Replacement caps...
float MainsMinV = 216.2; // This sets the lower limit for the mains voltage. Change this to suit your local voltage limit float MainsMaxV= 253; // Maximum voltage limit float BatteryMin=11.2; // Battery low limit float MainsMinF=49.5; // Minimum allowable mains frequency limit, change to suit local power float MainsMaxF=50.5; // Maximum allowable mains frequency limit.You will also need to change line 260 :
Serial.println("AT + CMGS = \"+44xxxxxxxxxx\"");// recipient's mobile number, in international formatIf your mains is not ~240v, you will also need to change the scaling factor in the software , line 286, so the voltage reads correctly. Currently the mains voltage is scaled so 250V is equal to 5V at our micro. If, say, you're on 120V mains, and want the voltage to top out at , say 130V, then the scaling will be 130/5 = 26. It's currently set to 51, so 5V on our analogue port reads as 255V :
ACVoltage = (sensorValue * (5.0 / 1023.0))*51;
BTW. Sainsbury's is my service provider!
Electrical Safety is paramount. Here is the incoming mains earth (ground) securely tied to the chassis of my metal case.
if ( Temp <=1 ) { // Frost protection. If it's less than 1 deg - don't run. DewFlag = false; Timer = 0; }
// Dew detect loop. If the dewTrip point is reached, or the maintenance timer is 129600, or the humidity is greater than 65%, start the timer running and set the Dew flag if ( Temp <= DewTrip || Timer2 == 129600 || Humidity >= 65 ) { DewFlag = true; Timer = 1; Timer2 = 0; // reset maintenance timer } else { DewFlag = false; }
So the whole code now looks like this:
// Wireless dehumidifier Controller // // Copyright Andy Doswell 24th May 2014 modified Dec 2014. // PURPOSE: DHT22 sensor with LCD Display and output for controlling dehumidifier. // Data send via virtualwire and 433MHZ link to remote display // Dehumidifier is controlled by a relay attached to pin 7, defined in rlyPin. // DHT22 sensor is connected to 8, as defined in #define // LCD is a Hitachi HD44780 or compatible, attached thus: // LCD RS pin to digital pin 12 // LCD Enable pin to digital pin 11 // LCD D4 pin to digital pin 5 // LCD D5 pin to digital pin 4 // LCD D6 pin to digital pin 3 // LCD D7 pin to digital pin 2 // RW to GND // V0 Held high (this may or may not work with your LCD, usual practice is to connect this to a 10K pot between +5 and GND) // TX connected to pin 10 // Modified to transmit every 198 seconds, and to switch dehumidifier on when Dewpoint is within 5 Degrees of actual temperature // Also brings dehumidifer on every 3 days regardless of temperature or humidity. // You'll need the wonderful dht library by Rob Tillaart from here : https://github.com/RobTillaart/Arduino/tree/master/libraries/DHTlib // and the equally wonderful Virtualwire library from here :https://www.pjrc.com/teensy/td_libs_VirtualWire.html // 21 Sep 2015 - 65% humidity upper limit added // - Frost protection added // reference: http://en.wikipedia.org/wiki/Dew_point double dewPointFast(double celsius, double humidity) { double a = 17.271; double b = 237.7; double temp = (a * celsius) / (b + celsius) + log(humidity*0.01); double Td = (b * temp) / (a - temp); return Td; } #include <VirtualWire.h> #include <VirtualWire_Config.h> #include <dht.h> dht DHT; #define DHT22_PIN 8 #include <LiquidCrystal.h> LiquidCrystal lcd(12, 11, 5, 4, 3, 2); // define constants & global variables const int rlyPin = 7; //defines pin the relay is connected to. relay is active low const int TimerLength = 2700;// number of seconds in an 90 mins / 2 - this sets the minimum time the dehumidifier will remain on for. int Timer = 0; //timer is off to start boolean DewFlag = false; // This is the dew flag. Off as default. boolean OutputStatus = false; //Output status is off as default int chk; int Temp; int Dew; int Humidity; int DewTrip; float Timer2 = 0; //maintenance timer - used to run the compressor every ~3 days // Data structure set up for Transmission struct TXData { int TX_ID; int Temp; int Humidity; int Dew; boolean Output; }; void setup() { lcd.begin(16, 2); // defines the LCD as a 16 x 2 pinMode (rlyPin, OUTPUT); // sets our relay pin digitalWrite (rlyPin, HIGH); // sets the relay off for default