void COM_txCMD(UINT8 deviceAddress,
/*UINT8 cmd,*/ UINT8 *buffer , UINT8 length)
{
UINT8 cmdPacket[45] = {0};
UINT8 i,j,cs;
i = 0;
cmdPacket[i++]= CMD_SOP;
cmdPacket[i++] = deviceAddress;
cmdPacket[i++] = length;
// cmdPacket[i++] = cmd;
for( j =0; j < length ; j++)
{
cmdPacket[i+j] = buffer[j];
}
i+= j;
cs = checksum(&cmdPacket[1], i - 1 );
while((cs == CMD_SOP ) || (cs == CMD_EOP)) //if check sum matches sop or eop
{
cmdPacket[2]++; // change length
cs = checksum(&cmdPacket[1], i - 1 ); //recalculate check sum
}
cmdPacket[i++] = cs;
cmdPacket[i++] = CMD_EOP;
for( j = 0 ; j < i ; j++)
{
UART_write(cmdPacket[j]);
}
UART_transmit();
}
void COM_task()
{
UINT8 uartData = 0;
#if(defined __18F8722_H) ||(defined __18F46K22_H)
if( UART1_hasData() )
{
uartData = UART1_read();
UART1_write(uartData);
UART1_transmit();
return;
}
#else
if( UART_hasData() )
{
uartData = UART_read();
UART_write(uartData);
UART_transmit();
return;
}
#endif
}
int main(void)
{
int read;
float input_voltage, temperature;
UART_INIT(); // UART 통신 초기화
ADC_INIT(1); // AD 변환기 초기화
while(1)
{
// 온도 센서의 출력 전압을 ADC를 거쳐 읽는다.
read = read_ADC();
// 0에서 1023 사이의 값을 0V에서 5V 사이 값으로 변환한다.
input_voltage = read * 5.0 / 1023.0;
// 10mV에 1℃이므로 100을 곱해서 현재 온도를 얻는다.
temperature = input_voltage * 100.0;
UART_print16bitNumber((int)temperature); // 정수값으로 출력
UART_transmit('\n'); // 줄바꿈
_delay_ms(1000); // 1초에 한 번 출력
}
}
void COM_txData()
{
UINT8 bcc = 0;
UINT8 i= 0;
bcc = checksum(communication.txPacketBuffer, communication.txPacketLength);
#if(defined __18F8722_H) ||(defined __18F46K22_H)
UART1_write(communication.tx_sop);
for( i = 0; i < communication.txPacketLength; i++ )
{
UART1_write(communication.txPacketBuffer[i]);
}
UART1_write(bcc);
UART1_write(communication.tx_eop);
#ifdef __RESPONSE_ENABLED__
UART_transmit();
#endif
#else //(defined __18F8722_H) ||(defined __18F46K22_H)
UART_write(communication.tx_sop);
for( i = 0; i < communication.txPacketLength; i++ )
{
UART_write(communication.txPacketBuffer[i]);
}
UART_write(bcc);
UART_write(communication.tx_eop);
#ifdef __RESPONSE_ENABLED__
UART_transmit();
#endif
ClrWdt();
#endif
}
int main(void)
{
UART_INIT();
INIT_PORT();
int state =0;
while(1){
if(button_pressed()){
//눌러지지 않은 상태애서 눌러진 상태로 바뀔 때마다 '*'전송
if(state == 0) UART_transmit('*');
state = 1; //버튼이 눌러진 상태로 표시
PORTB = 0x20; //LED 켜기
}
else {
state = 0; //버튼이 눌러지지 않은 상태로 표시
PORTB = 0x00; // LED끄기
}
}
}
int main(void)
{
UART_INIT(); // UART 통신 초기화
INIT_PORT(); // 포트 설정
int state = 0; // 현재 버튼의 상태
while(1){
if(PIND & 0x04){
state = 0; // 버튼이 눌러지지 않은 상태로 표시
PORTB = 0x00; // LED 끄기
}
else{
// 눌러지지 않은 상태에서 눌러진 상태로 바뀔 때마다 ‘*’ 문자 전송
if(state == 0) UART_transmit('*');
state = 1; // 버튼이 눌러진 상태로 표시
PORTB = 0x20; // LED 켜기
_delay_ms(100); // 디바운싱
}
}
}
void COM_txStr(rom UINT8 *str)
{
#if(defined __18F8722_H) ||(defined __18F46K22_H)
while(*str)
{
UART1_write(*str);
str++;
}
UART1_transmit();
#else
while(*str)
{
UART_write(*str);
str++;
}
UART_transmit();
#endif
}
int main(void)
{
UART_init();
spi_init();
