/**
* \brief Shows on display an explanation of how to use the demonstration
* SW1 pressed skips this explanation.
*/
static void main_introduction(void)
{
LED_On(LED3_GPIO); /* Keep power LED on */
/* Display Atmel logo */
if (!main_introduction_is_exist()) {
gfx_mono_generic_put_bitmap(&bitmap_atmel, 10, 0);
gfx_mono_draw_string(DISPLAY_INTRO_MSG_EXIT,
0, 25, &sysfont);
}
main_introduction_delay(DISPLAY_INTRO_ATMEL_DELAY);
/* Display message */
if (!main_introduction_is_exist()) {
gfx_mono_init();
gfx_mono_draw_string(DISPLAY_INTRO_MSG_A,
0, 10 * 0, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_MSG_B,
0, 10 * 1, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_MSG_C,
0, 10 * 2, &sysfont);
}
main_introduction_delay(DISPLAY_INTRO_HELP_DELAY);
/* Display help */
if (!main_introduction_is_exist()) {
gfx_mono_init();
gfx_mono_draw_string(DISPLAY_INTRO_HELP_A,
0, 10 * 0, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_HELP_B,
0, 10 * 1, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_HELP_C,
0, 10 * 2, &sysfont);
}
main_introduction_delay(DISPLAY_INTRO_HELP_DELAY);
/* Display help */
if (!main_introduction_is_exist()) {
gfx_mono_init();
gfx_mono_draw_string(DISPLAY_INTRO_INF_A,
0, 10 * 0, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_INF_B,
0, 10 * 1, &sysfont);
gfx_mono_draw_string(DISPLAY_INTRO_INF_C,
0, 10 * 2, &sysfont);
}
main_introduction_delay(DISPLAY_INTRO_HELP_DELAY);
/* Clean display */
gfx_mono_init();
}
/**
* \brief Main entry of example application
*/
int main(void)
{
/**
* Starts off by initializing the system clock before configuring the
* board and the monochrome graphical system.
*/
board_init();
sysclk_init();
gfx_mono_init();
/**
* After initialization the example will write the "Hello
* world!\\r\\nI'm board..." string to position 0, 0 on the display.
* Use the system font sysfont. Afterwards the system busy waits
* forever in a while true loop.
*/
#if BOARD == XMEGA_A3BU_XPLAINED
gfx_mono_draw_string("My name is\r\nXMEGA-A3BU Xplained!\r\nAnd I'm board...",
0, 0, &sysfont);
#elif BOARD == XMEGA_C3_XPLAINED
gfx_mono_draw_string("My name is\r\nXMEGA-C3 Xplained!\r\nAnd I'm board...",
0, 0, &sysfont);
#else
# error Unknow board.
#endif
while (true) {
/* Intentionally left empty. */
}
}
void init_platform() {
button_init(&select_btn, PIN_PA14);
button_init(&down_btn, PIN_PA15);
device.speed = 255;
device.inclination = 255;
gfx_mono_init();
ssd1306_init();
configure_tc_cadence();
cadence_sensor_init();
// The page address to write to
uint8_t page_address = 0;
// The column address, or the X pixel.
uint8_t column_address = 0;
ssd1306_clear_buffer();
gfx_mono_draw_string("Accelerometer",1, 18, &sysfont);
gfx_mono_draw_string("Setup",37, 32, &sysfont);
ssd1306_write_display();
gfx_mono_active_menu = SPEED_VIEW;
}
/**
* \brief Main entry of example application
*/
int main(void)
{
/**
* Starts off by initializing the system clock before configuring the
* board and the monochrome graphical system.
*/
system_init();
gfx_mono_init();
uint8_t start_line_address = 0;
uint8_t scroll = 0;
uint32_t line = 0;
/**
* After initialization the example will write the Star Wars opening scrolling text.
* Use the system font sysfont. Afterwards the text will be scrolled forever.
*/
while (true) {
if (++start_line_address%8 == 0) {
scroll = 1;
gfx_mono_draw_string(string[line%LINES],0, ((line)%8)*8, &sysfont);
line++;
} else if (start_line_address % 7 != 0) {
delay_ms(100);
}
if ( scroll != 0 ) {
ssd1306_set_display_start_line_address(start_line_address-8);
} else {
gfx_mono_draw_string(string[line%LINES],0, ((line)%8)*8, &sysfont);
line++;
}
}
}
int main (void)
{
board_init(); //Board definition and selection
sysclk_init(); //System clock init
usart_init_rs232(USART_SERIAL_RFID, &usart_options_RFID); //UART init
usart_init_rs232(USART_SERIAL_Monitor, &usart_options_Monitor);
gfx_mono_init(); //LCD init
PORTE.OUTSET=PIN4_bm; //LCD Back light on
//RTC Init
sysclk_enable_module(SYSCLK_PORT_GEN, SYSCLK_RTC);
while (RTC32.SYNCCTRL & RTC32_SYNCBUSY_bm);
if (rtc_vbat_system_check(false) != VBAT_STATUS_OK)
rtc_init();
PORTE.DIRCLR=PIN5_bm;
while(1)
{
if(Receive())
{
card_no=Check();
if(card_no)
{
PORTR.OUTCLR=PIN0_bm;
gfx_mono_draw_string("Card Detected",0,0,&sysfont);
gfx_mono_draw_string("Welcome",0,10,&sysfont);
gfx_mono_draw_string(names[card_no-1],55,10,&sysfont);
rtc_timestamp=rtc_get_time();
calendar_timestamp_to_date_tz(rtc_timestamp,5,30,&get_date);
gfx_mono_draw_string(display_time(get_date,arr),0,20,&sysfont);
delay_s(1);
gfx_mono_init();
PORTR.OUTSET=PIN0_bm;
}
else
{
PORTR.OUTCLR=PIN1_bm;
gfx_mono_draw_string("Invalid Card",0,0,&sysfont);
delay_s(1);
gfx_mono_init();
PORTR.OUTSET=PIN1_bm;
}
}
}
}
/**
* \brief Main entry of example application
*/
int main(void)
{
/* Variable to store the last winner */
uint8_t winner;
system_init();
delay_init();
gfx_mono_init();
init_buttons();
init_display();
/* Start game */
while (true) {
winner = 0;
/* Wait for button interaction */
while (get_button() == BUTTON_NONE) {
}
/* Draw empty board */
setup_board();
/* Start playing */
for (int i = 0; i < 5; i++) {
/* User's turn */
user_turn();
/* Check if the game is over */
winner = we_have_a_winner();
if (winner || i == 4) {
break;
}
/* Add a delay for the opponent to "think" */
delay_ms(500);
/* Opponent's turn */
opponent_turn();
/* Check if the game is over */
winner = we_have_a_winner();
if (winner) {
break;
}
}
/* Game over, print winner and get ready for restart */
if (winner == 1) {
/* User won */
gfx_mono_draw_string("You won!", STRING_X, 0, &sysfont);
wins++;
} else if (winner == 2) {
gfx_mono_draw_string("You lost!", STRING_X, 0, &sysfont);
} else {
gfx_mono_draw_string("No winner!", STRING_X, 0, &sysfont);
}
gfx_mono_draw_string("Press a button", STRING_X, SQUARE3_Y, &sysfont);
games++;
}
}
int main(void)
{
struct adc_config adc_conf;
struct adc_channel_config adcch_conf;
board_init();
sysclk_init();
sleepmgr_init();
irq_initialize_vectors();
cpu_irq_enable();
gfx_mono_init();
// Enable back light of display
ioport_set_pin_high(LCD_BACKLIGHT_ENABLE_PIN);
// Initialize configuration structures.
