void shift_register_latch_output(Shift_register *shift_register){
for(int j = 0; j < shift_register->size; j++){
char data = shift_register->data[j];
for(int i = 0; i < 8; i++){
if( data & 0x01 )
pin_high(shift_register->serial);
else
pin_low(shift_register->serial);
//delay(speed1);
pin_high(shift_register->clk);
//delay(speed1);
pin_low(shift_register->clk);
//delay(speed1);
data = data>>1;
}
}
//latch data
pin_high(shift_register->latch);
//delay(speed1);
pin_low(shift_register->latch);
//delay(speed1);
}
static void
handle_serial_input(void)
{
while (1) {
switch (serial_getchar()) {
case '\0':
cli();
if (!serial_available())
events &= ~EV_SERIAL;
sei();
return;
case 'O': /* open */
pin_low(PIN_GREEN_LED);
pin_low(PIN_OPEN_LOCK);
_delay_ms(500);
pin_high(PIN_OPEN_LOCK);
serial_print("OPENAKCK\n");
pin_high(PIN_GREEN_LED);
break;
case 'D': /* day */
pin_low(PIN_GREEN_LED);
pin_low(PIN_DAYMODE); /* day mode */
pin_high(PIN_STATUS_LED); /* status on */
break;
case 'N': /* night */
pin_high(PIN_GREEN_LED);
pin_high(PIN_DAYMODE); /* nightmode */
pin_low(PIN_STATUS_LED); /* status off */
break;
case 'R': /* rejected */
pin_low(PIN_YELLOW_LED);
_delay_ms(200);
pin_high(PIN_YELLOW_LED);
_delay_ms(200);
pin_low(PIN_YELLOW_LED);
_delay_ms(200);
pin_high(PIN_YELLOW_LED);
break;
case 'V': /* validated */
pin_low(PIN_GREEN_LED);
_delay_ms(300);
pin_high(PIN_GREEN_LED);
_delay_ms(200);
pin_low(PIN_GREEN_LED);
_delay_ms(300);
pin_high(PIN_GREEN_LED);
_delay_ms(200);
pin_low(PIN_GREEN_LED);
_delay_ms(300);
pin_high(PIN_GREEN_LED);
break;
}
}
}
void valve_set_state(unsigned char state)
{
if(state){
pin_low(DRV1_N);
pin_high(DRV1_P);
pin_low(DRV2_N);
pin_high(DRV2_P)
}else{
void spwm_init()
{
// Pin directions
as_output(SPWM_CLK);
as_output(SPWM_STR);
as_output(SPWM_DATA);
// Initial states
pin_low(SPWM_CLK);
pin_low(SPWM_STR);
}
void gotoXY(LCD *lcd, char x, char y){
pin_low(lcd->enb);
pin_low(lcd->mode);
spi_put( 0x80 | x );
_delay_us(100);
spi_put( 0x40 | y );
_delay_us(100);
pin_high(lcd->enb);
pin_high(lcd->mode);
}
void beep_enable(unsigned char state)
{
if(state)
{
pin_low(BUZZER);
TCCR1B=0x5;
OCR1AL=0xFF;
TCCR1A=0x83;
}else{
TCCR1B=0;
pin_low(BUZZER);
}
}
LCD* lcd_new(Pin *mode, Pin *reset, Pin *enable){
LCD *lcd = (LCD * ) malloc( sizeof( LCD ) );
lcd->spi = spi_init();
lcd->mode = mode;
lcd->rst = reset;
lcd->enb = enable;
lcd->col = 14;
lcd->row = 6;
lcd->cursor = 0;
lcd->buffer = circular_buffer_new(128);
pin_config_out(mode);
pin_config_out(reset);
pin_config_out(enable);
pin_low(enable);
//active low reset pulse
pin_high(reset);
pin_pulse(reset);
//enter config mode
pin_low(mode);
//config lcd driver
_delay_us(100);
spi_put(0x21);
_delay_us(100);
spi_put(0xA0);
_delay_us(100);
spi_put(0x04);
_delay_us(100);
spi_put(0x14);
_delay_us(100);
