for ACMP channel 4 input */
GPIO_PinModeSet(gpioPortC, 4, gpioModeInputPullFilter, 0);
/* Analog comparator parameters */
const ACMP_Init_TypeDef acmpInit =
{
.fullBias = false, /* no full bias current*/
.halfBias = false, /* no half bias current */
.biasProg = 7, /* Biasprog current 1.4 uA */
.interruptOnFallingEdge = false, /* disable interrupt for falling edge */
.interruptOnRisingEdge = false, /* disable interrupt for rising edge */
.warmTime = acmpWarmTime256, /* Warm-up time in clock cycles, should be >140 cycles for >10us warm-up @ 14MHz */
.hysteresisLevel = acmpHysteresisLevel0, /* Hysteresis level 0 - no hysteresis */
.inactiveValue = 0, /* Inactive comparator output value */
.lowPowerReferenceEnabled = false, /* Low power reference mode disabled */
.vddLevel = 32, /* Vdd reference scaling of 32 */
};
/* Init ACMP and set ACMP channel 4 as positive input
and scaled Vdd as negative input */
ACMP_Init(ACMP0, &acmpInit);
ACMP_ChannelSet(ACMP0, acmpChannelVDD, acmpChannel4);
ACMP_Enable(ACMP0);
}
/**************************************************************************//**
* @brief PRS_ScanChannel
* Waits for activity on a selected PRS channel and writes on the LCD
when activity occurs
*
* @param[in] timer
* Pointer to TIMER peripheral register block.
*
* @param[in] prsCh
* PRS Channel to be monitored
*
* @param[in] edgeType
* Signal edge to be monitored/captured
*****************************************************************************/
void PRS_ScanChannel(TIMER_TypeDef *timer, TIMER_PRSSEL_TypeDef prsCh, TIMER_Edge_TypeDef edgeType)
{
/* enable the clock for the correct timer */
#define TIMER_Clock(T) (T==TIMER0 ? cmuClock_TIMER0 : \
T==TIMER1 ? cmuClock_TIMER1 : 0)
/* Enable necessary clocks */
CMU_ClockEnable((CMU_Clock_TypeDef)TIMER_Clock(timer), true);
/* Initialize LCD */
SegmentLCD_Init(false);
/* Select CC channel parameters */
const TIMER_InitCC_TypeDef timerCCInit =
{
.eventCtrl = timerEventFalling, /* input capture event control */
.edge = edgeType, /* input capture on falling edge */
.prsSel = prsCh, /* prs channel select channel 5*/
.cufoa = timerOutputActionNone, /* no action on counter underflow */
.cofoa = timerOutputActionNone, /* no action on counter overflow */
.cmoa = timerOutputActionNone, /* no action on counter match */
.mode = timerCCModeCapture, /* CC channel mode capture */
.filter = false, /* no filter */
.prsInput = true, /* CC channel PRS input */
.coist = false, /* comparator output initial state */
.outInvert = false, /* no output invert */
};
/* Initialize TIMER0 CC0 */
TIMER_InitCC(timer, 0, &timerCCInit);
/* Select timer parameters */
const TIMER_Init_TypeDef timerInit =
{
.enable = true, /* start counting when init complete */
.debugRun = false, /* counter not running on debug halt */
.prescale = timerPrescale1024, /* prescaler of 64 */
.clkSel = timerClkSelHFPerClk, /* TIMER0 clocked by the HFPERCLK */
.fallAction = timerInputActionNone, /* stop counter on falling edge */
.riseAction = timerInputActionNone, /* reload and start on rising edge */
.mode = timerModeUp, /* counting up */
.dmaClrAct = false, /* no DMA */
.quadModeX4 = false, /* no quad decoding */