adc_read_configuration(&ADCA, &adc_conf);
adcch_read_configuration(&ADCA, ADC_CH0, &adcch_conf);
/* Configure the ADC module:
* - unsigned, 12-bit results
* - VCC voltage reference
* - 200 kHz maximum clock rate
* - manual conversion triggering
* - temperature sensor enabled
* - callback function
*/
adc_set_conversion_parameters(&adc_conf, ADC_SIGN_ON, ADC_RES_12,
ADC_REF_VCC);
adc_set_clock_rate(&adc_conf, 200000UL);
adc_set_conversion_trigger(&adc_conf, ADC_TRIG_MANUAL, 1, 0);
adc_enable_internal_input(&adc_conf, ADC_INT_TEMPSENSE);
adc_write_configuration(&ADCA, &adc_conf);
adc_set_callback(&ADCA, &adc_handler);
/* Configure ADC channel 0:
* - single-ended measurement from temperature sensor
* - interrupt flag set on completed conversion
* - interrupts disabled
*/
adcch_set_input(&adcch_conf, ADCCH_POS_PIN1, ADCCH_NEG_NONE,
1);
adcch_set_interrupt_mode(&adcch_conf, ADCCH_MODE_COMPLETE);
adcch_enable_interrupt(&adcch_conf);
adcch_write_configuration(&ADCA, ADC_CH0, &adcch_conf);
// Enable the ADC and start the first conversion.
adc_enable(&ADCA);
adc_start_conversion(&ADCA, ADC_CH0);
do {
// Sleep until ADC interrupt triggers.
sleepmgr_enter_sleep();
} while (1);
}
int main(void)
{
board_init();
// Initialize graphics library
gfx_mono_init();
// Enable backlight
ioport_set_pin_high(LCD_BACKLIGHT_ENABLE_PIN);
gfx_mono_draw_string("Tests successful: \r\n1 2 3 4 5",
0, 0, &sysfont);
if (test_erase() == STATUS_OK) {
gfx_mono_draw_string("OK",
0, 2 * SYSFONT_HEIGHT + 1, &sysfont);
} else {
gfx_mono_draw_string("ERR",
0, 2 * SYSFONT_HEIGHT + 1, &sysfont);
}
if (test_write() == STATUS_OK) {
gfx_mono_draw_string("OK",
4 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
} else {
gfx_mono_draw_string("ERR",
4 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
}
if (test_atomic_write() == STATUS_OK) {
gfx_mono_draw_string("OK",
8 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
} else {
gfx_mono_draw_string("ERR",
8 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
}
if (test_split_write() == STATUS_OK) {
gfx_mono_draw_string("OK",
12 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
} else {
gfx_mono_draw_string("ERR",
12 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
}
if (test_erase_bytes() == STATUS_OK) {
gfx_mono_draw_string("OK",
16 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
} else {
gfx_mono_draw_string("ERR",
16 * SYSFONT_WIDTH, 2 * SYSFONT_HEIGHT + 1, &sysfont);
}
while (true) {}
}
/**
* \brief Main application routine
* - Initializes the board and LCD display
* - Initialize ADC ,to read ADC offset and configure for oversampling
* - If number of sample Reached to total number of oversample required,
* call function to start process on oversampled ADC readings
*/
int main( void )
{
/*
* Initialize basic features for the AVR XMEGA family.
* - PMIC is needed to enable all interrupt levels.
* - Board init for setting up GPIO and board specific features.
* - Sysclk init for configuring clock speed and turning off unused
* peripherals.
* - Sleepmgr init for setting up the basics for the sleep manager,
*/
board_init();
sysclk_init();
pmic_init();
sleepmgr_init();
/* Initialize ST7565R controller and LCD display */
gfx_mono_init();
/* Display headings on LCD for oversampled result */
gfx_mono_draw_string("Oversampled", 0, 0, &sysfont);
/* Display headings on LCD for normal result */
gfx_mono_draw_string("Normal", 80, 0, &sysfont);
/* Initialize ADC ,to read ADC offset and configure ADC for oversampling
**/
init_adc();
/* Enable global interrupt */
cpu_irq_enable();
/* Switch ON LCD back light */
ioport_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
/* Set LCD contrast */
st7565r_set_contrast(ST7565R_DISPLAY_CONTRAST_MIN);
/* Continuous Execution Loop */
while (1) {
/*
* Check if number of sample reached to total Number of
* oversample required by checking status of
* adc_oversampled_flag
*/
if (adc_oversampled_flag == true) {
/* Reset the adc_oversampled_flag */
adc_oversampled_flag = false;
/* Process all received ADC samples and calculate analog
* input */
adc_oversampled();
}
}
}
int main (void)
{
uint8_t menu_status;
struct keyboard_event input;
static usart_rs232_options_t SERIAL_OPTIONS = {
.baudrate = 57600,
.charlength = USART_CHSIZE_8BIT_gc,
.paritytype = USART_PMODE_DISABLED_gc,
.stopbits = false
};
sysclk_init();
board_init();
solenoid_init();
gfx_mono_init();
usart_init_rs232(USART_SERIAL, &SERIAL_OPTIONS);
gpio_toggle_pin(NHD_C12832A1Z_BACKLIGHT);
while(true)
{
gfx_mono_menu_init(&main_menu);
do {
do {
keyboard_get_key_state(&input);
} while (input.type != KEYBOARD_RELEASE);
menu_status = gfx_mono_menu_process_key(&main_menu, input.keycode);
} while (menu_status == GFX_MONO_MENU_EVENT_IDLE);
//Determine what song to play based on
//the input from the user controlling the A3BU
switch(menu_status) {
case 0:
song_menu(0);
play_song_with_input(SAMPLE_SONG, SAMPLE_SONG_LENGTH);
break;
case 1:
song_menu(1);
play_song_with_input(STAIRWAY, 6);
break;
case 2:
song_menu(2);
play_song_with_input(MISERLOU, 1);
break;
case 3:
song_menu(3);
play_serial();
break;
}
}
}
/**
* \brief Run spinner widget unit tests
*/
int main (void)
{
const usart_serial_options_t usart_serial_options = {
.baudrate = CONF_TEST_BAUDRATE,
.charlength = CONF_TEST_CHARLENGTH,
.paritytype = CONF_TEST_PARITY,
.stopbits = CONF_TEST_STOPBITS,
};
sysclk_init();
board_init();
gfx_mono_init();
stdio_serial_init(CONF_TEST_USART, &usart_serial_options);
// Define all the test cases
DEFINE_TEST_CASE(single_spinner_spincollection_test, NULL,
run_single_spinner_spincollection_test, NULL,