delay_ms(100);
LCD_init ();
delay_ms(100);
LCD_clear ();
// send the init frame
//UART_transmit(0xFB);
UART_transmit(0xFB);
UART_transmit(0x0A);
UART_transmit(0x0A);
UART_transmit(0x0A);
UART_transmit(0x0D);
// upload the pixel array
done = 0;
while (done == 0) {
// receive data frame
df_data = UART_receive();
df_seq_msb = UART_receive();
df_seq_lsb = UART_receive();
df_end = UART_receive();
df_cr = UART_receive();
// store into byte pixel array
if (df_seq_msb == 0x01) {
byte_pixel[256 + df_seq_lsb] = df_data;
}
else {
byte_pixel[df_seq_lsb] = df_data;
}
// send the ack
UART_transmit(0xFA);
UART_transmit(df_seq_msb);
UART_transmit(df_seq_lsb);
UART_transmit(0x0A);
UART_transmit(0x0D);
// break when the last byte (503) is received
if ((df_seq_msb == 0x01) && (df_seq_lsb == 247)) {
done = 1;
}
}
// set the cursor
LCD_gotoXY(0,0);
// write byte_pixel by byte_pixel
for (index = 0; index < 504; index++) {
LCD_writeData(byte_pixel[index]);
}
/*
//LCD_drawBorder ( );
LCD_gotoXY (4,2);
//LCD_writeChar (0x41);
//LCD_writeString_F("Thermometer");
//LCD_writeString_F("0123");
LCD_writeChar (0x20);
LCD_writeChar (0x20);
LCD_writeChar (0x68);
LCD_writeChar (0x6f);
LCD_writeChar (0x77);
LCD_writeChar (0x64);
LCD_writeChar (0x79);
LCD_gotoXY (4,3);
//LCD_writeChar (0x43);
//LCD_writeString_F("by DHARMANI");
//LCD_writeString_F("6789");
LCD_writeChar (0x44);
LCD_writeChar (0x61);
LCD_writeChar (0x6D);
LCD_writeChar (0x6D);
LCD_writeChar (0x69);
LCD_writeChar (0x74);
LCD_writeChar (0x21);
*/
}
void main(void)
{
unsigned char bufPos = 0;
unsigned char cursorPos = 0;
unsigned char localEcho = 1;
unsigned char c;
int i;
unsigned char gpibIndex = 0;
unsigned char command = 0;
int result = 0;
unsigned char msgLen = 0;
unsigned char msgEOI = 1;
GPIO_init();
/* timer & interrupt initialize */
TIMSK = _BV(TOIE0); // wlacz obsluge przerwan T/C0
TCNT0 = T0_INIT; // wartosc poczatkowa T/C0
TCCR0 = _BV(CS00)|_BV(CS02); // preskaler 1024
sei();
ReconfigureGPIO_GPIBNormalMode();
UART_init();
fdevopen(uart_putchar, NULL);
#if 1
if (0 == (PINB & _BV(PB5))) // printer mode
{
ledBlinking = SLOW;
ReconfigureGPIO_GPIBReceiveMode();
_delay_ms(1);
while (1)
{
result = GPIB_Receive(gpibBuf, GPIB_BUF_SIZE-2, &gpibIndex);
if (gpibIndex != 0)
{
for (i=0; i<gpibIndex; i++)
UART_transmit(gpibBuf[i]);
}
else
{
_delay_ms(10);
}
}
}
localEcho = (PINB & _BV(PB7))?1:0;
#endif
SetLed(1);
while (1) //main loop
{
selectedCommand = savedCommands;
if (localEcho && !bufPos)
printf("<GPIB> ");
do
{
while (!UARTDataAvailable());
c = UART_receive();
if (0x08 == c) //backspace
{
if ((bufPos > 0) && (cursorPos == bufPos))
{
--bufPos;
--cursorPos;
if (localEcho)
{
UART_transmit(0x08);
UART_transmit(' ');
UART_transmit(0x08);
}
}
else if ((bufPos > 0) && (cursorPos > 0))
{
--bufPos;
--cursorPos;
memmove(&buf[cursorPos], &buf[cursorPos+1], bufPos-cursorPos);
if (localEcho)
{
UART_transmit(0x08);
buf[bufPos] = 0;
printf("%s ", &buf[cursorPos]);
for (i=cursorPos; i<(bufPos+1); i++)
UART_transmit(0x08);
}
}
}
