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#include <xc.h>
#include <delays.h>
#include <stdio.h>
#include <string.h>
#include "defines.h"
#include "base_INTERRUPTS.h"
#include "base_TIMERS.h"
#include "base_UART.h"
#include "base_I2C.h"
#include "base_SPI.h"
#include "base_ADC.h"
#include "sensor_nfc_PN532.h"
#include "sensor_lux_TSL2561.h"
#include "sensor_temp_BMP085.h"
#include "sensor_gyro_L3G.h"
#include "sensor_accel_LSM303.h"
#include "sensor_rtc_DS3231.h"
#include "display_led_HT16K33.h"
#include "display_oled_ssd1306.h"
#include "display_oled_ssd1331.h"
#include "display_oled_NHD-0216KZW-AB5.h"
#include "comm_xbee.h"
// <editor-fold defaultstate="collapsed" desc="Configuration Bits">
/* --------------------------- Configuration Bits --------------------------- */
/* CONFIG1L @ 0x1FFF8 */
#pragma config CFGPLLEN = ON // Enable PLL on startup
#pragma config PLLDIV = 3 // Set PPL prescaler to 3 (to get 4MHz)
#pragma config WDTEN = OFF // Turn off watchdog timer
#pragma config STVREN = OFF // Stack overflow/underflow reset disabled
#pragma config XINST = OFF // Turn off extended instruction set
/* CONFIG1H @ 0x1FFF9 */
#pragma config CP0 = OFF // Program memory is not code-protected
/* CONFIG2L @ 0x1FFFA */
#pragma config CLKOEC = OFF // CLKO output disabled on RA6 pin
#pragma config SOSCSEL = LOW // Low Power T1OSC/SOSC circuit selected
#pragma config IESO = ON // Internal external oscillator switch over disabled
#pragma config OSC = HSPLL // Use external oscillator (101)
#pragma config FCMEN = OFF // Fail-safe clock monitor disabled
/* CONFIG2H @ 0x1FFFB */
#pragma config WDTPS = 1 // Watchdog postscaler of 1:1
/* CONFIG3L @ 0x1FFFC */
#pragma config RTCOSC = T1OSCREF // RTCC uses T1OSC/T1CKI
#pragma config DSBOREN = ON // Deep sleep BOR enabled
#pragma config DSWDTPS = M2 // Deep sleep watchdog postscaler of 1:2 (36m)
#pragma config DSWDTEN = OFF // Deep sleep watchdog timer disabled
#pragma config DSWDTOSC = INTOSCREF // DSWDT clock select uses INTRC
/* CONFIG3H @ 0x1FFFD */
#pragma config PLLSEL = PLL96 // Use 96MHz PLL 4MHz -> 96MHz / 2 = 48MHz
#pragma config ADCSEL = BIT12 // 12-bit ADC
#pragma config MSSP7B_EN = MSK7 // 7-bit address masking mode
#pragma config IOL1WAY = OFF // IOLOCK bit can be set and cleared as needed
/* CONFIG4L @ 0x1FFFE */
#pragma config WPCFG = ON // Configuration words page protected
/* CONFIG4H @ 0x1FFFF */
#pragma config WPEND = PAGE_WPFP // Pages WPFP<6:0> through Configuration Words erase/write protected
#pragma config WPDIS = OFF // WPFP<6:0>/WPEND region ignored
/* -------------------------------------------------------------------------- */
// </editor-fold>
#if defined(_TEST_UART)
// <editor-fold defaultstate="collapsed" desc="_TEST_UART">
int main() {
char buffer[100];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
char output[] = "\r\nBegin Program\r\n";
DBG_PRINT_MAIN(output, strlen(output));
while (1) {
char length = UART1_Read_Buffer((char *) buffer);
if (length != 0) {
UART1_WriteS(buffer, length);
}
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_I2C_MASTER)
// <editor-fold defaultstate="collapsed" desc="_TEST_I2C_MASTER">
void main(void) {
char length = 0;
char result = 0;
char buffer[100];
char output[64];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
I2C_DATA i2c_data;
I2C_Init(&i2c_data); // Initialize the I2C handler code
I2C_Configure_Master(I2C_100KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
while (1) {
buffer[0] = 0x8;
I2C_Master_Send(0x24, 1, buffer);
do {
result = I2C_Get_Status();
} while (!result);
sprintf(output, "S: %X ", result);
DBG_PRINT_MAIN(output, strlen(output));
I2C_Master_Recv(0x24, 2);
do {
result = I2C_Get_Status();
} while (!result);
sprintf(output, "S: %X ", result);
DBG_PRINT_MAIN(output, strlen(output));
length = I2C_Read_Buffer(buffer);
sprintf(output, "L: %d D: ", length);
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < length; i++) {
sprintf(output, "%c ", buffer[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
I2C_Master_Restart(0x30, 0xBB, 2);
result = I2C_Get_Status();
while (!result) {
result = I2C_Get_Status();
}
sprintf(output, "S: %X ", result);
DBG_PRINT_MAIN(output, strlen(output));
length = I2C_Read_Buffer(buffer);
sprintf(output, "L: %d D: ", length);
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < length; i++) {