spi_put(0x20);
_delay_us(100);
spi_put(0x0C);
_delay_us(100);
pin_high(mode);
clear_screen(lcd);
//ready to accept data
gotoXY(lcd,0,0);
pin_high(enable);
return lcd;
}
__attribute__((noreturn)) int main () {
double c = 24.0;
/* setup uart */
serial_baud_4800();
serial_mode_8n1();
serial_transmitter_enable();
stdout = &mystdout;
pin_mode_output(XBEE);
pin_mode_output(LED_1);
while(1) {
xbee_hibrinate_disable();
pin_high(LED_1);
printf("i%2.1f,", 4.0);
printf("v%2.1f,", 12.0);
printf("c%2.1f,", 24.0);
printf("lux%2.1f", 3.0);
printf(";");
while(!serial_writeable())
;
// xbee_hibrinate_enable();
pin_low(LED_1);
_delay_ms(500);
}
}
static void step(STEPPER_MOTOR* stepper){
L297* motor = (L297*)stepper;
// Send a 1uS pulse to the step pin
pin_low(motor->pulse);
pin_high(motor->pulse);
}
void send_heartbeat(){
printf("send heartbeat\n");
//Set image on device
system(fanny_heartbeat_image_path);
int heartbeat_pattern[] = {1000, 255, 300, 225, 1000, 225, 300, 225};
int repeat = 4;
int r=0;
while(r < repeat){
int i = 0;
while(i < 8){
usleep(heartbeat_pattern[i] * 1000);
i++;
pin_high(8,39);
usleep(heartbeat_pattern[i] * 1000);
i++;
pin_low(8,39);
}
r++;
}
system(black_image_path); //Set black image on device
}
static void step(STEPPER_MOTOR* stepper){
POLOLU_A4983* motor = (POLOLU_A4983*)stepper;
// Send a 1uS pulse to the step pin
pin_high(motor->pulse);
pin_low(motor->pulse);
}
int
main(void)
{
watchdog_off();
clock_init_1MHz();
/* set all pins to output high */
port1_direction = 0xFF;
port1_output = 0xFF;
/* initialize serial clock, tx and rx parts */
serial_init_clock();
serial_init_tx();
serial_init_rx();
/* enable interrupts */
__eint();
pin_low(LED1);
pin_high(LED2);
while (1) {
unsigned char c;
pin_toggle(LED1);
pin_toggle(LED2);
c = serial_getchar();
serial_putchar(c);
if (c == '\r')
serial_putchar('\n');
}
}
int
main(void)
{
int del;
iolib_init(); /* Initialize I/O library - required */
iolib_setdir(8,11, BBBIO_DIR_IN); /* Set pin P8 - 11 as input */
iolib_setdir(8,12, BBBIO_DIR_OUT); /* Set pin P8 - 12 as output */
int count = 0;
while(count < 50)
{
count ++ ;
if (is_high(8,11)) /* Check if in is high (i.e. button pressed) */
{
del=100; /* fast speed */
}
if (is_low(8,11)) /* Check if in is low (i.e button is released) */
{
del=500; /* slow speed */
}
pin_high(8,12); /* Set pin to high - LED on */
iolib_delay_ms(del); /* Delay for 'del' msec */
pin_low(8,12); /* Set pin to low - LED off */
iolib_delay_ms(del); /* Delay for 'del' msec */
}
iolib_free(); /* Release I/O library prior to program exit - required */
return(0);
}
uint8_t segled_put_char(SEGLED* led, uint8_t ch){
init(led);
uint8_t mask=segled8_get_mask(ch); // get the mask
if(mask & 0b00000001){
// it uses the full stop
if(!led->segment[7]){
// no full stop - so just light segment D