else if (10 == c) //ignore LF
{
}
/* else if (9 == c) //tab key
{
printf("<bufPos=%d cursorPos=%d>", bufPos, cursorPos);
}
*/ else if (0x1b == c) //escape character
{
switch (UART_RcvEscapeSeq())
{
case ESC_KEY_UP:
selectedCommand = selectedCommand?selectedCommand-1:0;
memmove(&buf[0], &commandsHistory[selectedCommand*BUF_SIZE], BUF_SIZE);
if (localEcho)
{
while (cursorPos < bufPos)
{
UART_transmit(' ');
cursorPos++;
}
while (bufPos--)
{
UART_transmit(0x08);
UART_transmit(' ');
UART_transmit(0x08);
}
printf("%s", &buf[0]);
}
bufPos = strlen((char*)&buf[0]);
cursorPos = bufPos;
break;
case ESC_KEY_DOWN:
if ((selectedCommand+1) == savedCommands) //current command is last command in buffer
{
selectedCommand = savedCommands;
if (localEcho)
{
while (cursorPos < bufPos)
{
UART_transmit(' ');
cursorPos++;
}
while (bufPos--)
{
UART_transmit(0x08);
UART_transmit(' ');
UART_transmit(0x08);
}
}
bufPos = 0;
cursorPos = 0;
}
else if ((selectedCommand+1) < savedCommands) // <MAX_COMMANDS
{
selectedCommand++;
memmove(&buf[0], &commandsHistory[selectedCommand*BUF_SIZE], BUF_SIZE);
if (localEcho)
{
while (cursorPos < bufPos)
{
UART_transmit(' ');
cursorPos++;
}
while (bufPos--)
{
UART_transmit(0x08);
UART_transmit(' ');
UART_transmit(0x08);
}
printf("%s", &buf[0]);
}
bufPos = strlen((char*)&buf[0]);
cursorPos = bufPos;
}
break;
case ESC_KEY_LEFT:
if (cursorPos)
{
--cursorPos;
if (localEcho)
{
UART_transmit(0x1B);
UART_transmit(0x5B);
UART_transmit('D');
}
}
break;
case ESC_KEY_RIGHT:
if (cursorPos < bufPos)
{
cursorPos++;
if (localEcho)
{
UART_transmit(0x1B);
UART_transmit(0x5B);
UART_transmit('C');
}
}
break;
default:
break;
}
}
else if (13 == c)
{
if (localEcho)
{
UART_transmit(13); //CR
UART_transmit(10); //LF
}
if (bufPos)
command = toupper(buf[0]);
else
command = EMPTY_LINE;
}
else
{
if (bufPos < BUF_SIZE-1)
{
if (cursorPos == bufPos)
{
buf[bufPos++] = c;
cursorPos++;
if (localEcho)
UART_transmit(c); //local echo
}
else
{
memmove(&buf[cursorPos+1], &buf[cursorPos], bufPos-cursorPos);
buf[cursorPos++] = c;
bufPos++;
buf[bufPos] = 0;
if (localEcho)
{
UART_transmit(c); //local echo
printf("%s", &buf[cursorPos]);
for (i=cursorPos; i<bufPos; i++)
UART_transmit(0x08);
}
}
}
}
} while (!command);
if ('D' == command) //send data
{
if (!listenMode)
{
if (1 == msgEndSeq)
buf[bufPos++] = 13; //CR
else if (2==msgEndSeq)
buf[bufPos++] = 10; //LF
else if (3==msgEndSeq)
{
buf[bufPos++] = 13; //CR
buf[bufPos++] = 10; //LF
}
result = GPIB_Transmit(buf+1, bufPos-1, 1);
if (result == 255) // transmit ok
printf("OK\r\n");
else //timeout
printf("TIMEOUT\r\n");
if ((1==msgEndSeq) || (2==msgEndSeq))
--bufPos;
else if (3==msgEndSeq)
bufPos -= 2;
}
else
printf("ERROR\r\n");
}
else if ('M' == command) //send data without EOI
{
if (!listenMode)
{
if (1 == msgEndSeq)
buf[bufPos++] = 13; //CR
else if (2==msgEndSeq)
buf[bufPos++] = 10; //LF
else if (3==msgEndSeq)
{
buf[bufPos++] = 13; //CR
buf[bufPos++] = 10; //LF
}
result = GPIB_Transmit(buf+1, bufPos-1, 0);
if (result == 255) // transmit ok