sprintf(output, "%c ", buffer[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_I2C_SLAVE)
// <editor-fold defaultstate="collapsed" desc="_TEST_I2C_SLAVE">
void main(void) {
char length = 0;
char result = 0;
char buffer[100];
char output[64];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
I2C_DATA i2c_data;
I2C_Init(&i2c_data); // Initialize the I2C handler code
I2C_Configure_Slave(0x24);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
while (1) {
result = I2C_Get_Status();
while (!result) {
result = I2C_Get_Status();
}
sprintf(output, "S: %X ", result);
DBG_PRINT_MAIN(output, strlen(output));
length = I2C_Read_Buffer(buffer);
sprintf(output, "L: %d D: ", length);
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < length; i++) {
sprintf(output, "%X ", buffer[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_SPI)
// <editor-fold defaultstate="collapsed" desc="_TEST_SPI">
void main(void) {
char length = 0;
char result = 0;
char buffer[100];
char output[64];
char test[8] = "ASDF123";
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
SPI_DATA spi_data;
SPI2_Init(&spi_data, SPI2_FOSC_8); // Initialize the SPI module
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
while (1) {
SPI2_Write(test, 7);
while (result != 7) {
length = SPI2_Read_Buffer(buffer);
if (length) {
result += length;
}
}
result = 0;
for (char i = 0; i < result; i++) {
sprintf(output, "%X ", buffer[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_ADC)
// <editor-fold defaultstate="collapsed" desc="_TEST_ADC">
void main(void) {
unsigned int x, y, z;
char buffer[60];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
SPI_DATA spi_data;
SPI2_Init(&spi_data, SPI2_FOSC_8); // Initialize the SPI module
SSD1306_DATA ssd1306_data;
SSD1306_Init(&ssd1306_data); // Initialize the SSD1331 OLED display (uses SPI2)
ADC_DATA adc_data;
ADC_Init(&adc_data, ADC_TAD_20, ADC_FOSC_64_);
SSD1306_Begin(SSD1306_SWITCHCAPVCC);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(buffer, "\r\nBegin Program\r\n");
SSD1306_Write_String(buffer, strlen(buffer));
memset(buffer, 0, 60);
SSD1306_Clear_Display();
SSD1306_Display();
while (1) {
// ADC read from AN0-AN2 and prints to display
ADC_Start(ADC_CHANNEL_AN2);
// SSD1306_Fill_Rect(0, 0, SSD1306_LCDWIDTH, 8, SSD1331_BLACK);
SSD1306_Set_Cursor(0, 0);
while (!ADC_Get_Result(&x));
sprintf(buffer, "X: %u", x);
SSD1306_Write_String(buffer, strlen(buffer));
SSD1306_Display();
ADC_Start(ADC_CHANNEL_AN1);
// SSD1306_Fill_Rect(0, 8, SSD1306_LCDWIDTH, 8, SSD1331_BLACK);
SSD1306_Set_Cursor(0, 8);
while (!ADC_Get_Result(&y));
sprintf(buffer, "Y: %u", y);
SSD1306_Write_String(buffer, strlen(buffer));
SSD1306_Display();
ADC_Start(ADC_CHANNEL_AN0);
// SSD1306_Fill_Rect(0, 16, SSD1306_LCDWIDTH, 8, SSD1331_BLACK);
SSD1306_Set_Cursor(0, 16);
while (!ADC_Get_Result(&z));
sprintf(buffer, "Z: %u", z);
SSD1306_Write_String(buffer, strlen(buffer));
SSD1306_Display();
}
}
// </editor-fold>
#elif defined(_TEST_TIMER1_RTC)
// <editor-fold defaultstate="collapsed" desc="_TEST_TIMER1_RTC">
void main(void) {
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
Timer1_Init();
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
LED_BLUE_TRIS = 0;
LED_RED_TRIS = 0;
Timer1_Enable();
while (1) {
}
}
// </editor-fold>
#elif defined(_TEST_NFC)
// <editor-fold defaultstate="collapsed" desc="_TEST_NFC">
void main(void) {
char length = 0;
char output[64];
// NFC stuff
NFC_FIRMWARE_VERSION version;
NFC_TargetDataMiFare cardData[2];
NFC_TargetDataMiFare cardData_prev[2];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
I2C_DATA i2c_data;
I2C_Init(&i2c_data); // Initialize the I2C handler code
NFC_DATA nfc_data;
NFC_Init(&nfc_data); // Initialize the NFC chip (uses I2C)
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
version = NFC_Get_Firmware_Version();
while (!version.IC) {
sprintf(output, "Waiting for NFC board..\r\n");
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(3);
version = NFC_Get_Firmware_Version();
}
sprintf(output, "Found chip PN5%X\r\n", version.IC);
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Firmware ver. %d.%d\r\n", version.Ver, version.Rev);
DBG_PRINT_MAIN(output, strlen(output));
NFC_SAMConfig();
memset(cardData, 0, 24);
while (1) {
// // This query will hang until the NFC chip replies (card detected)
// length = NFC_readPassiveTargetID(cardData);
