AVRRelay485.cpp
https://gist.github.com/dmsherazi/8540303
#define F_CPU 8000000U
#include <avr/io.h>
#include <avr/interrupt.h>
#include <inttypes.h>
#include <stdlib.h>
#include <stdio.h>
#include <string.h>
#include <util/delay.h>
#include <avr/eeprom.h>
const char slashr[]="\r";
#include <avr/wdt.h>
const char ERRORS[]="ERROR";
#define RX_BUFFER_SIZE 128 //***watch buffer overflow!!!
#define Relay1on PORTB|=0x20;pgmst=1;
#define Relay1off PORTB&=~0x20;pgmst=0;
#define Relay2on PORTB|=0x10;pgmst2=1;
#define Relay2off PORTB&=~0x10;pgmst2=0;
#define chan1_on PORTB|=0x08;
#define chan1_off PORTB&=~0x08;
#define chan2_on PORTB|=0x04;
#define chan2_off PORTB&=~0x04;
#define Brown_high PORTB|=0x40;
#define Brown_low PORTB&=~0x40;
#define Brown_dash_high PORTB|=0x80;
#define Brown_dash_low PORTB&=~0x80;
#define outputLow(port,pin) port &= ~(1<<pin)
#define outputHigh(port,pin) port |= (1<<pin)
#define toggleOutput(port,pin) port ^= (1<<pin)
#define setInput(portdir,pin) portdir &= ~(1<<pin)
#define setOutput(portdir,pin) portdir |= (1<<pin)
#define digitalRead(pinPort,pin) ((pinPort>>pin)& 1)//Eg PINB,PB4
#define ONTIME_INDEX_HR 0
#define OFFTIME_INDEX_HR 2
#define ONTIME_INDEX_MIN 1
#define OFFTIME_INDEX_MIN 3
#define ENABLED_INDEX 4
//////////////////////////////////////////////////////////////////////////
struct time
{
uint8_t min,hours;
} tempTime,Timer1OnTime,Timer2OnTime,Timer1OffTime,Timer2OffTime;
uint8_t EEMEM Timer1En;
uint8_t EEMEM MINON;
uint8_t EEMEM HOURSON;
uint8_t EEMEM MIN;
uint8_t EEMEM HOURS;
uint8_t EEMEM Timer2En;
uint8_t EEMEM MINON2;
uint8_t EEMEM HOURSON2;
uint8_t EEMEM MIN2;
uint8_t EEMEM HOURS2;
uint8_t Timers_db[9][6];
volatile uint64_t millis_count;
char buffer[RX_BUFFER_SIZE];
char RS485buffer[RX_BUFFER_SIZE];
int head,headRS485=0;
int tail,tailRS485=0;
char* fullData;
char* fullDataRS485; // full Simcom responce data, filled by catchSimcomData
char* parsedData;
char* parsedDataRS485; // parsed responce
char message[160];
char address[6];
char relay[15];
char command[160];
char restmess[40];
char tempmessage[40];
//////////////////////////////////////////////////////////////////////////
// Functions Intializations
const char* const catchSimcomData(uint32_t = 180000, bool = false, uint16_t= 300, uint32_t = 60);//Default time out for +COPS is 180 seconds
const char* const catchRS485Data(uint32_t = 180000, uint16_t= 300, uint32_t = 60);//Default time out for +COPS is 180 seconds
//time out //quickCheck //datasize //baudDelay
const char* const parseData(const char* const,const char*,const char*);
const char* const parseSplit(const char* const,const char*,uint16_t);
bool parseFind(const char* const, const char*);
void sendATCommand(const char*);
//char* const sendRecQuickATCommand(const char*); //Used to send/get reply for a OK reply
