int main(int argc, char **argv)
{
float temp = 0;
I2C_Initialize(MCP79410_ADDRESS); //Initialize I2C and setup chip address
RTCC_Struct *current_time = (RTCC_Struct *) malloc(sizeof(RTCC_Struct));
RTCC_Struct *alarm_time = (RTCC_Struct *) malloc(sizeof(RTCC_Struct));
RTCC_Struct user_alarm = {2, 57, 0, 0, 0, 0, 0}; //Change minutes value for match
alarm_time = &user_alarm;
//MCP79410_Initialize(); //Initialize RTCC with system time and date
MCP79410_ClearInterruptFlag(ZERO);
MCP79410_SetAlarmTime(alarm_time,ZERO); //Set alarm time
MCP79410_SetAlarmMatch(MINUTES_MATCH,ZERO); //Alarm ZERO will trigger on minutes match
MCP79410_SetAlarmMFPPolarity(LOWPOL,ZERO); //Configure Alarm pin polarity as HIGH
MCP79410_SetMFP_Functionality(ALARM_INTERRUPT); //Set alaram interrupt
PinLevel_t pval = ReadPinStatus(MPL_PIN);
printf("MPL pin level is %d\r\n",(unsigned char)pval);
pinModeOutput(LED_PIN); //Set LED pin as output
while(1)
{
AlarmStatus_t alrm_flag = MCP79410_GetAlarmStatus(ZERO); //Check alarm status
printf("Alarm interrupt status %d\r\n",(unsigned int)alrm_flag);
if(alrm_flag != 0)
{
digitalWrite(LED_PIN, HIGH); //Let there be light
delay_ms(500);
I2C_Initialize(MPL3115A2_ADDRESS); //Initialize I2C peripheral
delay_ms(500);
MPL3115A2_Initialize(); //Initialize the sensor
delay_ms(500);
temp = MPL3115A2_ReadTemperature(); //Take a temperature reading
temp = MPL3115A2_ReadTemperature();
printf("Temperature : %0.2f degree Celsius.\r\n", temp);
delay_ms(500);
I2C_Initialize(MCP79410_ADDRESS);
delay_ms(500);
alrm_flag = 0; //Reset alarm flag for next alarm
MCP79410_ClearInterruptFlag(ZERO);
delay_ms(1000);
digitalWrite(LED_PIN, LOW); //Back to waiting time
printf("Alarm :%d\r\n",(unsigned int)alrm_flag);
}
current_time = MCP79410_GetTime();
printf("now: %d-%d-%d %d:%d:%d\n", current_time->year, current_time->month, current_time->date, current_time->hour, current_time->min, current_time->sec);
delay_ms(1000);
}
I2C_Close(); //Return I2C pins to default status
return 0;
}
int main(void)
{
char str[20];
unsigned int channel0;
unsigned int channel1;
float lux;
SPI_Initialize(); //Initialize SPI peripheral
TFT_Initialize();
I2C_Initialize(APDS9300ADDR); //Initialize I2C and setup chip address
AL_Initialize(); //Setup Ambient light sensor
Image_t LampOn = {_acLampON,100,100};
TFT_Background(WHITE);
TFT_DisplayImage(&LampOn,5,5);
while(1)
{
channel0 = AL_ReadChannel(CH0); //Take a reading from channel one
channel1 = AL_ReadChannel(CH1); //Take a reading from channel two
lux = AL_Lux(channel0,channel1);
sprintf(str, "%3.2f Lx ", lux);
TFT_PrintString(10,140,RED,WHITE,str,2);
delay_ms(1000);
}
return 0;
}
void SYSTEM_Initialize(void)
{
OSCILLATOR_Initialize();
PIN_MANAGER_Initialize();
INTERRUPT_Initialize();
TMR0_Initialize();
I2C_Initialize();
EUSART_Initialize();
}
int main(void)
{
SPI_Initialize(); //Initialize SPI peripheral
TFT_Initialize();
I2C_Initialize(CAP1203ADDR);
CAP1203_Initialize();
unsigned char button = 0x00;
#ifdef __DEBUG__
int id = CAP1203_ReadID(); //Read ID of Capacitive touch controller
printf("Chip ID: 0x%04X. \r\n",id);
#endif
TFT_Background(WHITE);
TFT_Circle(80,35,20,RED);
TFT_Circle(80,80,20,GREEN);
TFT_Circle(80,125,20,BLUE);
while(1)
{
button = CAP1203_ReadPressedButton();
switch(button)
{
case 1:
TFT_Disk(80,125,10,BLUE);
printf("Button B1 pressed.\r\n");
break;
case 2:
TFT_Disk(80,80,10,GREEN);
printf("Button B2 pressed.\r\n");
break;
case 3:
TFT_Disk(80,35,10,RED);
printf("Button B3 pressed.\r\n");
break;
default:
TFT_Circle(80,35,20,RED); //Paint two circles for an annular ring
TFT_Circle(80,80,20,GREEN);
TFT_Circle(80,125,20,BLUE);
TFT_Circle(80,35,19,RED);
TFT_Circle(80,80,19,GREEN);
TFT_Circle(80,125,19,BLUE);
TFT_Disk(80,35,10,WHITE); //Clear interior
TFT_Disk(80,80,10,WHITE);
TFT_Disk(80,125,10,WHITE);
break;
}
delay_ms(100);
}
return 0;
}
void HAL_Initialize()
{
HAL_CONTINUATION::InitializeList();
HAL_COMPLETION ::InitializeList();
Events_Initialize();
CPU_GPIO_Initialize();
CPU_SPI_Initialize();
HAL_Time_Initialize();