// if (length) {
// DBG_PRINT_MAIN("Cards Found: %u\r\n", length);
// DBG_PRINT_MAIN("UID Length: %d bytes\r\n", cardData[0].NFCID_LEN);
// DBG_PRINT_MAIN("UID: ");
// for (i = 0; i < cardData[0].NFCID_LEN; i++) {
// DBG_PRINT_MAIN("%02X ", cardData[0].NFCID[i]);
// }
// DBG_PRINT_MAIN("\r\n");
// if (length == 2) {
// DBG_PRINT_MAIN("UID Length: %d bytes\r\n", cardData[1].NFCID_LEN);
// DBG_PRINT_MAIN("UID: ");
// for (i = 0; i < cardData[1].NFCID_LEN; i++) {
// DBG_PRINT_MAIN("%02X ", cardData[1].NFCID[i]);
// }
// DBG_PRINT_MAIN("\r\n");
// }
// }
// // This query will hang until the NFC chip replies (card detected)
// length = NFC_readPassiveTargetID(cardData);
// if (length) {
// DBG_PRINT_MAIN("Cards Found: %u\r\n", length);
// DBG_PRINT_MAIN("UID Length: %d bytes\r\n", cardData[0].NFCID_LEN);
// DBG_PRINT_MAIN("UID: ");
// for (i = 0; i < cardData[0].NFCID_LEN; i++) {
// DBG_PRINT_MAIN("%02X ", cardData[0].NFCID[i]);
// }
// DBG_PRINT_MAIN("\r\n");
// if (length == 2) {
// DBG_PRINT_MAIN("UID Length: %d bytes\r\n", cardData[1].NFCID_LEN);
// DBG_PRINT_MAIN("UID: ");
// for (i = 0; i < cardData[1].NFCID_LEN; i++) {
// DBG_PRINT_MAIN("%02X ", cardData[1].NFCID[i]);
// }
// DBG_PRINT_MAIN("\r\n");
// }
// }
// This query will not wait for a detection before responding
length = NFC_Poll_Targets(1, 1, cardData);
if (!length) {
memset(cardData_prev, 0, 24);
} else if (length == 1) {
if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0) {
// Do nothing
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[1].NFCID, cardData[0].NFCID_LEN) == 0) {
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
} else {
sprintf(output, "UID: ");
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < cardData[0].NFCID_LEN; i++) {
sprintf(output, "%02X ", cardData[0].NFCID[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
}
memset(&cardData_prev[1], 0, 12);
} else if (length == 2) {
if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0 &&
memcmp(&cardData[1].NFCID, &cardData_prev[1].NFCID, cardData[1].NFCID_LEN) == 0) {
// Do nothing
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[1].NFCID, cardData[0].NFCID_LEN) == 0 &&
memcmp(&cardData[1].NFCID, &cardData_prev[0].NFCID, cardData[1].NFCID_LEN) == 0) {
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
memcpy((char *) &cardData_prev[1], (const char *) &cardData[1], 12);
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0) {
// First card matched
sprintf(output, "UID2: ");
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < cardData[1].NFCID_LEN; i++) {
sprintf(output, "%02X ", cardData[1].NFCID[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
memcpy(&cardData_prev[1], (const char *) &cardData[1], 12);
} else if (memcmp(&cardData[1].NFCID, &cardData_prev[1].NFCID, cardData[1].NFCID_LEN) == 0) {
// Second card matched
sprintf(output, "UID1: ");
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < cardData[0].NFCID_LEN; i++) {
sprintf(output, "%02X ", cardData[0].NFCID[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
} else {
// No match
sprintf(output, "UID1: ");
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < cardData[0].NFCID_LEN; i++) {
sprintf(output, "%02X ", cardData[0].NFCID[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
sprintf(output, "UID2: ");
DBG_PRINT_MAIN(output, strlen(output));
for (char i = 0; i < cardData[1].NFCID_LEN; i++) {
sprintf(output, "%02X ", cardData[1].NFCID[i]);
DBG_PRINT_MAIN(output, strlen(output));
}
sprintf(output, "\r\n");
DBG_PRINT_MAIN(output, strlen(output));
memcpy((char *) &cardData_prev[1], (const char *) &cardData[1], 12);
}
}
}
}
// </editor-fold>
#elif defined(_TEST_LUX)
// <editor-fold defaultstate="collapsed" desc="_TEST_LUX">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
TSL2561_DATA lux_data;
LUX_Init(&lux_data, TSL2561_ADDR_FLOAT);
I2C_Configure_Master(I2C_100KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
LUX_Begin();
// You can change the gain on the fly, to adapt to brighter/dimmer light situations
// LUX_Set_Gain(TSL2561_GAIN_0X); // set no gain (for bright situtations)
LUX_Set_Gain(TSL2561_GAIN_16X); // set 16x gain (for dim situations)
// Changing the integration time gives you a longer time over which to sense light
// longer timelines are slower, but are good in very low light situtations!
