#include <SoftwareSerial.h>
SoftwareSerial Serial100(10, 11);
struct _sVFUPD
{
    int mode=0;
    int port=0;
    int index=0;
    String data="";
}
;
_sVFUPD _sVFUPDPort100;
int input_182067843_1;
int offset_182067843_1;
float amperage_182067843_1;
const float vpp_182067843_1= 0.00488758553;
int points_182067843_1;
float voltage_182067843_1;
int input_182067843_2;
int offset_182067843_2;
float amperage_182067843_2;
const float vpp_182067843_2= 0.00488758553;
int points_182067843_2;
float voltage_182067843_2;
bool _gtv1 = 0;
bool _gtv2 = 0;
float _gtv3;
float _gtv4;
bool _gtv5;
bool _gtv6;
bool _gtv7;
bool _gtv8;
int _gtv9;
int _gtv10;
bool _RV4CP100 = 1;
bool _RV1CP100 = 1;
bool _tim1I = 0;
bool _tim1O = 0;
unsigned long _tim1P = 0UL;
bool _tim2I = 0;
bool _tim2O = 0;
unsigned long _tim2P = 0UL;
unsigned long _stou1 = 0UL;
bool _RV2CP100 = 1;
bool _RV3CP100 = 1;
void setup()
{
    pinMode(6, OUTPUT);
    digitalWrite(6, 0);
    pinMode(7, OUTPUT);
    digitalWrite(7, 0);
    pinMode(8, OUTPUT);
    digitalWrite(8, 0);
    pinMode(9, OUTPUT);
    digitalWrite(9, 0);
    Serial.begin(9600, SERIAL_8N1);
    Serial100.begin(9600);
    _stou1 = millis();
    _sVFUPDPort100.port = 100;
    delay(200);
}
void loop()
{
    if (Serial100.available()) 
    {
         _readByteFromUART((Serial100.read()),100);
    }
    //Плата:1
//Наименование:проверка условия
    _gtv9 =  (analogRead (1));
    if(((analogRead (1))) > (520)) 
    {
        _tim1O = 1;
        _tim1I = 1;
    }
     else 
    {
         if(_tim1I) 
        {
            _tim1I = 0;
            _tim1P = millis();
        }
         else 
        {
             if (_tim1O) 
            {
                if (_isTimer(_tim1P, 2000)) _tim1O = 0;
            }
        }
    }
    _gtv1 = !(_tim1O);
    _gtv10 =  (analogRead (3));
    if(((analogRead (3))) > (520)) 
    {
        _tim2O = 1;
        _tim2I = 1;
    }
     else 
    {
         if(_tim2I) 
        {
            _tim2I = 0;
            _tim2P = millis();
        }
         else 
        {
             if (_tim2O) 
            {
                if (_isTimer(_tim2P, 2000)) _tim2O = 0;
            }
        }
    }
    _gtv2 = !(_tim2O);
    //Плата:2
//Наименование:вычисление ампеража
    input_182067843_1 =  (analogRead (1));
    offset_182067843_1 = 509;
    points_182067843_1 = input_182067843_1 - offset_182067843_1;
    voltage_182067843_1 = points_182067843_1 * vpp_182067843_1;
    amperage_182067843_1 = voltage_182067843_1 / 0.02;
    _gtv3 = amperage_182067843_1;
    input_182067843_2 =  (analogRead (3));
    offset_182067843_2 = 515;
    points_182067843_2 = input_182067843_2 - offset_182067843_2;
    voltage_182067843_2 = points_182067843_2 * vpp_182067843_2;
    amperage_182067843_2 = voltage_182067843_2 / 0.02;
    _gtv4 = amperage_182067843_2;
    //Плата:3
//Наименование:выполнение условия
    digitalWrite(6, ((_RV1CP100) && (_gtv1)));
    _gtv5 = _RV1CP100;
    digitalWrite(7, ((_RV2CP100) && (_gtv1)));
    _gtv6 = _RV2CP100;
    digitalWrite(8, ((_RV3CP100) && (_gtv2)));
    _gtv7 = _RV3CP100;
    digitalWrite(9, ((_RV4CP100) && (_gtv2)));
    _gtv8 = _RV4CP100;
    if (1)
    {
         if (_isTimer(_stou1, 200)) 
        {
            Serial.println(((String("DT509 ")) + ((_floatToStringWitRaz(_gtv3,2))) + (String(" / ")) + ((String(_gtv9, DEC))) + (String("      ")) + (String("DT515 ")) + ((_floatToStringWitRaz(_gtv4,2))) + (String(" / ")) + ((String(_gtv10, DEC))) + ((String((char(_gtv5)), DEC))) + ((String((char(_gtv6)), DEC))) + ((String((char(_gtv7)), DEC))) + ((String((char(_gtv8)), DEC)))));
            _stou1 = millis();
        }
    }
     else 
    {
        _stou1 = millis();
    }
}
String  _floatToStringWitRaz(float value, int raz)
{
    return String(value,raz);
}
bool _isTimer(unsigned long startTime, unsigned long period)
{
    unsigned long currentTime;
    currentTime = millis();
    if (currentTime>= startTime) 
    {
        return (currentTime>=(startTime + period));
    }
     else 
    {
        return (currentTime >=(4294967295-startTime+period));
    }
}
void _readByteFromUART(byte data,int port)
{
    if (port==100)
    {
         _sVFUPDPort100 = _ressiveByteFromUartForVariable(data, _sVFUPDPort100);
    }
}
struct  _sVFUPD _ressiveByteFromUartForVariable(byte resData, struct _sVFUPD data)
{
    if(_ressiveFromUartByteIsCommand(resData))
    {
        data = _nextStepRessiveVariableFromUart(resData, data);
        return data;
    }
    data.data = data.data + char(resData);
    return data;
}
bool _ressiveFromUartByteIsCommand(byte data)
{
    if(data==1)
    {
        return 1;
    }
    if(data==2)
    {
        return 1;
    }
    if(data==3)
    {
        return 1;
    }
    return 0;
}
struct  _sVFUPD _nextStepRessiveVariableFromUart(byte resData, struct _sVFUPD data)
{
    if((resData==1)&&(data.mode==0))
    {
        data.mode=1;
        return data;
    }
    if((resData==2)&&(data.mode==1))
    {
        data.mode=2;
        data.index=data.data.toInt();
        data.data=String("");
        return data;
    }
    if((resData==3)&&(data.mode==2))
    {
        data=_saveToVariableResiveFromUartVariable(data);
        return data;
    }
    data.mode=0;
    data.data=String("");
    return data;
}
struct _sVFUPD _saveToVariableResiveFromUartVariable(struct _sVFUPD data)
{
    if((data.index==1)&&(data.port==100))
    {
        _RV1CP100 = ((data.data).toInt());
    }
    if((data.index==2)&&(data.port==100))
    {
        _RV2CP100 = ((data.data).toInt());
    }
    if((data.index==3)&&(data.port==100))
    {
        _RV3CP100 = ((data.data).toInt());
    }
    if((data.index==4)&&(data.port==100))
    {
        _RV4CP100 = ((data.data).toInt());
    }
    data.mode=0;
    data.data=String("");
    return data;
}