.oneShot = false, /* counting up constinuously */
.sync = false, /* no start/stop/reload by other timers */
};
/* Initialize TIMER0 */
TIMER_Init(timer, &timerInit);
/* Poll the Input Capture Valid flag in the Status register
The program will hang at this point waiting for activity on this
channel */
while(!((TIMER0->STATUS & _TIMER_STATUS_ICV0_MASK )>>16));
}
/**************************************************************************//**
* @brief Main function
* Main is called from __iar_program_start, see assembly startup file
*****************************************************************************/
int main(void)
{
/* Align different chip revisions*/
CHIP_Init();
/* Initialise the ACMP */
ACMP_setup();
/* PRS setup */
/* Enable clock for PRS and select ACMP as source and ACMP0OUT (ACMP0 OUTPUT) as signal
for channel 5 */
CMU_ClockEnable(cmuClock_PRS, true);
PRS_SourceSignalSet(5, PRS_CH_CTRL_SOURCESEL_ACMP0, PRS_CH_CTRL_SIGSEL_ACMP0OUT, prsEdgeOff);
/* Start PRS scan
This function will halt the program while there is no PRS activity
This function assumes that the PRS has been setup previously */
PRS_ScanChannel(TIMER0, timerPRSSELCh5, timerEdgeFalling);
/* Write PRS and channel number on the LCD to acknowledge PRS activity */
SegmentLCD_Write("PRS");
SegmentLCD_Number((int)timerPRSSELCh5);
while(1)
{
/* Enter EM1 while waiting for capture. */
EMU_EnterEM1();
}
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
int value, delayCount = 0, hfrcoband = 0;
float current, voltage;
bool vboost;
char buffer[8];
/* Chip errata */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
/* Initialize board support package */
BSP_Init(BSP_INIT_BCC);
/* Setup SysTick Timer for 1 msec interrupts */
if (SysTick_Config(SystemCoreClockGet() / 1000)) while (1) ;
/* Initialize voltage comparator, to check supply voltage */
VDDCHECK_Init();
/* Check if voltage is below 3V, if so use voltage boost */
if (VDDCHECK_LowVoltage(2.9))
{
vboost = true;
}
else
{
vboost = false;
}
/* Disable Voltage Comparator */
VDDCHECK_Disable();
/* Initialize segment LCD */
SegmentLCD_Init(vboost);
/* Infinite loop */
while (1)
{
/* Read and display current */
current = BSP_CurrentGet();
value = (int)(1000 * current);
/* Check that we fall within displayable value */
if ((value > 0) && (value < 10000))
{
SegmentLCD_Number(value);
}
else
{
SegmentLCD_Number(-1);
}
/* Alternate between voltage and clock frequency */
if (((delayCount / 10) & 1) == 0)
{
voltage = BSP_VoltageGet();
value = (int)(voltage * 100);
SegmentLCD_Symbol(LCD_SYMBOL_DP6, 1);
sprintf(buffer, "Volt%3d", value);
SegmentLCD_Write(buffer);
}
else
{
SegmentLCD_Symbol(LCD_SYMBOL_DP6, 0);
sprintf(buffer, "%3u MHz", (int)(SystemCoreClockGet() / 1000000));
SegmentLCD_Write(buffer);
}
/* After 5 seconds, use another HFRCO band */
if (delayCount % 50 == 0)
{
switch (hfrcoband)
{
case 0:
CMU_HFRCOBandSet(cmuHFRCOBand_11MHz);
break;
case 1:
CMU_HFRCOBandSet(cmuHFRCOBand_14MHz);
break;
case 2:
CMU_HFRCOBandSet(cmuHFRCOBand_21MHz);
break;
default:
CMU_HFRCOBandSet(cmuHFRCOBand_28MHz);
/* Restart iteartion */
hfrcoband = -1;
break;
}
hfrcoband++;
/* Recalculate delay tick count and baudrate generation */