// LUX_Set_Timing(TSL2561_INTEGRATIONTIME_13MS); // shortest integration time (bright light)
LUX_Set_Timing(TSL2561_INTEGRATIONTIME_101MS); // medium integration time (medium light)
// LUX_Set_Timing(TSL2561_INTEGRATIONTIME_402MS); // longest integration time (dim light)
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
while (1) {
unsigned long lum = LUX_Get_Full_Luminosity();
unsigned int ir = lum >> 16;
unsigned int full = lum & 0xFFFF;
sprintf(output, "IR: %d\r\n", ir);
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Visible: %d\r\n", full - ir);
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Full: %d\r\n", full);
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Lux: %ld\r\n\r\n", LUX_Calculate_Lux(full, ir));
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_BMP)
// <editor-fold defaultstate="collapsed" desc="_TEST_BMP">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
BMP085_DATA bmp_data;
BMP_Init(&bmp_data);
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
BMP_Begin(BMP085_ULTRAHIGHRES);
BMP_Read_Temperature();
BMP_Read_Pressure();
BMP_Read_Altitude(101592);
while (1) {
sprintf(output, "Temp: %f *C\r\n", BMP_Read_Temperature());
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Pressure: %ld Pa\r\n", BMP_Read_Pressure());
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "Altitude: %f meters\r\n", BMP_Read_Altitude(101592));
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_GYRO)
// <editor-fold defaultstate="collapsed" desc="_TEST_GYRO">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
L3G_DATA gyro_data;
L3G_Init(&gyro_data, L3GD20_DEVICE, L3G_SA0_HIGH);
I2C_Configure_Master(I2C_100KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
L3G_Begin();
int x,y,z;
while (1) {
L3G_Read(&x, &y, &z);
sprintf(output, "X: %d Y: %d Z: %d\r\n", x, y, z);
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(100);
}
}
// </editor-fold>
#elif defined(_TEST_ACCEL)
// <editor-fold defaultstate="collapsed" desc="_TEST_ACCEL">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
LSM303_DATA acc_data;
LSM303_Init(&acc_data, LSM303DLHC_DEVICE, ACC_ADDRESS_SA0_A_LOW);
I2C_Configure_Master(I2C_100KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
LSM303_Begin();
int a_x, a_y, a_z, m_x, m_y, m_z;
while (1) {
LSM303_Read_Acc(&a_x, &a_y, &a_z);
LSM303_Read_Mag(&m_x, &m_y, &m_z);
sprintf(output, "A - X: %d Y: %d Z: %d\r\n", a_x, a_y, a_z);
DBG_PRINT_MAIN(output, strlen(output));
sprintf(output, "M - X: %d Y: %d Z: %d\r\n", m_x, m_y, m_z);
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(100);
}
}
// </editor-fold>
#elif defined(_TEST_RTC)
// <editor-fold defaultstate="collapsed" desc="_TEST_RTC">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
I2C_Configure_Master(I2C_100KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
DS3231_Begin();
// Sec, Min, Hour, DOW, Day, Month, Year, Mil Time, AM/PM
// DS3231_Set_Time(30, 44, 12, 5, 4, 1, 13, 0, 0);
char sec, min, hour, day, date, month, year, h_mil, h_am_pm;
while (1) {
DS3231_Get_Time(&sec, &min, &hour, &day, &date, &month, &year, &h_mil, &h_am_pm);
sprintf(output, "%02d:%02d:%02d %s %s - %d/%d/%d (%d)\r\n", hour, min, sec, (h_am_pm) ? "PM" : "AM",
(h_mil) ? "24H" : "12H", month, date, year, day);
DBG_PRINT_MAIN(output, strlen(output));
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_LED_BACKPACK)
// <editor-fold defaultstate="collapsed" desc="_TEST_LED_BACKPACK">
void main(void) {
unsigned int counter = 0;
char output[64];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
I2C_DATA i2c_data;
I2C_Init(&i2c_data); // Initialize the I2C handler code
LED_DATA led_data;
LED_Init(&led_data); // Initialize the LED backpack (uses I2C);
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
LED_Start();
LED_Write_Digit_Num(0, 1, 1);
LED_Write_Digit_Num(1, 2, 0);
LED_Write_Digit_Num(2, 3, 0);
LED_Write_Digit_Num(3, 4, 0);
LED_Write_Display();
for (char i = 0; i < 15; i++) {
LED_Set_Brightness(15 - i);
Delay10KTCYx(100);
}
for (char i = 0; i < 15; i++) {
LED_Set_Brightness(i);
Delay10KTCYx(100);
}
LED_Blink_Rate(HT16K33_BLINK_OFF);
while (1) {
LED_Write_Num(counter);
counter++;
if (counter > 9999)
counter = 0;
// Delay10KTCYx(255);
}
}
// </editor-fold>
#elif defined(_TEST_SSD1306_OLED)
// <editor-fold defaultstate="collapsed" desc="_TEST_SDS1306_OLED">
void main(void) {
char output[64];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
SPI_DATA spi_data;
SPI2_Init(&spi_data, SPI2_FOSC_4); // Initialize the SPI module
SSD1306_DATA ssd1306_data;
SSD1306_Init(&ssd1306_data); // Initialize the OLED code
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
SSD1306_Begin(SSD1306_SWITCHCAPVCC);