const char* const sendRecATCommand(const char*); //Main function that gets Simcom reply
const char* const sendRecATCommandParse(const char*,
const char* _start, const char* _end); //Sends AT command parses reply, between _start _end
const char* const sendRecATCommandSplit(const char*,
const char* _delimiters, uint16_t _field);//Sends AT command splits data according to delimeter
//Hardware
void USART0_Transmit(unsigned char data)
{
while (!(UCSR0A & (1<<UDRE0))) ;
UDR0 = data;
}
void USART1_Transmit(unsigned char data)
{
while (!(UCSR1A & (1<<UDRE1))) ;
UDR1 = data;
}
void write(const char *data)
{
while (*data) USART0_Transmit(*data++);
}
void write1(const char *data)
{
outputHigh(PORTD,4);
while (*data) USART1_Transmit(*data++);
while (!(UCSR1A & (1<<UDRE1))) ;
_delay_us(1900);
outputLow(PORTD,4);
}
inline void store_char(unsigned char c)
{
int i = (head + 1) % RX_BUFFER_SIZE;
if (i != tail)
{
buffer[head] = c;
head = i;
}
}
inline const char* const getFullData()
{
return fullData;
}
inline const char* const getParsedData()
{
return parsedData;
}
inline const char* const getFullDataRS485()
{
return fullDataRS485;
}
inline const char* const getParsedDataRS485()
{
return parsedDataRS485;
}
ISR(USART0_RX_vect) //triggers when recieve buffer is full
{
unsigned char c = UDR0;
store_char(c);
PORTB^=1;
}
void store_char_RS485(unsigned char c)
{
int g = (headRS485 + 1) % RX_BUFFER_SIZE;
if (g != tailRS485)
{
RS485buffer[headRS485] = c;
headRS485 = g;
}
}
ISR(USART1_RX_vect) //triggers when recieve buffer is full
{
unsigned char y = UDR1;
store_char_RS485(y);
}
char read()
{
// if the head isn't ahead of the tail, we don't have any characters
if (head == tail)
{
return 0;
}
else
{
char c = buffer[tail];
tail = (tail + 1) % RX_BUFFER_SIZE;
return c;
}
}
char read_RS485()
{
// if the head isn't ahead of the tail, we don't have any characters
if (headRS485 == tailRS485)
{
return 0;
}
else
{
char c = RS485buffer[tailRS485];
tailRS485 = (tailRS485 + 1) % RX_BUFFER_SIZE;
return c;
}
}
uint8_t available()
{
return (RX_BUFFER_SIZE + head - tail) % RX_BUFFER_SIZE;
}
uint8_t available_RS485()
{
return (RX_BUFFER_SIZE + headRS485 - tailRS485) % RX_BUFFER_SIZE;
}
void flush()
{
head =tail;
}
void flush_RS485()
{
headRS485 =tailRS485;
}
void USART0_Init( uint32_t baud )
{
uint16_t baud_rate = (F_CPU / 8 / baud - 1) / 2;
UBRR0H = (uint8_t)(baud_rate >> 8);
UBRR0L = (uint8_t)baud_rate;
UCSR0B = (1<<RXEN0)|(1<<TXEN0)|(1<<RXCIE0);
UCSR0C = (1<<UCSZ01) | (1<<UCSZ00);
}
void USART1_Init( uint32_t baud )
{
uint16_t baud_rate = (F_CPU / 8 / baud - 1) / 2;
UBRR1H = (uint8_t)(baud_rate >> 8);
UBRR1L = (uint8_t)baud_rate;
UCSR1B = (1<<RXEN1)|(1<<TXEN1)|(1<<RXCIE1);
UCSR1C = (1<<UCSZ11) | (1<<UCSZ10);
}
void timer0()
{
TCCR0A = (1<<WGM01);
//sets prescaler clkIO/256 ***THIS MIGHT CAUSE ISSUES SETS FOR ALL CLOCKS**!!!!