"Single spinners in spincollection test");
DEFINE_TEST_CASE(two_spinners_spincollection_test, NULL,
run_two_spinners_spincollection_test, NULL,
"Two spinners in spincollection test");
DEFINE_TEST_CASE(three_spinners_spincollection_test, NULL,
run_three_spinners_spincollection_test, NULL,
"Three spinners in spincollection test");
DEFINE_TEST_CASE(cancel_spinner_spincollection_test, NULL,
run_cancel_spinner_spincollection_test, NULL,
"Cancel spinner choice test");
DEFINE_TEST_CASE(event_back_spincollection_test, NULL,
run_event_back_spincollection_test, NULL,
"Event back spincollection test");
// Put test case addresses in an array
DEFINE_TEST_ARRAY(spinctrl_tests) = {
&single_spinner_spincollection_test,
&two_spinners_spincollection_test,
&three_spinners_spincollection_test,
&event_back_spincollection_test,
&cancel_spinner_spincollection_test,
};
// Define the test suite
DEFINE_TEST_SUITE(spinctrl_suite, spinctrl_tests,
"Spinner widget with test suite");
// Set up the test data pointer and run all tests in the suite
test_suite_run(&spinctrl_suite);
while (1) {
/* Intentionally left empty. */
}
}
int main(void){
struct gfx_mono_bitmap smiley;
struct gfx_mono_bitmap smiley_flash;
board_init();
sysclk_init();
/* Initialize GFX lib. Will configure the display controller and
* create a framebuffer in RAM if the controller lack two-way communication
*/
gfx_mono_init();
// Setup bitmap struct for bitmap stored in RAM
smiley.type = GFX_MONO_BITMAP_RAM;
smiley.width = 8;
smiley.height = 16;
smiley.data.pixmap = smiley_data;
// Setup bitmap for bitmap stored in FLASH
smiley_flash.type = GFX_MONO_BITMAP_PROGMEM;
smiley_flash.width = 8;
smiley_flash.height = 16;
smiley_flash.data.progmem = flash_bitmap;
// Output bitmaps to display
gfx_mono_put_bitmap(&smiley, 50, 0);
gfx_mono_put_bitmap(&smiley_flash, 0, 0);
//Draw horizontal an vertical lines with length 128 and 32 pixels
gfx_mono_draw_vertical_line(1, 0, 32, GFX_PIXEL_SET);
gfx_mono_draw_horizontal_line(0, 2, 128, GFX_PIXEL_SET);
// Draw a line from the top-left corner to the bottom right corner
gfx_mono_draw_line(0, 0, 127, 31, GFX_PIXEL_SET);
// Draw a rectangle with upper left corner at x=20,y=10 - width=height=10px
gfx_mono_draw_rect(20, 10, 10, 10,GFX_PIXEL_SET);
// Draw a 10x10 filled rectangle at x=10,y=10
gfx_mono_draw_filled_rect(10, 10, 10, 10, GFX_PIXEL_SET);
// Draw a whole circle at x=50,y=16 with radios=8 and all octants drawn
gfx_mono_draw_circle(50, 16, 8, GFX_PIXEL_SET,GFX_WHOLE);
// Draw a filled circle with all quadrant drawn
gfx_mono_draw_filled_circle(80, 16, 10, GFX_PIXEL_SET, GFX_WHOLE);
while(true) {
// This while left intentionally blank to halt execution.
}
}
int main (void)
{
system_init();
gfx_mono_init();
// Initialize the demo..
demo_co_routines_init();
// ..and let FreeRTOS run tasks!
vTaskStartScheduler();
do {
// Intentionally left empty
} while (true);
}
/**
* \brief Main entry of example application
*/
int main(void)
{
struct gfx_mono_spinctrl spinner1;
struct gfx_mono_spinctrl spinner2;
struct gfx_mono_spinctrl spinner3;
struct gfx_mono_spinctrl_spincollection spinners;
/**
* Starts off by initializing the system clock before configuring the
* board and the monochrome graphical system.
*/
system_init();
gfx_mono_init();
int16_t tmp[3];
// Initialize spinners
gfx_mono_spinctrl_init(&spinner1, SPINTYPE_STRING, spinnertitle,
spinner_choicestrings, 0, 3, 0);
gfx_mono_spinctrl_init(&spinner2, SPINTYPE_INTEGER,
spinnertitle2, NULL, -60, -41, 0);
gfx_mono_spinctrl_init(&spinner3, SPINTYPE_INTEGER,
spinnertitle3, NULL, 19999, 20200, 0);
// Initialize spincollection
gfx_mono_spinctrl_spincollection_init(&spinners);
// Add spinners to spincollection
gfx_mono_spinctrl_spincollection_add_spinner(&spinner1, &spinners);
gfx_mono_spinctrl_spincollection_add_spinner(&spinner2, &spinners);
gfx_mono_spinctrl_spincollection_add_spinner(&spinner3, &spinners);
// Show spincollection on screen
gfx_mono_spinctrl_spincollection_show(&spinners);
// Spincollection is now ready to process input from user
while(1) {
gfx_mono_spinctrl_spincollection_process_key(&spinners, GFX_MONO_SPINCTRL_KEYCODE_DOWN, tmp);
delay_s(1);
gfx_mono_spinctrl_spincollection_process_key(&spinners, GFX_MONO_SPINCTRL_KEYCODE_ENTER, tmp);
delay_s(1);
}
}
/**
* \brief Main entry of example application
*/
int main(void)
{
struct gfx_mono_spinctrl spinner1;
struct gfx_mono_spinctrl spinner2;
struct gfx_mono_spinctrl spinner3;
struct gfx_mono_spinctrl_spincollection spinners;
int16_t results[GFX_MONO_SPINCTRL_MAX_ELEMENTS_IN_SPINCOLLECTION];
/**
* Starts off by initializing the system clock before configuring the
* board and the monochrome graphical system.
*/
board_init();
sysclk_init();
gfx_mono_init();
// Initialize spinners
gfx_mono_spinctrl_init(&spinner1, SPINTYPE_STRING, spinnertitle,
spinner_choicestrings, 0, 3, 0);
gfx_mono_spinctrl_init(&spinner2, SPINTYPE_INTEGER,
spinnertitle2, NULL, -60, -41, 0);
gfx_mono_spinctrl_init(&spinner3, SPINTYPE_INTEGER,
spinnertitle3, NULL, 19999, 20200, 0);
// Initialize spincollection
gfx_mono_spinctrl_spincollection_init(&spinners);
// Add spinners to spincollection
gfx_mono_spinctrl_spincollection_add_spinner(&spinner1, &spinners);
gfx_mono_spinctrl_spincollection_add_spinner(&spinner2, &spinners);
gfx_mono_spinctrl_spincollection_add_spinner(&spinner3, &spinners);
// Show spincollection on screen
gfx_mono_spinctrl_spincollection_show(&spinners);
// Spincollection is now ready to process input from user
while(1) {
// Intentionally left empty.
}
}
/*! \brief Main function. Execution starts here.
