AQma - Sterownik akwariowy - Arduino Leonardo » Arduino, Majsterkowanie

Założenia

Darmowy komputer akwariowy na Arduino Leonardo :

do akwarium morskiego
na ogólnie dostępnych podzespołach
stworzony w jak najprostszy sposób
zarządzany przez USB za pomocą aplikacji na Windows
z instrukcją, która umożliwi jego złożenie nawet humanistom

(Dokładną instrukcję wraz z opisem aplikacji można zobaczyć http://magu.pl/aqma )

FUNKCJONALNOŚCI:

Trzy timery włącz/wyłącz

pracujące z rozdzielczością sekundową
z “pamięcią” stanu pracy po zaniku zasilania
z możliwością “przejścia” przez godzinę zero
z możliwością manualnego włączenia/wyłączenia obwodu za pomocą przycisku, obwód zostanie wprowadzony w stan przełączenia manualnego po kliknięciu guzika na obudowie, w tym przypadku dioda sygnalizacyjna zaczyna migać, wyprowadzenie z tego stanu nastąpi po ponownym, kilkusekundowym kliknięciu guzika obwodu, dioda przestanie migać a biper zrobi biiip
z możliwością programowego wyłączenia/włączenia obwodu

Sterowanie trzema pompami dozującymi

z możliwością programowego włączenia/wyłączenia poszczególnych obwodów
z możliwością określenia wydajności pompy (ml/min)
z możliwością określenia czterech czasów dozowania i ilości wlewanego płynu (w ml) dla każdej z pomp
z możliwością wybrania w jakie dni tygodnia następowało będzie dozowanie
wszystkie trzy obwodu mają mieć możliwość zmienienia się w dodatkowe obwody timerów, jeżeli funkcjonalność “pomp dozujących” nie zostanie wykorzystana
z “pamięcią” stanu pracy po zaniku zasilania

Sterowanie trzema kanałami PWM dla driverów lamp LED

z możliwością programowego włączenia/wyłączenia poszczególnych kanałów
z możliwością ustawienie czasu włączenia i wyłączenia kanału PWM (0-100%)
z możliwością ustawienia minimalnej i maksymalnej mocy lampy w %
z możliwością ustawienia długości świtu i zmierzchu
z możliwością ustawienia lampy w trybie oświetlenia nocnego, jeżeli zaptaszkowany jest określone pole w aplikacji, to lampa w czasie kiedy powinna być wyłączona ustawi PWM na wartość ustawioną w polu minimalnej mocy świecenia
z możliwością “przejścia” PWM przez godzinę zero
z możliwością “przejścia” świtu przez godzinę zero
z możliwością “przejścia” zmierzchu przez godzinę zero
z możliwością wprowadzenia obwodów w interaktywny tryb testu dla każdego z kanałów (takie kolorowanie rgb :))

Automatyczna dolewka

z możliwością ustawienia jak długo w sekundach czujnik musi raportować konieczności dolania wody
obwód powinien móc pracować również w oparciu o bardzo popularny, wymyślony przeze mnie algorytm “silky smooth refill” oparty o cykle :)

Opóźniony start

z możliwością ustawienia po jakim czasie od włączenia zasilania obwód zostanie włączony (przydatne przy odpieniaczu lub HQI)
z możliwością zmiany trybu pracy obwodu na “Karmienie”

Karmienie

z możliwością ustawienia na jak długo obwód ma zostać wyłączony po kliknięciu guzika karmienia
z możliwością zmiany trybu pracy na obwód opóźnionego startu

Co jest potrzebne

Arduino Leonardo :)
Zegarek RTC DS1307 (tylko z akumulatorem nie z baterią! – 3$)

Panel ośmiu przekaźników SSR (16$)

Przekaźniki mechaniczne nie nadają się! Przy obciążeniu indukcyjnym resetują arduino. Próbowałem je obstawić kondensatorami, diodami, dławikami i zawsze w końcu trafiał się restart. Przy akwarium za kilka tysiaków raczej niedopuszczalne jest żeby zacięła się pompa dozująca.

Microswitche, trzy do manualnej obsługi timerów i jeden do obsługi funkcji karmienia
Dioda LED z rezystorem stosownym do koloru i oczekiwanej mocy świecenia.
Buzer 5V z generatorem
Zasilacz do Arduino
Przewody
Biblioteki http://magu.pl/aqma_files/time.zip i http://magu.pl/aqma_files/DS1307RTC.zip
Jakaś obudowa
Chęci!!!

Tak wygląda mój, gotowy projekt

Tak aplikacja

Tak schemat

A tak kod

/********************************************************************************************
/  AQma Computer - version 1.0.2
/  Copyright (c) 2015 Marcin Grunt
/  Wszelkie prawa do AQma Computer są zastrzeżone przez autora: Marcina Grunta. 
/  Poniższy kod programu można używać i rozpowszechniać za darmo, pod warunkiem 
/  zachowania informacji o licencji i autorstwie. 
/  Poniższy kod udostępniony jest bez żadnej gwarancji, używasz go na własne ryzyko.
/  Autor nie ponosi odpowiedzialności za szkody, utratę zysków, lub jakiekolwiek
/  inne straty wynikłe w konsekwencji uzywania, lub niemożności użycia poniższego kodu.
/  
/  Pozdrawiam i życzę bezproblemowej pracy:
/                           Marcin Grunt, magu@magu.pl
*********************************************************************************************/

#include <Wire.h>
#include <Time.h>
#include <EEPROM.h>
#include <DS1307RTC.h>

#define btnT1Pin 21
#define btnT2Pin 20
#define btnT3Pin 19
#define buzzerPin 18
#define ledPin 13

/* Przekazniki sterowane stanem niskim
    ||
    ||
   \  /
    \/
*/
boolean ON=false, OFF=true;

tmElements_t tm;
long unsigned currentTimeSec;

int currentDayOfWeek;

// T1
 byte t1Pin, t1Status, t1HOn, t1MOn, t1SOn, t1HOff, t1MOff, t1SOff; 
// T2
 byte t2Pin, t2Status, t2HOn, t2MOn, t2SOn, t2HOff, t2MOff, t2SOff;
// T3 
 byte t3Pin, t3Status, t3HOn, t3MOn, t3SOn, t3HOff, t3MOff, t3SOff;

// T4 
 byte t4Status, t4HOn, t4MOn, t4HOff, t4MOff;
// T5 
 byte t5Status, t5HOn, t5MOn, t5HOff, t5MOff;
// T6
 byte t6Status, t6HOn, t6MOn, t6HOff, t6MOff;

// D1
 byte d1Status, d1Flow, d1FlowDec, d1Pin; 
 byte d1Su ,d1Mo, d1Tu, d1We, d1Th, d1Fr, d1Sa, d1Mode;
        
 byte d11HOn, d11MOn, d11Ml, d11MlDec;
 byte d12HOn, d12MOn, d12Ml, d12MlDec;
 byte d13HOn, d13MOn, d13Ml, d13MlDec;
 byte d14HOn, d14MOn, d14Ml, d14MlDec;

// D2
 byte d2Status, d2Flow, d2FlowDec, d2Pin; 
 byte d2Su ,d2Mo, d2Tu, d2We, d2Th, d2Fr, d2Sa, d2Mode;
        
 byte d21HOn, d21MOn, d21Ml, d21MlDec;
 byte d22HOn, d22MOn, d22Ml, d22MlDec;
 byte d23HOn, d23MOn, d23Ml, d23MlDec;
 byte d24HOn, d24MOn, d24Ml, d24MlDec;

// D3
 byte d3Status, d3Flow, d3FlowDec, d3Pin; 
 byte d3Su ,d3Mo, d3Tu, d3We, d3Th, d3Fr, d3Sa, d3Mode;
        
 byte d31HOn, d31MOn, d31Ml, d31MlDec;
 byte d32HOn, d32MOn, d32Ml, d32MlDec;
 byte d33HOn, d33MOn, d33Ml, d33MlDec;
 byte d34HOn, d34MOn, d34Ml, d34MlDec;

// PWM - 1
 byte pwm1Pin, pwm1Status, pwm1HOn, pwm1MOn, pwm1SOn;
 byte pwm1HOff, pwm1MOff, pwm1SOff, pwm1Min, pwm1Max;
 byte pwm1Sr, pwm1Ss, pwm1KeepLight;

// PWM - 2
 byte pwm2Pin, pwm2Status, pwm2HOn, pwm2MOn, pwm2SOn;
 byte pwm2HOff, pwm2MOff, pwm2SOff, pwm2Min, pwm2Max;
 byte pwm2Sr, pwm2Ss, pwm2KeepLight;

// PWM - 3
 byte pwm3Pin, pwm3Status, pwm3HOn, pwm3MOn, pwm3SOn;
 byte pwm3HOff, pwm3MOff, pwm3SOff, pwm3Min, pwm3Max;
 byte pwm3Sr, pwm3Ss, pwm3KeepLight;

// Feeding 
 byte feedingPin, feedingBtnPin, feedingTime, feedingMode;

// Delay 
 boolean delayExecute = false;

// Refill
 byte refillPin, refillBtnPin, refillDelayStart;
 
// Manual mode
 boolean t1ManualModeOn = false, t1ManualModeStatus =  false, t2ManualModeOn = false, t2ManualModeStatus =  false, t3ManualModeOn = false, t3ManualModeStatus =  false;

///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////// SETUP //////////////////////////////////////////////////////////////////////

void setup()
{
Serial.begin(9600);

if (EEPROM.read(0) != 1 && EEPROM.read(1) != 0 && EEPROM.read(2) != 2) { EEPROM.write(0,1);EEPROM.write(1,0);EEPROM.write(2,2); }  
  
  eEpromRead();
  
  pinMode(0,OUTPUT);     pinMode(1,OUTPUT);     pinMode(4, OUTPUT);   pinMode(5, OUTPUT);   
  pinMode(6, OUTPUT);    pinMode(7, OUTPUT);    pinMode(8, OUTPUT);   pinMode(9, OUTPUT);   
  pinMode(10, OUTPUT);   pinMode(11, OUTPUT);   pinMode(12, OUTPUT);  pinMode(13, OUTPUT);  
  pinMode(A0, OUTPUT);   
  
  pinMode(A1, INPUT_PULLUP);   pinMode(A2, INPUT_PULLUP);  
  pinMode(A3, INPUT_PULLUP);   pinMode(A4, INPUT_PULLUP);   
  pinMode(A5, INPUT_PULLUP);
  
// Ustaw stany poczatkowe 
  digitalWrite(0,OFF);    digitalWrite(1,OFF);    digitalWrite(4,OFF);  
  digitalWrite(5,OFF);    digitalWrite(6,OFF);    digitalWrite(7,OFF);  
  digitalWrite(8,OFF);    digitalWrite(9,OFF);     digitalWrite(10,OFF); 
  digitalWrite(11,ON);    digitalWrite(13,HIGH);
  
  if (feedingMode == 0) { digitalWrite(feedingPin,ON); } else { digitalWrite(feedingPin,OFF); }

// Pobierz czas
    RTC.read(tm);
    
} 
////////////////////////////////////////////////////////////// END SETUP //////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
/// *************************************************************************************************************************************** ///
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
////////////////////////////////////////////////////////////////// LOOP ///////////////////////////////////////////////////////////////////////

void loop()
{  
   long unsigned currentMillis= millis();
   char cmdOutputArray[64];
   char cmdChar = 0;
   String cmd = "";

if (RTC.read(tm)) 
   {
   currentTimeSec =  (long(tm.Hour)*3600) + (long(tm.Minute)*60) + long(tm.Second);
   currentDayOfWeek = tm.Wday;
   }
    
// Serial

while (Serial.available() > 0)
     {
       cmdChar = Serial.read();
      // Odkomentuj delay, jezeli uzywasz MEGA 2560!
      // delay(4);
       cmd.concat(cmdChar);
     }
     
   
     if (cmd != "") {
         cmd.toCharArray(cmdOutputArray,64);

if (commandAnalysis(cmdOutputArray)) 
           { 
              eEpromRead();
           } 
         
           else 
           { 
             Serial.print("666,Bledne dane\n"); 
           }
          
     }
     cmd = "";
      
     
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////     
//////////////////////////////////////// SILNIK //////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

keyboard(currentMillis);

if ( !t1ManualModeOn && !t2ManualModeOn && !t3ManualModeOn ) { digitalWrite(ledPin, HIGH); }
          
          if (currentMillis%22 == 0 && !t1ManualModeOn) { timer(t1Pin,t1HOn,t1MOn,t1SOn,t1HOff,t1MOff,t1SOff,t1Status); } // T1
          if (currentMillis%22 == 0 && t1ManualModeOn)  { digitalWrite(t1Pin, t1ManualModeStatus); manualModeBlink(ledPin,currentMillis);}
         
          if (currentMillis%32 == 0 && !t2ManualModeOn) { timer(t2Pin,t2HOn,t2MOn,t2SOn,t2HOff,t2MOff,t2SOff,t2Status); } // T2
          if (currentMillis%32 == 0 && t2ManualModeOn)  { digitalWrite(t2Pin, t2ManualModeStatus); manualModeBlink(ledPin,currentMillis);}
        
          if (currentMillis%42 == 0 && !t3ManualModeOn) { timer(t3Pin,t3HOn,t3MOn,t3SOn,t3HOff,t3MOff,t3SOff,t3Status); } // T3
          if (currentMillis%42 == 0 && t3ManualModeOn)  { digitalWrite(t3Pin, t3ManualModeStatus); manualModeBlink(ledPin,currentMillis);}

// Pompa 1 
          if ( d1Mode == 1 && currentMillis%143 == 0 )
          {
            if (dayWhenPumpIsOn(1)) 
            { 
              doser(d1Pin, d1Flow, d1FlowDec, d1Status, d11HOn, d11MOn, d11Ml, d11MlDec, d12HOn, d12MOn, d12Ml, d12MlDec, d13HOn, d13MOn, d13Ml, d13MlDec, d14HOn, d14MOn, d14Ml, d14MlDec ); 
            }
          }
    
          // Pompa 2 
          if ( d2Mode == 1 && currentMillis%153 == 0) 
          { 
            if (dayWhenPumpIsOn(2)) 
            {
               doser(d2Pin, d2Flow, d2FlowDec, d2Status, d21HOn, d21MOn, d21Ml, d21MlDec, d22HOn, d22MOn, d22Ml, d22MlDec, d23HOn, d23MOn, d23Ml, d23MlDec, d24HOn, d24MOn, d24Ml, d24MlDec ); 
            }
          }
          
          // Pompa 3 
          if ( d3Mode == 1 && currentMillis%163 == 0) 
          { 
            if (dayWhenPumpIsOn(3)) 
            {
               doser(d3Pin, d3Flow, d3FlowDec, d3Status, d31HOn, d31MOn, d31Ml, d31MlDec, d32HOn, d32MOn, d32Ml, d32MlDec, d33HOn, d33MOn, d33Ml, d33MlDec, d34HOn, d34MOn, d34Ml, d34MlDec ); 
            }
          }
          
          
          // Jak nie Pompa Dozujaca to Timer
          if (currentMillis%303 == 0 && d1Mode == 0) { timer(d1Pin,t4HOn,t4MOn,0,t4HOff,t4MOff,0,t4Status);  }
          if (currentMillis%313 == 0 && d2Mode == 0) { timer(d2Pin,t5HOn,t5MOn,0,t5HOff,t5MOff,0,t5Status);  }
          if (currentMillis%323 == 0 && d3Mode == 0) { timer(d3Pin,t6HOn,t6MOn,0,t6HOff,t6MOff,0,t6Status);  }          
         
          // PWM 1 - 3
          if (currentMillis%404 == 0 ) {pwm(pwm1Pin, pwm1Status, pwm1HOn, pwm1MOn, pwm1SOn, pwm1HOff, pwm1MOff, pwm1SOff, pwm1Min, pwm1Max, pwm1Sr, pwm1Ss, pwm1KeepLight); }
          if (currentMillis%414 == 0 ) {pwm(pwm2Pin, pwm2Status, pwm2HOn, pwm2MOn, pwm2SOn, pwm2HOff, pwm2MOff, pwm2SOff, pwm2Min, pwm2Max, pwm2Sr, pwm2Ss, pwm2KeepLight); }
          if (currentMillis%424 == 0 ) {pwm(pwm3Pin, pwm3Status, pwm3HOn, pwm3MOn, pwm3SOn, pwm3HOff, pwm3MOff, pwm3SOff, pwm3Min, pwm3Max, pwm3Sr, pwm3Ss, pwm3KeepLight); } 
           
          
          // Feeding
          if ( feedingMode != 0 ) { feeding(feedingPin, feedingBtnPin, feedingTime, currentMillis); }
          
          
          // Delay On
          if (feedingMode == 0  && currentMillis % 1981 == 0) 
          { 
            if (currentMillis / 1000  < feedingTime * 60 && !delayExecute)
           {
             digitalWrite(feedingPin, ON);
           } 
            else 
           {
             digitalWrite(feedingPin, OFF);
             delayExecute = true;
           }
          }
          
          // Refill 
          refill(refillPin, refillBtnPin, refillDelayStart, currentMillis);

}

////////////////////////////////////////////////////////////// END LOOP////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////
/////                       eEpromRead                                ///// 
///////////////////////////////////////////////////////////////////////////

void eEpromRead() {
           
             // T1 
                t1Pin = EEPROM.read(11); t1Status = EEPROM.read(13);
                t1HOn = EEPROM.read(14);t1MOn = EEPROM.read(15); t1SOn =EEPROM.read(16);
                t1HOff = EEPROM.read(17);t1MOff = EEPROM.read(18);t1SOff = EEPROM.read(19);
                 
             // T2
             	t2Pin = EEPROM.read(31); t2Status = EEPROM.read(33);
                t2HOn = EEPROM.read(34);t2MOn = EEPROM.read(35);t2SOn = EEPROM.read(36);
                t2HOff = EEPROM.read(37);t2MOff = EEPROM.read(38);t2SOff = EEPROM.read(39);