TCCR0B = (1<<CS02);
//sets interrupt enable for OCF0A (TIMER_COMPA_vect)
TIMSK0 = (1<<OCIE0A);
//sets TOP counter match A at 31
OCR0A = 31;
}
uint32_t millis();
ISR(TIMER0_COMPA_vect)
{
++millis_count;
//OCR0A = 10; //sets upper breakpoint A
}
void sendATCommand(const char* theMessageMelleMel)
{
write(theMessageMelleMel);
write(slashr);
wdt_reset();
}
//Sends AT command and checks for OK or ERROR good for commands that reply OK or ERROR
const char* const sendRecQuickATCommand(const char* theMessageMelleMel)
{
write(theMessageMelleMel);
write(slashr);
wdt_reset();
return (catchSimcomData(2000,true)); // 2000 milli time out with a quickCheck return data
}
//Sends AT command and stores reply with the catch data function
const char* const sendRecATCommand(const char* theMessageMelleMel)
{
write(theMessageMelleMel);
write(slashr);
wdt_reset();
return (catchSimcomData()); //return data
}
//Sends AT command parses reply, makes string from the passed in strings
const char* const sendRecATCommandParse(const char* theMessageMelleMel,const char* _start,const char* _end)
{
write(theMessageMelleMel);
write(slashr);
wdt_reset();
return (parseData(const_cast<char*>(catchSimcomData(3000,false)),_start,_end)); //return data
}
//Sends AT command splits data according to delimeter
const char* const sendRecATCommandSplit(const char* theMessageMelleMel,const char* _delimiters, uint16_t _field)
{
write(theMessageMelleMel);
write(slashr);
wdt_reset();
return (parseSplit(const_cast<char*>(catchSimcomData(1500,false,30,100)),_delimiters,_field)); //return data
}
//////////////////////////////////////////////////////////////////////SEND FUNCS*
//////////////////////////////////////////////////////////////////////PARSE FUNCS
//finds the objectOfDesire string in theString if it is ! a NULL pointer
bool parseFind(const char* const theString,const char* objectOfDesire)
{
if (!theString) return 0; // If we get a NULL pointer bail
return strstr(theString,objectOfDesire);
}
const char* const catchSimcomData(uint32_t _timeout,bool quickCheck,uint16_t dataSize,uint32_t baudDelay)
{
//memory allocation issue with realloc writes over itself and malloc fragments the SRAM with
//too many calls I tried for a happy medium but unless i know your program flow this is the
//best I can do.
bool badMessage = false;
free(fullData);
fullData=NULL;
if (quickCheck) dataSize=20; //If it is just a quick check max size is "/n/nERROR/n/n/0"
wdt_reset();
char* storeData = (char*)
malloc(sizeof(char) * (dataSize));
if (storeData == NULL)return 0; //if we get bad memory
// block wait for reply
uint64_t startTimeGlobal = millis(); //9600/1000= 9.6bits per milli 6 milles ~6 bytes
while (available() < 1)
{
if ((millis() - startTimeGlobal) > _timeout)
{
return 0; // smallest message "<CR><LF>OK<CR><LF>" // timed out bad message
}
}
wdt_reset();
uint16_t dataPos=0;
uint64_t startTimeBaud;
//if no data in 60 milli (baudDelay default) sendings done
while (1)
{
if ((dataPos+1) >= dataSize)
{
dataPos = 0; //don't overflow buffer overwrite to clear buffer
badMessage = true; //after return NULL to mark bad message
}
storeData[dataPos++] = read(); //Read out serial register
//////////////////////////////////////////////////////////////////////////
/////USART1_Transmit(storeData[dataPos-1]);
startTimeBaud = millis();
while (available() < 1)
{
if ((millis() - startTimeBaud) > baudDelay) //if no more data is coming
{
storeData[dataPos]= '\0'; //Add NULL for a string
//If it is a small amount of data
//we can afford to cut it down.
if (dataPos < 500) //500 seems to be the threshold with nothing else running
{
free(fullData);
fullData=NULL;
fullData = (char*)
malloc(sizeof(char) * (dataPos+1));
if (fullData == NULL)
{
return 0;
}
memcpy(fullData,storeData,dataPos+1);
free(storeData);
storeData=NULL;
}
else fullData=storeData; //ELSE we just copy over the whole thing
goto doneReceive;
}
} //No data in x time goto doneReceive, based on baud delay
}
doneReceive:
wdt_reset();
//DebugPort->
// write1(fullData);
// write1("/n");
if (badMessage) return 0;
if (quickCheck)
{
if (parseFind(fullData, "\r
OK\r
")) return fullData; //return fullData
else if (parseFind(fullData,ERRORS)) return 0; //return NULL
else return 0;
}
return fullData;
}
const char* const catchRS485Data(uint32_t _timeout,uint16_t dataSize,uint32_t baudDelay)
{
//memory allocation issue with realloc writes over itself and malloc fragments the SRAM with
//too many calls I tried for a happy medium but unless i know your program flow this is the
//best I can do.