condition. // Virtualwire setup vw_set_tx_pin(10); // TX pin set to 10 vw_set_rx_pin(9); // RX pin set to a spare pin, even though we don't use it. If left as default it interferes with LCD operation. vw_setup(300); //sets virtualwire for a tx rate of 300 bits per second } void loop() { for(int i = 0; i < 100 ; i++) { //transmit only every 99 loops (198 seconds) chk = DHT.read22(DHT22_PIN); // these 4 lines get data from the sensor Dew = dewPointFast(DHT.temperature, DHT.humidity); Temp = (DHT.temperature); Humidity = (DHT.humidity); DewTrip= Dew + 5; // Brings the dehumidifier on 5 deg C before the dew point. // writes information about the system to the LCD lcd.clear (); lcd.print("Humidity:"); lcd.print(Humidity); lcd.print("%"); lcd.setCursor(0, 1); lcd.print(Temp); lcd.print((char)0xDF); lcd.print("C"); lcd.setCursor(6, 1); lcd.print("Dew:"); lcd.print(Dew); lcd.print((char)0xDF); lcd.print("C"); // Dew detect loop. If the dewTrip point is reached, or the maintenance timer is 129600, or the humidity is greater than 65%, start the timer running and set the Dew flag if ( Temp <= DewTrip || Timer2 == 129600 || Humidity >= 65 ) { DewFlag = true; Timer = 1; Timer2 = 0; // reset maintenance timer } else { DewFlag = false; } if ( Temp <=1 ) { // Frost protection. If it's less than 1 deg - don't run. DewFlag = false; Timer = 0; } if (Timer >= TimerLength and DewFlag == false) { // If the timer has expired and there's no dew, switch the dehumidifier off. Timer = 0; digitalWrite (rlyPin, HIGH); } if (Timer !=0) { // If the timer is running, switch the dehumidifier on , and write On to the lcd. digitalWrite (rlyPin, LOW); lcd.setCursor (13,0); lcd.print (" On"); OutputStatus = true; Timer++; } else { lcd.setCursor (13,0); lcd.print ("off"); OutputStatus = false; } delay (2000); Timer2 ++; } struct TXData payload; //Loads the Data struct with the payload data lcd.clear (); lcd.print ("Transmitting"); payload.TX_ID=10; payload.Temp = Temp; payload.Humidity = Humidity; payload.Dew = Dew; payload.Output = OutputStatus; vw_send((uint8_t *)&payload, sizeof(payload)); //Transmits the struct vw_wait_tx(); //waits for the TX to complete }
// Over-Ride feature flag for Raminda Subhashana boolean OverRideFlag = false;
OK. Now we need to tell the arduino what we need pin A1 to be doing... Add this line to the setup..
pinMode(A1,INPUT);// Over ride push button connected to A1 (and GND) digitalWrite(A1,HIGH);
This tells the arduino that A1 is an input, and we want to pull it high when the button is open circuit.
Now in the Loop we need to check the status of the button.
buttonstate = digitalRead(A1);// check to see if our override button is pressed, if it is, set the flag if (buttonstate == LOW ) { OverRideFlag=true; }
Here we set the temporary variable buttonstate (also used elsewhere) to the value of A1, if it's low, we set our OverRideFlag to be true.
Finally we need to check the status of the flag, when we come to set the status of the relay, so we need to modify two lines of code...
if (TimeMins >= Sunrise && TimeMins <=Sunset+60 && tempC>=2 && OverRideFlag==false) { //If it's after sunrise and before sunset + 1 hour, and it's not frozen, and our override isn't set, switch our relay on
I think the comment there is self-explanitory!
We also need to reset the flag once the sun comes up again:
// Reset Override flag if the sun is up! if (TimeMins == Sunrise) { OverRideFlag = false; }
There's no need to specifically set the relay off, as this is taken care of in the else statement.
So, there you go Raminda, but I have a concern. What if we change our mind? What happens if we want to un-overide it?!?!
ahh... OK , we can change the code slightly to flip the status of the flag everytime the button is pressed.. ON-OFF-ON-OFF etc . This might suffer with switch bounce, in which case we'll need a slight delay, but it worked ok with me (because of the delay in the loop).
buttonstate = digitalRead(A1);// check to see if our override button is pressed, if it is, change the status of the flag
if (buttonstate == LOW ) {
OverRideFlag = ~OverRideFlag;
}
The ~ sign means NOT and is a boolean operator. So our flag is now NOT what it was before, so flips from true to false, or false to true!