if (SysTick_Config(SystemCoreClockGet() / 1000)) while (1) ;
BSP_Init(BSP_INIT_BCC);
}
Delay(100);
delayCount++;
}
}
/******************************************************************************
* @brief Main function
* Main is called from _program_start, see assembly startup file
*****************************************************************************/
int main(void)
{
/* Initialize chip */
CHIP_Init();
/* The HFRCO is the default clock source for the HF
* branch, but it is explicitly selected here
* for comprehension purposes */
CMU_ClockSelectSet(cmuClock_HF, cmuSelect_HFRCO);
/* Enable LFXO to clock the LFA clock branch */
CMU_OscillatorEnable(cmuOsc_LFXO, true, true);
/* Select LFXO as clock source for the LFA branch */
CMU_ClockSelectSet(cmuClock_LFA, cmuSelect_LFXO);
/* Enable clock for LCD module */
CMU_ClockEnable(cmuClock_LCD, true);
/* Enable clock for GPIO module */
CMU_ClockEnable(cmuClock_GPIO, true);
/* Set PC12 as output so it can be
* overriden by the peripheral, in this case the CMU */
GPIO_PinModeSet(gpioPortC, 12, gpioModePushPull, 0);
/* Initialize LCD */
SegmentLCD_Init(false);
/* Set the tuning to the max value so the HFRCO goes to a frequency above 14Mhz
* - the frequency will depend on the chip */
CMU_OscillatorTuningSet(cmuOsc_HFRCO, TUNINGMAX);
/* Select Clock Output 0 as High Frequency RC without prescalling (14 Mhz) */
CMU->CTRL = CMU->CTRL | CMU_CTRL_CLKOUTSEL1_LFRCO | CMU_CTRL_CLKOUTSEL0_HFRCO;
/* Route the Clock output pin to Location 1 and enable them */
CMU->ROUTE = CMU_ROUTE_LOCATION_LOC1 | CMU_ROUTE_CLKOUT0PEN;
/* Write Tuning on the LCD while the function runs */
SegmentLCD_Write("TUNING");
/* Variable for reading the tuning value after the calibration */
uint8_t tuning;
/* Run HFRCO calibration for the 14Mhz band
* This function takes about 10 seconds to execute because
* the HFRCO was purposely untuned to the 14Mhz band upper limit
* (TUNING = 0xFF)
* The calibration loop inside this function will have to execute
* as many times as needed for the HFRCO become calibrated
* which usually happens for a TUNING value of 116-122, depending
* on the chip */
tuning = calibrateHFRCO(HFCYCLES, UP_COUNTER_TUNED);
/* Write the tuning result on the LCD and TUNING FINISHED */
SegmentLCD_Write("DONE");
SegmentLCD_Number(tuning);
while (1) ;
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
int i = 0;
uint16_t temp_humid_sensor;
float rel_humidity, dew_point;
char buffer_humid[10];
// char buffer_voltage[10];
// char light_level[10];
/* Chip errata */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
TRACE_ProfilerSetup();
/* Setup SysTick Timer for 1 msec interrupts */
if (SysTick_Config(CMU_ClockFreqGet(cmuClock_CORE) / 1000)) while (1) ;
/* Disable usart0 clock, it is enabled by default in gecko series mcu's. */
CMU_ClockEnable(cmuClock_USART0, false);
/* Infinite blink loop with main state machine */
state = RESET;
while (1)
{
// state machine
switch(state){
case RESET: // RESET state check for vital HW functions
if(1){
// todo all checks
i = 0;
state = INIT;
}
else
state = RESET;
break;
case INIT: // INIT state initialize all necessary peripherials
if(1){