mask = 0b00010000;
}
}
if(!led->activeHigh){
mask ^= 0b11111111;
}
for(uint8_t i=0; i<8;i++){
const IOPin* pin = led->segment[i];
if(mask & 0b10000000){
pin_high(pin);
}else{
pin_low(pin);
}
mask <<= 1;
}
return ch;
}
/*
* Class: org_bulldog_beagleboneblack_jni_NativeGpio
* Method: digitalWrite
* Signature: (III)V
*/
JNIEXPORT void JNICALL Java_org_bulldog_beagleboneblack_jni_NativeGpio_digitalWrite
(JNIEnv * env, jclass clazz, jint port, jint pin, jint val) {
if(val == 1) {
pin_high(port, pin);
} else {
pin_low(port, pin);
}
}
void stepup_set_state(unsigned char state)
{
if(state){
pin_high(STEP_UP);
}else{
pin_low(STEP_UP);
}
}
void beep(unsigned int t)
{
for(unsigned int i=0;i<t;i++){
pin_high(BUZZER);
_delay_ms(0.95);
pin_low(BUZZER);
_delay_ms(0.95);
}
}
//Thread that will playback any recording
void *playbackThreadBody(void *arg) {
int oldstate;
pthread_setcanceltype(PTHREAD_CANCEL_ENABLE, &oldstate);
while (1) {
//Will only run if in recording state
pthread_mutex_lock(&stateMutex);
while (state != 2) {
pthread_cond_wait(&playbackStateCond, &stateMutex);
}
pthread_mutex_unlock(&stateMutex);
// Declare variables needed for playback
unsigned char* buffer;
FILE *fp;
unsigned long fileLen;
int i;
if ((fp = fopen(FILE_NAME, "rb")) == NULL) {
printf("Error opening file\n");
}
// Get the file length for playback
fseek(fp, 0, SEEK_CUR);
fileLen = ftell(fp);
fseek(fp, 0, SEEK_SET);
// Allocate memory into the buffer
buffer = (unsigned char *) malloc(fileLen + 1);
if (!buffer) {
fprintf(stderr, "Memory error!");
fclose(fp);
return NULL;
}
// Read file contents into buffer
fread(buffer, fileLen, 1, fp);
fclose(fp);
// Run through the file and play the music
for (i = 0; (i < fileLen) && (state == 2); ++i) {
if (buffer[i] == '1')
pin_high(9, 28);
else
pin_low(9, 28);
nanosleep((const struct timespec[] ) { {0, 651.041667L}}, NULL);
if (playButton == 1) {// while play button is held down, it will restart playing back the file
i = 0;
}
}
//If recording is full played, the state will automatically switch to Recorder state (idle)
pthread_mutex_lock(&stateMutex);
state = 3;
pthread_mutex_unlock(&stateMutex);
}
void
init_mfrc522(void)
{
pin_mode_output(MFRC522_NRSTPD);
pin_high(MFRC522_NRSTPD);
/* Slave select pin, high (deselected) initially. */
pin_mode_output(MFRC522_SS);
pin_high(MFRC522_SS);
pin_mode_output(MFRC522_MOSI);
pin_low(MFRC522_MOSI);
pin_mode_input(MFRC522_MISO);
pin_mode_output(MFRC522_SCK);
pin_low(MFRC522_SCK);
spi_mode_master();
spi_enable();
mfrc522_init();
}
/** Send _buff to SIPO */
void _send_buffer()
{
for (int8_t i = SPWM_CHANNELS - 1; i >= 0; i--)
{
#if (SPWM_INVERT)
set_pin(SPWM_DATA, !_buff[i]); /* Common anode */
#else
set_pin(SPWM_DATA, _buff[i]); /* Common cathode */
#endif
// send a CLK pulse