*/
int main(void)
{
irq_initialize_vectors();
cpu_irq_enable();
/* Initialize ASF services */
sleepmgr_init();
sysclk_init();
board_init();
gfx_mono_init();
sd_mmc_init();
rtc_init();
stdio_usb_init(); /* Initialize STDIO and start USB */
udc_stop(); /* Stop USB by default */
main_introduction();
/* Initialize tasks */
app_touch_init();
app_cpu_load_init();
app_sampling_init();
/* The main loop */
while (true) {
/* Enter in sleep mode */
app_cpu_load_enter_sleep();
sleepmgr_enter_sleep();
/* Execute tasks */
app_usb_task();
app_microsd_task();
app_sampling_task();
app_touch_task();
app_cpu_load_task();
}
}
/**
* \brief Example 2 main application routine
*/
int main(void)
{
uint8_t flashbuf[8];
uint32_t checksum1;
uint32_t checksum2;
board_init();
sysclk_init();
gfx_mono_init();
// Calculate checksum for an address range in flash.
checksum1 = crc_flash_checksum(CRC_FLASH_RANGE, FLASHADDR, 4);
// Read out the buffer from flash
nvm_flash_read_buffer(FLASHADDR, flashbuf, 4);
// Calculate checksum for the buffer from flash
checksum2 = crc_io_checksum(flashbuf, 4, CRC_32BIT);
// Make sure the calculated checksums are equal and write to screen
if (checksum1 == checksum2) {
gfx_mono_draw_string("Address range CRC OK",
0, 0, &sysfont);
}
// Append the flash checksum and recalculate
crc32_append_value(checksum1, flashbuf+4);
checksum1 = crc_io_checksum(flashbuf, 8, CRC_32BIT);
// Make sure the checksum is zero and write to screen
if (checksum1 == 0) {
gfx_mono_draw_string("IO CRC zero OK", 0,
SYSFONT_HEIGHT + 1, &sysfont);
}
// Calculate checksum for the boot section
checksum1 = crc_flash_checksum(CRC_BOOT, 0, 0);
// Recalculate checksum for the boot section using flash range CRC
checksum2 = crc_flash_checksum(CRC_FLASH_RANGE, BOOT_SECTION_START,
BOOT_SECTION_END-BOOT_SECTION_START+1);
// Make sure the checksums are equal and write to screen
if (checksum1 == checksum2) {
gfx_mono_draw_string("Boot section CRC OK",
0, (SYSFONT_HEIGHT + 1)*2, &sysfont);
}
// Calculate checksum for the application section
checksum1 = crc_flash_checksum(CRC_APP, 0, 0);
// Recalculate checksum for the application section using flash range CRC
checksum2 = crc_flash_checksum(CRC_FLASH_RANGE, APP_SECTION_START,
APP_SECTION_END-APP_SECTION_START+1);
// Make sure the checksums are equal and write to screen
if (checksum1 == checksum2) {
gfx_mono_draw_string("App section CRC OK",
0, (SYSFONT_HEIGHT + 1)*3, &sysfont);
}
// End of application, loop forever
while (true) {
// Intentionally left empty
}
}
int main (void)
{
sysclk_init();
board_init();
pmic_init();
gfx_mono_init();
adc_sensors_init();
// Enable display backlight
gpio_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
cpu_irq_enable();
while(true){
if(state==1){
start_game();
}else if(state==2){
tc_enable(&TCC0);
tc_set_overflow_interrupt_callback(&TCC0, sun_count);
tc_set_wgm(&TCC0, TC_WG_NORMAL);
tc_write_period(&TCC0, 13500);
tc_set_overflow_interrupt_level(&TCC0, TC_INT_LVL_LO);
tc_write_clock_source(&TCC0, TC_CLKSEL_DIV256_gc);
tc_enable(&TCC1);
tc_set_overflow_interrupt_callback(&TCC1, button_press);
tc_set_wgm(&TCC1, TC_WG_NORMAL);
tc_write_period(&TCC1, 62500);
tc_set_overflow_interrupt_level(&TCC1, TC_INT_LVL_LO);
tc_write_clock_source(&TCC1, TC_CLKSEL_DIV8_gc);
gfx_mono_draw_string("SUN: 0", 0, 0, &sysfont);
gfx_mono_draw_string(">", 0, cursor_position, &sysfont);
gfx_mono_draw_string("Score: 0", 63, 0, &sysfont);
randomPeta();
char* score_string = NULL;
uint16_t old_score = 0;
for(j = 0; j <= 70; j++){
if(sun_value > 10){
lightsensor_measure();
while (!lightsensor_data_is_ready()) {
// Wait until the conversion is complete
}
if(lightsensor_get_raw_value() > 250){
sun_value -= 10;
sunBurst();
gfx_mono_draw_filled_rect(12,8,114,24,GFX_PIXEL_CLR);
}
}
if(score > old_score){
sprintf(score_string, "%3d", score);
gfx_mono_draw_string(score_string, 100, 0, &sysfont);
old_score = score;
}
if(lose){
state=3;
break;
}else if(zombie==0){
state=4;
break;
}
tampilkanPeta();
tampilkanTembak();
delay_ms(1000);
}
}else if(state==3){
cpu_irq_disable();
gfx_mono_draw_filled_rect(0,0,128,32,GFX_PIXEL_CLR);
while(true){
gfx_mono_draw_string("GAME OVER",36,8,&sysfont) ;
gfx_mono_draw_string("You Lose",39,20,&sysfont) ;
}
}else if(state==4){
cpu_irq_disable();
gfx_mono_draw_filled_rect(0,0,128,32,GFX_PIXEL_CLR);
while(true){
gfx_mono_draw_string("GAME OVER",36,2,&sysfont) ;
gfx_mono_draw_string("You Win",42,12,&sysfont) ;
gfx_mono_draw_string("Score = ",30,22,&sysfont) ;
char* score_string = NULL;
sprintf(score_string, "%3d", score);
gfx_mono_draw_string(score_string, 79, 22, &sysfont);
}
}
}
}
/**
* \brief Main function.
*
* Initializes the board, displays splash screens, then launches application.
*
* If the application exits (fails), the error is written to display and an
* infinite loop with watchdog resets is entered.
*/
int main(void)
{
/* Holds state of the QTouch button */
enum pot_t potstate = POT_OFF;
/* Last state of the QTouch button for change detection */
enum pot_t last_potstate = POT_OFF;
/* Holds user-selected power-setting */
uint8_t wattage = 0;
/* Last power-setting for change detection */
uint8_t last_wattage = 0;
/* Whether the plate element is/should be actuated */
bool power = false;
/* Last power setting for change detection */
bool last_power = false;
/* Last time a simulation step was executed */
uint32_t last_sim_step;
/* Last time a control step was executed */
uint32_t last_ctl_step;
/* The WDT was just reset by the WDT functional test*/
classb_last_wdt_reset = rtc_get_time();
last_sim_step = classb_last_wdt_reset;
last_ctl_step = classb_last_wdt_reset;
sysclk_init();
board_init();
pmic_init();
gfx_mono_init();
touch_init();
main_init_rtc32();
cpu_irq_enable();
/* Enable display backlight */
ioport_set_pin_level(LCD_BACKLIGHT_ENABLE_PIN,
LCD_BACKLIGHT_ENABLE_LEVEL);
/* If an error was detected, skip directly to displaying it */
if (classb_error) {
goto display_error;
}
/* Check if required jumpers are mounted, show explanation if not */
if (!main_check_jumpers()) {
show_explain_splash();
}
/* Display a splash screen showing button functions */
show_button_splash();
/* Initialize the ADC, DAC and Timer/Counter modules that are used to
* emulate real world objects.