i = i + 1;
/* Enable clocks. */
CMU_ClockEnable(cmuClock_GPIO, true);
CMU_ClockEnable(cmuClock_I2C0, true);
/* Configure PB9, PB10 pin interrupt on falling edge do not enable yet. */
GPIO_PinModeSet(gpioPortB, 9, gpioModeInput, 0);
GPIO_PinModeSet(gpioPortB, 10, gpioModeInput, 0);
GPIO_IntConfig(gpioPortB, 9, false, true, true);
GPIO_IntConfig(gpioPortB, 10, false, true, true);
HumiditySensorInit();
LED_Init(); /* Initialize LED driver */
LED_Set(0);
/* Enable LCD without voltage boost */
SegmentLCD_Init(false); /* Init LCD driver */
SegmentLCD_Write("ST: INIT");
Delay(500);
SegmentLCD_Number(i);
Delay(500);
state = IDLE;
}
else
state = INIT;
break;
case IDLE:
if(1){
i = i + 1;
SegmentLCD_Write("ST: IDLE");
Delay(500);
SegmentLCD_Number(i);
Delay(500);
// while idle check humidity and temp paramters
rel_humidity = ReadHumiditySensor();
dew_point = getDewPoint();
/* Get temperature from humidity sensor, notice that both pressure sensor and */
/* humidity sensor has built in temperature sensors, since dewpoint and pressure */
/* is dependent on the temperature close to the sensor it gives the most accurate */
/* results to use the built in temperature sensor in each device. */
temp_humid_sensor = getTemperatureHumidSensor();
state = RX_STATE;
}
else
state = IDLE;
break;
case RX_STATE :
if(1){
i = i + 1;
SegmentLCD_Write("ST: Rx");
Delay(500);
SegmentLCD_Number(i);
Delay(500);
SegmentLCD_Symbol(LCD_SYMBOL_ANT, 1);
state = TX_STATE;
}
else
state = RX_STATE;
break;
case TX_STATE:
if(1){
i = i + 1;
SegmentLCD_Write("ST: TX");
Delay(500);
SegmentLCD_Number(i);
Delay(500);
SegmentLCD_Symbol(LCD_SYMBOL_ANT, 1);
state = ERROR;
}
else
state = TX_STATE;
break;
case ERROR:
if(1){
i = i + 1;
SegmentLCD_Write("ST: ERR");
Delay(500);
SegmentLCD_Number(i);
Delay(500);
state = IDLE;
}
else
state = ERROR;
break;
}
LED_Toggle(0);
LED_Toggle(1);
Delay(1000);
}
}
/**************************************************************************//**
* @brief Software Interrupt Handler
*****************************************************************************/
void PendSV_Handler(void)
{
SegmentLCD_Number(time);
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
uint8_t prod_rev;
char string[8];
int i;
uint32_t temp;
uint32_t temp_offset;
/* Chip errata */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
/* Enable peripheral clocks */
CMU_ClockEnable(cmuClock_HFPER, true);
CMU_ClockEnable(cmuClock_ADC0, true);
/* Initialize RTC timer. */
RTCDRV_Init();
RTCDRV_AllocateTimer( &xTimerForWakeUp);
/* Initialize LCD controller without boost */
SegmentLCD_Init(false);
SegmentLCD_AllOff();
/* This is a work around for Chip Rev.D Errata, Revision 0.6. */
/* Check for product revision 16 and 17 and set the offset */
/* for ADC0_TEMP_0_READ_1V25. */
prod_rev = (DEVINFO->PART & _DEVINFO_PART_PROD_REV_MASK) >> _DEVINFO_PART_PROD_REV_SHIFT;
if( (prod_rev == 16) || (prod_rev == 17) )
{
temp_offset = 112;
}
else
{
temp_offset = 0;
}
/* Enable board control interrupts */
gpioSetup();
/* Setup ADC for sampling internal temperature sensor. */
setupSensor();
/* Main loop - just read temperature and update LCD */
while (1)
{
/* Start one ADC sample */