Time_Initialize();
ENABLE_INTERRUPTS();
BlockStorageList::Initialize();
BlockStorage_AddDevices();
BlockStorageList::InitializeDevices();
FS_Initialize();
FileSystemVolumeList::Initialize();
FS_AddVolumes();
FileSystemVolumeList::InitializeVolumes();
CPU_InitializeCommunication();
LCD_Initialize();
I2C_Initialize();
PalEvent_Initialize();
Gesture_Initialize();
Ink_Initialize();
TimeService_Initialize();
/*
other drivers init
*/
}
int main(void)
{
I2C_Initialize(I2C2,I2C_Ack_Enable,I2C_AcknowledgedAddress_7bit, 100000, I2C_DutyCycle_2, I2C_Mode_I2C, 0x00);
setup(I2C2);
write8(I2C2,0x20,0x0F);
unsigned short temp = 0;
while(1)
{
temp = read8(I2C2);
if(recieve[i-1] != temp){
recieve[i++] = temp;
if(i == 1024){
i = 0;
}
}
}
}
int main(int argc, char **argv)
{
printf("MPL3115A2 Altimeter/Barometer/Temperature sensor demo.\r\n");
I2C_Initialize(MPL3115A2_ADDRESS); //Initialize I2C peripheral
MPL3115A2_Initialize(); //Initialize the sensor
MPL3115A2_ActiveMode(); //Configure the sensor for active mode
unsigned char id = MPL3115A2_ID(); //Verify chip id
printf("Chip ID: 0x%02X . \r\n", id);
while(1)
{
float temp = MPL3115A2_ReadTemperature();//Take a temperature reading
printf("Temperature : %0.2f degree Celsius.\r\n", temp);
delay_ms(500);
}
return 0;
}
void HAL_Initialize()
{
HAL_CONTINUATION::InitializeList();
HAL_COMPLETION ::InitializeList();
Events_Initialize();
ENABLE_INTERRUPTS();
CPU_InitializeCommunication();
LCD_Initialize();
I2C_Initialize();
/*
other drivers init
*/
}
int main(void)
{
char str[20];
unsigned int channel0;
unsigned int channel1;
float lux;
signal(SIGINT, sigint_handler); //Install signal handler for user interrupt (CTRL-C)
SPI_Initialize(); //Initialize SPI peripheral
TFT_Initialize();
I2C_Initialize(APDS9300ADDR); //Initialize I2C and setup chip address
AL_Initialize(); //Setup Ambient light sensor
Image_t LampOn = {_acLampON,100,100};
TFT_Background(WHITE);
TFT_DisplayImage(&LampOn,5,5);
while(programRunning)
{
channel0 = AL_ReadChannel(CH0); //Take a reading from channel one
channel1 = AL_ReadChannel(CH1); //Take a reading from channel two
lux = AL_Lux(channel0,channel1);
sprintf(str, "%3.2f Lx ", lux);
TFT_PrintString(10,140,RED,WHITE,str,2);
delay_ms(1000);
}
SPI_Close();
bcm2835_close();
return 0;
}
/*This method returns TRUE if all sensors are correct initialized and FALSE if one sensor fails to initialize*/
Bool sensorInitialization(enum SensorType sensorType)
{
//If there isn't initialized 1 sensor
if (firstTimeInitialization == TRUE)
{
/*Initialize mutexes*/
if (currentTemperatureMutex == E_CREATE_FAIL || I2CMutex == E_CREATE_FAIL)
{
return FALSE;
}
firstTimeInitialization = FALSE;
}
switch (sensorType)
{
/*Initialize Ultrasonic sensor*/
case (SensorDistanceToGround):
{
return initializeUltrasonicSensor();
}
/*Initialize Accelero sensor*/
case (SensorAccelero):
{
if (ADC_init() == FALSE)
{
return FALSE;
}
return TRUE;
}
/*Initialize Pressure Sensor*/
case (SensorPressure):
{
if (firstTimeInitializeI2CSensor == TRUE)
{
/*Initialize I2C before initializing I2C based sensors*/
if (I2C_Initialize() == FALSE)
{
return FALSE;
}
}
/*Initialize BMP085*/
if (initializeBMP085() == FALSE)
{
return FALSE;
}
return TRUE;
}
/*Initialize Rotation sensor*/
case (SensorRotation):
{
if (firstTimeInitializeI2CSensor == TRUE)
{
/*Initialize I2C before initializing I2C based sensors*/
if (I2C_Initialize() == FALSE)
{
return FALSE;
}
}
/*Initialize WiiMotionPlus*/
if (initializeWiiMotionPlus() == FALSE)
{
return FALSE;
}
return TRUE;
}
/*Initialize GPS sensor*/
case (SensorGPS):
{
if (UARTInit(LPC_UART1, 4800) == FALSE)
{
return FALSE;
}
return TRUE;
}
/*If there isn't a sensor selected, return FALSE*/
default:
{
return FALSE;
}
}
}
//------------------------------------------------------------------------------
// task : I2C Error
// input : none
// output: none
//------------------------------------------------------------------------------
void I2C_Error(void)
{
I2CCR = 0x00; // I2C block disable
_nop_(); //
I2C_Initialize(); //
}