*/
main_init_adc_dac();
main_init_tc();
/* Initialize subsystems used for Class B testing */
oven_classb_init_tests();
/* Reset the simulation states */
oven_plant_init();
/* Clear screen */
gfx_mono_draw_filled_rect(0, 0, 128, 32, GFX_PIXEL_CLR);
/* Draw the initial axis system */
oven_ui_draw_axis();
/* Draw the user interface */
oven_ui_update_graphics(potstate, wattage, power);
/* Run simulation as long as no error is detected in class B tests */
while (!classb_error) {
uint32_t current_time;
oven_wdt_periodic_reset();
current_time = rtc_get_time();
/* Add power on SW1 press, wrap at 20 */
if (oven_ui_power_button_is_pressed()) {
wattage = (wattage + 5) % 20;
}
/* Check QTouch sensor and map this to `potstate`. This is
* needed both for simulation and for the control routine.
*/
potstate = (!touch_key_is_pressed()) ? POT_ON : POT_OFF;
/* Execute control routine periodically */
if (current_time > (last_ctl_step + OVEN_CTL_STEP_TIME)) {
ovenctl_execute_control_step(current_time, &wattage,
&power, potstate);
last_ctl_step = current_time;
}
/* Execute simulation step periodically */
if (current_time > (last_sim_step + OVEN_SIM_STEP_TIME)) {
main_execute_simulation_step(current_time, potstate);
last_sim_step = current_time;
}
/* Update graphics on wattage, power or pot on/off change */
if ((potstate != last_potstate) || (power != last_power)
|| (wattage != last_wattage)) {
oven_ui_update_graphics(potstate, wattage, power);
}
/* Update variable states for change detection on next loop
* iteration.
*/
last_power = power;
last_wattage = wattage;
last_potstate = potstate;
/* If back/menu button is pressed, pause simulation and test
* timers, and show menu.
*/
if (oven_ui_back_button_is_pressed()) {
/* Disable interrupt monitoring, if enabled */
classb_intmon_set_state(TEMP_SANITY_TEST, M_DISABLE);
classb_intmon_set_state(PER_CLASSB_TESTS, M_DISABLE);
OVEN_PERIODIC_TEMPTEST_TC.CTRLA &= ~TC1_CLKSEL_gm;
OVEN_PERIODIC_CLASSB_TC.CTRLA &= ~TC0_CLKSEL_gm;
/* Show the error insertion menu */
oven_classb_error_insertion();
/* Re-enable timers upon return */
OVEN_PERIODIC_CLASSB_TC.CTRLA |= TC_CLKSEL_DIV1024_gc;
/* If user did not induce an error in the temperature
* test timing, re-enable it correctly.
*/
if ((OVEN_PERIODIC_TEMPTEST_TC.CTRLA & TC1_CLKSEL_gm)
== TC_CLKSEL_OFF_gc) {
OVEN_PERIODIC_TEMPTEST_TC.CTRLA
|= TC_CLKSEL_DIV1024_gc;
}
/* Re-enable interrupt monitoring if the oven is
* supposed to be on, i.e., they were enabled before.
*/
if (wattage > 0) {
classb_intmon_set_state(TEMP_SANITY_TEST,
M_ENABLE);
classb_intmon_set_state(PER_CLASSB_TESTS,
M_ENABLE);
}
/* Reset UI */
gfx_mono_draw_filled_rect(0, 0, 128, 32, GFX_PIXEL_CLR);
oven_ui_draw_axis();
oven_ui_update_graphics(potstate, wattage, power);
}
}
display_error:
/* Show red status LED and write the error on display */
oven_ui_set_status_leds(S_RED);
oven_classb_display_error();
/* Enter infinite loop of watchdog resets so user can read display */
while (true) {
oven_wdt_periodic_reset();
}
}
int main(void)
{
static uint8_t ret = 0;
uint8_t i = 0;
uint8_t ibuf[16] = {0};
static uint8_t test_pattern[PATTERN_TEST_LENGTH];
sensor_data_t sensor_data;
twi_master_options_t opt;
irq_initialize_vectors();
sysclk_init();
/* Initialize the board.
* The board-specific conf_board.h file contains the configuration of
* the board initialization.
*/
board_init();
gfx_mono_init();
ioport_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
gfx_mono_draw_string("Reading....\r\n", 0, 0, &sysfont);
gfx_mono_generic_draw_filled_rect(0, 8, 128, 8, GFX_PIXEL_CLR);
/* configure the pins connected to LEDs as output and set their default
* initial state to low (LEDs off).
*/
ioport_configure_pin(LED_LOW, IOPORT_DIR_OUTPUT);
ioport_configure_pin(LED_HIGH, IOPORT_DIR_OUTPUT);
ioport_configure_pin(LED_CRIT, IOPORT_DIR_OUTPUT);
ioport_configure_pin(LED_NORM, IOPORT_DIR_OUTPUT);
ioport_set_pin_low(LED_LOW);
ioport_set_pin_low(LED_HIGH);
ioport_set_pin_low(LED_CRIT);
ioport_set_pin_low(LED_NORM);
/* Configure the ALERT/EVENT pin which is
* routed to pin 2 of J2 on A3BU Xplained
* This pin can be used for polling or interrupt
*/
ioport_configure_pin(EVENT_PIN, IOPORT_DIR_INPUT);
attach_device(EXAMPLE_TS_DEVICE_ADDR, EXAMPLE_TS_DEVICE);
opt.chip = EXAMPLE_TS_DEVICE_ADDR;
opt.speed = TWI_SPEED;
/* Initialize TWI driver with options */
twi_master_setup(TWI_MODULE, &opt);
sensor_data.config_reg.value = 0;
/* Set configuration register to 12-bis resolution */
sensor_data.config_reg.option.RES = AT30TS7_RES12;
if (write_config(sensor_data.config_reg.value) != TWI_SUCCESS) {
test_fail_indication();
}
/* Set the polarity of ALERT/EVENT pin to low */
if (set_config_option(&sensor_data, AT30TS_POL, AT30TS7_POL_ACTIVE_LOW) !=
TWI_SUCCESS) {
test_fail_indication();
}
/* Read the configuration register */
if (read_config(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
#if defined _AT30TS00_ || defined _AT30TSE002B_
/* Set t_high limit register to +75.0000C */
if (write_tcrit(pos, 75, 0000) != TWI_SUCCESS) {
test_fail_indication();
}
#endif
/* Set t_high limit register to +50.7500C */
if (write_temperature_high(pos, 50, 7500) != TWI_SUCCESS) {
test_fail_indication();
}
/* Set t_low limit register to -25.2500C */
/*
* if (write_temperature_low(neg, 25, 2500)!= TWI_SUCCESS) {
* test_fail_indication();
* }
*/
/* Set t_low limit register to +35.5000C */
if (write_temperature_low(pos, 35, 5000) != TWI_SUCCESS) {
test_fail_indication();
}
#if defined _AT30TS00_ || defined _AT30TSE002B_
/* Read t_crit register register */
if (read_tcrit(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
#endif
/* Read t_high limit register */
if (read_temperature_high(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Read t_low register register */
if (read_temperature_low(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Non volatile register functionality */
#if defined _AT30TS750_ || defined _AT30TSE752_ || \
defined _AT30TSE754_ || defined _AT30TSE758_
/* Copy volatile registers to nonvolatile registers
* vol configuration register -> nonvol configuration register
* vol t_high register -> nonvol t_high register
* vol t_low register -> nonvol t_low register
*/
ret = ts75_copy_vol_nonvol_register();
if (ret != TWI_SUCCESS) {
test_fail_indication();
}
/* Read the nonvol configuration register */
if (read_nvconfig(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Read the nonvol t_high register */
if (read_nvthigh(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Read the nonvol t_low register */
if (read_nvtlow(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Clear vol configuration register */
if (write_config(0x0000) != TWI_SUCCESS) {
test_fail_indication();
}
/* Read the vol configuration register */
if (read_config(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
/* Copy nonvolatile registers to volatile registers */
if (ts75_copy_nonvol_vol_register() != TWI_SUCCESS) {
test_fail_indication();
}
/* Read the configuration register */
if (read_config(&sensor_data) != TWI_SUCCESS) {
test_fail_indication();
}
#endif
/* To avoid 'variable unused' warning */
test_pattern[0] = ibuf[0];
ibuf[0] = test_pattern[0];
/* EEPROM Test */
#if defined _AT30TSE002B_ || defined _AT30TSE752_ || \
defined _AT30TSE754_ || defined _AT30TSE758_
/* Generate Test Pattern */
for (i = 0; i < PATTERN_TEST_LENGTH; i++) {
test_pattern[i] = 0x41 + i; // 'ABCD...'