ADC_Start(ADC0, adcStartSingle);
/* Wait in EM1 for ADC to complete */
EMU_EnterEM1();
/* Read sensor value */
/* According to rev. D errata ADC0_TEMP_0_READ_1V25 should be decreased */
/* by the offset but it is the same if ADC reading is increased - */
/* reference manual 28.3.4.2. */
temp = ADC_DataSingleGet(ADC0) + temp_offset;
/* Convert ADC sample to Fahrenheit / Celsius and print string to display */
if (showFahrenheit)
{
/* Show Fahrenheit on alphanumeric part of display */
i = (int)(convertToFahrenheit(temp) * 10);
snprintf(string, 8, "%2d,%1d%%F", (i/10), abs(i%10));
/* Show Celsius on numeric part of display */
i = (int)(convertToCelsius(temp) * 10);
SegmentLCD_Number(i*10);
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 1);
SegmentLCD_Symbol(LCD_SYMBOL_DEGC, 1);
SegmentLCD_Symbol(LCD_SYMBOL_DEGF, 0);
}
else
{
/* Show Celsius on alphanumeric part of display */
i = (int)(convertToCelsius(temp) * 10);
snprintf(string, 8, "%2d,%1d%%C", (i/10), abs(i%10));
/* Show Fahrenheit on numeric part of display */
i = (int)(convertToFahrenheit(temp) * 10);
SegmentLCD_Number(i*10);
SegmentLCD_Symbol(LCD_SYMBOL_DP10, 1);
SegmentLCD_Symbol(LCD_SYMBOL_DEGC, 0);
SegmentLCD_Symbol(LCD_SYMBOL_DEGF, 1);
}
SegmentLCD_Write(string);
/* Sleep for 2 seconds in EM 2 */
RTCDRV_StartTimer( xTimerForWakeUp, rtcdrvTimerTypeOneshot, 2000, NULL, NULL);
EMU_EnterEM2(true);
}
}
/**************************************************************************//**
* @brief Main function
*****************************************************************************/
int main(void)
{
const int msDelay = 100;
/* Chip errata */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
/* Power down special RAM blocks to reduce current consumption with some nA. */
CMU_ClockEnable(cmuClock_CORELE, true);
LESENSE->POWERDOWN = LESENSE_POWERDOWN_RAM;
CMU_ClockEnable(cmuClock_CORELE, false);
/* Configure push button interrupts */
gpioSetup();
/* Setup SysTick Timer for 1 msec interrupts */
if (SysTick_Config(SystemCoreClockGet() / 1000)) while (1) ;
/* Initialize LCD controller */
SegmentLCD_Init(false);
/* Run countdown for user to select energy mode */
msCountDown = 4000; /* milliseconds */
while (msCountDown > 0)
{
switch (eMode)
{
case 0:
SegmentLCD_Write("EM0 32M");
break;
case 1:
SegmentLCD_Write("EM1 32M");
break;
case 2:
SegmentLCD_Write("EM2 32K");
break;
case 3:
SegmentLCD_Write("EM3");
break;
case 4:
SegmentLCD_Write("EM4");
break;
case 5:
SegmentLCD_Write("EM2+RTC");
break;
case 6:
SegmentLCD_Write("RTC+LCD");
break;
case 7:
SegmentLCD_Write("EM3+RTC");
break;
case 8:
SegmentLCD_Write("USER");
break;
}
SegmentLCD_Number(msCountDown);
Delay(msDelay);
msCountDown -= msDelay;
}
/* Disable components, reenable when needed */
SegmentLCD_Disable();
RTC_Enable(false);
/* GPIO->ROUTE = 0x00000000; */
/* Go to energy mode and wait for reset */
switch (eMode)
{
case 0:
/* Disable pin input */
GPIO_PinModeSet(gpioPortB, 10, gpioModeDisabled, 1);
/* Disable systick timer */
SysTick->CTRL = 0;
/* 32Mhz primes demo - running off HFXO */
CMU_ClockSelectSet(cmuClock_HF, cmuSelect_HFXO);
/* Disable HFRCO, LFRCO and all unwanted clocks */