The whole code should now look like this:
// Dawn & Dusk controller with frost protection. A special revision for Raminda Subhashana to control some lights. // 5th December 2014. Modified 17th April 2015. Modified 25 August 2015 // (C) A.G.Doswell 2014 & 2015 // License: The MIT License (See full license at the bottom of this file) // // Date and time functions using a DS1307 RTC connected via I2C and Wire lib // // Designed to control a relay connected to pin A3. Pin goes low during daylight hours and high during night. Relay uses active low, so is // "On" during the day. This is connected to the fountain pump in my garden. // // Time is set using a rotary encoder with integral push button. The Encoder is connected to interrupt pins D2 & D3 (and GND), // and the push button to pin analogue 0 (and GND) // The RTC is connections are: Analogue pin 4 to SDA. Connect analogue pin 5 to SCL. // A 2 x 16 LCD display is connected as follows (NOTE. This is NOT conventional, as interrupt pins are required for the encoder) // Arduino LCD // D4 DB7 // D5 DB6 // D6 DB5 // D7 DB4 // D12 RS // D13 E // // In this revision, there is a Dallas 18B20 Temperature sensor connected to pin 8, enabling frost protection. This is pulled up to +5volts via a 4.7K resistor. // // Use: Pressing and holding the button will enter the clock set mode (on release of the button). Clock is set using the rotary encoder. // The clock must be set to UTC. // Pressing and releasing the button quickly will display the current sun rise and sun set times. Pressing the button again will enter the mode select menu. // Modes are AUTO: On when the sun rises, off when it sets. // AUTO EXTEND : same as above but goes off 1 hour after sunet (nice for summer evenings!) // ON: Permanently ON // OFF: Permanently OFF (Who'd have guessed it?) // // Change the LATTITUDE and LONGITUDE constant to your location. // Use the address finder from http://www.hacktronics.com/Tutorials/arduino-1-wire-address-finder.html to find the address of your temperature sensor and enter it where required in DeviceAddress. // 28th Dec 2014 - Slowed the rate at which the temperature is requested down to once per minute. It has improved the clock display, and solved an issue whereby the temp sensor wasn't always ready to send data, and hung up. // 10th Jan 2015 - Altered the method of updating the temp to something simpler and more sensible! // 17th April 2015 - Stored Mode settings in EEPROM // // Be sure to visit my website at http://andydoz.blogspot.com #include <Wire.h> #include "RTClib.h" // from https://github.com/adafruit/RTClib #include <LiquidCrystal.h> #include <Encoder.h> // from http://www.pjrc.com/teensy/td_libs_Encoder.html #include <TimeLord.h> // from http://swfltek.com/arduino/timelord.html. When adding it to your IDE, rename the file, removing the "-depreciated" #include <OneWire.h> // from http://playground.arduino.cc/Learning/OneWire #include <DallasTemperature.h> // from http://www.hacktronics.com/code/DallasTemperature.zip. When adding this to your IDE, ensure the .h and .cpp files are in the top directory of the library. #include <EEPROM.h> #define ONE_WIRE_BUS 8 // Data wire from temp sensor is plugged into pin 8 on the Arduino OneWire oneWire(ONE_WIRE_BUS); // Setup a oneWire instance to communicate with any OneWire devices DeviceAddress outsideThermometer = { 0x28, 0x1A, 0x1A, 0x3E, 0x06, 0x00, 0x00,0xC7 }; // use the address finder from http://www.hacktronics.com/Tutorials/arduino-1-wire-address-finder.html to find the address of your device. RTC_DS1307 RTC; // Tells the RTC library that we're using a DS1307 RTC Encoder knob(2, 3); //encoder connected to pins 2 and 3 (and ground) LiquidCrystal lcd(12, 13, 7, 6, 5, 4); // I used an odd pin combination because I need pin 2 and 3 for the interrupts. //the variables provide the holding values for the set clock routine int setyeartemp; int setmonthtemp; int setdaytemp; int sethourstemp; int setminstemp; int setsecs = 0; int maxday; // maximum number of days in the given month int TimeMins = 0; // number of seconds since midnight int TimerMode = 2; //mode 0=Off 1=On 2=Auto int TimeOut = 10; int TimeOutCounter; // These variables are for the push button routine int buttonstate = 0; //flag to see if the button has been pressed, used internal on the subroutine only int pushlengthset = 3000; // value for a long push in mS int pushlength = pushlengthset; // set default