// T3
                t3Pin = EEPROM.read(51); t3Status = EEPROM.read(53);
                t3HOn = EEPROM.read(54);t3MOn = EEPROM.read(55); t3SOn= EEPROM.read(56);
                t3HOff = EEPROM.read(57);t3MOff = EEPROM.read(58);t3SOff = EEPROM.read(59);
  
             // T4 
                t4Status = EEPROM.read(251);
                t4HOn = EEPROM.read(252);t4MOn = EEPROM.read(253); 
                t4HOff = EEPROM.read(254);t4MOff = EEPROM.read(255);

// T5 
                t5Status = EEPROM.read(261);
                t5HOn = EEPROM.read(262);t5MOn = EEPROM.read(263); 
                t5HOff = EEPROM.read(264);t5MOff = EEPROM.read(265);

// T6 
                t6Status = EEPROM.read(271);
                t6HOn = EEPROM.read(272);t6MOn = EEPROM.read(273); 
                t6HOff = EEPROM.read(274);t6MOff = EEPROM.read(275);
                
            // D1
              	d1Status = EEPROM.read(71); d1Flow = EEPROM.read(72);
        	d1FlowDec = EEPROM.read(73); d1Pin = EEPROM.read(74);
                d1Su = EEPROM.read(75);d1Mo = EEPROM.read(76);d1Tu = EEPROM.read(77);
                d1We = EEPROM.read(78);d1Th = EEPROM.read(79);d1Fr = EEPROM.read(80);
                d1Sa = EEPROM.read(81);d1Mode = EEPROM.read(82);
        
	        d11HOn = EEPROM.read(91); d11MOn = EEPROM.read(92);
                d11Ml = EEPROM.read(93); d11MlDec =EEPROM.read(94);
	        
                d12HOn = EEPROM.read(101); d12MOn = EEPROM.read(102);
                d12Ml = EEPROM.read(103); d12MlDec = EEPROM.read(104);
        	
                d13HOn = EEPROM.read(111); d13MOn =EEPROM.read(112);
                d13Ml = EEPROM.read(113); d13MlDec = EEPROM.read(114);
          	
                d14HOn = EEPROM.read(121); d14MOn = EEPROM.read(122);
                d14Ml =EEPROM.read(123); d14MlDec = EEPROM.read(124);
                
             // D2
              	d2Status = EEPROM.read(131); d2Flow = EEPROM.read(132);
        	d2FlowDec = EEPROM.read(133); d2Pin = EEPROM.read(134);
                d2Su = EEPROM.read(135);d2Mo = EEPROM.read(136);d2Tu = EEPROM.read(137);
                d2We = EEPROM.read(138);d2Th = EEPROM.read(139);d2Fr = EEPROM.read(140);
                d2Sa = EEPROM.read(141);d2Mode = EEPROM.read(142);
                
	        d21HOn = EEPROM.read(151); d21MOn = EEPROM.read(152);
                d21Ml = EEPROM.read(153); d21MlDec =EEPROM.read(154);
	        
                d22HOn = EEPROM.read(161); d22MOn = EEPROM.read(162);
                d22Ml = EEPROM.read(163); d22MlDec = EEPROM.read(164);
        	
                d23HOn = EEPROM.read(171); d23MOn =EEPROM.read(172);
                d23Ml = EEPROM.read(173); d23MlDec = EEPROM.read(174);
          	
                d24HOn = EEPROM.read(181); d24MOn = EEPROM.read(182);
                d24Ml =EEPROM.read(183); d24MlDec = EEPROM.read(184);
                
             // D3
              	d3Status = EEPROM.read(191); d3Flow = EEPROM.read(192);
        	d3FlowDec = EEPROM.read(193); d3Pin = EEPROM.read(194);
                d3Su = EEPROM.read(195);d3Mo = EEPROM.read(196);d3Tu = EEPROM.read(197);
                d3We = EEPROM.read(198);d3Th = EEPROM.read(199);d3Fr = EEPROM.read(200);
                d3Sa = EEPROM.read(201);d3Mode = EEPROM.read(202);
        
	        d31HOn = EEPROM.read(211); d31MOn = EEPROM.read(212);
                d31Ml = EEPROM.read(213); d31MlDec =EEPROM.read(214);
	        
                d32HOn = EEPROM.read(221); d32MOn = EEPROM.read(222);
                d32Ml = EEPROM.read(223); d32MlDec = EEPROM.read(224);
        	
                d33HOn = EEPROM.read(231); d33MOn =EEPROM.read(232);
                d33Ml = EEPROM.read(233); d33MlDec = EEPROM.read(234);
          	
                d34HOn = EEPROM.read(241); d34MOn = EEPROM.read(242);
                d34Ml =EEPROM.read(243); d34MlDec = EEPROM.read(244);
                
             // PWM - 1
                pwm1Pin = EEPROM.read(281); pwm1Status = EEPROM.read(282); 
                pwm1HOn = EEPROM.read(283); pwm1MOn = EEPROM.read(284);
                pwm1SOn = EEPROM.read(285); pwm1HOff = EEPROM.read(286); 
	        pwm1MOff = EEPROM.read(287); pwm1SOff = EEPROM.read(288);
                pwm1Min = EEPROM.read(289); pwm1Max = EEPROM.read(290); 
	        pwm1Sr = EEPROM.read(291); pwm1Ss = EEPROM.read(292);      
                pwm1KeepLight = EEPROM.read(293);

// PWM - 2
                pwm2Pin = EEPROM.read(301); pwm2Status = EEPROM.read(302); 
                pwm2HOn = EEPROM.read(303); pwm2MOn = EEPROM.read(304);
                pwm2SOn = EEPROM.read(305); pwm2HOff = EEPROM.read(306); 
	        pwm2MOff = EEPROM.read(307); pwm2SOff = EEPROM.read(308);
                pwm2Min = EEPROM.read(309); pwm2Max = EEPROM.read(310); 
	        pwm2Sr = EEPROM.read(311); pwm2Ss = EEPROM.read(312);      
                pwm2KeepLight = EEPROM.read(313);
                
              // PWM - 3
                pwm3Pin = EEPROM.read(331); pwm3Status = EEPROM.read(332); 
                pwm3HOn = EEPROM.read(333); pwm3MOn = EEPROM.read(334);
                pwm3SOn = EEPROM.read(335); pwm3HOff = EEPROM.read(336); 
	        pwm3MOff = EEPROM.read(337); pwm3SOff = EEPROM.read(338);
                pwm3Min = EEPROM.read(339); pwm3Max = EEPROM.read(340); 
	        pwm3Sr = EEPROM.read(341); pwm3Ss = EEPROM.read(342);      
                pwm3KeepLight = EEPROM.read(343);
              
              // Feeding 
                feedingPin = EEPROM.read(351); feedingBtnPin = EEPROM.read(352); 
                feedingTime = EEPROM.read(353); feedingMode = EEPROM.read(354);
      
              // Refill
                refillPin = EEPROM.read(361); refillBtnPin =EEPROM.read(362); 
                refillDelayStart = EEPROM.read(363);
            
}

///////////////////////////////////////////////////////////////////////////////////////
/////                      TIMER Function                                         /////
///////////////////////////////////////////////////////////////////////////////////////

boolean timer( byte tPin, byte hOn, byte mOn, byte sOn, byte hOff, byte mOff, byte sOff, byte tStatus) //, long currentTimeSec)
{
  if  (tStatus == 0) { digitalWrite(tPin,OFF); return false; };

boolean state = false;
  long tOn = (long(hOn)*3600)+(long(mOn)*60)+long(sOn);  
  long tOff = (long(hOff)*3600)+(long(mOff)*60)+long(sOff);
  
  
  if (tOn < tOff) {         // Normalnie  
      if (currentTimeSec >= tOn && currentTimeSec < tOff) { state = true; }  
  }  
  
  if (tOn > tOff) {         // Zasuwaj dookola
      if (currentTimeSec >= tOn && currentTimeSec <= 86399) { state = true; }
      if (currentTimeSec >= 0 && currentTimeSec < tOff) { state = true; }
  }
  
  if (state) { digitalWrite(tPin,ON);  return true; } else { digitalWrite(tPin,OFF); return false; }
}

///////////////////////////////////////////////////////////////////////////////////////
/////                     Perystaltic Pump                                        ///// 
///////////////////////////////////////////////////////////////////////////////////////

boolean doser(byte dPin, byte dFlow, byte dFlowDec, byte dStatus, byte d1HOn, byte d1MOn, byte d1Ml, byte d1MlDec, byte d2HOn, byte d2MOn, byte d2Ml, byte d2MlDec, byte d3HOn, byte d3MOn, byte d3Ml, byte d3MlDec, byte d4HOn, byte d4MOn, byte d4Ml, byte d4MlDec ) 
{

if (dStatus == 0) { 
    digitalWrite(dPin,OFF); 
    return false; 
  } 
      
  long d1On,d2On,d3On,d4On;

d1On = (long(d1HOn)*3600)+(long(d1MOn)*60);
  d2On = (long(d2HOn)*3600)+(long(d2MOn)*60);
  d3On = (long(d3HOn)*3600)+(long(d3MOn)*60);
  d4On = (long(d4HOn)*3600)+(long(d4MOn)*60);
  
  float dosingTimeD1, dosingTimeD2, dosingTimeD3, dosingTimeD4;
  
  dosingTimeD1 = (d1Ml+(0.1*d1MlDec))/((dFlow+(0.1*dFlowDec))/60);
  dosingTimeD2 = (d2Ml+(0.1*d2MlDec))/((dFlow+(0.1*dFlowDec))/60);
  dosingTimeD3 = (d3Ml+(0.1*d3MlDec))/((dFlow+(0.1*dFlowDec))/60);
  dosingTimeD4 = (d4Ml+(0.1*d4MlDec))/((dFlow+(0.1*dFlowDec))/60);
  
 
 
  
  // DX.1 ON/OFF
  if (d1On + dosingTimeD1 <= 86399 && currentTimeSec >= d1On && currentTimeSec < d1On + dosingTimeD1) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
   
  if (d1On + dosingTimeD1 > 86399 && currentTimeSec >= d1On && currentTimeSec <= 86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
  
  if ( d1On + dosingTimeD1 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d1On+dosingTimeD1)-86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }

// DX.2 ON/OFF
  if (d2On + dosingTimeD2 <= 86399 && currentTimeSec >= d2On && currentTimeSec < d2On + dosingTimeD2) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
   
  if (d2On + dosingTimeD2 > 86399 && currentTimeSec >= d2On && currentTimeSec <= 86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
  
  if ( d2On + dosingTimeD2 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d2On+dosingTimeD2)-86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
 ///////////////// 
 
 // DX.3 ON/OFF
  if (d3On + dosingTimeD3 <= 86399 && currentTimeSec >= d3On && currentTimeSec < d3On + dosingTimeD3) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
   
  if (d3On + dosingTimeD3 > 86399 && currentTimeSec >= d3On && currentTimeSec <= 86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
  
  if ( d3On + dosingTimeD3 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d3On+dosingTimeD3)-86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
 ///////////////// 
 
 // DX.4 ON/OFF
  if (d4On + dosingTimeD4 <= 86399 && currentTimeSec >= d4On && currentTimeSec < d4On + dosingTimeD4) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
   
  if (d4On + dosingTimeD4 > 86399 && currentTimeSec >= d4On && currentTimeSec <= 86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
  
  if ( d4On + dosingTimeD4 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d4On+dosingTimeD4)-86399) 
  {
   digitalWrite(dPin,ON);
   return true;
  }
 ///////////////// 
 
 digitalWrite(dPin,OFF);
 return false;

}

////////////////////////////////////////////////////////////////////////////////////////
/////                     dayWhenPumpIsOn Function                                 /////
////////////////////////////////////////////////////////////////////////////////////////

boolean dayWhenPumpIsOn ( byte pumpNumber) 
{
// D1
 if ( pumpNumber == 1 ) {
   if ( currentDayOfWeek == 1 && d1Su == 1) { return true;} // Niedziela
   if ( currentDayOfWeek == 2 && d1Mo == 1) { return true;} // Poniedzialek
   if ( currentDayOfWeek == 3 && d1Tu == 1) { return true;} // Wtorek
   if ( currentDayOfWeek == 4 && d1We == 1) { return true;} // Sroda
   if ( currentDayOfWeek == 5 && d1Th == 1) { return true;} // Czwartek
   if ( currentDayOfWeek == 6 && d1Fr == 1) { return true;} // Piatek
   if ( currentDayOfWeek == 7 && d1Sa == 1) { return true;} // Sobota
   
   digitalWrite(d1Pin,OFF);
   return false;
 }

// D2
  if ( pumpNumber == 2 ) {
   if ( currentDayOfWeek == 1 && d2Su == 1) { return true;} // Niedziela
   if ( currentDayOfWeek == 2 && d2Mo == 1) { return true;} // Poniedzialek
   if ( currentDayOfWeek == 3 && d2Tu == 1) { return true;} // Wtorek
   if ( currentDayOfWeek == 4 && d2We == 1) { return true;} // Sroda
   if ( currentDayOfWeek == 5 && d2Th == 1) { return true;} // Czwartek
   if ( currentDayOfWeek == 6 && d2Fr == 1) { return true;} // Piatek
   if ( currentDayOfWeek == 7 && d2Sa == 1) { return true;} // Sobota
   
   digitalWrite(d2Pin,OFF);
   return false;
 }

// D3
 if ( pumpNumber == 3 ) {
   if ( currentDayOfWeek == 1 && d3Su == 1) { return true;} // Niedziela
   if ( currentDayOfWeek == 2 && d3Mo == 1) { return true;} // Poniedzialek
   if ( currentDayOfWeek == 3 && d3Tu == 1) { return true;} // Wtorek
   if ( currentDayOfWeek == 4 && d3We == 1) { return true;} // Sroda
   if ( currentDayOfWeek == 5 && d3Th == 1) { return true;} // Czwartek
   if ( currentDayOfWeek == 6 && d3Fr == 1) { return true;} // Piatek
   if ( currentDayOfWeek == 7 && d3Sa == 1) { return true;} // Sobota
   
   digitalWrite(d3Pin,OFF);
   return false;
 } 
  
}

////////////////////////////////////////////////////////////////////////////////////////
/////                               PWM Function                                   /////
////////////////////////////////////////////////////////////////////////////////////////

boolean pwm(byte pwmPin, byte pwmStatus, byte pwmHOn, byte pwmMOn, byte pwmSOn, byte pwmHOff, byte pwmMOff, byte pwmSOff, byte pwmMin, byte pwmMax, byte pwmSr, byte pwmSs, byte pwmKeepLight)
{
  if ( pwmStatus == 0 ) { analogWrite(pwmPin,0); return false; }
  
  
  long pwmOn = (long(pwmHOn)*3600) + (long(pwmMOn)*60) + long(pwmSOn);
  long pwmOff  = (long(pwmHOff)*3600) + (long(pwmMOff)*60) + long(pwmSOff);
  
  boolean state = false;
    
  if (pwmOn < pwmOff) {         // Normalnie  
      if (currentTimeSec >= pwmOn && currentTimeSec < pwmOff) { state = true; }  
  }  
  
  if (pwmOn > pwmOff) {         // Zasuwaj dookola
      if (currentTimeSec >= pwmOn && currentTimeSec <= 86400) { state = true; }
      if (currentTimeSec >= 0 && currentTimeSec < pwmOff) { state = true; }
  }

if (!state && !pwmKeepLight ) { analogWrite(pwmPin,0); return false; } 
  if (!state && pwmKeepLight )  { analogWrite(pwmPin,pwmMin); return false; } 
  
////////////////////////////////////
////  Swity 
///////////////////////////////////
   float jump;
   float sunriseLenght = pwmSr*60;
   long elapsed;
   long pwmSunriseStop = pwmOn + sunriseLenght;
   long pwm;
   if (sunriseLenght == 0 ) { sunriseLenght = 1;}
   jump = ((pwmMax-pwmMin)/sunriseLenght);
 
 if ( pwmSunriseStop < 86399 && currentTimeSec >= pwmOn &&  currentTimeSec <= pwmSunriseStop ) {         
    
   elapsed = sunriseLenght-(sunriseLenght-(currentTimeSec-pwmOn));
   pwm = pwmMin+(elapsed*jump);
   analogWrite(pwmPin,pwm);
   return true;           
  } 
  
   if (( pwmSunriseStop > 86399 && currentTimeSec >= pwmOn &&  currentTimeSec <= 86399 ) // przez zero
      || pwmSunriseStop > 86399 && currentTimeSec >= 0 && (currentTimeSec < (pwmSunriseStop - 86399)))
   {
    if (currentTimeSec>=pwmOn && currentTimeSec<=86399) 
     {
       elapsed = (sunriseLenght-(sunriseLenght-(currentTimeSec-pwmOn)));
     } 
    else
     {
      elapsed = sunriseLenght-(sunriseLenght -(86399-pwmOn+currentTimeSec));
     }
   
   pwm = pwmMin+(elapsed*jump);
   analogWrite(pwmPin,pwm);
   return true;
  }
 
 
 ///////////////////////
 ///// Zmierzchy ///////
 ///////////////////////
 float sunsetLenght = pwmSs*60;
 float sunsetStart;
 
  
 if ( (pwmOff - sunsetLenght) >= 0 )
 {
  sunsetStart = pwmOff - sunsetLenght;  
 }
 else
 {
  sunsetStart = 86400 + (pwmOff - sunsetLenght);
 }

if (sunsetStart < pwmOff && sunsetStart >= 0 && currentTimeSec >= sunsetStart && currentTimeSec <= pwmOff) 
     { // Normalnie
       elapsed = (currentTimeSec - sunsetStart);
       if (sunsetLenght == 0 )  { sunsetLenght = 1; }
       jump = (pwmMax - pwmMin) / sunsetLenght;
       pwm = pwmMax - ( elapsed * jump );
       analogWrite(pwmPin,pwm);
       return true;
     } 
     
 
    if (sunsetStart > pwmOff && currentTimeSec >= sunsetStart && currentTimeSec <= 86400) 
    { 
       elapsed = (currentTimeSec - sunsetStart);
       if (sunsetLenght == 0 ) { sunsetLenght = 1;}
       jump = (pwmMax - pwmMin) / sunsetLenght;
       pwm = pwmMax - ( elapsed * jump );
       analogWrite(pwmPin,pwm);
       return true;
    }

if (sunsetStart > pwmOff && currentTimeSec >= 0 && currentTimeSec < pwmOff) 
   {
       elapsed = (86400-sunsetStart)+currentTimeSec;
       if (sunsetLenght == 0 ) { sunsetLenght = 1;}
       jump = ( pwmMax - pwmMin) / sunsetLenght;
       pwm = pwmMax-(elapsed * jump);
       analogWrite(pwmPin,pwm);
       return true;
   }
   