pin_high(SPWM_CLK);
pin_low(SPWM_CLK);
}
// send a STR pulse
pin_high(SPWM_STR);
pin_low(SPWM_STR);
}
//uart job reads the base station state from bluetooth
void handle_bluetooth(void * pointer){
struct remote_state * rstate = (struct remote_state *)pointer;
pin_outputable(PIN_26);
for (;;) {
for (;;) {
pin_low(PIN_26);
//read from uart
unsigned char b;
size_t num;
if (uart_recv(rstate->bluetooth_uart, &b, 1, &num, 0)!=0) error();
if (num !=1 ) continue;
//try to find the framing byte (uint 255)
if (b != 255U) continue;
break;
}
pin_high(PIN_26);
unsigned char buffer [4];
size_t num;
if (uart_recv(rstate->bluetooth_uart, buffer, sizeof(buffer), &num, 0)!=0) error();
if (num != sizeof(buffer)) continue;
uint8_t x;
memcpy(&x, buffer, 1);
uint8_t y;
memcpy(&y, buffer+1, 1);
uint8_t button;
memcpy(&button, buffer+2, 1);
uint8_t is_automatic_mode;
memcpy(&is_automatic_mode, buffer+3, 1);
if (mutex_lock(rstate->mutex) != 0) error();
if (rstate->is_dead) {
rstate->joy_x = 127;
rstate->joy_y = 127;
rstate->button_pressed = 0;
rstate->is_automatic_mode = 0;
} else {
rstate->joy_x = x;
rstate->joy_y = y;
rstate->button_pressed = button;
rstate->is_automatic_mode = is_automatic_mode;
}
if (mutex_unlock(rstate->mutex) != 0) error();
}
}
void write_string(LCD *lcd,char *s){
int i = 0;
pin_low(lcd->enb);
pin_high(lcd->mode);
while(s[i] != 0){
write_character(lcd,s[i]);
i++;
}
write_buffer(lcd);
pin_high(lcd->enb);
}
/**
* Turn on one LED.
*
* @param lednumber the index of the LED to turn off.
*/
void led_off(uint8_t lednumber)
{
#ifdef COMMON_ANODE
pin_high(lednumber);
#else
#ifdef COMMON_CATHODE
pin_low(lednumber);
#else
# error Need to #define COMMON_ANODE or COMMON_CATHODE
#endif
#endif
}
void send_hug(){
printf("send hug\n"); //Debug
system(fanny_hug_image_path); //Set image on device
//Send signal
pin_high(8,30);
sleep(5);
pin_low(8,30);
system(black_image_path); //Set black image on device
}
static void
handle_rfid_input(void)
{
static char buf[14];
static uint8_t idx = 0;
int c;
uint8_t checksum;
uint8_t i;
for (;;) {
c = softserial_getchar();
switch (c) {
case SOFTSERIAL_EOF:
return;
case 2:
idx = 0;
break;
case 3:
if (idx == 14 && cnt == 0) {
/* Check for correct checksum and CR / LF */
checksum = 0;
for (i = 0; i < 12; i += 2)
checksum ^= ((hex2int(buf[i]) << 4) |
hex2int(buf[i+1]));
if (checksum)
break;
if (buf[12] != 13 || buf[13] != 10)
break;
/*
We got an RFID tag.
Copy it into the card reader buffer to
emulate a read card data string.
*/
for (i = 0; i < 10 && cnt < 255; ++i, ++cnt)
data[cnt] = buf[i];
for (i = 0; i < 3; i++) {
pin_low(PIN_YELLOW_LED);
_delay_ms(80);
pin_high(PIN_YELLOW_LED);
_delay_ms(80);
}
}
default:
if (idx < 14)
{
buf[idx++] = c;
second = 0;
}
break;
}
}
}
/**
* We have just hit top and are starting to count down again.