SSD1306_Display(); // Show splashscreen
while (1) {
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawLine();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawRect();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_FillRect();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawCircle();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Fill_Circle(SSD1306_LCDWIDTH / 2, SSD1306_LCDHEIGHT / 2, 10, SSD1306_WHITE);
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawRoundRect();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_FillRoundRect();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawTriangle();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_FillTriangle();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Test_DrawChar();
SSD1306_Display();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1306_Clear_Display();
SSD1306_Set_Text_Size(1);
SSD1306_Set_Text_Color(SSD1306_WHITE);
SSD1306_Set_Cursor(0, 0);
sprintf(output, "Hello World!\n");
SSD1306_Write_String(output, strlen(output));
// SSD1306_Set_Text_Color_BG(BLACK, WHITE);
unsigned int i = 65535;
sprintf(output, "%u %d\n", i, i);
SSD1306_Write_String(output, strlen(output));
// SSD1306_Set_Text_Size(2);
// SSD1306_Set_Text_Color(WHITE);
unsigned long l = 0xDEADBEEF;
sprintf(output, "0x%lX", (long) l);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
// SSD1306_Clear_Display();
// SSD1306_Set_Rotation(0);
// SSD1306_Set_Text_Size(1);
// SSD1306_Set_Text_Color(SSD1306_WHITE);
// SSD1306_Set_Cursor(0, 0);
// SSD1306_Write_String("%u", i);
// i++;
// SSD1306_Display();
}
}
// </editor-fold>
#elif defined(_TEST_SSD1331_OLED)
// <editor-fold defaultstate="collapsed" desc="_TEST_SSD1331_OLED">
void main(void) {
char output[128];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
SPI_DATA spi_data;
SPI2_Init(&spi_data, SPI2_FOSC_64); // Initialize the SPI module
SSD1331_DATA ssd1331_data;
SSD1331_Init(&ssd1331_data); // Initialize the OLED code
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
SSD1331_Begin();
while (1) {
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_Pattern();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Clear_Display();
SSD1331_Set_Rotation(0);
SSD1331_Set_Cursor(0, 0);
sprintf(output, "Lorem ipsum dolor sit amet, consectetur adipiscing elit. Curabit adipiscing ante sed nibh tincidunt feugiat.");
SSD1331_Write_String(output, strlen(output));
// Delay10KTCYx(255);
// Delay10KTCYx(255);
// SSD1331_Clear_Display();
// SSD1331_Set_Rotation(3);
// SSD1331_Set_Cursor(0, 0);
// SSD1331_Write_String("Lorem ipsum dolor sit amet, consectetur adipiscing elit. Curabitur adipiscing ante sed nibh tincidunt feugiat. Maecenas enim massa");
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_DrawLines(SSD1331_YELLOW);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Test_DrawLines(SSD1331_BLUE);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_DrawRect(SSD1331_GREEN);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(1);
SSD1331_Test_DrawRect(SSD1331_RED);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(2);
SSD1331_Test_DrawRect(SSD1331_BLUE);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Test_DrawRect(SSD1331_YELLOW);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_FillRect(SSD1331_YELLOW, SSD1331_MAGENTA);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Test_FillRect(SSD1331_BLUE, SSD1331_GREEN);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Clear_Display();
SSD1331_Test_FillCircle(10, SSD1331_BLUE);
SSD1331_Test_DrawCircle(10, SSD1331_WHITE);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Clear_Display();
SSD1331_Test_FillCircle(10, SSD1331_MAGENTA);
SSD1331_Test_DrawCircle(10, SSD1331_YELLOW);
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_DrawTria();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Test_DrawTria();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(0);
SSD1331_Test_DrawRoundRect();
Delay10KTCYx(255);
Delay10KTCYx(255);
SSD1331_Set_Rotation(3);
SSD1331_Test_DrawRoundRect();
// SSD1331_Clear_Display();
// SSD1331_Set_Rotation(3);
// SSD1331_Set_Cursor(0,0);
// SSD1331_Set_Text_Color_BG(SSD1331_WHITE, SSD1331_BLACK);
// SSD1331_Write_String("%u", i);
// i++;
}
}
// </editor-fold>
#elif defined(_TEST_OLED_CHAR)
// <editor-fold defaultstate="collapsed" desc="_TEST_OLED_CHAR">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xFF;
ANCON1 = 0x1F;
// UART1_Init();
OLED_CHAR_DATA oled_data;
NHD_Init(&oled_data);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
NHD_Begin(16, 2);
sprintf(output, "Lorem ipsum dolor sit amet, consectetur adipisicing elit, sed do");
NHD_Write_String(output, strlen(output));