bool badMessage = false;
free(fullDataRS485);
fullDataRS485=NULL;
wdt_reset();
char* storeData = (char*)
malloc(sizeof(char) * (dataSize));
if (storeData == NULL)return 0; //if we get bad memory
// block wait for reply
uint64_t startTimeGlobal = millis(); //9600/1000= 9.6bits per milli 6 milles ~6 bytes
while (available_RS485() < 1)
{
if ((millis() - startTimeGlobal) > _timeout)
{
return 0; // smallest message "<CR><LF>OK<CR><LF>" // timed out bad message
}
}
uint16_t dataPos=0;
uint64_t startTimeBaud;
//if no data in 60 milli (baudDelay default) sendings done
while (1)
{
if ((dataPos+1) >= dataSize)
{
dataPos = 0; //don't overflow buffer overwrite to clear buffer
badMessage = true; //after return NULL to mark bad message
}
storeData[dataPos++] = read_RS485(); //Read out serial register
//////////////////////////////////////////////////////////////////////////
/////USART1_Transmit(storeData[dataPos-1]);
startTimeBaud = millis();
wdt_reset();
while (available_RS485() < 1)
{
if ((millis() - startTimeBaud) > baudDelay) //if no more data is coming
{
storeData[dataPos]= '\0'; //Add NULL for a string
//If it is a small amount of data
//we can afford to cut it down.
if (dataPos < 500) //500 seems to be the threshold with nothing else running
{
free(fullDataRS485);
fullDataRS485=NULL;
fullDataRS485 = (char*)
malloc(sizeof(char) * (dataPos+1));
if (fullDataRS485 == NULL)
{
return 0;
}
memcpy(fullDataRS485,storeData,dataPos+1);
free(storeData);
storeData=NULL;
}
else fullDataRS485=storeData; //ELSE we just copy over the whole thing
goto doneReceive;
}
} //No data in x time goto doneReceive, based on baud delay
}
doneReceive:
wdt_reset();
if (badMessage) return 0;
return fullData;
}
const char* const parseData(const char* const theString,const char* start,const char* end)
{
if (!theString) return 0; // If we get a NULL pointer bail
size_t startSize = strlen(start); // get size of string
char* startP = strstr (theString,start); // looks for string gives pointer including look
if (!startP) return 0; // If we didn't find begining of string *MEM LEAK IF TAKEN OUT*
startP+=startSize; // offset (gets rid of delim)
char* endP = strstr ((startP),end); // starts at startP looks for END string
if (!endP) return 0; // We didn't find end *MEM LEAK IF TAKEN OUT*
free(parsedData); // if it has been allocated, Free the memory
parsedData=NULL;
parsedData = (char*) malloc((size_t)(sizeof(char)*(endP-startP)+1)); // get memory
if (parsedData == NULL)
{
return 0;
} // if we couldn't get mem
uint16_t dataPos=0;
while ( startP != endP ) // grab between starP and endP
{
parsedData[dataPos++]= *startP++;
}
parsedData[dataPos]= '\0'; // NULL to make a proper string
return parsedData; // gives back what it can. parsData has class scope.
}
//Splits data according to delimeter
//EG
//(THE FIELDS 0 1 2 3 4 )
//input string: "the, quick: brown, blah: blah,"
//_delimiters string ",:"
//field: 2
//returns pointer to "brown"
const char* const parseSplit(const char* const theString,const char* delimiters,uint16_t field)
{
if (!theString) return 0; // if not a NULL pointer
char * temp; // you have to use a local scope char array,
char deadStr[strlen(theString)+1]; // or you get a bad memory leak.
strcpy(deadStr, theString); // don't change this unless you are careful.