CMU->OSCENCMD = CMU_OSCENCMD_HFRCODIS;
CMU->OSCENCMD = CMU_OSCENCMD_LFRCODIS;
CMU->HFPERCLKEN0 = 0x00000000;
CMU->HFCORECLKEN0 = 0x00000000;
CMU->LFACLKEN0 = 0x00000000;
CMU->LFBCLKEN0 = 0x00000000;
CMU->LFCLKSEL = 0x00000000;
/* Supress Conditional Branch Target Prefetch */
MSC->READCTRL = MSC_READCTRL_MODE_WS1SCBTP;
{
#define PRIM_NUMS 64
uint32_t i, d, n;
uint32_t primes[PRIM_NUMS];
/* Find prime numbers forever */
while (1)
{
primes[0] = 1;
for (i = 1; i < PRIM_NUMS;)
{
for (n = primes[i - 1] + 1;; n++)
{
for (d = 2; d <= n; d++)
{
if (n == d)
{
primes[i] = n;
goto nexti;
}
if (n % d == 0) break;
}
}
nexti:
i++;
}
}
}
case 1:
/* Disable pin input */
GPIO_PinModeSet(gpioPortB, 10, gpioModeDisabled, 1);
/* Disable systick timer */
SysTick->CTRL = 0;
CMU_ClockSelectSet(cmuClock_HF, cmuSelect_HFXO);
/* Disable HFRCO, LFRCO and all unwanted clocks */
CMU->OSCENCMD = CMU_OSCENCMD_HFRCODIS;
CMU->OSCENCMD = CMU_OSCENCMD_LFRCODIS;
CMU->HFPERCLKEN0 = 0x00000000;
CMU->HFCORECLKEN0 = 0x00000000;
CMU->LFACLKEN0 = 0x00000000;
CMU->LFBCLKEN0 = 0x00000000;
CMU->LFCLKSEL = 0x00000000;
EMU_EnterEM1();
break;
case 2:
/* Enable LFRCO */
CMU->OSCENCMD = CMU_OSCENCMD_LFRCOEN;
/* Disable everything else */
CMU->OSCENCMD = CMU_OSCENCMD_LFXODIS;
CMU->HFPERCLKEN0 = 0x00000000;
CMU->HFCORECLKEN0 = 0x00000000;
CMU->LFACLKEN0 = 0x00000000;
CMU->LFBCLKEN0 = 0x00000000;
/* Disable LFB clock select */
CMU->LFCLKSEL = 0x00000000;
EMU_EnterEM2(false);
break;
case 3:
/* Disable all clocks */
CMU->OSCENCMD = CMU_OSCENCMD_LFXODIS;
CMU->OSCENCMD = CMU_OSCENCMD_LFRCODIS;
CMU->HFPERCLKEN0 = 0x00000000;
CMU->HFCORECLKEN0 = 0x00000000;
CMU->LFACLKEN0 = 0x00000000;
CMU->LFBCLKEN0 = 0x00000000;
CMU->LFCLKSEL = 0x00000000;
EMU_EnterEM3(false);
break;
case 4:
/* Go straight down to EM4 */
EMU_EnterEM4();
break;
case 5:
/* EM2 + RTC - only briefly wake up to reconfigure every 2 seconds */
/* Disable LFB clock select */
CMU->LFCLKSEL &= ~(_CMU_LFCLKSEL_LFB_MASK);
RTCDRV_Setup(cmuSelect_LFRCO, cmuClkDiv_32);
while (1)
{
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(false);
}
case 6:
/* EM2 + RTC + LCD (if battery slips below 3V vboost should be enabled) */
/* Disable LFB clock select */
CMU->LFCLKSEL &= ~(_CMU_LFCLKSEL_LFB_MASK);
SegmentLCD_Init(false);
RTCDRV_Setup(cmuSelect_LFRCO, cmuClkDiv_32);
while (1)
{
SegmentLCD_Write("Silicon");
/* Sleep in EM2 */
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(false);
SegmentLCD_Write(" Labs");
/* Sleep in EM2 */
RTCDRV_Trigger(2000, NULL);
EMU_EnterEM2(false);
}
case 7:
/* EM3 + RTC - only briefly wake up to reconfigure every ~5 seconds */
while (1)
{
/* Disable LFB clock select */
CMU->LFCLKSEL &= ~(_CMU_LFCLKSEL_LFB_MASK);
/* This RTCDRV_Setup will configure LFCLK A as ULFRCO */
RTCDRV_Setup(cmuSelect_ULFRCO, cmuClkDiv_1);
RTCDRV_Trigger(5000, NULL);
/* Sleep in EM3, wake up on RTC trigger */
EMU_EnterEM3(false);
/* SegmentLCD_Init will configure LFCLK A as LFRCO */
SegmentLCD_Init(false);
SegmentLCD_Write("ULFRCO");
Delay(1000);
SegmentLCD_Disable();
}
case 8:
default:
/* User defined */
break;
}
return 0;
}
/**************************************************************************//**
* @brief Main function.