}
/* Perform a write access & check write result */
if ((ret = ts_write_memory(EE_TEST_ADDR, PATTERN_TEST_LENGTH,
(void *)test_pattern)) != TWI_SUCCESS) {
gfx_mono_draw_string("EE Write Failed ", 0, 24, &sysfont);
test_fail_indication();
}
/* Allow time for EEPROM to settle */
delay_ms(5);
/* Clear test_pattern */
memset(ibuf, 0, sizeof(ibuf));
/* Perform a read access & check read result */
if (ts_read_eeprom(EE_TEST_ADDR, PATTERN_TEST_LENGTH,
ibuf) != TWI_SUCCESS) {
gfx_mono_draw_string("EE Read Failed ", 0, 24, &sysfont);
test_fail_indication();
}
/* Check received data against sent data */
for (i = 0; i < PATTERN_TEST_LENGTH; i++) {
if (ibuf[i] != test_pattern[i]) {
gfx_mono_draw_string("EE Read mismatch ", 0, 24,
&sysfont);
test_fail_indication();
}
}
gfx_mono_draw_string("EE Write/Read OK", 0, 24, &sysfont);
gfx_mono_draw_string((char const*)ibuf, 0, 16, &sysfont);
#endif
/*
* Temperature reading contained in struct,i.e.
* temperature register value = 0x3240 (+50.25C), AT30TSE758 device
* sensor_data.temperature.itemp = 50 //!< integer part
* sensor_data.temperature.ftemp = 2500 //!< fractional part
* sensor_data.temperature.sign = 0 //!< sign (pos(+) = 0, neg(-) = 1)
* sensor_data.temperature.raw_value = 0x324 //!< raw data
*/
char senseData[50] = {0};
while (1) {
/* Read temperature */
read_temperature(&sensor_data);
sprintf(senseData, "%d.%04d DegC",
sensor_data.temperature.itemp,
sensor_data.temperature.ftemp);
gfx_mono_draw_string(senseData, 0, 8, &sysfont);
ioport_set_pin_low(LED_NORM);
delay_ms(200);
ioport_set_pin_high(LED_NORM);
delay_ms(200);
}
}
/**
* \brief Run gfx_mono unit tests
*/
int main (void)
{
const usart_serial_options_t usart_serial_options = {
.baudrate = CONF_TEST_BAUDRATE,
.charlength = CONF_TEST_CHARLENGTH,
.paritytype = CONF_TEST_PARITY,
.stopbits = CONF_TEST_STOPBITS,
};
sysclk_init();
board_init();
gfx_mono_init();
stdio_serial_init(CONF_TEST_USART, &usart_serial_options);
// Define all the test cases
DEFINE_TEST_CASE(clear_display_test, NULL, run_clear_display_test, NULL,
"Clear display test");
DEFINE_TEST_CASE(set_display_test, NULL, run_set_display_test, NULL,
"Set display test");
DEFINE_TEST_CASE(draw_rectangles_test, NULL, run_draw_rectangles_test,
NULL, "Draw filled rectangles test");
DEFINE_TEST_CASE(draw_filled_rectangle_test, NULL,
run_draw_filled_rectangle_test, NULL,
"Draw filled rectangle in one page test");
DEFINE_TEST_CASE(draw_rectangle_two_pages_test, NULL,
run_draw_rectangle_two_pages_test, NULL,
"Draw filled rectangle in two pages test");
DEFINE_TEST_CASE(draw_rectangle_outline_test, NULL,
run_draw_rectangle_outline_test, NULL,
"Draw rectangle outline test");
DEFINE_TEST_CASE(draw_filled_circle_test, NULL,
run_draw_filled_circle_test, NULL, "Draw filled circle test");
DEFINE_TEST_CASE(draw_circle_outline_test, NULL,
run_draw_circle_outline_test, NULL, "Draw circle outline test");
DEFINE_TEST_CASE(draw_vertical_line_test, NULL,
run_draw_vertical_line_test, NULL, "Draw vertical line test");
DEFINE_TEST_CASE(draw_horizontal_line_test, NULL,
run_draw_horizontal_line_test, NULL, "Draw horizontal line test");
DEFINE_TEST_CASE(draw_diagonal_line_test, NULL,
run_draw_diagonal_line_test, NULL,
"Draw a line between two points test");
DEFINE_TEST_CASE(draw_flash_bitmap_test, NULL, run_draw_flash_bitmap_test,
NULL, "Draw bitmap stored in FLASH test");
DEFINE_TEST_CASE(draw_ram_bitmap_test, NULL, run_draw_ram_bitmap_test,
NULL, "Draw bitmap stored in RAM test");
// Put test case addresses in an array
DEFINE_TEST_ARRAY(gfx_mono_tests) = {
&clear_display_test,
&set_display_test,
&draw_rectangles_test,
&draw_filled_rectangle_test,
&draw_rectangle_two_pages_test,
&draw_rectangle_outline_test,
&draw_filled_circle_test,
&draw_circle_outline_test,
&draw_horizontal_line_test,
&draw_vertical_line_test,
&draw_diagonal_line_test,
&draw_flash_bitmap_test,
&draw_ram_bitmap_test,
};
// Define the test suite
DEFINE_TEST_SUITE(gfx_mono_suite, gfx_mono_tests, "gfx_mono test suite");
// Set up the test data pointer and run all tests in the suite
test_suite_run(&gfx_mono_suite);
while (1) {
/* Intentionally left empty. */
}
}
/**
* \brief Main function.