temp = strtok (deadStr,delimiters); // split here first
for (uint16_t i=0; i<field; ++i)
{
temp = strtok (NULL,delimiters); // use NULL to keep spliting same string
}
free(parsedData); // if it has been allocated Free the memory
parsedData=NULL;
if (!temp)return 0; // if we didn't find anything return NULL
parsedData = (char*) malloc(sizeof(char)* (strlen(temp)+1)); // get mem +'\0'
if (parsedData == NULL) return 0; // If we get a NULL pointer
strcpy(parsedData,temp); // copy to parsedData, it has class scope
return parsedData;
}
//uint64_t okLED;bool okFLAg;
unsigned char USART0_Receive(void)
{
while (!(UCSR0A & (1<<RXC0))) ;
return UDR0;
}
uint32_t millis()
{
uint32_t mill;
uint8_t oldSREG = SREG; //remember last value of interupts
// disable interrupts while we read timer0_millis or we might get an
// inconsistent value (e.g. in the middle of a write to timer0_millis)
cli();
mill = millis_count;
SREG = oldSREG; // rewrite reg value to turn back on interrupts
return mill;
}
void Timer1_Init(void)
{
// Timer1 settings: ~ 39999488 ticks (4999936 us / 4999.936 ms / 4.999936 sec)
TCCR1B = (1<<CS12) | (1<<CS10); // CLK/1024
TIMSK1 = (1 << TOIE1); // Timer/Counter1 Overflow Interrupt Enable
TCNT1H = 103;
TCNT1L = 106;
}
bool RS485FLAG=false;
void checkRS485()
{
if (read_RS485()=='*')
{
wdt_reset();
catchRS485Data(1800,180,50);
wdt_reset();
strcpy(message,parseData(fullDataRS485,"*","!!"));
if (strcmp(message,""))
{
strncpy(address,parseData(message,"#",":"),sizeof(address)/sizeof(address[0]));
strncpy(relay,parseData(message,":",","),sizeof(relay)/sizeof(relay[0]));
strncpy(command,parseData(message,",","-"),sizeof(command)/sizeof(command[0]));
strncpy(restmess,parseData(message,"-",":"),sizeof(restmess)/sizeof(restmess[0]));
RS485FLAG=true;
}
}
}
char bAdress[]="12";
char onOffTimeString[30];
void send_back_time()
{
strcpy(tempmessage,"
Time: ");
strcat(tempmessage,"[");
char buff[21];
long unsigned x;
x = millis() / 1000 ;
long unsigned seconds = x % 60;
x /= 60 ;
long unsigned minutes = x % 60;
x /= 60;
long unsigned hours = x % 24 ;
x /= 24 ;
long unsigned days = x ;
//sprintf(buff, "%06lu", millis());
//strcat(tempmessage,buff);
strcat(tempmessage,"");
sprintf(buff, "%lu", hours);
strcat(tempmessage,buff);
strcat(tempmessage,".");
sprintf(buff, "%lu", minutes);
strcat(tempmessage,buff);
strcat(tempmessage,".");
sprintf(buff, "%lu", seconds);
strcat(tempmessage,buff);
strcat(tempmessage,"]");
write1(tempmessage);
}
void timestringtoMillis()
{
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
char buff[25];
Timer1OffTime.min=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
uint32_t millis_count_temp;
if (Timer1OffTime.min>32)
{
millis_count_temp=16000+(Timer1OffTime.min*1000)+(Timer1OnTime.min *60000)+(Timer1OnTime.hours *3600000 );
}
else millis_count_temp=(Timer1OffTime.min*1000)+(Timer1OnTime.min *60000)+(Timer1OnTime.hours *3600000 );
cli();
millis_count=millis_count_temp;
sei();
//send_back_time();
}
uint64_t last_timer_check=0;
uint64_t last_time_check=0;
uint64_t last_onTime=0;
uint64_t last_update_time=0;
uint64_t last_check_time;
uint8_t relayPos[]={6,7,5,4};
#define Debug
int main(void)
{
// MCUSR &= ~(1 << WDRF);
// wdt_disable();
MCUCR=(1<<JTD);
MCUCR=(1<<JTD);
wdt_enable(WDTO_8S);
wdt_reset();
outputHigh(DDRD,4);
DDRD=0xFA;
DDRB=255;
outputLow(PORTD,4); //REC on RS485
USART0_Init(4800);
USART1_Init(38400);
wdt_reset();
_delay_ms(500);
//write1("
Started long string here boss");
sei();
timer0();
PORTB&=~3;
_delay_ms(5000);
write1("**#00:getData,");
write1(bAdress);
write1("-:!!");
PORTB|=3;
PORTD|=0b01100000;
int getData=0;
last_update_time=last_check_time=millis();
while (1)
{
exitloc:
wdt_reset();
if (millis()%3000<100)
{