printf("OK\r\n");
else //timeout
printf("TIMEOUT\r\n");
if ((1==msgEndSeq) || (2==msgEndSeq))
--bufPos;
else if (3==msgEndSeq)
bufPos -= 2;
}
else
printf("ERROR\r\n");
}
else if ('C' == command) //send command
{
for (i=1; i<bufPos; i++)
{
if ((buf[i] == '?') || (buf[i] == (64+listenAddress)))//unlisten
{
listenMode = 0;
ledBlinking = OFF;
SetLed(1);
}
else if (buf[i] == (32+listenAddress))
{
listenMode = 1;
ledBlinking = FAST;
}
}
if (1 == msgEndSeq)
buf[bufPos++] = 13; //CR
else if (2==msgEndSeq)
buf[bufPos++] = 10; //LF
else if (3==msgEndSeq)
{
buf[bufPos++] = 13; //CR
buf[bufPos++] = 10; //LF
}
ReconfigureGPIO_GPIBNormalMode();
SetATN(0);
_delay_us(100);
result = GPIB_Transmit(buf+1, bufPos-1, 1);
if (result == 255) // transmit ok
printf("OK\r\n");
else //timeout
printf("TIMEOUT\r\n");
SetATN(1);
if ((1==msgEndSeq) || (2==msgEndSeq))
--bufPos;
else if (3==msgEndSeq)
bufPos -= 2;
if (listenMode)
ReconfigureGPIO_GPIBReceiveMode();
else
ReconfigureGPIO_GPIBNormalMode();
listenMode_prev = listenMode;
}
else if ('R' == command)
{
SetREN(0);
remoteState = 1;
printf("OK\r\n");
}
else if ('L' == command)
{
SetREN(1);
remoteState = 0;
printf("OK\r\n");
}
else if ('I' == command)
{
SetIFC(0);
_delay_ms(1);
SetIFC(1);
if (listenMode)
{
listenMode = 0;
ledBlinking = OFF;
SetLed(1);
ReconfigureGPIO_GPIBNormalMode();
}
printf("OK\r\n");
}
else if ('S' == command)
{
UART_transmit(remoteState?'1':'0');
UART_transmit((0 == (PINC & SRQ))?'1':'0');
UART_transmit(listenMode?'1':'0');
UART_transmit(13);
UART_transmit(10);
}
else if ('P' == command)
{
listenMode_prev = 0; //cancel listen mode
listenMode = 0; //cancel listen mode
ledBlinking = SLOW;
ReconfigureGPIO_GPIBReceiveMode();
// if (localEcho)
// printf("PRINTER MODE, send <ESC> to return to normal mode\r\n");
_delay_ms(1);
while (c != 27)
{
if (UARTDataAvailable())
c = UART_receive();
result = GPIB_Receive(gpibBuf, GPIB_BUF_SIZE-2, &gpibIndex);
if (gpibIndex != 0)
{
for (i=0; i<gpibIndex; i++)
UART_transmit(gpibBuf[i]);
}
else
{
_delay_ms(10);
}
}
c = 0;
ReconfigureGPIO_GPIBNormalMode();
ledBlinking = OFF;
SetLed(1);
}
else if ('X' == command) //ascii receive
{
if (!listenMode)
{
ReconfigureGPIO_GPIBReceiveMode();
_delay_ms(1);
}
result = GPIB_Receive_till_eoi(gpibBuf, GPIB_BUF_SIZE-2, &gpibIndex);
if (gpibIndex != 0)
{
gpibBuf[gpibIndex] = 0;
printf("%s",gpibBuf);
}
else
printf("TIMEOUT\r\n");
if (!listenMode)
ReconfigureGPIO_GPIBNormalMode();
}
else if ('Y' == command) //binary receive
{
if (!listenMode)
{
ReconfigureGPIO_GPIBReceiveMode();
_delay_ms(1);
}
result = GPIB_Receive_till_eoi(gpibBuf, GPIB_BUF_SIZE-2, &gpibIndex);
UART_transmit(gpibIndex);
for (i=0; i<gpibIndex; i++)
{
UART_transmit(gpibBuf[i]);
}
if (!listenMode)
ReconfigureGPIO_GPIBNormalMode();
}
else if ('Z' == command) //hex receive
{
if (!listenMode)
{
ReconfigureGPIO_GPIBReceiveMode();
_delay_ms(1);
}
result = GPIB_Receive_till_eoi(gpibBuf, GPIB_BUF_SIZE-2, &gpibIndex);
printf("%02x", gpibIndex);
for (i=0; i<gpibIndex; i++)
printf("%02x",gpibBuf[i]);