* The new PWM duty cycle has been clocked in for the next servo
*/
static void service(const Timer *timer, void* data){
SERVO_DRIVER* driver = data;
uint8_t i;
// Move to the next servo
uint8_t index = (driver->specific.softwareMUX.currentServo + 1)& 7;
driver->specific.softwareMUX.currentServo = index;
// Set the multiplex pins so the pulse goes to the correct servo
// This needs to be done quickly to stop the start of the pulse
// going to the wrong sevo
uint8_t bits = index;
for (i = 0; i < NUM_MUX_PINS; i++){
const IOPin* pin = driver->specific.softwareMUX.muxPins[i];
if(bits & 1){
pin_high(pin);
}else{
pin_low(pin);
}
bits >>= 1;
}
// Keep track of the lowest value of the timer counter
// Setting a delay between this value and TOP will mean the mux bits dont get changed in time
uint16_t thisDelay = timerGetCounter(timer);
if(thisDelay < maxDelay){
maxDelay = thisDelay;
}
// Time critical part is over
// Now calculate the pulse width for next servo
uint16_t newPos=0;
index = (index + 1) & 7;
if(index < driver->num_servos){
SERVO* servo = (SERVO *)pgm_read_word(&driver->servos[index]);
if(servo->actuator.connected){
newPos = servo->delay;
// Limit to the maximum value
uint16_t limit = maxDelay;
if(newPos > limit){
newPos = limit;
}
}
}
// Set the threshold inline - to save more registers push/pops
//compareSetThreshold(channel,newPos);
PORT port = driver->specific.softwareMUX.pwmPort;
_SFR_MEM16(port) = newPos; // set 16 bit word
}
/** Enter WRITE mode */
void _lcd_mode_w()
{
if (_lcd_mode == 0) return; // already in W mode
pin_low(LCD_RW);
as_output(LCD_D7);
as_output(LCD_D6);
as_output(LCD_D5);
as_output(LCD_D4);
_lcd_mode = 0;
}
int
ADT7301_read()
{
int value = 0;
int data_count =0;
int i =0 ;
pin_high(ADT7301_SCLK_PORT,ADT7301_SCLK_PIN);
value =0;
//set CS to 1 , why pin_low ? because CS in ADT7301 is inverse pin
pin_low(ADT7301_CS_PORT,ADT7301_CS_PIN);
//set DIN to 0
pin_low(ADT7301_DIN_PORT,ADT7301_DIN_PIN);
//read temperature Data
for(i=0;i<16;i++)
{
//generate half cycle(1)
pin_low(ADT7301_SCLK_PORT ,ADT7301_SCLK_PIN);
iolib_delay_ms(1);
//generate half cycle(0)
pin_high(ADT7301_SCLK_PORT,ADT7301_SCLK_PIN);
iolib_delay_ms(1);
value <<= 1 ;
int get_value = is_high(ADT7301_DOUT_PORT,ADT7301_DOUT_PIN) ;
value |= get_value;
}
//set CS to 1
pin_high(ADT7301_CS_PORT,ADT7301_CS_PIN);
// return RAW value , this valuse is
return value ;
}
void cube_shutdown(uint8_t unused)
{
// Set harder powersave mode
old_mode = mode;
mode = MODE_SLEEP;
power_adc_disable();
power_spi_disable();
power_timer0_disable();
power_timer1_disable();
/* Pulling BLANK down reduces current consumption to
* 50mA. Doing that. We pull all other signals low, too. */
pin_high(BLANK);
pin_low(XLAT);
}
static void uartswTxBitService(const TimerCompare *channel, void* _uart)
{
SW_UART* uart = (SW_UART*) _uart;
if(uart->txBitNum)
{
// there are bits still waiting to be transmitted
if(uart->txBitNum > 1)
{
// transmit data bits (inverted, LSB first)
if( (uart->txData & 0x01) )
pin_high(uart->_uart_.tx_pin);
else
pin_low(uart->_uart_.tx_pin);
// shift bits down
uart->txData >>= 1;
}
else
{
// transmit stop bit
if(uart->inverted){
pin_low(uart->_uart_.tx_pin);
}else{
pin_high(uart->_uart_.tx_pin);
}
}
// schedule the next bit
uint16_t top = 1 + timerGetTOP(compareGetTimer(channel));
uint16_t next = (compareGetThreshold(channel) + uart->dataBitLength);
if(next >= top){
next -= top;
}
compareSetThreshold(channel, next );
// count down
uart->txBitNum--;
}