 
 //// Jak sie nic nie zlapalo, to wypal oczy
     analogWrite(pwmPin,pwmMax);
} 
//////////////

////////////////////////////////////////////////////////////////////////////////////////
/////                          Feeding Function                                    /////
////////////////////////////////////////////////////////////////////////////////////////

void feeding(byte feedingPin, byte feedingBtnPin, byte feedingTime, unsigned long currentMillis) 
 {

static unsigned long lastBtnFeedingCountersCheck = 0;
    static unsigned long feedingStartTime = 0; 
    static unsigned long feedingStopTime = 0;
    static boolean feeding = false;
    static byte btnFeedingCounter = 0;
    
    if ( currentMillis%20 == 0 && (currentMillis - lastBtnFeedingCountersCheck) > 1 )
    { 
  
      lastBtnFeedingCountersCheck = currentMillis;
      
      
       if (!digitalRead(feedingBtnPin))  
       {
         btnFeedingCounter++;
       }
       if (btnFeedingCounter >= 2 && !digitalRead(feedingBtnPin)) { digitalWrite(buzzerPin,HIGH); }
        
       if (btnFeedingCounter >= 2 && digitalRead(feedingBtnPin))  
       {
           feeding = !feeding; 
           btnFeedingCounter = 0;
           digitalWrite(buzzerPin,LOW);
          
          if (feeding) 
          {
            feedingStartTime = currentMillis;
            feedingStopTime = currentMillis + (60000 * feedingTime);
            digitalWrite(feedingPin, OFF);
            return;
          }
          
          if (!feeding) 
          {
           feedingStartTime = 0;
           feedingStopTime = 0;
           digitalWrite(feedingPin, ON);
           return;
          }
       }
     }  
   
   // Karmienie    
  if ( currentMillis%300 == 0) 
  { 
      if (!feeding)
      {
        digitalWrite(feedingPin, ON);
        return;
      }
      
     if (feedingStartTime == 0 && feedingStopTime == 0) { digitalWrite(feedingPin,ON); return; }
     if (feeding && currentMillis < feedingStartTime ) { digitalWrite(feedingPin,ON); feeding = false; return; }      
      
      if (feeding &&  currentMillis < feedingStopTime) 
      {
       digitalWrite(feedingPin, OFF); 
       return;
      }
      
      if (feeding && currentMillis >= feedingStopTime)
      {
        feeding = false;
        return;
      }
      
  }  
  
 }

////////////////////////////////////////////////////////////////////////////////////////
/////                          Refill Function                                     /////
////////////////////////////////////////////////////////////////////////////////////////

void refill(byte refillPin, byte refillBtnPin, byte refillDelayStart, unsigned long currentMillis) 
  {
    static unsigned long lastBtnRefillCountersCheck = 0;
    static byte btnRefillCounter = 0;
  
    if ( currentMillis%1000 < 3 && (currentMillis - lastBtnRefillCountersCheck) > 4 ) 
    {
      lastBtnRefillCountersCheck = currentMillis; 
       
       if (!digitalRead(refillBtnPin)) 
       { 
         btnRefillCounter++; 
       } 
       
       if ( btnRefillCounter <= refillDelayStart ) 
       {
         digitalWrite(refillPin,OFF); 
         return;
       }
       
       if ( btnRefillCounter > refillDelayStart && !digitalRead(refillBtnPin) ) 
       {
         digitalWrite(refillPin,ON); 
       }
       
       if ( btnRefillCounter > refillDelayStart && digitalRead(refillBtnPin) ) 
       {
         digitalWrite(refillPin,ON);
         btnRefillCounter = 0; 
       }
     }
        
    return; 
  }
  
////////////////////////////////////////////////////////////////////////////////////////
/////                          Keyboard - Function                                 /////
////////////////////////////////////////////////////////////////////////////////////////
 void keyboard(unsigned long currentMillis) 
  {
    static unsigned long lastBtnCountersCheck = 0;
    static unsigned int btnT1Counter = 0, btnT2Counter = 0, btnT3Counter = 0;
  
    if ( currentMillis%10 == 0 )  
    {
      lastBtnCountersCheck = currentMillis; 
       
       if (!digitalRead(btnT1Pin)) 
       { 
         btnT1Counter++; 
       } 
       
       if ( btnT1Counter > 2 && btnT1Counter <= 100 && digitalRead(btnT1Pin) ) 
       {  
          t1ManualModeOn = true;
          btnT1Counter = 0;
          t1ManualModeStatus = !digitalRead(t1Pin);
	  return;
       }
       
       
       if ( btnT1Counter > 100 && !digitalRead(btnT1Pin) ) 
       {
         t1ManualModeOn = false;
         digitalWrite(buzzerPin,HIGH);
       }
       
       if ( btnT1Counter > 100 && digitalRead(btnT1Pin) ) 
       {
         btnT1Counter= 0;
         t1ManualModeOn = false;
         digitalWrite(buzzerPin,LOW);
       } 
  
  
   /// T2
       if (!digitalRead(btnT2Pin)) 
       { 
         btnT2Counter++; 
       } 
       
       
       if ( btnT2Counter > 2 && btnT2Counter <= 100 && digitalRead(btnT2Pin) ) 
       {  
	  t2ManualModeOn = true;
          btnT2Counter = 0;
          t2ManualModeStatus = !digitalRead(t2Pin);
	  return;
       }
       
       
       if ( btnT2Counter > 100 && !digitalRead(btnT2Pin) ) 
       {
         t2ManualModeOn = false;
         digitalWrite(buzzerPin,HIGH);
       }
       
       if ( btnT2Counter > 100 && digitalRead(btnT2Pin) ) 
       {
         btnT2Counter= 0;
         t2ManualModeOn = false;
         digitalWrite(buzzerPin,LOW);
       }

/// T3
       if (!digitalRead(btnT3Pin)) 
       { 
         btnT3Counter++; 
       } 
       
       
       if ( btnT3Counter > 2 && btnT3Counter <= 100 && digitalRead(btnT3Pin) ) 
       {  
          t3ManualModeOn = true;
          btnT3Counter = 0;
          t3ManualModeStatus = !digitalRead(t3Pin);
	  return;
       }
       
       
       if ( btnT3Counter > 100 && !digitalRead(btnT3Pin) ) 
       {
         t3ManualModeOn = false;
         digitalWrite(buzzerPin,HIGH);
       }
       
       if ( btnT3Counter > 100 && digitalRead(btnT3Pin) ) 
       {
         btnT3Counter= 0;
         t3ManualModeOn = false;
         digitalWrite(buzzerPin,LOW);
       }

}
        
    return; 
  }

////////////////////////////////////////////////////////////////////////////////////////
/////                          manualModeBlink - Functions                         /////
////////////////////////////////////////////////////////////////////////////////////////

void manualModeBlink(byte blinkPin, unsigned long currentMillis) 
  {
    static unsigned long lastBlinkTime = 0;
    static boolean blinkState = false;
   
     if ( (currentMillis - lastBlinkTime) > 800 ) 
     { 
       lastBlinkTime = currentMillis; 
       blinkState = !blinkState;
       digitalWrite(blinkPin,blinkState); 
       
     } 
  
  }

////////////////////////////////////////////////////////////////////////////////////////
/////                             Analysis                                         /////
////////////////////////////////////////////////////////////////////////////////////////

boolean commandAnalysis(char cmdOutputArray[64]){

unsigned int val[64];
  char *cmdVal;
  int i = 0;
  
  
  cmdVal = strtok(cmdOutputArray, ",");
  
      while (cmdVal) 
      {
       val[i++] = atoi(cmdVal);
       cmdVal = strtok(NULL, ",");
      }

///////////////////////////////////////////////////////////////////////////////////////
 /////                        Timer 1 EPROM                                        ///// 
 ///////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 1) {
   
   byte eT1Pin, eT1Status, eT1HOn, eT1MOn, eT1SOn, eT1HOff, eT1MOff, eT1SOff;
   
   if (val[1] >=0 && val[1] <= 99) { eT1Pin = val[1]; } else { return false;}       // eT1pin - 1
   if (val[2] >=0 && val[2] <= 1) { eT1Status = val[2];} else { return false;}      // eT1_1_status 3
   if (val[3] >=0 && val[3] <= 23) { eT1HOn = val[3]; } else { return false;}       // 4
   if (val[4] >=0 && val[4] <= 59) { eT1MOn = val[4]; } else { return false;}       // 5
   if (val[5] >=0 && val[5] <= 59) { eT1SOn = val[5]; } else { return false;}       // 6
   if (val[6] >=0 && val[6] <= 23) { eT1HOff = val[6]; } else { return false;}      // 7
   if (val[7] >=0 && val[7] <= 59) { eT1MOff = val[7]; } else { return false;}      // 8
   if (val[8] >=0 && val[8] <= 59) { eT1SOff = val[8]; } else { return false;}      // 9
   
   
   
   EEPROM.write(11,eT1Pin);EEPROM.write(13,eT1Status);
   EEPROM.write(14,eT1HOn);EEPROM.write(15,eT1MOn);EEPROM.write(16,eT1SOn);
   EEPROM.write(17,eT1HOff);EEPROM.write(18,eT1MOff);EEPROM.write(19,eT1SOff);

return true;
  } // T1

//////////////////////////////////////////////////////////////////////////////////////
 /////                        Timer 2 EPROM                                       /////
 //////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 2) {
  byte eT2Pin, eT2Status, eT2HOn, eT2MOn, eT2SOn, eT2HOff, eT2MOff, eT2SOff;
										       // Timer 2 
   if (val[1] >=0 && val[1] <= 99) { eT2Pin = val[1]; } else { return false;}          // eT2pin - 1
   if (val[2] >=0 && val[2] <= 1) { eT2Status = val[2];} else { return false;}         // eT2_1_status - 3
   if (val[3] >=0 && val[3] <= 23) { eT2HOn = val[3]; } else { return false;}          // eT2hOn1 - 4
   if (val[4] >=0 && val[4] <= 59) { eT2MOn = val[4]; } else { return false;}          // eT2mOn1 - 5 
   if (val[5] >=0 && val[5] <= 59) { eT2SOn = val[5]; } else { return false;}          // eT2sOn1 - 6
   if (val[6] >=0 && val[6] <= 23) { eT2HOff = val[6]; } else { return false;}         // eT2hOff1 - 7
   if (val[7] >=0 && val[7] <= 59) { eT2MOff = val[7]; } else { return false;}         // eT2mOff1 - 8 
   if (val[8] >=0 && val[8] <= 59) { eT2SOff = val[8]; } else { return false;}         // eT2sOff1 - 9
      
   
   EEPROM.write(31,eT2Pin);EEPROM.write(33,eT2Status);
   EEPROM.write(34,eT2HOn);EEPROM.write(35,eT2MOn);EEPROM.write(36,eT2SOn);
   EEPROM.write(37,eT2HOff);EEPROM.write(38,eT2MOff);EEPROM.write(39,eT2SOff);
  
   return true;
 } // T2

////////////////////////////////////////////////////////////////////////////////////////
 /////                       Timer 3 EPROM                                          /////
 ////////////////////////////////////////////////////////////////////////////////////////
 if (val[0] == 3) {
   
   byte eT3Pin, eT3Status, eT3HOn, eT3MOn, eT3SOn, eT3HOff, eT3MOff, eT3SOff;
                                                                                       // Timer 3 //
   if (val[1] >=0 && val[1] <= 99) { eT3Pin = val[1]; } else { return false;}          // eT3pin - 1
   if (val[2] >=0 && val[2] <= 1) { eT3Status = val[2]; } else { return false;}        // eT3state - 2
   if (val[3] >=0 && val[3] <= 23) { eT3HOn = val[3]; } else { return false;}          // eT3hOn1 - 4
   if (val[4] >=0 && val[4] <= 59) { eT3MOn = val[4]; } else { return false;}          // eT3mOn1 - 5 
   if (val[5] >=0 && val[5] <= 59) { eT3SOn = val[5]; } else { return false;}          // eT3sOn1 - 6
   if (val[6] >=0 && val[6] <= 23) { eT3HOff = val[6]; } else { return false;}         // eT3hOff1 - 7
   if (val[7] >=0 && val[7] <= 59) { eT3MOff = val[7]; } else { return false;}         // eT3mOff1 - 8 
   if (val[8] >=0 && val[8] <= 59) { eT3SOff = val[8]; } else { return false;}         // eT3sOff1 - 9

EEPROM.write(51,eT3Pin); EEPROM.write(53,eT3Status);
   EEPROM.write(54,eT3HOn);EEPROM.write(55,eT3MOn);EEPROM.write(56,eT3SOn);
   EEPROM.write(57,eT3HOff);EEPROM.write(58,eT3MOff);EEPROM.write(59,eT3SOff);
   
   return true;
 
 } // T3

/////////////////////////////////////////////////////////////////////////////////////////
 /////                    Peristaltic Pump 1, EPROM                                  /////
 /////////////////////////////////////////////////////////////////////////////////////////
 
 // D1
 if (val[0] == 4) {
   
   byte eD1Status, eD1Flow, eD1FlowDec, eD1Pin, eD1Su, eD1Mo, eD1Tu, eD1We, eD1Th, eD1Fr, eD1Sa, eD1Mode ;
                                                                                          // Dosing Pump //  
   if (val[1] >=0 && val[1] <= 1) { eD1Status = val[1]; } else { return false;}           // eD1Status -  1
   if (val[2] >=0 && val[2] <= 250) { eD1Flow = val[2]; } else { return false;}           // eD1Flow -    2
   if (val[3] >=0 && val[3] <= 9) { eD1FlowDec = val[3]; } else { return false;}          // eD1FlowDec - 3
   if (val[4] >=0 && val[4] <= 99) { eD1Pin = val[4]; } else { return false;}             // eD1Pin -     4
   if (val[5] >=0 && val[5] <= 1) { eD1Su = val[5]; } else { return false;}               // eD1Su -      5
   if (val[6] >=0 && val[6] <= 1) { eD1Mo = val[6]; } else { return false;}               // eD1Mo -      6
   if (val[7] >=0 && val[7] <= 1) { eD1Tu = val[7]; } else { return false;}               // eD1Tu -      7
   if (val[8] >=0 && val[8] <= 1) { eD1We = val[8]; } else { return false;}               // eD1we -      8
   if (val[9] >=0 && val[9] <= 1) { eD1Th = val[9]; } else { return false;}               // eD2Th -      9
   if (val[10] >=0 && val[10] <= 1) { eD1Fr = val[10]; } else { return false;}            // eD1Fr -      10
   if (val[11] >=0 && val[11] <= 1) { eD1Sa = val[11]; } else { return false;}            // eD1Sa -      11
   if (val[12] >=0 && val[12] <= 1) { eD1Mode = val[12]; } else { return false;}          // eD1Mode -    12

EEPROM.write(71,eD1Status); EEPROM.write(72,eD1Flow);
   EEPROM.write(73,eD1FlowDec);EEPROM.write(74,eD1Pin);
   EEPROM.write(75,eD1Su);EEPROM.write(76,eD1Mo);EEPROM.write(77,eD1Tu);
   EEPROM.write(78,eD1We);EEPROM.write(79,eD1Th);EEPROM.write(80,eD1Fr);
   EEPROM.write(81,eD1Sa);EEPROM.write(82,eD1Mode);
   
   return true;
 
 } // 
 
 // D1.1 EPROM WRITE ///////////////
 if (val[0] == 5) {
   
   byte eD11HOn, eD11MOn, eD11Ml, eD11MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD11HOn = val[1]; } else { return false;}           // eD11HOn   - 1
     if (val[2] >=0 && val[2] <= 59) { eD11MOn = val[2]; } else { return false;}           // eD11MOn   - 2
     if (val[3] >=0 && val[3] <= 250) { eD11Ml = val[3]; } else { return false;}           // eD11Ml    - 3
     if (val[4] >=0 && val[4] <= 9) { eD11MlDec = val[4]; } else { return false;}          // eD11MlDec - 4
     
     EEPROM.write(91,eD11HOn); EEPROM.write(92,eD11MOn);
     EEPROM.write(93,eD11Ml); EEPROM.write(94,eD11MlDec);
     
   
 }

// D1.2 EPROM WRITE ///////////////
 if (val[0] == 6) {
   
   byte eD12HOn, eD12MOn, eD12Ml, eD12MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD12HOn = val[1]; } else { return false;}          // eD12HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD12MOn = val[2]; } else { return false;}          // eD12MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD12Ml = val[3]; } else { return false;}          // eD12Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD12MlDec = val[4]; } else { return false;}         // eD12MlDec - 4
     
     EEPROM.write(101,eD12HOn); EEPROM.write(102,eD12MOn);
     EEPROM.write(103,eD12Ml); EEPROM.write(104,eD12MlDec);
     
   
 }
 
 // D1.3 EPROM WRITE ///////////////
 if (val[0] == 7) {
   
   byte eD13HOn, eD13MOn, eD13Ml, eD13MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD13HOn = val[1]; } else { return false;}           // eD13HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD13MOn = val[2]; } else { return false;}           // eD13MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD13Ml = val[3]; } else { return false;}           // eD13Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD13MlDec = val[4]; } else { return false;}          // eD13MlDec - 4
     
     EEPROM.write(111,eD13HOn); EEPROM.write(112,eD13MOn);
     EEPROM.write(113,eD13Ml); EEPROM.write(114,eD13MlDec);
     