*
* Initializes the board and reads out the production date stored in EEPROM and
* set timezone from EEPROM if it is set. If it is not set it will open the
* timezone selector to select the local timezone. It then runs the menu system
* in an infinite while loop.
*/
int main(void)
{
uint8_t menu_status;
struct keyboard_event input;
uint32_t rtc_timestamp;
sysclk_init();
board_init();
pmic_init();
gfx_mono_init();
touch_init();
adc_sensors_init();
// Enable display backlight
gpio_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
// Workaround for known issue: Enable RTC32 sysclk
sysclk_enable_module(SYSCLK_PORT_GEN, SYSCLK_RTC);
while (RTC32.SYNCCTRL & RTC32_SYNCBUSY_bm) {
// Wait for RTC32 sysclk to become stable
}
// If we have battery power and RTC is running, don't initialize RTC32
if (rtc_vbat_system_check(false) != VBAT_STATUS_OK) {
rtc_init();
// Set current time to after production date
rtc_timestamp = production_date_get_timestamp() + 1;
rtc_set_time(rtc_timestamp);
}
// Get current time
rtc_timestamp = rtc_get_time();
// Make sure RTC has not been set to a too early date .
if (rtc_timestamp < FIRST_POSSIBLE_TIMESTAMP) {
// Set time to 01.01.2011 00:00:00
rtc_set_time(FIRST_POSSIBLE_TIMESTAMP);
}
// Initialize USB CDC class
cdc_start();
cpu_irq_enable();
// Display a splash screen showing button functions
button_splash();
// Set timezone from EEPROM or to a default value
timezone_init();
/* Main loop. Read keyboard status and pass input to menu system.
* When an element has been selected in the menu, it will return the
* index of the element that should be run. This can be an application
* or another menu.
*/
while (true) {
// (re)initialize menu system
gfx_mono_menu_init(&main_menu);
do {
do {
keyboard_get_key_state(&input);
// Wait for key release
} while (input.type != KEYBOARD_RELEASE);
// Send key to menu system
menu_status = gfx_mono_menu_process_key(&main_menu, input.keycode);
// Wait for something useful to happen in the menu system
} while (menu_status == GFX_MONO_MENU_EVENT_IDLE);
switch (menu_status) {
case 0:
ntc_sensor_application();
break;
case 1:
lightsensor_application();
break;
case 2:
production_date_application();
break;
case 3:
date_time_application();
break;
case 4:
// Toggle LCD Backlight
gpio_toggle_pin(NHD_C12832A1Z_BACKLIGHT);
break;
case GFX_MONO_MENU_EVENT_EXIT:
// Fall trough to default and show button splash
default:
button_splash();
break;
};
}
}
int main(void)
{
struct adc_config adc_conf;
struct adc_channel_config adcch_conf;
board_init();
sysclk_init();
sleepmgr_init();
irq_initialize_vectors();
cpu_irq_enable();
gfx_mono_init();
// Enable the back light of the LCD
ioport_set_pin_high(LCD_BACKLIGHT_ENABLE_PIN);
// Initialize configuration structures.
adc_read_configuration(&ADCB, &adc_conf);
adcch_read_configuration(&ADCB, ADC_CH0, &adcch_conf);
/* Configure the ADC module:
* - unsigned, 12-bit results
* - bandgap (1 V) voltage reference
* - 200 kHz maximum clock rate
* - manual conversion triggering
*/
adc_set_conversion_parameters(&adc_conf, ADC_SIGN_OFF, ADC_RES_12,
ADC_REF_BANDGAP);
adc_set_clock_rate(&adc_conf, 200000UL);
adc_set_conversion_trigger(&adc_conf, ADC_TRIG_MANUAL, 1, 0);
adc_write_configuration(&ADCB, &adc_conf);
/* Configure ADC channel 0:
* - single-ended measurement from configured input pin
* - interrupt flag set on completed conversion
*/
adcch_set_input(&adcch_conf, INPUT_PIN, ADCCH_NEG_NONE,
1);
adcch_set_interrupt_mode(&adcch_conf, ADCCH_MODE_COMPLETE);
adcch_disable_interrupt(&adcch_conf);
adcch_write_configuration(&ADCB, ADC_CH0, &adcch_conf);
// Enable the ADC and do one dummy conversion.
adc_enable(&ADCB);
adc_start_conversion(&ADCB, ADC_CH0);
adc_wait_for_interrupt_flag(&ADCB, ADC_CH0);
// Light up LED 1, wait for button press.
ioport_set_pin_low(LED1_PIN);
wait_for_button();
// Perform oversampling of offset.
cal_data.offset = get_mean_sample_value();
// Light up LED 2, wait for button press.
ioport_set_pin_low(LED2_PIN);
wait_for_button();
// Perform oversampling of 0.9 V for gain calibration.
cal_data.gain = get_mean_sample_value() - cal_data.offset;
// Turn off LEDs.
ioport_set_pin_high(LED1_PIN);
ioport_set_pin_high(LED2_PIN);
// Enable interrupts on ADC channel, then trigger first conversion.
adcch_enable_interrupt(&adcch_conf);
adcch_write_configuration(&ADCB, ADC_CH0, &adcch_conf);
adc_start_conversion(&ADCB, ADC_CH0);
do {
// Sleep until ADC interrupt triggers.
sleepmgr_enter_sleep();
} while (1);
}
/**
* \brief Main entry of example application
*/
int main(void)
{
/* The sensor_platform_init() function will initialize the system
* clock and sensor bus support in addition to configuring the
* XMEGA-A3BU and Sensor Xplained boards.
*
* Use gfx_mono_init() to initialize the monochrome graphical system
* API then write a splash screen after enabling the LCD display
* backlight and setting the contrast.
*/
sensor_platform_init();
gfx_mono_init();
gpio_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
st7565r_set_contrast(ST7565R_DISPLAY_CONTRAST_MIN);
gfx_mono_draw_string(
"Atmel\r\nSensors Xplained\r\nInertial Sensor Demo",
0, 0, &sysfont);
delay_ms(2000);
clear_screen();
gfx_mono_draw_string("Press button SW1", 1, 5, &sysfont);
gfx_mono_draw_string("to change sensor", 1, 13, &sysfont);
delay_ms(1000);
screen_border();
/* Attach descriptors to sensors on an Xplained add-on board. */
sensor_t accelerometer;
sensor_attach(&accelerometer, SENSOR_TYPE_ACCELEROMETER, 0, 0);
sensor_t gyroscope;
sensor_attach(&gyroscope, SENSOR_TYPE_GYROSCOPE, 0, 0);
sensor_t compass;
sensor_attach(&compass, SENSOR_TYPE_COMPASS, 0, 0);
/* Configure operational parameters for select sensors. */
sensor_set_range(&accelerometer, 2000 /* milli-g */);
sensor_set_bandwidth(&accelerometer, 25 /* Hertz */);
while (true) {
/* Initialize a sensor data descriptor for scaled data. */
static sensor_data_t sensor_data = {.scaled = true};
do {
/* Measure & show acceleration until button SW1 is
* pushed. */
sensor_read(&accelerometer, SENSOR_READ_ACCELERATION, &sensor_data);
draw_formatted_data(acceleration_format, &sensor_data);
} while (!switch_pressed(SW1));
do {
/* Measure & show rotation until button SW1 is pushed. */
sensor_read(&gyroscope, SENSOR_READ_ROTATION, &sensor_data);
draw_formatted_data(rotation_format, &sensor_data);
} while (!switch_pressed(SW1));
static gfx_coord_t const ring_center_x = 112;
static gfx_coord_t const ring_center_y = 16;
static gfx_coord_t const ring_radius = 15;
/* Compass needle point x- and y-coordinate. */
gfx_coord_t needle_x = ring_center_x;
gfx_coord_t needle_y = ring_center_y;
/* Draw the compass ring. */
gfx_mono_draw_circle(ring_center_x, ring_center_y, ring_radius,
GFX_PIXEL_SET, GFX_WHOLE);
do {
/* Measure & show magnetic heading until button SW1 is
* pushed.