NHD_Set_Cursor(0,1);
sprintf(output, "eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut e");
NHD_Write_String(output, strlen(output));
while (1) {
Delay10KTCYx(150);
NHD_Scroll_Display_Left();
}
}
// </editor-fold>
#elif defined(_TEST_NFC_TO_SSD1306_OLED)
// <editor-fold defaultstate="collapsed" desc="_TEST_NFC_TO_SSD1306_OLED">
void main(void) {
char output[64];
// NFC stuff
NFC_FIRMWARE_VERSION version;
NFC_TargetDataMiFare cardData[2];
NFC_TargetDataMiFare cardData_prev[2];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data);
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
NFC_DATA nfc_data;
NFC_Init(&nfc_data);
SPI_DATA spi_data;
SPI2_Init(&spi_data, SPI2_FOSC_4);
SSD1306_DATA ssd1306_data;
SSD1306_Init(&ssd1306_data);
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(output, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(output, strlen(output));
SSD1306_Begin(SSD1306_SWITCHCAPVCC);
memset(cardData, 0, 24);
memset(cardData_prev, 0, 24);
SSD1306_Clear_Display();
SSD1306_Set_Rotation(0);
SSD1306_Set_Cursor(0, 0);
version = NFC_Get_Firmware_Version();
while (!version.IC) {
sprintf(output, "Waiting for NFC board..\n");
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
Delay10KTCYx(255);
version = NFC_Get_Firmware_Version();
}
sprintf(output, "PN5%X Ver. %d.%d\n", version.IC, version.Ver, version.Rev);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
NFC_SAMConfig();
while (1) {
// This query will not wait for a detection before responding
char length = NFC_Poll_Targets(1, 1, cardData);
if (!length) {
memset(cardData_prev, 0, 24);
} else if (length == 1) {
if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0) {
// Do nothing
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[1].NFCID, cardData[0].NFCID_LEN) == 0) {
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
} else {
sprintf(output, "UID: %02X %02X %02X %02X\n", cardData[0].NFCID[0], cardData[0].NFCID[1], cardData[0].NFCID[2], cardData[0].NFCID[3]);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
}
memset(&cardData_prev[1], 0, 12);
} else if (length == 2) {
if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0 &&
memcmp(&cardData[1].NFCID, &cardData_prev[1].NFCID, cardData[1].NFCID_LEN) == 0) {
// Do nothing
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[1].NFCID, cardData[0].NFCID_LEN) == 0 &&
memcmp(&cardData[1].NFCID, &cardData_prev[0].NFCID, cardData[1].NFCID_LEN) == 0) {
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
memcpy((char *) &cardData_prev[1], (const char *) &cardData[1], 12);
} else if (memcmp(&cardData[0].NFCID, &cardData_prev[0].NFCID, cardData[0].NFCID_LEN) == 0) {
// First card matched
sprintf(output, "UID: %02X %02X %02X %02X\n", cardData[1].NFCID[0], cardData[1].NFCID[1], cardData[1].NFCID[2], cardData[1].NFCID[3]);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
memcpy(&cardData_prev[1], (const char *) &cardData[1], 12);
} else if (memcmp(&cardData[1].NFCID, &cardData_prev[1].NFCID, cardData[1].NFCID_LEN) == 0) {
// Second card matched
sprintf(output, "UID: %02X %02X %02X %02X\n", cardData[0].NFCID[0], cardData[0].NFCID[1], cardData[0].NFCID[2], cardData[0].NFCID[3]);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
} else {
// No match
sprintf(output, "UID: %02X %02X %02X %02X\n", cardData[0].NFCID[0], cardData[0].NFCID[1], cardData[0].NFCID[2], cardData[0].NFCID[3]);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
memcpy((char *) &cardData_prev[0], (const char *) &cardData[0], 12);
sprintf(output, "UID: %02X %02X %02X %02X\n", cardData[1].NFCID[0], cardData[1].NFCID[1], cardData[1].NFCID[2], cardData[1].NFCID[3]);
SSD1306_Write_String(output, strlen(output));
SSD1306_Display();
memcpy((char *) &cardData_prev[1], (const char *) &cardData[1], 12);
}
}
}
}
// </editor-fold>
#elif defined(_TEST_LUX_TO_CHAR_OLED)
// <editor-fold defaultstate="collapsed" desc="_TEST_LUX_TO_CHAR_OLED">
void main(void) {
char output[64];
// Set all ports as digial I/O except for AN0-AN2 (pins 2-4)
ANCON0 = 0xF8;
ANCON1 = 0x1F;
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
OLED_CHAR_DATA oled_data;
NHD_Init(&oled_data);
TSL2561_DATA lux_data;
LUX_Init(&lux_data, TSL2561_ADDR_FLOAT);
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
NHD_Begin(16, 2);
// You can change the gain on the fly, to adapt to brighter/dimmer light situations
LUX_Set_Gain(TSL2561_GAIN_0X); // set no gain (for bright situtations)
// LUX_Set_Gain(TSL2561_GAIN_16X); // set 16x gain (for dim situations)
// Changing the integration time gives you a longer time over which to sense light
// longer timelines are slower, but are good in very low light situtations!