PORTB= PORTB & ~0x01;
}
else
{
PORTB|=1;
}
if (millis()-last_update_time>60000)
{
PORTD=0;
last_update_time=millis();
PORTB &=0b11111101;
write1("**#00:getData,");
write1(bAdress);
write1("-:!!");
wdt_reset();
PORTD|=0b01100000;
PORTB|=3;
}
if (millis()-last_check_time>20000)
{
write1("\r
\r
");
send_back_time();
last_check_time=millis();
last_timer_check=millis();
wdt_reset();
long unsigned x;
x = millis() / 1000 ;
long unsigned seconds = x % 60;
x /= 60 ;
long unsigned minutes = x % 60;
x /= 60;
long unsigned hours = x % 24 ;
x /= 24 ;
long unsigned days = x ;
char buff[13];
tempTime.hours=hours;
tempTime.min=minutes;
//bool ondone,offdone=false;
wdt_reset();
char tempStr[4];
for (int k=0;k<4;k++)
{
int x=k;
itoa(x+1,tempStr,10);
//write1(tempStr);
if (Timers_db[k][ENABLED_INDEX]=='E')
{
write1("\r
");
write1(tempStr);
write1(" Enab ");
if (tempTime.hours==Timers_db[k][ONTIME_INDEX_HR])
{
write1(" ON HR ");
if (tempTime.min==Timers_db[k][ONTIME_INDEX_MIN])
{
write1(" ON MIN ");
outputHigh(PORTB,relayPos[k]);
//ondone=true;
}
}
if (tempTime.hours==Timers_db[k][OFFTIME_INDEX_HR])
{
write1(" OFF HR ");
if (tempTime.min==Timers_db[k][OFFTIME_INDEX_MIN])
{
write1(" OFF MIN ");
outputLow(PORTB,relayPos[k]);
//offdone=true;
}
}
}
// else
// {
// write1("\r
");
// write1(tempStr);
// write1("is disabled on hours is ");itoa(Timers_db[k][ONTIME_INDEX_HR],tempStr,10);
// write1(tempStr);
// }
// write1(":\r
index is :");
// USART1_Transmit(Timers_db[k][ENABLED_INDEX]);
// write1(":\r
");
}
wdt_reset();
//if(ondone) last_onTime=millis();
//if(offdone) last_offTime=millis();
}
int TimerNumber=0;
checkRS485();
if (RS485FLAG==true)
{
wdt_reset();
RS485FLAG=false;
if (!(strcmp(address,bAdress))) // Address matches board address
{
if (!(strcmp(relay,"setTime")))
{
if (parseFind(command,"cT="))
{
if (!parseData(command,"cT=",";;"))
;
else
{
strncpy(onOffTimeString,parsedData,30);
timestringtoMillis();
}
}
}
else if (!(strncmp(relay,"setTimer",8)))
{
uint8_t TimerNumber=relay[8]-48;
//write1("\r
set timer rec");
if (parseFind(command,"cT="))
{
if (parseData(command,"cT=",";;"))
{
strncpy(onOffTimeString,parsedData,30);
timestringtoMillis();
}
}
if (parseFind(command,"En=1"))
{
wdt_reset();
if (!parseData(command,"En=1","//"))
{
goto exitloc;
}
else
{
//write1("\r
enabled rec");
strncpy(onOffTimeString,parsedData,30);
// write1("\r\r\r
rce");
// write1(onOffTimeString);
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
Timer1OffTime.hours=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.hours<0 || Timer1OffTime.hours>23) err=1;
Timer1OffTime.min=( ( (onOffTimeString[9]-48) *10)+(onOffTimeString[10]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
if (err==1)
{
goto exitloc;
}
else
{
// write1("\r
no error rec");
Timers_db[TimerNumber][ENABLED_INDEX]='E';
Timers_db[TimerNumber][ONTIME_INDEX_HR]=Timer1OnTime.hours;
Timers_db[TimerNumber][ONTIME_INDEX_MIN]=Timer1OnTime.min;
Timers_db[TimerNumber][OFFTIME_INDEX_HR]=Timer1OffTime.hours;
Timers_db[TimerNumber][OFFTIME_INDEX_MIN]=Timer1OffTime.min;
}
}
}
else if (parseFind(command,"En=0"))
{
Timers_db[TimerNumber][ENABLED_INDEX]='D';
}
}
else if (!(strcmp(relay,"haveData")))
{
//uint8_t TimerNumber=relay[8]-48;
//write1("\r
have data rec");
if (parseFind(command,"cT="))
{
if (parseData(command,"cT=",";;"))
{
strncpy(onOffTimeString,parsedData,30);
timestringtoMillis();
}
}
char starting[15];
char ending[15];
char disabledString[7];
strcpy(starting,"1En=1");
strcpy(ending,"one//");
strcpy(disabledString,"1En=0");
if (parseFind(command,starting))
{
wdt_reset();
if (parseData(command,starting,ending))
{
strncpy(onOffTimeString,parsedData,30);
//write1("\r
found in one ");
// write1(onOffTimeString);
TimerNumber=0;