printf("\r\n");
if (!listenMode)
ReconfigureGPIO_GPIBNormalMode();
}
else if ('?' == command)
{
ShowHelp();
}
else if ('E' == command)
{
if (bufPos == 1)
printf("%d\r\n", localEcho);
else if ((bufPos==2) && ('0' == buf[1]))
{
localEcho = 0;
printf("OK\r\n");
}
else if ((bufPos==2) && ('1' == buf[1]))
{
localEcho = 1;
printf("OK\r\n");
}
else
printf("ERROR\r\n");
}
else if ('H' == command) //show history
{
for (i=0; i<savedCommands; i++)
printf("%d: %s\r\n", i, &commandsHistory[i*BUF_SIZE]);
command = 0; //to avoid saving this command in history
}
else if ('A' == command) //listen address
{
if (bufPos == 1)
printf("%02d\r\n", listenAddress);
else if ((bufPos==3) && isdigit(buf[1]) && isdigit(buf[2]))
{
i = atoi((char*)buf+1);
if ((i>=0) && (i<=30))
{
listenAddress = i;
printf("OK\r\n");
}
else
printf("ERROR\r\n");
}
else
printf("ERROR\r\n");
}
else if ('Q' == command)
{
if (bufPos == 1)
printf("%d\r\n", msgEndSeq);
else if ((2==bufPos) && (('0'==buf[1]) || ('1'==buf[1]) || ('2'==buf[1]) || ('3'==buf[1])))
{
if ('0'==buf[1])
msgEndSeq = 0;
else if ('1'==buf[1])
msgEndSeq = 1;
else if ('2'==buf[1])
msgEndSeq = 2;
else if ('3'==buf[1])
msgEndSeq = 3;
printf("OK\r\n");
}
else
printf("ERROR\r\n");
}
else if ('T' == command)
{
if (CheckHexMsg(&buf[1], bufPos-1, msgBuf, &msgLen, &msgEOI))
{
if ('D' == toupper(buf[2])) //send data
{
result = GPIB_Transmit(msgBuf, msgLen, msgEOI);
if (result == 255) // transmit ok
printf("OK\r\n");
else //timeout
printf("TIMEOUT\r\n");
}
else //send command
{
for (i=0; i<msgLen; i++)
{
if ((msgBuf[i] == '?') || (msgBuf[i] == (64+listenAddress)))//unlisten
{
listenMode = 0;
ledBlinking = OFF;
SetLed(1);
}
else if (buf[i] == (32+listenAddress))
{
listenMode = 1;
ledBlinking = FAST;
}
}
ReconfigureGPIO_GPIBNormalMode();
SetATN(0);
_delay_us(100);
result = GPIB_Transmit(msgBuf, msgLen, 1);
if (result == 255) // transmit ok
printf("OK\r\n");
else //timeout
printf("TIMEOUT\r\n");
SetATN(1);
if (listenMode)
ReconfigureGPIO_GPIBReceiveMode();
else
ReconfigureGPIO_GPIBNormalMode();
listenMode_prev = listenMode;
}
}
else
printf("ERROR\r\n");
}
else
{
if (bufPos)
printf("WRONG COMMAND\r\n");
command = 0;
}
if (command && bufPos)
{
buf[bufPos] = 0; //add string termination
//avoids saving same command twice
if ((savedCommands > 0) && (0 == strcmp(&commandsHistory[(savedCommands-1)*BUF_SIZE], (char*)&buf[0])))
{
command = 0;
}
else //save command
{
if (savedCommands < MAX_COMMANDS)
{
memmove(&commandsHistory[savedCommands*BUF_SIZE], &buf[0], BUF_SIZE);
++savedCommands;
}
else
{
memmove(&commandsHistory[0], &commandsHistory[BUF_SIZE], BUF_SIZE*(savedCommands-1));
memmove(&commandsHistory[(savedCommands-1)*BUF_SIZE], &buf[0], BUF_SIZE);
}
}
}
command = 0;
bufPos = 0;
cursorPos = 0;
buf[0] = 0;
} //end of endless loop block
}
int uart_putchar(char ch, FILE* file)
{
UART_transmit(ch);
return ch;
}
int main(void)
{
InitOsc();
InitPorts();
InitUART0();
InitLCD();
TCPLowLevelInit(); //after TCPLowLevelInit() UCLK = ACLK = MCLK/4 = 2 000 000 Hz