// LUX_Set_Timing(TSL2561_INTEGRATIONTIME_13MS); // shortest integration time (bright light)
LUX_Set_Timing(TSL2561_INTEGRATIONTIME_101MS); // medium integration time (medium light)
// LUX_Set_Timing(TSL2561_INTEGRATIONTIME_402MS); // longest integration time (dim light)
while (1) {
unsigned long lum = LUX_Get_Full_Luminosity();
unsigned int ir = lum >> 16;
unsigned int full = lum & 0xFFFF;
NHD_Set_Cursor(0, 0);
sprintf(output, "I: %d ", ir);
NHD_Write_String(output, strlen(output));
sprintf(output, "V: %d ", full - ir);
NHD_Write_String(output, strlen(output));
NHD_Set_Cursor(0, 1);
sprintf(output, "Lux: %ld ", LUX_Calculate_Lux(full, ir));
NHD_Write_String(output, strlen(output));
// Delay10KTCYx(100);
}
}
// </editor-fold>
#elif defined(_TEST_RTC_TO_LED_BACKPACK_CHAR_OLED)
// <editor-fold defaultstate="collapsed" desc="_TEST_RTC_TO_LED_BACKPACK_CHAR_OLED">
void main(void) {
char output[64];
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
I2C_DATA i2c_data;
I2C_Init(&i2c_data);
LED_DATA led_data;
LED_Init(&led_data);
OLED_CHAR_DATA oled_data;
NHD_Init(&oled_data);
I2C_Configure_Master(I2C_400KHZ);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
LED_Start();
LED_Draw_Colon(1);
NHD_Begin(16, 2);
DS3231_Begin();
char sec, min, hour, day, date, month, year, h_mil, h_am_pm;
int time;
while (1) {
DS3231_Get_Time(&sec, &min, &hour, &day, &date, &month, &year, &h_mil, &h_am_pm);
time = hour * 100 + min;
LED_Write_Num(time);
NHD_Set_Cursor(0, 0);
sprintf(output, "%02d:%02d:%02d %s", hour, min, sec, h_am_pm ? "PM" : "AM");
NHD_Write_String(output, strlen(output));
NHD_Set_Cursor(12, 0);
switch (day) {
case 1:
sprintf(output, "*MON");
break;
case 2:
sprintf(output, "*TUE");
break;
case 3:
sprintf(output, "*WED");
break;
case 4:
sprintf(output, "*THU");
break;
case 5:
sprintf(output, "*FRI");
break;
case 6:
sprintf(output, "*SAT");
break;
case 7:
sprintf(output, "*SUN");
break;
}
NHD_Write_String(output, strlen(output));
NHD_Set_Cursor(0, 1);
switch (month) {
case 1:
sprintf(output, "January");
break;
case 2:
sprintf(output, "February");
break;
case 3:
sprintf(output, "March");
break;
case 4:
sprintf(output, "April");
break;
case 5:
sprintf(output, "May");
break;
case 6:
sprintf(output, "June");
break;
case 7:
sprintf(output, "July");
break;
case 8:
sprintf(output, "August");
break;
case 9:
sprintf(output, "September");
break;
case 10:
sprintf(output, "October");
break;
case 11:
sprintf(output, "November");
break;
case 12:
sprintf(output, "December");
break;
}
NHD_Write_String(output, strlen(output));
sprintf(output, " %d 20%d", date, year);
NHD_Write_String(output, strlen(output));
Delay10KTCYx(100);
}
}
// </editor-fold>
#elif defined(_TEST_XBEE)
// <editor-fold defaultstate="collapsed" desc="_TEST_XBEE">
void main(void) {
char buffer[100];
XBEE_RX_AT_COMMAND_RESPONSE_FRAME *rx_at_cmd_response_frame;
XBEE_RX_DATA_PACKET_FRAME *rx_data_frame;
XBEE_RX_DATA_TX_STATUS_FRAME *rx_tx_status_frame;
XBEE_RX_REMOTE_AT_COMMAND_FRAME *rx_remote_at_cmd_frame;
XBEE_RX_NODE_IDENTIFICATION_INDICATOR_FRAME *rx_node_ident_frame;
XBEE_RX_MODEM_STATUS_FRAME *rx_modem_status_frame;
/* --------------------- Oscillator Configuration --------------------- */
// OSCTUNEbits.PLLEN = 1; // Enable 4x PLL
OSCCONbits.IRCF = 0b111; // Set INTOSC postscaler to 8MHz
OSCCONbits.SCS = 0b00; // Use 96MHz PLL as primary clock source
/* -------------------------------------------------------------------- */
// Set all ports as digial I/O
ANCON0 = 0xFF;
ANCON1 = 0x1F;
UART_DATA uart_data;
UART1_Init(&uart_data); // Initialize the UART handler code
XBEE_DATA xbee_data;
XBee_Init(&xbee_data);
Interrupt_Init(); // Initialize the interrupt priorities
Interrupt_Enable(); // Enable high-priority interrupts and low-priority interrupts
sprintf(buffer, "\r\nBegin Program\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
while (1) {
//#define _ROUTER
#define _COORDINATOR
#ifdef _ROUTER
XBEE_TX_DATA_PACKET_FRAME *tx_data_frame;
tx_data_frame = (void *) buffer;
tx_data_frame->frame_type = XBEE_TX_DATA_PACKET;
tx_data_frame->frame_id = 1;
tx_data_frame->destination_64.UPPER_32.long_value = 0x00000000;
tx_data_frame->destination_64.LOWER_32.long_value = 0x00000000;
tx_data_frame->destination_16.INT_16.int_value = 0xFEFF;
tx_data_frame->broadcast_radius = 0;
tx_data_frame->options = 0;
tx_data_frame->data[0] = 0x54;
tx_data_frame->data[1] = 0x78;
tx_data_frame->data[2] = 0x32;
tx_data_frame->data[3] = 0x43;
tx_data_frame->data[4] = 0x6F;
tx_data_frame->data[5] = 0x6F;
tx_data_frame->data[6] = 0x72;
tx_data_frame->data[7] = 0x11;