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
Timer1OffTime.hours=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.hours<0 || Timer1OffTime.hours>23) err=1;
Timer1OffTime.min=( ( (onOffTimeString[9]-48) *10)+(onOffTimeString[10]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
if (err==1)
{
// write1("\r\r\r
ERRORRRR");
// //goto exitloc2;
}
else
{
// write1("\r\r\r
enabled written with E");
Timers_db[0][ENABLED_INDEX]='E';
Timers_db[0][ONTIME_INDEX_HR]=Timer1OnTime.hours;
Timers_db[0][ONTIME_INDEX_MIN]=Timer1OnTime.min;
Timers_db[0][OFFTIME_INDEX_HR]=Timer1OffTime.hours;
Timers_db[0][OFFTIME_INDEX_MIN]=Timer1OffTime.min;
//if (Timers_db[0][ENABLED_INDEX]=='E')
// write1("\r
one Enabled is ");
}
}
// else write1("\r\r
not found in one ");
}
else if (parseFind(command,disabledString))
{
//write1("\r\r
found disabled");
Timers_db[0][ENABLED_INDEX]='D';
}
strcpy(starting,"2En=1");
strcpy(ending,"two//");
strcpy(disabledString,"2En=0");
wdt_reset();
if (parseFind(command,starting))
{
wdt_reset();
if (parseData(command,starting,ending))
{
strncpy(onOffTimeString,parsedData,30);
// write1("\r
found in two ");
// write1(onOffTimeString);
TimerNumber=1;
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
Timer1OffTime.hours=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.hours<0 || Timer1OffTime.hours>23) err=1;
Timer1OffTime.min=( ( (onOffTimeString[9]-48) *10)+(onOffTimeString[10]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
if (err==1)
{
//write1("\r\r\r
ERRORRRR");
//goto exitloc2;
}
else
{
// write1("\r\r\r
enabled written with E");
Timers_db[TimerNumber][ENABLED_INDEX]='E';
Timers_db[TimerNumber][ONTIME_INDEX_HR]=Timer1OnTime.hours;
Timers_db[TimerNumber][ONTIME_INDEX_MIN]=Timer1OnTime.min;
Timers_db[TimerNumber][OFFTIME_INDEX_HR]=Timer1OffTime.hours;
Timers_db[TimerNumber][OFFTIME_INDEX_MIN]=Timer1OffTime.min;
// if (Timers_db[0][ENABLED_INDEX]=='E')
// write1("\r
2 Enabled is ");
}
}
// else write1("\r\r
not found in 2 ");
}
else if (parseFind(command,disabledString))
{
// write1("\r\r
found disabled");
Timers_db[TimerNumber][ENABLED_INDEX]='D';
}
strcpy(starting,"3En=1");
strcpy(ending,"three//");
strcpy(disabledString,"3En=0");
wdt_reset();
if (parseFind(command,starting))
{
wdt_reset();
if (parseData(command,starting,ending))
{
strncpy(onOffTimeString,parsedData,30);
// write1("\r
found in three ");
// write1(onOffTimeString);
TimerNumber=2;
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
Timer1OffTime.hours=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.hours<0 || Timer1OffTime.hours>23) err=1;
Timer1OffTime.min=( ( (onOffTimeString[9]-48) *10)+(onOffTimeString[10]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
if (err==1)
{
// write1("\r\r\r
ERRORRRR");
//goto exitloc2;
}
else
{
// write1("\r\r\r
enabled written with E");
Timers_db[TimerNumber][ENABLED_INDEX]='E';
Timers_db[TimerNumber][ONTIME_INDEX_HR]=Timer1OnTime.hours;
Timers_db[TimerNumber][ONTIME_INDEX_MIN]=Timer1OnTime.min;
Timers_db[TimerNumber][OFFTIME_INDEX_HR]=Timer1OffTime.hours;
Timers_db[TimerNumber][OFFTIME_INDEX_MIN]=Timer1OffTime.min;
//if (Timers_db[0][ENABLED_INDEX]=='E')
// write1("\r
3 Enabled is ");
}
}
// else //write1("\r\r
not found in three ");
}
else if (parseFind(command,disabledString))
{
// write1("\r\r
found disabled");
Timers_db[TimerNumber][ENABLED_INDEX]='D';
}
strcpy(starting,"4En=1");
strcpy(ending,"four//");
strcpy(disabledString,"4En=0");
wdt_reset();
if (parseFind(command,"4En=1"))
{
wdt_reset();
if (parseData(command,"4En=1","four"))
{
strncpy(onOffTimeString,parsedData,30);
// write1("\r
found in four ");
// write1(onOffTimeString);
TimerNumber=3;
bool err=0;