   
 }
 
// D1.4 EPROM  WRITE ///////////////
 if (val[0] == 8) {
   
   byte eD14HOn, eD14MOn, eD14Ml, eD14MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD14HOn = val[1]; } else { return false;}           // eD14HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD14MOn = val[2]; } else { return false;}           // eD14MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD14Ml = val[3]; } else { return false;}           // eD14Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD14MlDec = val[4]; } else { return false;}          // eD14MlDec - 4
     
     EEPROM.write(121,eD14HOn); EEPROM.write(122,eD14MOn);
     EEPROM.write(123,eD14Ml); EEPROM.write(124,eD14MlDec);
     
   
 }

/////////////////////////////////////////////////////////////////////////////////////////
 /////                    Peristaltic Pump 2, EPROM                                  /////
 /////////////////////////////////////////////////////////////////////////////////////////
 
 // D2
 if (val[0] == 9) {
   
   byte eD2Status, eD2Flow, eD2FlowDec, eD2Pin, eD2Su, eD2Mo, eD2Tu, eD2We, eD2Th, eD2Fr, eD2Sa, eD2Mode;
                                                                                          // Dosing Pump //  
   if (val[1] >=0 && val[1] <= 1) { eD2Status = val[1]; } else { return false;}           // eD2Status -  1
   if (val[2] >=0 && val[2] <= 250) { eD2Flow = val[2]; } else { return false;}           // eD2Flow -    2
   if (val[3] >=0 && val[3] <= 9) { eD2FlowDec = val[3]; } else { return false;}          // eD2FlowDec - 3
   if (val[4] >=0 && val[4] <= 99) { eD2Pin = val[4]; } else { return false;}             // eD2Pin -     4
   if (val[5] >=0 && val[5] <= 1) { eD2Su = val[5]; } else { return false;}               // eD2Su -      5
   if (val[6] >=0 && val[6] <= 1) { eD2Mo = val[6]; } else { return false;}               // eD2Mo -      6
   if (val[7] >=0 && val[7] <= 1) { eD2Tu = val[7]; } else { return false;}               // eD2Tu -      7
   if (val[8] >=0 && val[8] <= 1) { eD2We = val[8]; } else { return false;}               // eD2we -      8
   if (val[9] >=0 && val[9] <= 1) { eD2Th = val[9]; } else { return false;}               // eD2Th -      9
   if (val[10] >=0 && val[10] <= 1) { eD2Fr = val[10]; } else { return false;}            // eD2Fr -      10
   if (val[11] >=0 && val[11] <= 1) { eD2Sa = val[11]; } else { return false;}            // eD2Sa -      11
   if (val[12] >=0 && val[12] <= 1) { eD2Mode = val[12]; } else { return false;}          // eD2Mode -    12

EEPROM.write(131,eD2Status); EEPROM.write(132,eD2Flow);
   EEPROM.write(133,eD2FlowDec);EEPROM.write(134,eD2Pin);
   EEPROM.write(135,eD2Su);EEPROM.write(136,eD2Mo);EEPROM.write(137,eD2Tu);
   EEPROM.write(138,eD2We);EEPROM.write(139,eD2Th);EEPROM.write(140,eD2Fr);
   EEPROM.write(141,eD2Sa);EEPROM.write(142,eD2Mode);

return true;
 
 } // 
 
 // D2.1 EPROM WRITE ///////////////
 if (val[0] == 10) {
   
   byte eD21HOn, eD21MOn, eD21Ml, eD21MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD21HOn = val[1]; } else { return false;}           // eD21HOn   - 1
     if (val[2] >=0 && val[2] <= 59) { eD21MOn = val[2]; } else { return false;}           // eD21MOn   - 2
     if (val[3] >=0 && val[3] <= 250) { eD21Ml = val[3]; } else { return false;}           // eD21Ml    - 3
     if (val[4] >=0 && val[4] <= 9) { eD21MlDec = val[4]; } else { return false;}          // eD21MlDec - 4
     
     EEPROM.write(151,eD21HOn); EEPROM.write(152,eD21MOn);
     EEPROM.write(153,eD21Ml); EEPROM.write(154,eD21MlDec);
     
   
 }

// D2.2 EPROM WRITE ///////////////
 if (val[0] == 11) {
   
   byte eD22HOn, eD22MOn, eD22Ml, eD22MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD22HOn = val[1]; } else { return false;}          // eD22HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD22MOn = val[2]; } else { return false;}          // eD22MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD22Ml = val[3]; } else { return false;}          // eD22Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD22MlDec = val[4]; } else { return false;}         // eD22MlDec - 4
     
     EEPROM.write(161,eD22HOn); EEPROM.write(162,eD22MOn);
     EEPROM.write(163,eD22Ml); EEPROM.write(164,eD22MlDec);
     
   
 }
 
 // D2.3 EPROM WRITE ///////////////
 if (val[0] == 12) {
   
   byte eD23HOn, eD23MOn, eD23Ml, eD23MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD23HOn = val[1]; } else { return false;}           // eD23HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD23MOn = val[2]; } else { return false;}           // eD23MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD23Ml = val[3]; } else { return false;}           // eD23Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD23MlDec = val[4]; } else { return false;}          // eD23MlDec - 4
     
     EEPROM.write(171,eD23HOn); EEPROM.write(172,eD23MOn);
     EEPROM.write(173,eD23Ml); EEPROM.write(174,eD23MlDec);
     
   
 }
 
// D2.4 EPROM  WRITE ///////////////
 if (val[0] == 13) {
   
   byte eD24HOn, eD24MOn, eD24Ml, eD24MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD24HOn = val[1]; } else { return false;}           // eD24HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD24MOn = val[2]; } else { return false;}           // eD24MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD24Ml = val[3]; } else { return false;}           // eD24Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD24MlDec = val[4]; } else { return false;}          // eD24MlDec - 4
     
     EEPROM.write(181,eD24HOn); EEPROM.write(182,eD24MOn);
     EEPROM.write(183,eD24Ml); EEPROM.write(184,eD24MlDec);
     
   
 }

/////////////////////////////////////////////////////////////////////////////////////////
 /////                    Peristaltic Pump 3, EPROM                                  /////
 /////////////////////////////////////////////////////////////////////////////////////////
 
 // D3
 if (val[0] == 14) {
   
   byte eD3Status, eD3Flow, eD3FlowDec, eD3Pin, eD3Su, eD3Mo, eD3Tu, eD3We, eD3Th, eD3Fr, eD3Sa, eD3Mode ;
                                                                                          // Dosing Pump //  
   if (val[1] >=0 && val[1] <= 1) { eD3Status = val[1]; } else { return false;}           // eD3Status -  1
   if (val[2] >=0 && val[2] <= 250) { eD3Flow = val[2]; } else { return false;}           // eD3Flow -    2
   if (val[3] >=0 && val[3] <= 9) { eD3FlowDec = val[3]; } else { return false;}          // eD3FlowDec - 3
   if (val[4] >=0 && val[4] <= 99) { eD3Pin = val[4]; } else { return false;}             // eD3Pin -     4
   if (val[5] >=0 && val[5] <= 1) { eD3Su = val[5]; } else { return false;}               // eD3Su -      5
   if (val[6] >=0 && val[6] <= 1) { eD3Mo = val[6]; } else { return false;}               // eD3Mo -      6
   if (val[7] >=0 && val[7] <= 1) { eD3Tu = val[7]; } else { return false;}               // eD3Tu -      7
   if (val[8] >=0 && val[8] <= 1) { eD3We = val[8]; } else { return false;}               // eD3we -      8
   if (val[9] >=0 && val[9] <= 1) { eD3Th = val[9]; } else { return false;}               // eD3Th -      9
   if (val[10] >=0 && val[10] <= 1) { eD3Fr = val[10]; } else { return false;}            // eD3Fr -      10
   if (val[11] >=0 && val[11] <= 1) { eD3Sa = val[11]; } else { return false;}            // eD3Sa -      11
   if (val[12] >=0 && val[12] <= 1) { eD3Mode = val[12]; } else { return false;}          // eD3Mode -    12

EEPROM.write(191,eD3Status); EEPROM.write(192,eD3Flow);
   EEPROM.write(193,eD3FlowDec);EEPROM.write(194,eD3Pin);
   EEPROM.write(195,eD3Su);EEPROM.write(196,eD3Mo);EEPROM.write(197,eD3Tu);
   EEPROM.write(198,eD3We);EEPROM.write(199,eD3Th);EEPROM.write(200,eD3Fr);
   EEPROM.write(201,eD3Sa);EEPROM.write(202,eD3Mode);
   
   return true;
 
 } // 
 
 // D3.1 EPROM WRITE ///////////////
 if (val[0] == 15) {
   
   byte eD31HOn, eD31MOn, eD31Ml, eD31MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD31HOn = val[1]; } else { return false;}           // eD31HOn   - 1
     if (val[2] >=0 && val[2] <= 59) { eD31MOn = val[2]; } else { return false;}           // eD31MOn   - 2
     if (val[3] >=0 && val[3] <= 250) { eD31Ml = val[3]; } else { return false;}           // eD31Ml    - 3
     if (val[4] >=0 && val[4] <= 9) { eD31MlDec = val[4]; } else { return false;}          // eD31MlDec - 4
     
     EEPROM.write(211,eD31HOn); EEPROM.write(212,eD31MOn);
     EEPROM.write(213,eD31Ml); EEPROM.write(214,eD31MlDec);
     
   
 }

// D3.2 EPROM WRITE ///////////////
 if (val[0] == 16) {
   
   byte eD32HOn, eD32MOn, eD32Ml, eD32MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD32HOn = val[1]; } else { return false;}          // eD32HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD32MOn = val[2]; } else { return false;}          // eD32MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD32Ml = val[3]; } else { return false;}          // eD32Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD32MlDec = val[4]; } else { return false;}         // eD32MlDec - 4
     
     EEPROM.write(221,eD32HOn); EEPROM.write(222,eD32MOn);
     EEPROM.write(223,eD32Ml); EEPROM.write(224,eD32MlDec);
     
   
 }
 
 // D3.3 EPROM WRITE ///////////////
 if (val[0] == 17) {
   
   byte eD33HOn, eD33MOn, eD33Ml, eD33MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD33HOn = val[1]; } else { return false;}           // eD33HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD33MOn = val[2]; } else { return false;}           // eD33MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD33Ml = val[3]; } else { return false;}           // eD33Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD33MlDec = val[4]; } else { return false;}          // eD33MlDec - 4
     
     EEPROM.write(231,eD33HOn); EEPROM.write(232,eD33MOn);
     EEPROM.write(233,eD33Ml); EEPROM.write(234,eD33MlDec);
     
   
 }
 
// D3.4 EPROM  WRITE ///////////////
 if (val[0] == 18) {
   
   byte eD34HOn, eD34MOn, eD34Ml, eD34MlDec;
     
     if (val[1] >=0 && val[1] <= 23) { eD34HOn = val[1]; } else { return false;}           // eD34HOn -   1
     if (val[2] >=0 && val[2] <= 59) { eD34MOn = val[2]; } else { return false;}           // eD34MOn -   2
     if (val[3] >=0 && val[3] <= 250) { eD34Ml = val[3]; } else { return false;}           // eD34Ml -    3
     if (val[4] >=0 && val[4] <= 9) { eD34MlDec = val[4]; } else { return false;}          // eD34MlDec - 4
     
     EEPROM.write(241,eD34HOn); EEPROM.write(242,eD34MOn);
     EEPROM.write(243,eD34Ml); EEPROM.write(244,eD34MlDec);
     
   
 } 
 
 
//////////////////////////////////////////////////////////////////////////////////////////////
/////                       Timer 1,2,3 Status EPROM                                     /////
//////////////////////////////////////////////////////////////////////////////////////////////
 if (val[0] == 21) {
   byte eT1Status;
   if (val[1] >=0 && val[1] <= 1) { eT1Status = val[1]; } else { return false;}
   EEPROM.write(13,eT1Status);   
 }
if (val[0] == 22) {
   byte eT2Status;
   if (val[1] >=0 && val[1] <= 1) { eT2Status = val[1]; } else { return false;}    
   EEPROM.write(33,eT2Status);
 }
if (val[0] == 23) {
   byte eT3Status;
   if (val[1] >=0 && val[1] <= 1) { eT3Status = val[1]; } else { return false;}  
   EEPROM.write(53,eT3Status);  
 }

//////////////////////////////////////////////////////////////////////////////////////////////

//////////////////////////////////////////////////////////////////////////////////////////////
/////                       Timer 4,5,6 EPROM                                            /////
//////////////////////////////////////////////////////////////////////////////////////////////

// T4
 if (val[0] == 24) {
   
   byte eD1Pin, eT4Status, eT4HOn, eT4MOn, eT4HOff, eT4MOff, eD1Mode ;
     
     if (val[1] >=0 && val[1] <= 99) { eD1Pin = val[1]; } else { return false;}           // eD1pin -    1  
     if (val[2] >=0 && val[2] <= 1)  { eT4Status = val[2]; } else { return false;}        // eT4Status - 2
     if (val[3] >=0 && val[3] <= 23) { eT4HOn = val[3]; } else { return false;}           // eT4HOn -    3
     if (val[4] >=0 && val[4] <= 59) { eT4MOn = val[4]; } else { return false;}           // eT4MOn -    4
     if (val[5] >=0 && val[5] <= 23) { eT4HOff = val[5]; } else { return false;}          // eT4HOff -   5
     if (val[6] >=0 && val[6] <= 59) { eT4MOff = val[6]; } else { return false;}          // eT4MOff -   6
     if (val[7] >=0 && val[7] <= 1)  { eD1Mode = val[7]; } else { return false;}          // eD1Mode -   7

EEPROM.write(251,eT4Status); EEPROM.write(252,eT4HOn);
     EEPROM.write(253,eT4MOn); EEPROM.write(254,eT4HOff);
     EEPROM.write(255,eT4MOff); EEPROM.write(74,eD1Pin);
     EEPROM.write(82,eD1Mode);
   
 }

// T5
 if (val[0] == 25) {
   
   byte eD2Pin, eT5Status, eT5HOn, eT5MOn, eT5HOff, eT5MOff, eD2Mode ;
     
     if (val[1] >=0 && val[1] <= 99) { eD2Pin = val[1]; } else { return false;}           // eD2pin -    1  
     if (val[2] >=0 && val[2] <= 1)  { eT5Status = val[2]; } else { return false;}        // eT5Status - 2
     if (val[3] >=0 && val[3] <= 23) { eT5HOn = val[3]; } else { return false;}           // eT5HOn -    3
     if (val[4] >=0 && val[4] <= 59) { eT5MOn = val[4]; } else { return false;}           // eT5MOn -    4
     if (val[5] >=0 && val[5] <= 23) { eT5HOff = val[5]; } else { return false;}          // eT5HOff -   5
     if (val[6] >=0 && val[6] <= 59) { eT5MOff = val[6]; } else { return false;}          // eT5MOff -   6
     if (val[7] >=0 && val[7] <= 1)  { eD2Mode = val[7]; } else { return false;}          // eD2Mode -   7

EEPROM.write(261,eT5Status); EEPROM.write(262,eT5HOn);
     EEPROM.write(263,eT5MOn); EEPROM.write(264,eT5HOff);
     EEPROM.write(265,eT5MOff); EEPROM.write(134,eD2Pin);
     EEPROM.write(142,eD2Mode);
   
 }

// T6
 if (val[0] == 26) {
   
   byte eD3Pin, eT6Status, eT6HOn, eT6MOn, eT6HOff, eT6MOff, eD3Mode ;
     
     if (val[1] >=0 && val[1] <= 99) { eD3Pin = val[1]; } else { return false;}           // eD3pin -    1  
     if (val[2] >=0 && val[2] <= 1)  { eT6Status = val[2]; } else { return false;}        // eT6Status - 2
     if (val[3] >=0 && val[3] <= 23) { eT6HOn = val[3]; } else { return false;}           // eT6HOn -    3
     if (val[4] >=0 && val[4] <= 59) { eT6MOn = val[4]; } else { return false;}           // eT6MOn -    4
     if (val[5] >=0 && val[5] <= 23) { eT6HOff = val[5]; } else { return false;}          // eT6HOff -   5
     if (val[6] >=0 && val[6] <= 59) { eT6MOff = val[6]; } else { return false;}          // eT6MOff -   6
     if (val[7] >=0 && val[7] <= 1)  { eD3Mode = val[7]; } else { return false;}          // eD3Mode -   7

EEPROM.write(271,eT6Status); EEPROM.write(272,eT6HOn);
     EEPROM.write(273,eT6MOn); EEPROM.write(274,eT6HOff);
     EEPROM.write(275,eT6MOff); EEPROM.write(194,eD3Pin);
     EEPROM.write(202,eD3Mode);
   
 }

///////////////////////////////////////////////////////////////////////////////////////
 /////                        PWM - 1, EPROM                                       ///// 
 ///////////////////////////////////////////////////////////////////////////////////////
  if (val[0] == 31) 
  { //      1          2         3        4        5        6          7         8        9       10       11      12         13
    byte ePwm1Pin, ePwm1Status, ePwm1HOn, ePwm1MOn, ePwm1SOn, ePwm1HOff, ePwm1MOff, ePwm1SOff, ePwm1Min, ePwm1Max, ePwm1Sr, ePwm1Ss, ePwm1KeepLight;
      
      if (val[1] >=0 && val[1] <= 99) { ePwm1Pin = val[1]; } else { return false;}             // ePwm1Pin -       1 
      if (val[2] >=0 && val[2] <= 1)  { ePwm1Status = val[2]; } else { return false;}          // ePwm1Status -    2
      if (val[3] >=0 && val[3] <= 23) { ePwm1HOn = val[3]; } else { return false;}             // ePwm1HOn -       3
      if (val[4] >=0 && val[4] <= 59) { ePwm1MOn = val[4]; } else { return false;}             // ePwm1MOn -       4
      if (val[5] >=0 && val[5] <= 59) { ePwm1SOn = val[5]; } else { return false;}             // ePwm1SOn -       5
      if (val[6] >=0 && val[6] <= 23) { ePwm1HOff = val[6]; } else { return false;}            // ePwm1HOff -      6
      if (val[7] >=0 && val[7] <= 59) { ePwm1MOff = val[7]; } else { return false;}            // ePwm1MOff -      7
      if (val[8] >=0 && val[8] <= 59) { ePwm1SOff = val[8]; } else { return false;}            // ePwm1SOff -      8
      if (val[9] >=0 && val[9] <= 255) { ePwm1Min = val[9]; } else { return false;}            // ePwm1Min -       9
      if (val[10] >=0 && val[10] <= 255) { ePwm1Max = val[10]; } else { return false;}         // ePwm1Max -       10
      if (val[11] >=0 && val[11] <= 255) { ePwm1Sr = val[11]; } else { return false;}          // ePwm1Sr -        11
      if (val[12] >=0 && val[12] <= 255) { ePwm1Ss = val[12]; } else { return false;}          // ePwm1Ss -        12
      if (val[13] >=0 && val[13] <= 1)   { ePwm1KeepLight = val[13]; } else { return false;}   // ePwm1KeepLight - 13
      