*****************************************************************************/
int main( void )
{
int i;
MPU_RegionInit_TypeDef flashInit = MPU_INIT_FLASH_DEFAULT;
MPU_RegionInit_TypeDef sramInit = MPU_INIT_SRAM_DEFAULT;
MPU_RegionInit_TypeDef peripheralInit = MPU_INIT_PERIPHERAL_DEFAULT;
/* Chip alignment */
CHIP_Init();
/* If first word of user data page is non-zero, enable eA Profiler trace */
BSP_TraceProfilerSetup();
/* Enable LCD without voltage boost */
SegmentLCD_Init( false );
SegmentLCD_AllOff();
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, 1);
SegmentLCD_Symbol(LCD_SYMBOL_EFM32, 1);
GpioInit();
RTCDRV_Setup( cmuSelect_LFXO, cmuClkDiv_32);
ScrollText( " MPU DEMO PRESS Pb0 OR Pb1 "
"TO GENERATE MPU EXCEPTIONS " );
MPU_Disable();
/* Flash memory */
MPU_ConfigureRegion( &flashInit );
/* SRAM */
MPU_ConfigureRegion( &sramInit );
/* SRAM, a 4k part with priviledged only access, this regions settings */
/* will override those of the previous region */
sramInit.regionNo = 2;
sramInit.baseAddress = RAM_MEM_BASE + 0x2000;
sramInit.size = mpuRegionSize4Kb;
sramInit.accessPermission = mpuRegionApPRw;
MPU_ConfigureRegion( &sramInit );
/* LCD, priviledged only access */
peripheralInit.regionNo = 3;
peripheralInit.baseAddress = LCD_BASE;
peripheralInit.size = mpuRegionSize128b;
peripheralInit.accessPermission = mpuRegionApPRw;
MPU_ConfigureRegion( &peripheralInit );
MPU_Enable( MPU_CTRL_PRIVDEFENA ); /* Full access to default memory map */
/* in priviledged state */
i = 0;
while ( 1 )
{
SegmentLCD_Number( i ); /* Count on numeric diplay */
i = ( i + 1 ) % 101;
RTCDRV_Delay( 150 , false);
if ( PB0_PUSHED() )
{
BullsEye( 1 );
/* Generate an access violation in internal SRAM */
__set_CONTROL( 1 ); /* Enter User (unpriviledged) state */
*(volatile uint32_t *)(RAM_MEM_BASE + 0x2000) = 1;
BullsEye( 0 );
}
if ( PB1_PUSHED() )
{
BullsEye( 1 );
/* Generate an access violation in LCD peripheral */
__set_CONTROL( 1 ); /* Enter User (unpriviledged) state */
BullsEye( 0 );
}
}
}
/**************************************************************************//**
* @brief LCD Test Routine, shows various text and patterns
*****************************************************************************/
void Test(void)
{
int i, numberOfIterations = 0;
/* Initialize GPIO */
GPIO_IRQInit();
/* Initialize RTC */
RTCDRV_Setup(cmuSelect_LFRCO, cmuClkDiv_32);
/* Loop through funny pattern */
while (1)
{
SegmentLCD_AllOff();
#if VBOOST_SUPPORT
checkVoltage();
#endif
if (emMode != DEMO_MODE_NONE)
{
SegmentLCD_Symbol(LCD_SYMBOL_PAD0, 1);
SegmentLCD_Symbol(LCD_SYMBOL_PAD1, 1);
}
else
{
for (i = 100; i > 0; i--)
{
SegmentLCD_Number(i);
EM2Sleep(10);
}
SegmentLCD_NumberOff();
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, 1);
SegmentLCD_Symbol(LCD_SYMBOL_EFM32, 1);
SegmentLCD_Write(" TINY ");
EM2Sleep(500);
SegmentLCD_Write(" Gecko ");
EM2Sleep(1000);
SegmentLCD_AllOn();
EM2Sleep(1000);
SegmentLCD_AllOff();
}
if (emMode != DEMO_MODE_NONE)
{
SegmentLCD_Symbol(LCD_SYMBOL_PAD0, 1);