Timer1OnTime.hours=( ( (onOffTimeString[0]-48) *10)+(onOffTimeString[1]-48));
if (Timer1OnTime.hours<0 || Timer1OnTime.hours>23) err=1;
Timer1OnTime.min=( ( (onOffTimeString[3]-48) *10)+(onOffTimeString[4]-48));
if (Timer1OnTime.min<0 || Timer1OnTime.min>59) err=1;
Timer1OffTime.hours=( ( (onOffTimeString[6]-48) *10)+(onOffTimeString[7]-48));
if (Timer1OffTime.hours<0 || Timer1OffTime.hours>23) err=1;
Timer1OffTime.min=( ( (onOffTimeString[9]-48) *10)+(onOffTimeString[10]-48));
if (Timer1OffTime.min<0 || Timer1OffTime.min>59) err=1;
if (err==1)
{
// write1("\r\r\r
ERRORRRR");
//goto exitloc2;
}
else
{
// write1("\r\r\r
enabled written with E");
Timers_db[TimerNumber][ENABLED_INDEX]='E';
Timers_db[TimerNumber][ONTIME_INDEX_HR]=Timer1OnTime.hours;
Timers_db[TimerNumber][ONTIME_INDEX_MIN]=Timer1OnTime.min;
Timers_db[TimerNumber][OFFTIME_INDEX_HR]=Timer1OffTime.hours;
Timers_db[TimerNumber][OFFTIME_INDEX_MIN]=Timer1OffTime.min;
// if (Timers_db[0][ENABLED_INDEX]=='E')
// write1("\r
four Enabled is ");
}
}
//else{
// write1("\r\r
not found in four ");
// write1(command);}
}
else if (parseFind(command,disabledString))
{
// write1("\r\r
found disabled");
Timers_db[TimerNumber][ENABLED_INDEX]='D';
}
}
else if (!(strcmp(relay,"G1")))
{
if (!(strncmp(command,"ON",2)))
{
chan1_on
_delay_ms(1000);
chan1_off
//write1("\r
R1");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;
if (tempPortB &= (1<<PB3))
{
write1("**#00:ON:!!");
}
else write1("**#00:OFF:!!");
}
}
else if (!(strcmp(relay,"D2")))
{
if (!(strncmp(command,"ON",2)))
{
chan2_on
wdt_reset();
_delay_ms(2000);
chan2_off
write1("\r
R1");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;
if (tempPortB &= (1<<PB2)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
}
else if (!(strcmp(relay,"R1")))
{
if (!(strncmp(command,"ON",2)))
{
outputHigh(PORTB,6);
_delay_ms(50);
uint8_t tempPortB=PORTB;
if (tempPortB &= (1<<PB6)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"OF",2)))
{
outputLow(PORTB,6);
uint8_t tempPortB=PORTB;
_delay_ms(50);
if (tempPortB &= (1<<PB6)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;
_delay_ms(50);
if (tempPortB &= (1<<PB6)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
}
else if (!(strcmp(relay,"R2")))
{
if (!(strncmp(command,"ON",2)))
{
outputHigh(PORTB,7);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB7)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"OF",2)))
{
outputLow(PORTB,7);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB7)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB7)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
}
else if (!(strcmp(relay,"R3")))
{
if (!(strncmp(command,"ON",2)))
{
outputHigh(PORTB,5);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB5)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"OF",2)))
{
outputLow(PORTB,5);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB5)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB5)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
}
else if (!(strcmp(relay,"R4")))
{
if (!(strncmp(command,"ON",2)))
{
outputHigh(PORTB,4);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB4)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"OF",2)))
{
outputLow(PORTB,4);
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB4)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
else if (!(strncmp(command,"ST",2)))
{
uint8_t tempPortB=PORTB;_delay_ms(50);
if (tempPortB &= (1<<PB4)) write1("**#00:ON:!!");
else write1("**#00:OFF:!!");
}
}
}
}
}
}
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다양한 언어의 JSONJSON은 Javascript 표기법을 사용하여 데이터 구조를 레이아웃하는 데이터 형식입니다. 그러나 Javascript가 코드에서 이러한 구조를 나타낼 수 있는 유일한 언어는 아닙니다. 저는 일반적으로 '객체'{}...
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