     EEPROM.write(281,ePwm1Pin); EEPROM.write(282,ePwm1Status); EEPROM.write(283,ePwm1HOn); EEPROM.write(284,ePwm1MOn);
     EEPROM.write(285,ePwm1SOn); EEPROM.write(286,ePwm1HOff); EEPROM.write(287,ePwm1MOff); EEPROM.write(288,ePwm1SOff);
     EEPROM.write(289,ePwm1Min); EEPROM.write(290,ePwm1Max); EEPROM.write(291,ePwm1Sr); EEPROM.write(292,ePwm1Ss);      
     EEPROM.write(293,ePwm1KeepLight); 
  }

///////////////////////////////////////////////////////////////////////////////////////
 /////                        PWM - 2, EPROM                                       ///// 
 ///////////////////////////////////////////////////////////////////////////////////////
  if (val[0] == 32) 
  { //      1          2         3        4        5        6          7         8        9       10       11      12         13
    byte ePwm2Pin, ePwm2Status, ePwm2HOn, ePwm2MOn, ePwm2SOn, ePwm2HOff, ePwm2MOff, ePwm2SOff, ePwm2Min, ePwm2Max, ePwm2Sr, ePwm2Ss, ePwm2KeepLight;
      
      if (val[1] >=0 && val[1] <= 99) { ePwm2Pin = val[1]; } else { return false;}             // ePwm2Pin -       1 
      if (val[2] >=0 && val[2] <= 1)  { ePwm2Status = val[2]; } else { return false;}          // ePwm2Status -    2
      if (val[3] >=0 && val[3] <= 23) { ePwm2HOn = val[3]; } else { return false;}             // ePwm2HOn -       3
      if (val[4] >=0 && val[4] <= 59) { ePwm2MOn = val[4]; } else { return false;}             // ePwm2MOn -       4
      if (val[5] >=0 && val[5] <= 59) { ePwm2SOn = val[5]; } else { return false;}             // ePwm2SOn -       5
      if (val[6] >=0 && val[6] <= 23) { ePwm2HOff = val[6]; } else { return false;}            // ePwm2HOff -      6
      if (val[7] >=0 && val[7] <= 59) { ePwm2MOff = val[7]; } else { return false;}            // ePwm2MOff -      7
      if (val[8] >=0 && val[8] <= 59) { ePwm2SOff = val[8]; } else { return false;}            // ePwm2SOff -      8
      if (val[9] >=0 && val[9] <= 255) { ePwm2Min = val[9]; } else { return false;}            // ePwm2Min -       9
      if (val[10] >=0 && val[10] <= 255) { ePwm2Max = val[10]; } else { return false;}         // ePwm2Max -       10
      if (val[11] >=0 && val[11] <= 255) { ePwm2Sr = val[11]; } else { return false;}          // ePwm2Sr -        11
      if (val[12] >=0 && val[12] <= 255) { ePwm2Ss = val[12]; } else { return false;}          // ePwm2Ss -        12
      if (val[13] >=0 && val[13] <= 1)   { ePwm2KeepLight = val[13]; } else { return false;}   // ePwm2KeepLight - 13
      
     EEPROM.write(301,ePwm2Pin); EEPROM.write(302,ePwm2Status); EEPROM.write(303,ePwm2HOn); EEPROM.write(304,ePwm2MOn);
     EEPROM.write(305,ePwm2SOn); EEPROM.write(306,ePwm2HOff); EEPROM.write(307,ePwm2MOff); EEPROM.write(308,ePwm2SOff);
     EEPROM.write(309,ePwm2Min); EEPROM.write(310,ePwm2Max); EEPROM.write(311,ePwm2Sr); EEPROM.write(312,ePwm2Ss);      
     EEPROM.write(313,ePwm2KeepLight); 
  }  
 
 ///////////////////////////////////////////////////////////////////////////////////////
 /////                        PWM - 3, EPROM                                       ///// 
 ///////////////////////////////////////////////////////////////////////////////////////
  if (val[0] == 33) 
  { //      1          2            3        4          5           6         7         8        9       10       11      12         13
    byte ePwm3Pin, ePwm3Status, ePwm3HOn, ePwm3MOn, ePwm3SOn, ePwm3HOff, ePwm3MOff, ePwm3SOff, ePwm3Min, ePwm3Max, ePwm3Sr, ePwm3Ss, ePwm3KeepLight;
      
      if (val[1] >=0 && val[1] <= 99) { ePwm3Pin = val[1]; } else { return false;}             // ePwm3Pin -       1 
      if (val[2] >=0 && val[2] <= 1)  { ePwm3Status = val[2]; } else { return false;}          // ePwm3Status -    2
      if (val[3] >=0 && val[3] <= 23) { ePwm3HOn = val[3]; } else { return false;}             // ePwm3HOn -       3
      if (val[4] >=0 && val[4] <= 59) { ePwm3MOn = val[4]; } else { return false;}             // ePwm3MOn -       4
      if (val[5] >=0 && val[5] <= 59) { ePwm3SOn = val[5]; } else { return false;}             // ePwm3SOn -       5
      if (val[6] >=0 && val[6] <= 23) { ePwm3HOff = val[6]; } else { return false;}            // ePwm3HOff -      6
      if (val[7] >=0 && val[7] <= 59) { ePwm3MOff = val[7]; } else { return false;}            // ePwm3MOff -      7
      if (val[8] >=0 && val[8] <= 59) { ePwm3SOff = val[8]; } else { return false;}            // ePwm3SOff -      8
      if (val[9] >=0 && val[9] <= 255) { ePwm3Min = val[9]; } else { return false;}            // ePwm3Min -       9
      if (val[10] >=0 && val[10] <= 255) { ePwm3Max = val[10]; } else { return false;}         // ePwm3Max -       10
      if (val[11] >=0 && val[11] <= 255) { ePwm3Sr = val[11]; } else { return false;}          // ePwm3Sr -        11
      if (val[12] >=0 && val[12] <= 255) { ePwm3Ss = val[12]; } else { return false;}          // ePwm3Ss -        12
      if (val[13] >=0 && val[13] <= 1)   { ePwm3KeepLight = val[13]; } else { return false;}   // ePwm3KeepLight - 13

EEPROM.write(331,ePwm3Pin); EEPROM.write(332,ePwm3Status); EEPROM.write(333,ePwm3HOn); EEPROM.write(334,ePwm3MOn);
     EEPROM.write(335,ePwm3SOn); EEPROM.write(336,ePwm3HOff); EEPROM.write(337,ePwm3MOff); EEPROM.write(338,ePwm3SOff);
     EEPROM.write(339,ePwm3Min); EEPROM.write(340,ePwm3Max); EEPROM.write(341,ePwm3Sr); EEPROM.write(342,ePwm3Ss);      
     EEPROM.write(343,ePwm3KeepLight); 
  }  
  
 ///////////////////////////////////////////////////////////////////////////////////////
 /////                    Refill, Feeding - EPROM                                  ///// 
 ///////////////////////////////////////////////////////////////////////////////////////
  if (val[0] == 34) 
  { 
    byte eFeedingPin, eFeedingBtnPin, eFeedingTime, eFeedingMode, eRefillPin, eRefillBtnPin, eRefillDelayStart;
    
      if (val[1] >=0 && val[1] <= 99) { eFeedingPin = val[1]; } else { return false;}                 // eFeedingPin -        1 
      if (val[2] >=0 && val[2] <= 99)  { eFeedingBtnPin = val[2]; } else { return false;}             // eFeedingBtnPin -     2
      if (val[3] >=0 && val[3] <= 255) { eFeedingTime = val[3]; } else { return false;}               // eFeedingTime -       3
      if (val[3] >=0 && val[4] <= 1) { eFeedingMode = val[4]; } else { return false;}                 // eFeedingMode -       4
      if (val[4] >=0 && val[5] <= 99) { eRefillPin = val[5]; } else { return false;}                  // eRefillPin -         5
      if (val[5] >=0 && val[6] <= 99) { eRefillBtnPin = val[6]; } else { return false;}               // eRefillBtnPin -      6
      if (val[6] >=0 && val[7] <= 255) { eRefillDelayStart = val[7]; } else { return false;}          // eRefillDelayStart -  7
      
      EEPROM.write(351,eFeedingPin); EEPROM.write(352,eFeedingBtnPin); EEPROM.write(353,eFeedingTime); EEPROM.write(354,eFeedingMode); EEPROM.write(361,eRefillPin);
      EEPROM.write(362,eRefillBtnPin); EEPROM.write(363,eRefillDelayStart);
    
  }  
    
  
 /////////////////////////////////////////////////////////////////////////////////////////////
 /////                        Set Date                                                   /////
 /////////////////////////////////////////////////////////////////////////////////////////////
 byte setHour, setMinute, setSecond, setYear, setMonth, setDay;
 
 if (val[0] == 40) {
   if (val[1] >=0 && val[1] <= 23) { setHour = val[1]; } else { return false;}           // setHour -   1
   if (val[2] >=0 && val[2] <= 59) { setMinute = val[2]; } else { return false;}         // setMinute - 2
   if (val[3] >=0 && val[3] <= 59) { setSecond = val[3]; } else { return false;}         // setSecond - 3
   if (val[4] >=15 && val[4] <=99 ) { setYear = val[4]+2000; } else { return false;}     // setYear -   4
   if (val[5] >=1 && val[5] <=99 ) { setMonth = val[5]; } else { return false;}          // setMonth -  5
   if (val[6] >=1 && val[6] <=31 ) { setDay = val[6]; } else { return false;}            // setDay -    5
     
   setTime(setHour,setMinute,setSecond,setDay,setMonth,setYear); // godz, min, sek, dzien, miesiac, rok

RTC.set(now());
   return true;
 }

///////////////////////////////////////////////////////////////////////////////////////////
 /////                       Get Settings                                              /////
 ///////////////////////////////////////////////////////////////////////////////////////////
 if (val[0] == 66 ) 
 {
   int eAddress = 0;
   Serial.write("*66,");
   
   while (eAddress <= 512) 
    {
        Serial.print(EEPROM.read(eAddress));
        Serial.write(",");
        eAddress++;
    }
  Serial.write("#\n");
 }

///////////////////////////////////////////////////////////////////////////////////////////
 /////                       Get Date                                                  /////
 ///////////////////////////////////////////////////////////////////////////////////////////
 if (val[0] == 83 ) 
 {
   Serial.print("*83");
   Serial.write(",");
   Serial.print(tm.Hour);
   Serial.write(",");
   Serial.print(tm.Minute);
   Serial.write(",");
   Serial.print(tm.Second);
   Serial.write(",");
   Serial.print(tmYearToCalendar(tm.Year));
   Serial.write(",");
   Serial.print(tm.Month);
   Serial.write(",");
   Serial.print(tm.Day);
   Serial.println();
    
 }

if (val[0] == 80) 
{
  Serial.println("AQma, version 1.0.2");
}

}

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/********************************************************************************************

/ AQma Computer - version 1.0.2

/ Wszelkie prawa do AQma Computer są zastrzeżone przez autora: Marcina Grunta.

/ Poniższy kod programu można używać i rozpowszechniać za darmo, pod warunkiem

/ zachowania informacji o licencji i autorstwie.

/ Poniższy kod udostępniony jest bez żadnej gwarancji, używasz go na własne ryzyko.

/ Autor nie ponosi odpowiedzialności za szkody, utratę zysków, lub jakiekolwiek

/ inne straty wynikłe w konsekwencji uzywania, lub niemożności użycia poniższego kodu.

/ Pozdrawiam i życzę bezproblemowej pracy:

/ Marcin Grunt, magu@magu.pl

*********************************************************************************************/

#include <Wire.h>

#include <Time.h>

#include <EEPROM.h>

#include <DS1307RTC.h>

#define btnT1Pin 21

#define btnT2Pin 20

#define btnT3Pin 19

#define buzzerPin 18

#define ledPin 13

/* Przekazniki sterowane stanem niskim

\ /

boolean ON=false, OFF=true;

tmElements_t tm;

long unsigned currentTimeSec;

int currentDayOfWeek;

// T1

byte t1Pin, t1Status, t1HOn, t1MOn, t1SOn, t1HOff, t1MOff, t1SOff;

// T2

byte t2Pin, t2Status, t2HOn, t2MOn, t2SOn, t2HOff, t2MOff, t2SOff;

// T3

byte t3Pin, t3Status, t3HOn, t3MOn, t3SOn, t3HOff, t3MOff, t3SOff;

// T4

byte t4Status, t4HOn, t4MOn, t4HOff, t4MOff;

// T5

byte t5Status, t5HOn, t5MOn, t5HOff, t5MOff;

// T6

byte t6Status, t6HOn, t6MOn, t6HOff, t6MOff;

// D1

byte d1Status, d1Flow, d1FlowDec, d1Pin;

byte d1Su ,d1Mo, d1Tu, d1We, d1Th, d1Fr, d1Sa, d1Mode;

byte d11HOn, d11MOn, d11Ml, d11MlDec;

byte d12HOn, d12MOn, d12Ml, d12MlDec;

byte d13HOn, d13MOn, d13Ml, d13MlDec;

byte d14HOn, d14MOn, d14Ml, d14MlDec;

// D2

byte d2Status, d2Flow, d2FlowDec, d2Pin;

byte d2Su ,d2Mo, d2Tu, d2We, d2Th, d2Fr, d2Sa, d2Mode;

byte d21HOn, d21MOn, d21Ml, d21MlDec;

byte d22HOn, d22MOn, d22Ml, d22MlDec;

byte d23HOn, d23MOn, d23Ml, d23MlDec;

byte d24HOn, d24MOn, d24Ml, d24MlDec;

// D3

byte d3Status, d3Flow, d3FlowDec, d3Pin;

byte d3Su ,d3Mo, d3Tu, d3We, d3Th, d3Fr, d3Sa, d3Mode;

byte d31HOn, d31MOn, d31Ml, d31MlDec;

byte d32HOn, d32MOn, d32Ml, d32MlDec;

byte d33HOn, d33MOn, d33Ml, d33MlDec;

byte d34HOn, d34MOn, d34Ml, d34MlDec;

// PWM - 1

byte pwm1Pin, pwm1Status, pwm1HOn, pwm1MOn, pwm1SOn;

byte pwm1HOff, pwm1MOff, pwm1SOff, pwm1Min, pwm1Max;

byte pwm1Sr, pwm1Ss, pwm1KeepLight;

// PWM - 2

byte pwm2Pin, pwm2Status, pwm2HOn, pwm2MOn, pwm2SOn;

byte pwm2HOff, pwm2MOff, pwm2SOff, pwm2Min, pwm2Max;

byte pwm2Sr, pwm2Ss, pwm2KeepLight;

// PWM - 3

byte pwm3Pin, pwm3Status, pwm3HOn, pwm3MOn, pwm3SOn;

byte pwm3HOff, pwm3MOff, pwm3SOff, pwm3Min, pwm3Max;

byte pwm3Sr, pwm3Ss, pwm3KeepLight;

// Feeding

byte feedingPin, feedingBtnPin, feedingTime, feedingMode;

// Delay

boolean delayExecute = false;

// Refill

byte refillPin, refillBtnPin, refillDelayStart;

// Manual mode

boolean t1ManualModeOn = false, t1ManualModeStatus = false, t2ManualModeOn = false, t2ManualModeStatus = false, t3ManualModeOn = false, t3ManualModeStatus = false;

///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

////////////////////////////////////////////////////////////////// SETUP //////////////////////////////////////////////////////////////////////

void setup()

{

Serial.begin(9600);

if (EEPROM.read(0) != 1 && EEPROM.read(1) != 0 && EEPROM.read(2) != 2) { EEPROM.write(0,1);EEPROM.write(1,0);EEPROM.write(2,2); }

eEpromRead();

pinMode(0,OUTPUT); pinMode(1,OUTPUT); pinMode(4, OUTPUT); pinMode(5, OUTPUT);

pinMode(6, OUTPUT); pinMode(7, OUTPUT); pinMode(8, OUTPUT); pinMode(9, OUTPUT);

pinMode(10, OUTPUT); pinMode(11, OUTPUT); pinMode(12, OUTPUT); pinMode(13, OUTPUT);

pinMode(A0, OUTPUT);

pinMode(A1, INPUT_PULLUP); pinMode(A2, INPUT_PULLUP);

pinMode(A3, INPUT_PULLUP); pinMode(A4, INPUT_PULLUP);

pinMode(A5, INPUT_PULLUP);

// Ustaw stany poczatkowe

digitalWrite(0,OFF); digitalWrite(1,OFF); digitalWrite(4,OFF);

digitalWrite(5,OFF); digitalWrite(6,OFF); digitalWrite(7,OFF);

digitalWrite(8,OFF); digitalWrite(9,OFF); digitalWrite(10,OFF);

digitalWrite(11,ON); digitalWrite(13,HIGH);

if (feedingMode == 0) { digitalWrite(feedingPin,ON); } else { digitalWrite(feedingPin,OFF); }

// Pobierz czas

RTC.read(tm);

}

////////////////////////////////////////////////////////////// END SETUP //////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

/// *************************************************************************************************************************************** ///

///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

////////////////////////////////////////////////////////////////// LOOP ///////////////////////////////////////////////////////////////////////

void loop()

{

long unsigned currentMillis= millis();

char cmdOutputArray[64];

char cmdChar = 0;

String cmd = "";

if (RTC.read(tm))

{

currentTimeSec = (long(tm.Hour)*3600) + (long(tm.Minute)*60) + long(tm.Second);

currentDayOfWeek = tm.Wday;

}

// Serial

while (Serial.available() > 0)

{

cmdChar = Serial.read();

// Odkomentuj delay, jezeli uzywasz MEGA 2560!