XBee_Process_Transmit_Frame(buffer, XBEE_TX_DATA_PACKET_FRAME_SIZE + 8);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
Delay10KTCYx(255);
#endif
#ifdef _COORDINATOR
int length = XBee_Get_Received_Frame(buffer);
if (length != 0) {
switch (*(char *) buffer) {
case XBEE_RX_AT_COMMAND_RESPONSE:
sprintf(buffer, "XBEE: parsing recieved AT command response frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_at_cmd_response_frame = (void *) buffer;
// DBG_PRINT_MAIN("Frame ID: %u\r\n", rx_at_cmd_response_frame->frame_id);
// DBG_PRINT_MAIN("AT Command: %c%c Status: %02X\r\n", rx_at_cmd_response_frame->command[0], \\
// rx_at_cmd_response_frame->command[1], rx_at_cmd_response_frame->command_status);
if (length > XBEE_RX_AT_COMMAND_RESPONSE_FRAME_SIZE) {
// DBG_PRINT_MAIN("Command Data: ");
for (int i = 0; i < length - XBEE_RX_AT_COMMAND_RESPONSE_FRAME_SIZE; i++) {
// DBG_PRINT_MAIN("%02X ", rx_at_cmd_response_frame->data[i]);
}
// DBG_PRINT_MAIN("\r\n");
}
break;
case XBEE_RX_DATA_PACKET:
sprintf(buffer, "XBEE: parsing recieved data recieved frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_data_frame = (void *) buffer;
XBee_Convert_Endian_64(&(rx_data_frame->source_64));
XBee_Convert_Endian_16(&(rx_data_frame->source_16));
// DBG_PRINT_MAIN("Source 64: %08lX %08lX Source 16: %04X Options: %02X\r\n", \\
// rx_data_frame->source_64.UPPER_32.long_value, \\
// rx_data_frame->source_64.LOWER_32.long_value, \\
// rx_data_frame->source_16.INT_16.int_value, \\
// rx_data_frame->recieve_options);
// DBG_PRINT_MAIN("Data: ");
for (int i = 0; i < length - XBEE_RX_DATA_PACKET_FRAME_SIZE; i++) {
// DBG_PRINT_MAIN("%02X ", rx_data_frame->data[i]);
}
// DBG_PRINT_MAIN("\r\n");
break;
case XBEE_RX_DATA_TX_STATUS:
sprintf(buffer, "XBEE: parsing recieved TX status frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_tx_status_frame = (void *) buffer;
XBee_Convert_Endian_16(&(rx_tx_status_frame->destination_16));
// DBG_PRINT_MAIN("Frame ID: %u Destination 16: %04X\r\n", \\
// rx_tx_status_frame->frame_id, rx_tx_status_frame->destination_16.INT_16.int_value);
// DBG_PRINT_MAIN("Transmit Retry Count: %02X Delivery Status: %02X Discovery Status: %02X\r\n", \\
// rx_tx_status_frame->transmit_retry_count, rx_tx_status_frame->delivery_status, \\
// rx_tx_status_frame->discovery_status);
break;
case XBEE_RX_IO_DATA_SAMPLE:
sprintf(buffer, "XBEE: parsing recieved IO data sample frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
break;
case XBEE_RX_EXPLICIT_COMMAND:
sprintf(buffer, "XBEE: parsing recieved explicit command frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
break;
case XBEE_RX_REMOTE_AT_COMMAND_RESPONSE:
sprintf(buffer, "XBEE: parsing recieved remote AT command frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_remote_at_cmd_frame = (void *) buffer;
break;
case XBEE_RX_ROUTE_RECORD:
sprintf(buffer, "XBEE: parsing recieved route record frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
break;
case XBEE_RX_NODE_IDENTIFICATION:
sprintf(buffer, "XBEE: parsing recieved node identification frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_node_ident_frame = (void *) buffer;
XBee_Convert_Endian_64(&(rx_node_ident_frame->source_64));
XBee_Convert_Endian_16(&(rx_node_ident_frame->source_16));
XBee_Convert_Endian_64(&(rx_node_ident_frame->remote_64));
XBee_Convert_Endian_16(&(rx_node_ident_frame->remote_16));
XBee_Convert_Endian_16(&(rx_node_ident_frame->parent_16));
// DBG_PRINT_MAIN("Source 64: %08lX %08lX Source 16: %04X Options: %02X\r\n", \\
// rx_node_ident_frame->source_64.UPPER_32.long_value, \\
// rx_node_ident_frame->source_64.LOWER_32.long_value, \\
// rx_node_ident_frame->source_16.INT_16.int_value, \\
// rx_node_ident_frame->recieve_options);
// DBG_PRINT_MAIN("Remote 64: %08lX %08lX Remote 16: %04X Parent 16: %04X\r\n", \\
// rx_node_ident_frame->remote_64.UPPER_32.long_value, \\
// rx_node_ident_frame->remote_64.LOWER_32.long_value, \\
// rx_node_ident_frame->remote_16.INT_16.int_value, \\
// rx_node_ident_frame->parent_16.INT_16.int_value);
// DBG_PRINT_MAIN("Device Type: %02X Source Event: %02X\r\n", \\
// rx_node_ident_frame->device_type, rx_node_ident_frame->source_event);
break;
case XBEE_RX_FRAME_MODEM_STATUS:
sprintf(buffer, "XBEE: parsing recieved modem status frame\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
rx_modem_status_frame = (void *) buffer;
// DBG_PRINT_MAIN("Status: %02X\r\n", rx_modem_status_frame->status);
break;
default:
sprintf(buffer, "??\r\n");
DBG_PRINT_MAIN(buffer, strlen(buffer));
break;
}
}
#endif
}
}
// </editor-fold>
#else
int main() {
}
#endif