SegmentLCD_Symbol(LCD_SYMBOL_PAD1, 1);
}
else
{
SegmentLCD_Write("OOOOOOO");
EM2Sleep(62);
SegmentLCD_Write("XXXXXXX");
EM2Sleep(62);
SegmentLCD_Write("+++++++");
EM2Sleep(62);
SegmentLCD_Write("@@@@@@@");
EM2Sleep(62);
SegmentLCD_Write("ENERGY ");
EM2Sleep(250);
SegmentLCD_Write("@@ERGY ");
EM2Sleep(62);
SegmentLCD_Write(" @@RGY ");
EM2Sleep(62);
SegmentLCD_Write(" M@@GY ");
EM2Sleep(62);
SegmentLCD_Write(" MI@@Y ");
EM2Sleep(62);
SegmentLCD_Write(" MIC@@ ");
EM2Sleep(62);
SegmentLCD_Write(" MICR@@");
EM2Sleep(62);
SegmentLCD_Write(" MICRO@");
EM2Sleep(62);
SegmentLCD_Write(" MICRO ");
EM2Sleep(250);
SegmentLCD_Write("-EFM32-");
EM2Sleep(250);
/* Various eye candy */
SegmentLCD_AllOff();
if (emMode != DEMO_MODE_NONE)
{
SegmentLCD_Symbol(LCD_SYMBOL_PAD0, 1);
SegmentLCD_Symbol(LCD_SYMBOL_PAD1, 1);
}
for (i = 0; i < 8; i++)
{
SegmentLCD_Number(numberOfIterations + i);
SegmentLCD_ARing(i, 1);
EM2Sleep(20);
}
for (i = 0; i < 8; i++)
{
SegmentLCD_Number(numberOfIterations + i);
SegmentLCD_ARing(i, 0);
EM2Sleep(100);
}
for (i = 0; i < 5; i++)
{
SegmentLCD_Number(numberOfIterations + i);
SegmentLCD_Battery(i);
SegmentLCD_EnergyMode(i, 1);
EM2Sleep(100);
SegmentLCD_EnergyMode(i, 0);
EM2Sleep(100);
}
SegmentLCD_Symbol(LCD_SYMBOL_ANT, 1);
for (i = 0; i < 4; i++)
{
SegmentLCD_EnergyMode(i, 1);
EM2Sleep(100);
}
SegmentLCD_Symbol(LCD_SYMBOL_ANT, 0);
SegmentLCD_Battery(0);
}
/* Energy Modes */
SegmentLCD_NumberOff();
SegmentLCD_Symbol(LCD_SYMBOL_GECKO, 1);
SegmentLCD_Symbol(LCD_SYMBOL_EFM32, 1);
if ((emMode != DEMO_MODE_EM3) && (emMode != DEMO_MODE_EM4))
{
ScrollText("Energy Mode demo, Press PB0 for EM3 or PB1 for EM4 ");
}
SegmentLCD_Write(" EM0 ");
SegmentLCD_Number(0);
SegmentLCD_EnergyMode(0, 1);
SegmentLCD_EnergyMode(1, 1);
SegmentLCD_EnergyMode(2, 1);
SegmentLCD_EnergyMode(3, 1);
SegmentLCD_EnergyMode(4, 1);
RTCDRV_Delay(4000, false);
SegmentLCD_Write(" EM1 ");
SegmentLCD_Number(1111);
SegmentLCD_EnergyMode(0, 0);
EM1Sleep(4000);
SegmentLCD_Write(" EM2 ");
SegmentLCD_Number(2222);
SegmentLCD_EnergyMode(1, 0);
EM2Sleep(4000);
/* Check if somebody has pressed one of the buttons */
if (emMode == DEMO_MODE_EM3)
{
ScrollText("Going down to EM3, press PB0 to wake up ");
SegmentLCD_Write(" EM3 ");
SegmentLCD_Number(3333);
RTCDRV_Delay(1000, false);
/* Wake up on GPIO interrupt */
EM3Sleep();
SegmentLCD_Number(0000);
SegmentLCD_Write("--EM0--");
RTCDRV_Delay(500, false);
SegmentLCD_Symbol(LCD_SYMBOL_PAD0, 0);
SegmentLCD_Symbol(LCD_SYMBOL_PAD1, 0);
emMode = DEMO_MODE_NONE;
}
/* Check if somebody's joystick down */
if (emMode == DEMO_MODE_EM4)
{
ScrollText("Going down to EM4, press reset to restart ");
SegmentLCD_Write(" EM4 ");
SegmentLCD_Number(4444);
RTCDRV_Delay(1000, false);
/* Wake up on reset */
EM4Sleep();
}
SegmentLCD_EnergyMode(0, 0);
SegmentLCD_EnergyMode(1, 0);
SegmentLCD_EnergyMode(2, 0);
SegmentLCD_EnergyMode(3, 0);
SegmentLCD_EnergyMode(4, 0);
/* Scrolltext */
ScrollText(stext);
/* Blink and animation featurs */
BlinkTest();
numberOfIterations++;
}
}