// delay(4);

cmd.concat(cmdChar);

}

if (cmd != "") {

cmd.toCharArray(cmdOutputArray,64);

if (commandAnalysis(cmdOutputArray))

{

eEpromRead();

}

else

{

Serial.print("666,Bledne dane\n");

}

cmd = "";

//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

//////////////////////////////////////// SILNIK //////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

keyboard(currentMillis);

if ( !t1ManualModeOn && !t2ManualModeOn && !t3ManualModeOn ) { digitalWrite(ledPin, HIGH); }

if (currentMillis%22 == 0 && !t1ManualModeOn) { timer(t1Pin,t1HOn,t1MOn,t1SOn,t1HOff,t1MOff,t1SOff,t1Status); } // T1

if (currentMillis%22 == 0 && t1ManualModeOn) { digitalWrite(t1Pin, t1ManualModeStatus); manualModeBlink(ledPin,currentMillis);}

if (currentMillis%32 == 0 && !t2ManualModeOn) { timer(t2Pin,t2HOn,t2MOn,t2SOn,t2HOff,t2MOff,t2SOff,t2Status); } // T2

if (currentMillis%32 == 0 && t2ManualModeOn) { digitalWrite(t2Pin, t2ManualModeStatus); manualModeBlink(ledPin,currentMillis);}

if (currentMillis%42 == 0 && !t3ManualModeOn) { timer(t3Pin,t3HOn,t3MOn,t3SOn,t3HOff,t3MOff,t3SOff,t3Status); } // T3

if (currentMillis%42 == 0 && t3ManualModeOn) { digitalWrite(t3Pin, t3ManualModeStatus); manualModeBlink(ledPin,currentMillis);}

// Pompa 1

if ( d1Mode == 1 && currentMillis%143 == 0 )

{

if (dayWhenPumpIsOn(1))

{

doser(d1Pin, d1Flow, d1FlowDec, d1Status, d11HOn, d11MOn, d11Ml, d11MlDec, d12HOn, d12MOn, d12Ml, d12MlDec, d13HOn, d13MOn, d13Ml, d13MlDec, d14HOn, d14MOn, d14Ml, d14MlDec );

}

// Pompa 2

if ( d2Mode == 1 && currentMillis%153 == 0)

{

if (dayWhenPumpIsOn(2))

{

doser(d2Pin, d2Flow, d2FlowDec, d2Status, d21HOn, d21MOn, d21Ml, d21MlDec, d22HOn, d22MOn, d22Ml, d22MlDec, d23HOn, d23MOn, d23Ml, d23MlDec, d24HOn, d24MOn, d24Ml, d24MlDec );

}

// Pompa 3

if ( d3Mode == 1 && currentMillis%163 == 0)

{

if (dayWhenPumpIsOn(3))

{

doser(d3Pin, d3Flow, d3FlowDec, d3Status, d31HOn, d31MOn, d31Ml, d31MlDec, d32HOn, d32MOn, d32Ml, d32MlDec, d33HOn, d33MOn, d33Ml, d33MlDec, d34HOn, d34MOn, d34Ml, d34MlDec );

}

// Jak nie Pompa Dozujaca to Timer

if (currentMillis%303 == 0 && d1Mode == 0) { timer(d1Pin,t4HOn,t4MOn,0,t4HOff,t4MOff,0,t4Status); }

if (currentMillis%313 == 0 && d2Mode == 0) { timer(d2Pin,t5HOn,t5MOn,0,t5HOff,t5MOff,0,t5Status); }

if (currentMillis%323 == 0 && d3Mode == 0) { timer(d3Pin,t6HOn,t6MOn,0,t6HOff,t6MOff,0,t6Status); }

// PWM 1 - 3

if (currentMillis%404 == 0 ) {pwm(pwm1Pin, pwm1Status, pwm1HOn, pwm1MOn, pwm1SOn, pwm1HOff, pwm1MOff, pwm1SOff, pwm1Min, pwm1Max, pwm1Sr, pwm1Ss, pwm1KeepLight); }

if (currentMillis%414 == 0 ) {pwm(pwm2Pin, pwm2Status, pwm2HOn, pwm2MOn, pwm2SOn, pwm2HOff, pwm2MOff, pwm2SOff, pwm2Min, pwm2Max, pwm2Sr, pwm2Ss, pwm2KeepLight); }

if (currentMillis%424 == 0 ) {pwm(pwm3Pin, pwm3Status, pwm3HOn, pwm3MOn, pwm3SOn, pwm3HOff, pwm3MOff, pwm3SOff, pwm3Min, pwm3Max, pwm3Sr, pwm3Ss, pwm3KeepLight); }

// Feeding

if ( feedingMode != 0 ) { feeding(feedingPin, feedingBtnPin, feedingTime, currentMillis); }

// Delay On

if (feedingMode == 0 && currentMillis % 1981 == 0)

{

if (currentMillis / 1000 < feedingTime * 60 && !delayExecute)

{

digitalWrite(feedingPin, ON);

}

else

{

digitalWrite(feedingPin, OFF);

delayExecute = true;

}

// Refill

refill(refillPin, refillBtnPin, refillDelayStart, currentMillis);

}

////////////////////////////////////////////////////////////// END LOOP////////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////

///// eEpromRead /////

///////////////////////////////////////////////////////////////////////////

void eEpromRead() {

// T1

t1Pin = EEPROM.read(11); t1Status = EEPROM.read(13);

t1HOn = EEPROM.read(14);t1MOn = EEPROM.read(15); t1SOn =EEPROM.read(16);

t1HOff = EEPROM.read(17);t1MOff = EEPROM.read(18);t1SOff = EEPROM.read(19);

// T2

t2Pin = EEPROM.read(31); t2Status = EEPROM.read(33);

t2HOn = EEPROM.read(34);t2MOn = EEPROM.read(35);t2SOn = EEPROM.read(36);

t2HOff = EEPROM.read(37);t2MOff = EEPROM.read(38);t2SOff = EEPROM.read(39);

// T3

t3Pin = EEPROM.read(51); t3Status = EEPROM.read(53);

t3HOn = EEPROM.read(54);t3MOn = EEPROM.read(55); t3SOn= EEPROM.read(56);

t3HOff = EEPROM.read(57);t3MOff = EEPROM.read(58);t3SOff = EEPROM.read(59);

// T4

t4Status = EEPROM.read(251);

t4HOn = EEPROM.read(252);t4MOn = EEPROM.read(253);

t4HOff = EEPROM.read(254);t4MOff = EEPROM.read(255);

// T5

t5Status = EEPROM.read(261);

t5HOn = EEPROM.read(262);t5MOn = EEPROM.read(263);

t5HOff = EEPROM.read(264);t5MOff = EEPROM.read(265);

// T6

t6Status = EEPROM.read(271);

t6HOn = EEPROM.read(272);t6MOn = EEPROM.read(273);

t6HOff = EEPROM.read(274);t6MOff = EEPROM.read(275);

// D1

d1Status = EEPROM.read(71); d1Flow = EEPROM.read(72);

d1FlowDec = EEPROM.read(73); d1Pin = EEPROM.read(74);

d1Su = EEPROM.read(75);d1Mo = EEPROM.read(76);d1Tu = EEPROM.read(77);

d1We = EEPROM.read(78);d1Th = EEPROM.read(79);d1Fr = EEPROM.read(80);

d1Sa = EEPROM.read(81);d1Mode = EEPROM.read(82);

d11HOn = EEPROM.read(91); d11MOn = EEPROM.read(92);

d11Ml = EEPROM.read(93); d11MlDec =EEPROM.read(94);

d12HOn = EEPROM.read(101); d12MOn = EEPROM.read(102);

d12Ml = EEPROM.read(103); d12MlDec = EEPROM.read(104);

d13HOn = EEPROM.read(111); d13MOn =EEPROM.read(112);

d13Ml = EEPROM.read(113); d13MlDec = EEPROM.read(114);

d14HOn = EEPROM.read(121); d14MOn = EEPROM.read(122);

d14Ml =EEPROM.read(123); d14MlDec = EEPROM.read(124);

// D2

d2Status = EEPROM.read(131); d2Flow = EEPROM.read(132);

d2FlowDec = EEPROM.read(133); d2Pin = EEPROM.read(134);

d2Su = EEPROM.read(135);d2Mo = EEPROM.read(136);d2Tu = EEPROM.read(137);

d2We = EEPROM.read(138);d2Th = EEPROM.read(139);d2Fr = EEPROM.read(140);

d2Sa = EEPROM.read(141);d2Mode = EEPROM.read(142);

d21HOn = EEPROM.read(151); d21MOn = EEPROM.read(152);

d21Ml = EEPROM.read(153); d21MlDec =EEPROM.read(154);

d22HOn = EEPROM.read(161); d22MOn = EEPROM.read(162);

d22Ml = EEPROM.read(163); d22MlDec = EEPROM.read(164);

d23HOn = EEPROM.read(171); d23MOn =EEPROM.read(172);

d23Ml = EEPROM.read(173); d23MlDec = EEPROM.read(174);

d24HOn = EEPROM.read(181); d24MOn = EEPROM.read(182);

d24Ml =EEPROM.read(183); d24MlDec = EEPROM.read(184);

// D3

d3Status = EEPROM.read(191); d3Flow = EEPROM.read(192);

d3FlowDec = EEPROM.read(193); d3Pin = EEPROM.read(194);

d3Su = EEPROM.read(195);d3Mo = EEPROM.read(196);d3Tu = EEPROM.read(197);

d3We = EEPROM.read(198);d3Th = EEPROM.read(199);d3Fr = EEPROM.read(200);

d3Sa = EEPROM.read(201);d3Mode = EEPROM.read(202);

d31HOn = EEPROM.read(211); d31MOn = EEPROM.read(212);

d31Ml = EEPROM.read(213); d31MlDec =EEPROM.read(214);

d32HOn = EEPROM.read(221); d32MOn = EEPROM.read(222);

d32Ml = EEPROM.read(223); d32MlDec = EEPROM.read(224);

d33HOn = EEPROM.read(231); d33MOn =EEPROM.read(232);

d33Ml = EEPROM.read(233); d33MlDec = EEPROM.read(234);

d34HOn = EEPROM.read(241); d34MOn = EEPROM.read(242);

d34Ml =EEPROM.read(243); d34MlDec = EEPROM.read(244);

// PWM - 1

pwm1Pin = EEPROM.read(281); pwm1Status = EEPROM.read(282);

pwm1HOn = EEPROM.read(283); pwm1MOn = EEPROM.read(284);

pwm1SOn = EEPROM.read(285); pwm1HOff = EEPROM.read(286);

pwm1MOff = EEPROM.read(287); pwm1SOff = EEPROM.read(288);

pwm1Min = EEPROM.read(289); pwm1Max = EEPROM.read(290);

pwm1Sr = EEPROM.read(291); pwm1Ss = EEPROM.read(292);

pwm1KeepLight = EEPROM.read(293);

// PWM - 2

pwm2Pin = EEPROM.read(301); pwm2Status = EEPROM.read(302);

pwm2HOn = EEPROM.read(303); pwm2MOn = EEPROM.read(304);

pwm2SOn = EEPROM.read(305); pwm2HOff = EEPROM.read(306);

pwm2MOff = EEPROM.read(307); pwm2SOff = EEPROM.read(308);

pwm2Min = EEPROM.read(309); pwm2Max = EEPROM.read(310);

pwm2Sr = EEPROM.read(311); pwm2Ss = EEPROM.read(312);

pwm2KeepLight = EEPROM.read(313);

// PWM - 3

pwm3Pin = EEPROM.read(331); pwm3Status = EEPROM.read(332);

pwm3HOn = EEPROM.read(333); pwm3MOn = EEPROM.read(334);

pwm3SOn = EEPROM.read(335); pwm3HOff = EEPROM.read(336);

pwm3MOff = EEPROM.read(337); pwm3SOff = EEPROM.read(338);

pwm3Min = EEPROM.read(339); pwm3Max = EEPROM.read(340);

pwm3Sr = EEPROM.read(341); pwm3Ss = EEPROM.read(342);

pwm3KeepLight = EEPROM.read(343);

// Feeding

feedingPin = EEPROM.read(351); feedingBtnPin = EEPROM.read(352);

feedingTime = EEPROM.read(353); feedingMode = EEPROM.read(354);

// Refill

refillPin = EEPROM.read(361); refillBtnPin =EEPROM.read(362);

refillDelayStart = EEPROM.read(363);

}

///////////////////////////////////////////////////////////////////////////////////////

///// TIMER Function /////

///////////////////////////////////////////////////////////////////////////////////////

boolean timer( byte tPin, byte hOn, byte mOn, byte sOn, byte hOff, byte mOff, byte sOff, byte tStatus) //, long currentTimeSec)

{

if (tStatus == 0) { digitalWrite(tPin,OFF); return false; };

boolean state = false;

long tOn = (long(hOn)*3600)+(long(mOn)*60)+long(sOn);

long tOff = (long(hOff)*3600)+(long(mOff)*60)+long(sOff);

if (tOn < tOff) { // Normalnie

if (currentTimeSec >= tOn && currentTimeSec < tOff) { state = true; }

}

if (tOn > tOff) { // Zasuwaj dookola

if (currentTimeSec >= tOn && currentTimeSec <= 86399) { state = true; }

if (currentTimeSec >= 0 && currentTimeSec < tOff) { state = true; }

}

if (state) { digitalWrite(tPin,ON); return true; } else { digitalWrite(tPin,OFF); return false; }

}

///////////////////////////////////////////////////////////////////////////////////////

///// Perystaltic Pump /////

///////////////////////////////////////////////////////////////////////////////////////

{

if (dStatus == 0) {

digitalWrite(dPin,OFF);

return false;

}

long d1On,d2On,d3On,d4On;

d1On = (long(d1HOn)*3600)+(long(d1MOn)*60);

d2On = (long(d2HOn)*3600)+(long(d2MOn)*60);

d3On = (long(d3HOn)*3600)+(long(d3MOn)*60);

d4On = (long(d4HOn)*3600)+(long(d4MOn)*60);

float dosingTimeD1, dosingTimeD2, dosingTimeD3, dosingTimeD4;

dosingTimeD1 = (d1Ml+(0.1*d1MlDec))/((dFlow+(0.1*dFlowDec))/60);

dosingTimeD2 = (d2Ml+(0.1*d2MlDec))/((dFlow+(0.1*dFlowDec))/60);

dosingTimeD3 = (d3Ml+(0.1*d3MlDec))/((dFlow+(0.1*dFlowDec))/60);

dosingTimeD4 = (d4Ml+(0.1*d4MlDec))/((dFlow+(0.1*dFlowDec))/60);

// DX.1 ON/OFF

if (d1On + dosingTimeD1 <= 86399 && currentTimeSec >= d1On && currentTimeSec < d1On + dosingTimeD1)

{

digitalWrite(dPin,ON);

return true;

}

if (d1On + dosingTimeD1 > 86399 && currentTimeSec >= d1On && currentTimeSec <= 86399)

{

digitalWrite(dPin,ON);

return true;

}

if ( d1On + dosingTimeD1 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d1On+dosingTimeD1)-86399)

{

digitalWrite(dPin,ON);

return true;

}

// DX.2 ON/OFF

if (d2On + dosingTimeD2 <= 86399 && currentTimeSec >= d2On && currentTimeSec < d2On + dosingTimeD2)

{

digitalWrite(dPin,ON);

return true;

}

if (d2On + dosingTimeD2 > 86399 && currentTimeSec >= d2On && currentTimeSec <= 86399)

{

digitalWrite(dPin,ON);

return true;

}

if ( d2On + dosingTimeD2 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d2On+dosingTimeD2)-86399)

{

digitalWrite(dPin,ON);

return true;

}

/////////////////

// DX.3 ON/OFF

if (d3On + dosingTimeD3 <= 86399 && currentTimeSec >= d3On && currentTimeSec < d3On + dosingTimeD3)

{

digitalWrite(dPin,ON);

return true;

}

if (d3On + dosingTimeD3 > 86399 && currentTimeSec >= d3On && currentTimeSec <= 86399)

{

digitalWrite(dPin,ON);

return true;

}

if ( d3On + dosingTimeD3 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d3On+dosingTimeD3)-86399)

{

digitalWrite(dPin,ON);

return true;

}

/////////////////

// DX.4 ON/OFF

if (d4On + dosingTimeD4 <= 86399 && currentTimeSec >= d4On && currentTimeSec < d4On + dosingTimeD4)

{

digitalWrite(dPin,ON);

return true;

}

if (d4On + dosingTimeD4 > 86399 && currentTimeSec >= d4On && currentTimeSec <= 86399)

{

digitalWrite(dPin,ON);

return true;

}

if ( d4On + dosingTimeD4 > 86399 && currentTimeSec >= 0 && currentTimeSec <= (d4On+dosingTimeD4)-86399)

{

digitalWrite(dPin,ON);

return true;

}

/////////////////

digitalWrite(dPin,OFF);

return false;

}

////////////////////////////////////////////////////////////////////////////////////////

///// dayWhenPumpIsOn Function /////

////////////////////////////////////////////////////////////////////////////////////////

boolean dayWhenPumpIsOn ( byte pumpNumber)