*/
sensor_read(&compass, SENSOR_READ_HEADING, &sensor_data);
/* Calculate compass needle coordinates on the display
* by using sin() & cos() to find the x- and y-coordinate of the
* needle point. Note that the 'direction' value is in degrees
* and must be converted to radians for the C-library math
* functions.
*/
int const needle_length = ring_radius - 3;
double const direction = radians(sensor_data.heading.direction);
/* Erase the old compass needle. */
gfx_mono_draw_line(ring_center_x, ring_center_y,
needle_x, needle_y, GFX_PIXEL_CLR);
needle_x = ring_center_x +
(needle_length * sin(direction + M_PI));
needle_y = ring_center_y +
(needle_length * cos(direction + M_PI));
/* Draw the new compass needle. */
gfx_mono_draw_line(ring_center_x, ring_center_y,
needle_x, needle_y, GFX_PIXEL_SET);
draw_formatted_data(heading_format, &sensor_data);
} while (!switch_pressed(SW1));
/* Clear last compass needle and compass ring. */
gfx_mono_draw_line(ring_center_x, ring_center_y,
needle_x, needle_y, GFX_PIXEL_CLR);
gfx_mono_draw_circle(ring_center_x, ring_center_y, ring_radius,
GFX_PIXEL_CLR, GFX_WHOLE);
screen_border();
do {
/* Measure & show temperature until button SW1 is pushed. */
sensor_read(&gyroscope, SENSOR_READ_TEMPERATURE, &sensor_data);
/* Arrange temperature data values in array with
* Fahrenheit and Celsius formats.
*/
int32_t const temp_deg_c = sensor_data.temperature.value;
int32_t const temp_deg_f = CELSIUS_TO_FAHRENHEIT(temp_deg_c);
sensor_data.value[0] = temp_deg_f;
sensor_data.value[1] = temp_deg_c;
draw_formatted_data(temperature_format, &sensor_data);
} while (!switch_pressed(SW1));
}
}
/**
* \brief Example application entry routine
*/
int main(void)
{
/* The sensor_platform_init() function will initialize the system
* clock and sensor bus support in addition to configuring the
* XMEGA-A3BU and Sensor Xplained boards.
*
* Use gfx_mono_init() to initialize the monochrome graphical system
* API then write a splash screen after enabling the LCD display
* backlight and setting the contrast.
*
* The MCU is going to be put in a sleep mode, so initialize the
* sleep manager API with a call to the sleepmgr_init() routine.
*/
sensor_platform_init();
gfx_mono_init();
sleepmgr_init();
gpio_set_pin_high(NHD_C12832A1Z_BACKLIGHT);
st7565r_set_contrast(ST7565R_DISPLAY_CONTRAST_MIN);
/* Attach an accelerometer on a Sensors Xplained board. */
sensor_t accelerometer;
sensor_attach(&accelerometer, SENSOR_TYPE_ACCELEROMETER, 0, 0);
/* Enable the accelerometer low-g (free fall) event. */
sensor_enable_event(&accelerometer, SENSOR_EVENT_LOW_G);
/* Set the free fall threshold (low-g event), bandwidth and range. */
sensor_set_threshold(&accelerometer, SENSOR_THRESHOLD_LOW_G,
LOW_G_THRESHOLD);
sensor_set_bandwidth(&accelerometer, BANDWIDTH);
sensor_set_range(&accelerometer, RANGE);
while (true) {
/* Put the accelerometer into a low-power mode (if available). */
sensor_set_state(&accelerometer, SENSOR_STATE_LOW_POWER);
LED_Off(ACCEL_LED);
clear_screen();
/* Display the "armed" message and put the MCU in sleep mode. */
gfx_mono_draw_string("ATMEL Drop Demo\r\nXMEGA Powered Down\r\n"
"g Sensor Armed", 1, 5, &sysfont);
sleepmgr_lock_mode(SLEEP_MODE);
sleepmgr_enter_sleep();
/* The following runs after the MCU has been woken by an
* external low-g interrupt from the accelerometer.
*
* Turn on the red LED while falling and put the accelerometer
* into a high-power mode (if available) to sample date points.
*/
LED_On(ACCEL_LED);
sensor_set_state(&accelerometer, SENSOR_STATE_HIGHEST_POWER);
static scalar_t acceleration_waveform[DATA_SAMPLE_COUNT];
scalar_t acceleration_max = 0;
for (int data_count = 0; data_count < DATA_SAMPLE_COUNT;
++data_count) {
acceleration_waveform[data_count] = 0;
for (int i = 0; i < SAMPLE_AVG_COUNT; ++i) {
/* Calculate the gravity vector magnitude. */
vector3_t gvec;
sensor_get_vector(&accelerometer, &gvec);
scalar_t const acceleration_magnitude
= vector3_magnitude(&gvec);
/* Store the maximum g magnitude for this
* sub-group. */
if (acceleration_magnitude >
acceleration_waveform[data_count]) {
acceleration_waveform[data_count]
= acceleration_magnitude;
}
/* Store the maximum g magnitude for the whole
* data set. */
if (acceleration_magnitude > acceleration_max) {
acceleration_max = acceleration_magnitude;
}
}
}
clear_screen();
/* Turn the max acceleration into a string and convert to g. */
static char max_g_string[20];
if (acceleration_max > LOW_G_SATURATION) {
sprintf(max_g_string, "g Sensor Saturated");
} else {
sprintf(max_g_string, "Peak = %02.2f g",
acceleration_max / 1000);
}
/* Print the max g on the monochrome display. */
gfx_mono_draw_string("Drop Detected", 1, 5, &sysfont);
gfx_mono_draw_string(max_g_string, 1, 13, &sysfont);
gfx_mono_draw_string("Press SW1 for chart", 1, 21, &sysfont);
do {
LED_Toggle(ACCEL_LED);
delay_ms(100);
} while (!switch_pressed(SW1));
/* Plot the collected data points to create the waveform chart. */
clear_screen();
screen_border();
for (int data_count = 0; data_count < DATA_SAMPLE_COUNT; ++data_count) {
gfx_mono_draw_filled_circle(data_count,
32 -
(acceleration_waveform[data_count] / 500), 1,
GFX_PIXEL_SET, GFX_WHOLE);
}
do {
LED_Toggle(PROMPT_LED);
delay_ms(100);
} while (!switch_pressed(SW1));
LED_Off(PROMPT_LED);
}
}