UART_transmit (CR);
UART_transmit (LF);
for (i=0; i!=26; i++) UART_transmit (UART_Message[i]);
UART_transmit (CR);
UART_transmit (LF);
for (i=0; i!=32; i++)
{
SEND_CHAR(LCD_Message[i]);
if (i==15) SEND_CMD (DD_RAM_ADDR2);
}
SEND_CMD(DD_RAM_ADDR);
RX_flag=0;
cntr = 0;
HTTPStatus = 0; // clear HTTP-server's flag register
TCPLocalPort = TCP_PORT_HTTP; // set port we want to listen to
while (1) // repeat forever
{
//--------------buttons scan---------------------------------------------------------
if ((B1) == 0) //B1 is pressed
{
STATUS_LED_ON; //switch on status_led
SEND_CMD(CLR_DISP);
SEND_CMD(DD_RAM_ADDR);
cntr=0;
}
else STATUS_LED_OFF; //B1 is released
if ((B2) == 0)
{
// time_out = BUTTON_TIME;
// while (time_out != 0)
// if ((B2) == 0) time_out--;
// else time_out = BUTTON_TIME;
Delayx100us(50);
RELAY1_ON;
}
else
{
// time_out = BUTTON_TIME;
// while (time_out != 0)
// if ((B2) != 0) time_out--;
// else time_out = BUTTON_TIME;
Delayx100us(50);
RELAY1_OFF;
}
if ((B3) == 0)
{
Delayx100us(50);
RELAY2_ON; //B3 is pressed
}
else
{
Delayx100us(50);
RELAY2_OFF; //B3 is released
}
while ((B4) == 0) //B4 is pressed
{
BUZ1_OFF;
BUZ2_ON;
Delay(_100us);
Delay(_100us); //buzzer with 5 000 Hz
BUZ2_OFF;
BUZ1_ON;
Delay(_100us);
}
BUZ1_OFF; //B4 is released
BUZ2_OFF;
//--------UART0 receiv scan------------------------------------------------------------------
if (RX_flag == 1) //new receiv byte
{
STATUS_LED_ON;
if (cntr == 0)
{
SEND_CMD(CLR_DISP);
SEND_CMD(DD_RAM_ADDR); //set address for first row
}
SEND_CHAR(RXData);
if(cntr == 15) SEND_CMD(DD_RAM_ADDR2); //set address for second row
if(cntr++ == 31) cntr = 0;
RX_flag = 0;
STATUS_LED_OFF;
}
//---------Digital Inputs scan--------------------------------------------------------------
if ((DI1) == 0) for (i=0 ; i != 5; i++)UART_transmit(DI1_Message[i]);
if ((DI2) == 0) for (i=0 ; i != 5; i++)UART_transmit(DI2_Message[i]);
if ((DI3) == 0) for (i=0 ; i != 5; i++)UART_transmit(DI3_Message[i]);
if ((DI4) == 0) for (i=0 ; i != 5; i++)UART_transmit(DI4_Message[i]);
//---------DALLAS scan ---------------------------------------------------------------------
if ((DALLAS) == 0)
{
cntr=0;
SEND_CMD(CLR_DISP);
SEND_CMD(DD_RAM_ADDR);
for (i=0 ; i!= 14; i++) SEND_CHAR(DALLAS_Message[i]);
}
//---------FREQ scan ----------------------------------------------------------------------
if ((FREQ) != 0)
{
cntr=0;
SEND_CMD(CLR_DISP);
SEND_CMD(DD_RAM_ADDR);
for (i=0 ; i!= 16; i++) SEND_CHAR(FREQ_Message[i]);
}
//***********************************************************************************
//this is the end of my programm
//***********************************************************************************
if (!(SocketStatus & SOCK_ACTIVE)) {
TCPPassiveOpen(); // listen for incoming TCP-connection
}
DoNetworkStuff(); // handle network and easyWEB-stack
// events
HTTPServer();
}
return 0;
}
///*
interrupt(UART0RX_VECTOR)usart0_rx (void)
{
RXData = RXBUF0;
UART_transmit (RXData+1); //transmit Echo + 1
RX_flag = 1; //set RX_flag
}