{

// D1

if ( pumpNumber == 1 ) {

if ( currentDayOfWeek == 1 && d1Su == 1) { return true;} // Niedziela

if ( currentDayOfWeek == 2 && d1Mo == 1) { return true;} // Poniedzialek

if ( currentDayOfWeek == 3 && d1Tu == 1) { return true;} // Wtorek

if ( currentDayOfWeek == 4 && d1We == 1) { return true;} // Sroda

if ( currentDayOfWeek == 5 && d1Th == 1) { return true;} // Czwartek

if ( currentDayOfWeek == 6 && d1Fr == 1) { return true;} // Piatek

if ( currentDayOfWeek == 7 && d1Sa == 1) { return true;} // Sobota

digitalWrite(d1Pin,OFF);

return false;

}

// D2

if ( pumpNumber == 2 ) {

if ( currentDayOfWeek == 1 && d2Su == 1) { return true;} // Niedziela

if ( currentDayOfWeek == 2 && d2Mo == 1) { return true;} // Poniedzialek

if ( currentDayOfWeek == 3 && d2Tu == 1) { return true;} // Wtorek

if ( currentDayOfWeek == 4 && d2We == 1) { return true;} // Sroda

if ( currentDayOfWeek == 5 && d2Th == 1) { return true;} // Czwartek

if ( currentDayOfWeek == 6 && d2Fr == 1) { return true;} // Piatek

if ( currentDayOfWeek == 7 && d2Sa == 1) { return true;} // Sobota

digitalWrite(d2Pin,OFF);

return false;

}

// D3

if ( pumpNumber == 3 ) {

if ( currentDayOfWeek == 1 && d3Su == 1) { return true;} // Niedziela

if ( currentDayOfWeek == 2 && d3Mo == 1) { return true;} // Poniedzialek

if ( currentDayOfWeek == 3 && d3Tu == 1) { return true;} // Wtorek

if ( currentDayOfWeek == 4 && d3We == 1) { return true;} // Sroda

if ( currentDayOfWeek == 5 && d3Th == 1) { return true;} // Czwartek

if ( currentDayOfWeek == 6 && d3Fr == 1) { return true;} // Piatek

if ( currentDayOfWeek == 7 && d3Sa == 1) { return true;} // Sobota

digitalWrite(d3Pin,OFF);

return false;

}

////////////////////////////////////////////////////////////////////////////////////////

///// PWM Function /////

////////////////////////////////////////////////////////////////////////////////////////

boolean pwm(byte pwmPin, byte pwmStatus, byte pwmHOn, byte pwmMOn, byte pwmSOn, byte pwmHOff, byte pwmMOff, byte pwmSOff, byte pwmMin, byte pwmMax, byte pwmSr, byte pwmSs, byte pwmKeepLight)

{

if ( pwmStatus == 0 ) { analogWrite(pwmPin,0); return false; }

long pwmOn = (long(pwmHOn)*3600) + (long(pwmMOn)*60) + long(pwmSOn);

long pwmOff = (long(pwmHOff)*3600) + (long(pwmMOff)*60) + long(pwmSOff);

boolean state = false;

if (pwmOn < pwmOff) { // Normalnie

if (currentTimeSec >= pwmOn && currentTimeSec < pwmOff) { state = true; }

}

if (pwmOn > pwmOff) { // Zasuwaj dookola

if (currentTimeSec >= pwmOn && currentTimeSec <= 86400) { state = true; }

if (currentTimeSec >= 0 && currentTimeSec < pwmOff) { state = true; }

}

if (!state && !pwmKeepLight ) { analogWrite(pwmPin,0); return false; }

if (!state && pwmKeepLight ) { analogWrite(pwmPin,pwmMin); return false; }

////////////////////////////////////

//// Swity

///////////////////////////////////

float jump;

float sunriseLenght = pwmSr*60;

long elapsed;

long pwmSunriseStop = pwmOn + sunriseLenght;

long pwm;

if (sunriseLenght == 0 ) { sunriseLenght = 1;}

jump = ((pwmMax-pwmMin)/sunriseLenght);

if ( pwmSunriseStop < 86399 && currentTimeSec >= pwmOn && currentTimeSec <= pwmSunriseStop ) {

elapsed = sunriseLenght-(sunriseLenght-(currentTimeSec-pwmOn));

pwm = pwmMin+(elapsed*jump);

analogWrite(pwmPin,pwm);

return true;

}

if (( pwmSunriseStop > 86399 && currentTimeSec >= pwmOn && currentTimeSec <= 86399 ) // przez zero

|| pwmSunriseStop > 86399 && currentTimeSec >= 0 && (currentTimeSec < (pwmSunriseStop - 86399)))

{

if (currentTimeSec>=pwmOn && currentTimeSec<=86399)

{

elapsed = (sunriseLenght-(sunriseLenght-(currentTimeSec-pwmOn)));

}

else

{

elapsed = sunriseLenght-(sunriseLenght -(86399-pwmOn+currentTimeSec));

}

pwm = pwmMin+(elapsed*jump);

analogWrite(pwmPin,pwm);

return true;

}

///////////////////////

///// Zmierzchy ///////

///////////////////////

float sunsetLenght = pwmSs*60;

float sunsetStart;

if ( (pwmOff - sunsetLenght) >= 0 )

{

sunsetStart = pwmOff - sunsetLenght;

}

else

{

sunsetStart = 86400 + (pwmOff - sunsetLenght);

}

if (sunsetStart < pwmOff && sunsetStart >= 0 && currentTimeSec >= sunsetStart && currentTimeSec <= pwmOff)

{ // Normalnie

elapsed = (currentTimeSec - sunsetStart);

if (sunsetLenght == 0 ) { sunsetLenght = 1; }

jump = (pwmMax - pwmMin) / sunsetLenght;

pwm = pwmMax - ( elapsed * jump );

analogWrite(pwmPin,pwm);

return true;

}

if (sunsetStart > pwmOff && currentTimeSec >= sunsetStart && currentTimeSec <= 86400)

{

elapsed = (currentTimeSec - sunsetStart);

if (sunsetLenght == 0 ) { sunsetLenght = 1;}

jump = (pwmMax - pwmMin) / sunsetLenght;

pwm = pwmMax - ( elapsed * jump );

analogWrite(pwmPin,pwm);

return true;

}

if (sunsetStart > pwmOff && currentTimeSec >= 0 && currentTimeSec < pwmOff)

{

elapsed = (86400-sunsetStart)+currentTimeSec;

if (sunsetLenght == 0 ) { sunsetLenght = 1;}

jump = ( pwmMax - pwmMin) / sunsetLenght;

pwm = pwmMax-(elapsed * jump);

analogWrite(pwmPin,pwm);

return true;

}

//// Jak sie nic nie zlapalo, to wypal oczy

analogWrite(pwmPin,pwmMax);

}

//////////////

////////////////////////////////////////////////////////////////////////////////////////

///// Feeding Function /////

////////////////////////////////////////////////////////////////////////////////////////

void feeding(byte feedingPin, byte feedingBtnPin, byte feedingTime, unsigned long currentMillis)

{

static unsigned long lastBtnFeedingCountersCheck = 0;

static unsigned long feedingStartTime = 0;

static unsigned long feedingStopTime = 0;

static boolean feeding = false;

static byte btnFeedingCounter = 0;

if ( currentMillis%20 == 0 && (currentMillis - lastBtnFeedingCountersCheck) > 1 )

{

lastBtnFeedingCountersCheck = currentMillis;

if (!digitalRead(feedingBtnPin))

{

btnFeedingCounter++;

}

if (btnFeedingCounter >= 2 && !digitalRead(feedingBtnPin)) { digitalWrite(buzzerPin,HIGH); }

if (btnFeedingCounter >= 2 && digitalRead(feedingBtnPin))

{

feeding = !feeding;

btnFeedingCounter = 0;

digitalWrite(buzzerPin,LOW);

if (feeding)

{

feedingStartTime = currentMillis;

feedingStopTime = currentMillis + (60000 * feedingTime);

digitalWrite(feedingPin, OFF);

return;

}

if (!feeding)

{

feedingStartTime = 0;

feedingStopTime = 0;

digitalWrite(feedingPin, ON);

return;

}

// Karmienie

if ( currentMillis%300 == 0)

{

if (!feeding)

{

digitalWrite(feedingPin, ON);

return;

}

if (feedingStartTime == 0 && feedingStopTime == 0) { digitalWrite(feedingPin,ON); return; }

if (feeding && currentMillis < feedingStartTime ) { digitalWrite(feedingPin,ON); feeding = false; return; }

if (feeding && currentMillis < feedingStopTime)

{

digitalWrite(feedingPin, OFF);

return;

}

if (feeding && currentMillis >= feedingStopTime)

{

feeding = false;

return;

}

////////////////////////////////////////////////////////////////////////////////////////

///// Refill Function /////

////////////////////////////////////////////////////////////////////////////////////////

void refill(byte refillPin, byte refillBtnPin, byte refillDelayStart, unsigned long currentMillis)

{

static unsigned long lastBtnRefillCountersCheck = 0;

static byte btnRefillCounter = 0;

if ( currentMillis%1000 < 3 && (currentMillis - lastBtnRefillCountersCheck) > 4 )

{

lastBtnRefillCountersCheck = currentMillis;

if (!digitalRead(refillBtnPin))

{

btnRefillCounter++;

}

if ( btnRefillCounter <= refillDelayStart )

{

digitalWrite(refillPin,OFF);

return;

}

if ( btnRefillCounter > refillDelayStart && !digitalRead(refillBtnPin) )

{

digitalWrite(refillPin,ON);

}

if ( btnRefillCounter > refillDelayStart && digitalRead(refillBtnPin) )

{

digitalWrite(refillPin,ON);

btnRefillCounter = 0;

}

return;

}

////////////////////////////////////////////////////////////////////////////////////////

///// Keyboard - Function /////

////////////////////////////////////////////////////////////////////////////////////////

void keyboard(unsigned long currentMillis)

{

static unsigned long lastBtnCountersCheck = 0;

static unsigned int btnT1Counter = 0, btnT2Counter = 0, btnT3Counter = 0;

if ( currentMillis%10 == 0 )

{

lastBtnCountersCheck = currentMillis;

if (!digitalRead(btnT1Pin))

{

btnT1Counter++;

}

if ( btnT1Counter > 2 && btnT1Counter <= 100 && digitalRead(btnT1Pin) )

{

t1ManualModeOn = true;

btnT1Counter = 0;

t1ManualModeStatus = !digitalRead(t1Pin);

return;

}

if ( btnT1Counter > 100 && !digitalRead(btnT1Pin) )

{

t1ManualModeOn = false;

digitalWrite(buzzerPin,HIGH);

}

if ( btnT1Counter > 100 && digitalRead(btnT1Pin) )

{

btnT1Counter= 0;

t1ManualModeOn = false;

digitalWrite(buzzerPin,LOW);

}

/// T2

if (!digitalRead(btnT2Pin))

{

btnT2Counter++;

}

if ( btnT2Counter > 2 && btnT2Counter <= 100 && digitalRead(btnT2Pin) )

{

t2ManualModeOn = true;

btnT2Counter = 0;

t2ManualModeStatus = !digitalRead(t2Pin);

return;

}

if ( btnT2Counter > 100 && !digitalRead(btnT2Pin) )

{

t2ManualModeOn = false;

digitalWrite(buzzerPin,HIGH);

}

if ( btnT2Counter > 100 && digitalRead(btnT2Pin) )

{

btnT2Counter= 0;

t2ManualModeOn = false;

digitalWrite(buzzerPin,LOW);

}

/// T3

if (!digitalRead(btnT3Pin))

{

btnT3Counter++;

}

if ( btnT3Counter > 2 && btnT3Counter <= 100 && digitalRead(btnT3Pin) )

{

t3ManualModeOn = true;

btnT3Counter = 0;

t3ManualModeStatus = !digitalRead(t3Pin);

return;

}

if ( btnT3Counter > 100 && !digitalRead(btnT3Pin) )

{

t3ManualModeOn = false;

digitalWrite(buzzerPin,HIGH);

}

if ( btnT3Counter > 100 && digitalRead(btnT3Pin) )

{

btnT3Counter= 0;

t3ManualModeOn = false;

digitalWrite(buzzerPin,LOW);

}

return;

}

////////////////////////////////////////////////////////////////////////////////////////

///// manualModeBlink - Functions /////

////////////////////////////////////////////////////////////////////////////////////////

void manualModeBlink(byte blinkPin, unsigned long currentMillis)

{

static unsigned long lastBlinkTime = 0;

static boolean blinkState = false;

if ( (currentMillis - lastBlinkTime) > 800 )

{

lastBlinkTime = currentMillis;

blinkState = !blinkState;

digitalWrite(blinkPin,blinkState);

}

////////////////////////////////////////////////////////////////////////////////////////

///// Analysis /////

////////////////////////////////////////////////////////////////////////////////////////

boolean commandAnalysis(char cmdOutputArray[64]){

unsigned int val[64];

char *cmdVal;

int i = 0;

cmdVal = strtok(cmdOutputArray, ",");

while (cmdVal)

{

val[i++] = atoi(cmdVal);

cmdVal = strtok(NULL, ",");

}

///////////////////////////////////////////////////////////////////////////////////////

///// Timer 1 EPROM /////

///////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 1) {

byte eT1Pin, eT1Status, eT1HOn, eT1MOn, eT1SOn, eT1HOff, eT1MOff, eT1SOff;

if (val[1] >=0 && val[1] <= 99) { eT1Pin = val[1]; } else { return false;} // eT1pin - 1

if (val[2] >=0 && val[2] <= 1) { eT1Status = val[2];} else { return false;} // eT1_1_status 3

if (val[3] >=0 && val[3] <= 23) { eT1HOn = val[3]; } else { return false;} // 4

if (val[4] >=0 && val[4] <= 59) { eT1MOn = val[4]; } else { return false;} // 5

if (val[5] >=0 && val[5] <= 59) { eT1SOn = val[5]; } else { return false;} // 6

if (val[6] >=0 && val[6] <= 23) { eT1HOff = val[6]; } else { return false;} // 7

if (val[7] >=0 && val[7] <= 59) { eT1MOff = val[7]; } else { return false;} // 8

if (val[8] >=0 && val[8] <= 59) { eT1SOff = val[8]; } else { return false;} // 9

EEPROM.write(11,eT1Pin);EEPROM.write(13,eT1Status);

EEPROM.write(14,eT1HOn);EEPROM.write(15,eT1MOn);EEPROM.write(16,eT1SOn);

EEPROM.write(17,eT1HOff);EEPROM.write(18,eT1MOff);EEPROM.write(19,eT1SOff);

return true;

} // T1

//////////////////////////////////////////////////////////////////////////////////////

///// Timer 2 EPROM /////

//////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 2) {

byte eT2Pin, eT2Status, eT2HOn, eT2MOn, eT2SOn, eT2HOff, eT2MOff, eT2SOff;

// Timer 2

if (val[1] >=0 && val[1] <= 99) { eT2Pin = val[1]; } else { return false;} // eT2pin - 1

if (val[2] >=0 && val[2] <= 1) { eT2Status = val[2];} else { return false;} // eT2_1_status - 3

if (val[3] >=0 && val[3] <= 23) { eT2HOn = val[3]; } else { return false;} // eT2hOn1 - 4

if (val[4] >=0 && val[4] <= 59) { eT2MOn = val[4]; } else { return false;} // eT2mOn1 - 5

if (val[5] >=0 && val[5] <= 59) { eT2SOn = val[5]; } else { return false;} // eT2sOn1 - 6

if (val[6] >=0 && val[6] <= 23) { eT2HOff = val[6]; } else { return false;} // eT2hOff1 - 7

if (val[7] >=0 && val[7] <= 59) { eT2MOff = val[7]; } else { return false;} // eT2mOff1 - 8

if (val[8] >=0 && val[8] <= 59) { eT2SOff = val[8]; } else { return false;} // eT2sOff1 - 9

EEPROM.write(31,eT2Pin);EEPROM.write(33,eT2Status);

EEPROM.write(34,eT2HOn);EEPROM.write(35,eT2MOn);EEPROM.write(36,eT2SOn);

EEPROM.write(37,eT2HOff);EEPROM.write(38,eT2MOff);EEPROM.write(39,eT2SOff);

return true;

} // T2

////////////////////////////////////////////////////////////////////////////////////////

///// Timer 3 EPROM /////

////////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 3) {

byte eT3Pin, eT3Status, eT3HOn, eT3MOn, eT3SOn, eT3HOff, eT3MOff, eT3SOff;

// Timer 3 //

if (val[1] >=0 && val[1] <= 99) { eT3Pin = val[1]; } else { return false;} // eT3pin - 1

if (val[2] >=0 && val[2] <= 1) { eT3Status = val[2]; } else { return false;} // eT3state - 2

if (val[3] >=0 && val[3] <= 23) { eT3HOn = val[3]; } else { return false;} // eT3hOn1 - 4

if (val[4] >=0 && val[4] <= 59) { eT3MOn = val[4]; } else { return false;} // eT3mOn1 - 5

if (val[5] >=0 && val[5] <= 59) { eT3SOn = val[5]; } else { return false;} // eT3sOn1 - 6

if (val[6] >=0 && val[6] <= 23) { eT3HOff = val[6]; } else { return false;} // eT3hOff1 - 7

if (val[7] >=0 && val[7] <= 59) { eT3MOff = val[7]; } else { return false;} // eT3mOff1 - 8

if (val[8] >=0 && val[8] <= 59) { eT3SOff = val[8]; } else { return false;} // eT3sOff1 - 9

EEPROM.write(51,eT3Pin); EEPROM.write(53,eT3Status);

EEPROM.write(54,eT3HOn);EEPROM.write(55,eT3MOn);EEPROM.write(56,eT3SOn);

EEPROM.write(57,eT3HOff);EEPROM.write(58,eT3MOff);EEPROM.write(59,eT3SOff);

return true;

} // T3

/////////////////////////////////////////////////////////////////////////////////////////

///// Peristaltic Pump 1, EPROM /////

/////////////////////////////////////////////////////////////////////////////////////////

// D1

if (val[0] == 4) {

byte eD1Status, eD1Flow, eD1FlowDec, eD1Pin, eD1Su, eD1Mo, eD1Tu, eD1We, eD1Th, eD1Fr, eD1Sa, eD1Mode ;

// Dosing Pump //

if (val[1] >=0 && val[1] <= 1) { eD1Status = val[1]; } else { return false;} // eD1Status - 1

if (val[2] >=0 && val[2] <= 250) { eD1Flow = val[2]; } else { return false;} // eD1Flow - 2

if (val[3] >=0 && val[3] <= 9) { eD1FlowDec = val[3]; } else { return false;} // eD1FlowDec - 3

if (val[4] >=0 && val[4] <= 99) { eD1Pin = val[4]; } else { return false;} // eD1Pin - 4

if (val[5] >=0 && val[5] <= 1) { eD1Su = val[5]; } else { return false;} // eD1Su - 5

if (val[6] >=0 && val[6] <= 1) { eD1Mo = val[6]; } else { return false;} // eD1Mo - 6

if (val[7] >=0 && val[7] <= 1) { eD1Tu = val[7]; } else { return false;} // eD1Tu - 7

if (val[8] >=0 && val[8] <= 1) { eD1We = val[8]; } else { return false;} // eD1we - 8

if (val[9] >=0 && val[9] <= 1) { eD1Th = val[9]; } else { return false;} // eD2Th - 9

if (val[10] >=0 && val[10] <= 1) { eD1Fr = val[10]; } else { return false;} // eD1Fr - 10

if (val[11] >=0 && val[11] <= 1) { eD1Sa = val[11]; } else { return false;} // eD1Sa - 11

if (val[12] >=0 && val[12] <= 1) { eD1Mode = val[12]; } else { return false;} // eD1Mode - 12

EEPROM.write(71,eD1Status); EEPROM.write(72,eD1Flow);

EEPROM.write(73,eD1FlowDec);EEPROM.write(74,eD1Pin);

EEPROM.write(75,eD1Su);EEPROM.write(76,eD1Mo);EEPROM.write(77,eD1Tu);

EEPROM.write(78,eD1We);EEPROM.write(79,eD1Th);EEPROM.write(80,eD1Fr);

EEPROM.write(81,eD1Sa);EEPROM.write(82,eD1Mode);

return true;

} //

// D1.1 EPROM WRITE ///////////////

if (val[0] == 5) {

byte eD11HOn, eD11MOn, eD11Ml, eD11MlDec;

if (val[1] >=0 && val[1] <= 23) { eD11HOn = val[1]; } else { return false;} // eD11HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD11MOn = val[2]; } else { return false;} // eD11MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD11Ml = val[3]; } else { return false;} // eD11Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD11MlDec = val[4]; } else { return false;} // eD11MlDec - 4

EEPROM.write(91,eD11HOn); EEPROM.write(92,eD11MOn);

EEPROM.write(93,eD11Ml); EEPROM.write(94,eD11MlDec);

}

// D1.2 EPROM WRITE ///////////////

if (val[0] == 6) {

byte eD12HOn, eD12MOn, eD12Ml, eD12MlDec;

if (val[1] >=0 && val[1] <= 23) { eD12HOn = val[1]; } else { return false;} // eD12HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD12MOn = val[2]; } else { return false;} // eD12MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD12Ml = val[3]; } else { return false;} // eD12Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD12MlDec = val[4]; } else { return false;} // eD12MlDec - 4

EEPROM.write(101,eD12HOn); EEPROM.write(102,eD12MOn);

EEPROM.write(103,eD12Ml); EEPROM.write(104,eD12MlDec);

}

// D1.3 EPROM WRITE ///////////////

if (val[0] == 7) {

byte eD13HOn, eD13MOn, eD13Ml, eD13MlDec;

if (val[1] >=0 && val[1] <= 23) { eD13HOn = val[1]; } else { return false;} // eD13HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD13MOn = val[2]; } else { return false;} // eD13MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD13Ml = val[3]; } else { return false;} // eD13Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD13MlDec = val[4]; } else { return false;} // eD13MlDec - 4

EEPROM.write(111,eD13HOn); EEPROM.write(112,eD13MOn);

EEPROM.write(113,eD13Ml); EEPROM.write(114,eD13MlDec);

}

// D1.4 EPROM WRITE ///////////////

if (val[0] == 8) {

byte eD14HOn, eD14MOn, eD14Ml, eD14MlDec;

if (val[1] >=0 && val[1] <= 23) { eD14HOn = val[1]; } else { return false;} // eD14HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD14MOn = val[2]; } else { return false;} // eD14MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD14Ml = val[3]; } else { return false;} // eD14Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD14MlDec = val[4]; } else { return false;} // eD14MlDec - 4

EEPROM.write(121,eD14HOn); EEPROM.write(122,eD14MOn);

EEPROM.write(123,eD14Ml); EEPROM.write(124,eD14MlDec);

}

/////////////////////////////////////////////////////////////////////////////////////////

///// Peristaltic Pump 2, EPROM /////

/////////////////////////////////////////////////////////////////////////////////////////

// D2

if (val[0] == 9) {

byte eD2Status, eD2Flow, eD2FlowDec, eD2Pin, eD2Su, eD2Mo, eD2Tu, eD2We, eD2Th, eD2Fr, eD2Sa, eD2Mode;

// Dosing Pump //

if (val[1] >=0 && val[1] <= 1) { eD2Status = val[1]; } else { return false;} // eD2Status - 1

if (val[2] >=0 && val[2] <= 250) { eD2Flow = val[2]; } else { return false;} // eD2Flow - 2

if (val[3] >=0 && val[3] <= 9) { eD2FlowDec = val[3]; } else { return false;} // eD2FlowDec - 3

if (val[4] >=0 && val[4] <= 99) { eD2Pin = val[4]; } else { return false;} // eD2Pin - 4

if (val[5] >=0 && val[5] <= 1) { eD2Su = val[5]; } else { return false;} // eD2Su - 5

if (val[6] >=0 && val[6] <= 1) { eD2Mo = val[6]; } else { return false;} // eD2Mo - 6

if (val[7] >=0 && val[7] <= 1) { eD2Tu = val[7]; } else { return false;} // eD2Tu - 7

if (val[8] >=0 && val[8] <= 1) { eD2We = val[8]; } else { return false;} // eD2we - 8

if (val[9] >=0 && val[9] <= 1) { eD2Th = val[9]; } else { return false;} // eD2Th - 9

if (val[10] >=0 && val[10] <= 1) { eD2Fr = val[10]; } else { return false;} // eD2Fr - 10

if (val[11] >=0 && val[11] <= 1) { eD2Sa = val[11]; } else { return false;} // eD2Sa - 11

if (val[12] >=0 && val[12] <= 1) { eD2Mode = val[12]; } else { return false;} // eD2Mode - 12

EEPROM.write(131,eD2Status); EEPROM.write(132,eD2Flow);

EEPROM.write(133,eD2FlowDec);EEPROM.write(134,eD2Pin);

EEPROM.write(135,eD2Su);EEPROM.write(136,eD2Mo);EEPROM.write(137,eD2Tu);

EEPROM.write(138,eD2We);EEPROM.write(139,eD2Th);EEPROM.write(140,eD2Fr);

EEPROM.write(141,eD2Sa);EEPROM.write(142,eD2Mode);

return true;

} //

// D2.1 EPROM WRITE ///////////////

if (val[0] == 10) {

byte eD21HOn, eD21MOn, eD21Ml, eD21MlDec;

if (val[1] >=0 && val[1] <= 23) { eD21HOn = val[1]; } else { return false;} // eD21HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD21MOn = val[2]; } else { return false;} // eD21MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD21Ml = val[3]; } else { return false;} // eD21Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD21MlDec = val[4]; } else { return false;} // eD21MlDec - 4

EEPROM.write(151,eD21HOn); EEPROM.write(152,eD21MOn);

EEPROM.write(153,eD21Ml); EEPROM.write(154,eD21MlDec);

}

// D2.2 EPROM WRITE ///////////////

if (val[0] == 11) {

byte eD22HOn, eD22MOn, eD22Ml, eD22MlDec;

if (val[1] >=0 && val[1] <= 23) { eD22HOn = val[1]; } else { return false;} // eD22HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD22MOn = val[2]; } else { return false;} // eD22MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD22Ml = val[3]; } else { return false;} // eD22Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD22MlDec = val[4]; } else { return false;} // eD22MlDec - 4

EEPROM.write(161,eD22HOn); EEPROM.write(162,eD22MOn);

EEPROM.write(163,eD22Ml); EEPROM.write(164,eD22MlDec);

}

// D2.3 EPROM WRITE ///////////////

if (val[0] == 12) {

byte eD23HOn, eD23MOn, eD23Ml, eD23MlDec;

if (val[1] >=0 && val[1] <= 23) { eD23HOn = val[1]; } else { return false;} // eD23HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD23MOn = val[2]; } else { return false;} // eD23MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD23Ml = val[3]; } else { return false;} // eD23Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD23MlDec = val[4]; } else { return false;} // eD23MlDec - 4

EEPROM.write(171,eD23HOn); EEPROM.write(172,eD23MOn);

EEPROM.write(173,eD23Ml); EEPROM.write(174,eD23MlDec);

}

// D2.4 EPROM WRITE ///////////////

if (val[0] == 13) {

byte eD24HOn, eD24MOn, eD24Ml, eD24MlDec;

if (val[1] >=0 && val[1] <= 23) { eD24HOn = val[1]; } else { return false;} // eD24HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD24MOn = val[2]; } else { return false;} // eD24MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD24Ml = val[3]; } else { return false;} // eD24Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD24MlDec = val[4]; } else { return false;} // eD24MlDec - 4

EEPROM.write(181,eD24HOn); EEPROM.write(182,eD24MOn);

EEPROM.write(183,eD24Ml); EEPROM.write(184,eD24MlDec);

}

/////////////////////////////////////////////////////////////////////////////////////////

///// Peristaltic Pump 3, EPROM /////

/////////////////////////////////////////////////////////////////////////////////////////

// D3

if (val[0] == 14) {

byte eD3Status, eD3Flow, eD3FlowDec, eD3Pin, eD3Su, eD3Mo, eD3Tu, eD3We, eD3Th, eD3Fr, eD3Sa, eD3Mode ;

// Dosing Pump //

if (val[1] >=0 && val[1] <= 1) { eD3Status = val[1]; } else { return false;} // eD3Status - 1

if (val[2] >=0 && val[2] <= 250) { eD3Flow = val[2]; } else { return false;} // eD3Flow - 2

if (val[3] >=0 && val[3] <= 9) { eD3FlowDec = val[3]; } else { return false;} // eD3FlowDec - 3

if (val[4] >=0 && val[4] <= 99) { eD3Pin = val[4]; } else { return false;} // eD3Pin - 4

if (val[5] >=0 && val[5] <= 1) { eD3Su = val[5]; } else { return false;} // eD3Su - 5

if (val[6] >=0 && val[6] <= 1) { eD3Mo = val[6]; } else { return false;} // eD3Mo - 6

if (val[7] >=0 && val[7] <= 1) { eD3Tu = val[7]; } else { return false;} // eD3Tu - 7

if (val[8] >=0 && val[8] <= 1) { eD3We = val[8]; } else { return false;} // eD3we - 8

if (val[9] >=0 && val[9] <= 1) { eD3Th = val[9]; } else { return false;} // eD3Th - 9

if (val[10] >=0 && val[10] <= 1) { eD3Fr = val[10]; } else { return false;} // eD3Fr - 10

if (val[11] >=0 && val[11] <= 1) { eD3Sa = val[11]; } else { return false;} // eD3Sa - 11

if (val[12] >=0 && val[12] <= 1) { eD3Mode = val[12]; } else { return false;} // eD3Mode - 12

EEPROM.write(191,eD3Status); EEPROM.write(192,eD3Flow);

EEPROM.write(193,eD3FlowDec);EEPROM.write(194,eD3Pin);

EEPROM.write(195,eD3Su);EEPROM.write(196,eD3Mo);EEPROM.write(197,eD3Tu);

EEPROM.write(198,eD3We);EEPROM.write(199,eD3Th);EEPROM.write(200,eD3Fr);

EEPROM.write(201,eD3Sa);EEPROM.write(202,eD3Mode);

return true;

} //

// D3.1 EPROM WRITE ///////////////

if (val[0] == 15) {

byte eD31HOn, eD31MOn, eD31Ml, eD31MlDec;

if (val[1] >=0 && val[1] <= 23) { eD31HOn = val[1]; } else { return false;} // eD31HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD31MOn = val[2]; } else { return false;} // eD31MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD31Ml = val[3]; } else { return false;} // eD31Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD31MlDec = val[4]; } else { return false;} // eD31MlDec - 4

EEPROM.write(211,eD31HOn); EEPROM.write(212,eD31MOn);

EEPROM.write(213,eD31Ml); EEPROM.write(214,eD31MlDec);

}

// D3.2 EPROM WRITE ///////////////

if (val[0] == 16) {

byte eD32HOn, eD32MOn, eD32Ml, eD32MlDec;

if (val[1] >=0 && val[1] <= 23) { eD32HOn = val[1]; } else { return false;} // eD32HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD32MOn = val[2]; } else { return false;} // eD32MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD32Ml = val[3]; } else { return false;} // eD32Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD32MlDec = val[4]; } else { return false;} // eD32MlDec - 4

EEPROM.write(221,eD32HOn); EEPROM.write(222,eD32MOn);

EEPROM.write(223,eD32Ml); EEPROM.write(224,eD32MlDec);

}

// D3.3 EPROM WRITE ///////////////

if (val[0] == 17) {

byte eD33HOn, eD33MOn, eD33Ml, eD33MlDec;

if (val[1] >=0 && val[1] <= 23) { eD33HOn = val[1]; } else { return false;} // eD33HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD33MOn = val[2]; } else { return false;} // eD33MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD33Ml = val[3]; } else { return false;} // eD33Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD33MlDec = val[4]; } else { return false;} // eD33MlDec - 4

EEPROM.write(231,eD33HOn); EEPROM.write(232,eD33MOn);

EEPROM.write(233,eD33Ml); EEPROM.write(234,eD33MlDec);

}

// D3.4 EPROM WRITE ///////////////

if (val[0] == 18) {

byte eD34HOn, eD34MOn, eD34Ml, eD34MlDec;

if (val[1] >=0 && val[1] <= 23) { eD34HOn = val[1]; } else { return false;} // eD34HOn - 1

if (val[2] >=0 && val[2] <= 59) { eD34MOn = val[2]; } else { return false;} // eD34MOn - 2

if (val[3] >=0 && val[3] <= 250) { eD34Ml = val[3]; } else { return false;} // eD34Ml - 3

if (val[4] >=0 && val[4] <= 9) { eD34MlDec = val[4]; } else { return false;} // eD34MlDec - 4

EEPROM.write(241,eD34HOn); EEPROM.write(242,eD34MOn);

EEPROM.write(243,eD34Ml); EEPROM.write(244,eD34MlDec);

}

//////////////////////////////////////////////////////////////////////////////////////////////

///// Timer 1,2,3 Status EPROM /////

//////////////////////////////////////////////////////////////////////////////////////////////

if (val[0] == 21) {

byte eT1Status;

if (val[1] >=0 && val[1] <= 1) { eT1Status = val[1]; } else { return false;}

EEPROM.write(13,eT1Status);

}

if (val[0] == 22) {

byte eT2Status;

if (val[1] >=0 && val[1] <= 1) { eT2Status = val[1]; } else { return false;}

EEPROM.write(33,eT2Status);

}

if (val[0] == 23) {

byte eT3Status;

if (val[1] >=0 && val[1] <= 1) { eT3Status = val[1]; } else { return false;}

EEPROM.write(53,eT3Status);

}

//////////////////////////////////////////////////////////////////////////////////////////////

///// Timer 4,5,6 EPROM /////

//////////////////////////////////////////////////////////////////////////////////////////////

// T4

if (val[0] == 24) {

byte eD1Pin, eT4Status, eT4HOn, eT4MOn, eT4HOff, eT4MOff, eD1Mode ;

if (val[1] >=0 && val[1] <= 99) { eD1Pin = val[1]; } else { return false;} // eD1pin - 1

if (val[2] >=0 && val[2] <= 1) { eT4Status = val[2]; } else { return false;} // eT4Status - 2

if (val[3] >=0 && val[3] <= 23) { eT4HOn = val[3]; } else { return false;} // eT4HOn - 3

if (val[4] >=0 && val[4] <= 59) { eT4MOn = val[4]; } else { return false;} // eT4MOn - 4

if (val[5] >=0 && val[5] <= 23) { eT4HOff = val[5]; } else { return false;} // eT4HOff - 5

if (val[6] >=0 && val[6] <= 59) { eT4MOff = val[6]; } else { return false;} // eT4MOff - 6

if (val[7] >=0 && val[7] <= 1) { eD1Mode = val[7]; } else { return false;} // eD1Mode - 7

EEPROM.write(251,eT4Status); EEPROM.write(252,eT4HOn);

EEPROM.write(253,eT4MOn); EEPROM.write(254,eT4HOff);

EEPROM.write(255,eT4MOff); EEPROM.write(74,eD1Pin);

EEPROM.write(82,eD1Mode);

}

// T5

if (val[0] == 25) {

byte eD2Pin, eT5Status, eT5HOn, eT5MOn, eT5HOff, eT5MOff, eD2Mode ;

if (val[1] >=0 && val[1] <= 99) { eD2Pin = val[1]; } else { return false;} // eD2pin - 1

if (val[2] >=0 && val[2] <= 1) { eT5Status = val[2]; } else { return false;} // eT5Status - 2

if (val[3] >=0 && val[3] <= 23) { eT5HOn = val[3]; } else { return false;} // eT5HOn - 3

if (val[4] >=0 && val[4] <= 59) { eT5MOn = val[4]; } else { return false;} // eT5MOn - 4

if (val[5] >=0 && val[5] <= 23) { eT5HOff = val[5]; } else { return false;} // eT5HOff - 5

if (val[6] >=0 && val[6] <= 59) { eT5MOff = val[6]; } else { return false;} // eT5MOff - 6

if (val[7] >=0 && val[7] <= 1) { eD2Mode = val[7]; } else { return false;} // eD2Mode - 7

EEPROM.write(261,

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