pushlength int pushstart = 0;// sets default push value for the button going low int pushstop = 0;// sets the default value for when the button goes back high int knobval; // value for the rotation of the knob boolean buttonflag = false; // default value for the button flag float tempC; // Temperature // Over-Ride feature flag for Raminda Subhashana boolean OverRideFlag = false; const int TIMEZONE = 0; //UTC const float LATITUDE = 20.00, LONGITUDE = -2.00; // set YOUR position here int Sunrise, Sunset; //sunrise and sunset expressed as minute of day (0-1439) TimeLord myLord; // TimeLord Object, Global variable byte sunTime[] = {0, 0, 0, 1, 1, 13}; // 17 Oct 2013 int SunriseHour, SunriseMin, SunsetHour, SunsetMin; //Variables used to make a decent display of our sunset and sunrise time. DallasTemperature sensors(&oneWire); // Pass our oneWire reference to Dallas Temperature. void setup () { //Serial.begin(57600); //start debug serial interface Wire.begin(); //start I2C interface RTC.begin(); //start RTC interface lcd.begin(16,2); //Start LCD (defined as 16 x 2 characters) lcd.clear(); pinMode(A0,INPUT);//push button on encoder connected to A0 (and GND) digitalWrite(A0,HIGH); //Pull A0 high pinMode(A1,INPUT);// Over ride push button connected to A1 (and GND) digitalWrite(A1,HIGH); pinMode(A3,OUTPUT); //Relay connected to A3 digitalWrite (A3, HIGH); //sets relay off (default condition) sensors.begin(); sensors.setResolution(outsideThermometer, 12); // set the resolution to 12 bits (why not?!) //Checks to see if the RTC is runnning, and if not, sets the time to the time this sketch was compiled, also sets default mode to 2 and writes to EEPROM DateTime now = RTC.now(); lcd.clear(); lcd.print("Waiting for RTC"); delay (60000);// wait a minute for the RTC to sort itself out. if (! RTC.isrunning()) { RTC.adjust(DateTime(__DATE__, __TIME__)); EEPROM.update (0,0); // set the auto mode as 0 (off) for default } lcd.print("Raminda Subhashana"); lcd.setCursor(0, 1); lcd.print("Light Controller"); delay (2000); lcd.clear(); lcd.print("Version 1.32"); lcd.setCursor(0, 1); lcd.print("(C) A.G.Doswell "); delay (5000); lcd.clear(); //Timelord initialisation myLord.TimeZone(TIMEZONE * 60); myLord.Position(LATITUDE, LONGITUDE); CalcSun (); TimerMode = EEPROM.read (0); // Read TimerMode from EEPROM delay (1000); } void printTemperature(DeviceAddress deviceAddress) { lcd.setCursor (9,1); tempC = sensors.getTempC(deviceAddress); if (tempC == -127.00) { lcd.print("Err"); } else { lcd.print(tempC); lcd.print((char)0xDF); lcd.print("C "); } } void loop () { DateTime now = RTC.now(); //get time from RTC //Display current time lcd.setCursor (0,0); lcd.print(now.day(), DEC); lcd.print('/'); lcd.print(now.month()); lcd.print('/'); lcd.print(now.year(), DEC); lcd.print(" "); lcd.setCursor (0,1); lcd.print(now.hour(), DEC); lcd.print(':'); if (now.minute() <10) { lcd.print("0"); } lcd.print(now.minute(), DEC); lcd.print(':'); if (now.second() <10) { lcd.print("0"); } lcd.print(now.second()); lcd.print(" "); //current time in minutes since midnight (used to check against sunrise/sunset easily) TimeMins = (now.hour() * 60) + now.minute(); //Get and display temp every minute if (now.second() == 7) { sensors.requestTemperatures(); // Request temperature delay (249); printTemperature(outsideThermometer); // display on lcd. } // Calculate sun times once a day at a minute past midnight if (TimeMins == 1) { lcd.clear(); CalcSun (); } // Reset Override flag if the sun is up! if (TimeMins == Sunrise) { OverRideFlag = false; } if (TimerMode ==2) { if (TimeMins >= Sunrise && TimeMins <=Sunset-1 && tempC>=2 && OverRideFlag==false) { //If it's after sunrise and before sunset, and it's not frozen, and our override isn't set, switch our relay on digitalWrite (A3, LOW); lcd.setCursor (13,0); lcd.print ("On "); } else { //otherwise switch it off digitalWrite (A3, HIGH); lcd.setCursor (13,0); lcd.print ("Off"); } } if (TimerMode ==3) { if (TimeMins >= Sunrise && TimeMins <=Sunset+60 && tempC>=2 && OverRideFlag==false) { //If it's after sunrise and before sunset + 1 hour, and it's not frozen, and our override isn't set, switch our relay on digitalWrite (A3, LOW); lcd.setCursor (13,0); lcd.print ("On "); } else { //otherwise switch it off digitalWrite (A3, HIGH); lcd.setCursor (13,0); lcd.print ("Off"); } } if (TimerMode ==0) { // Off digitalWrite (A3, HIGH); lcd.setCursor (13,0); lcd.print ("Off"); } if (TimerMode ==1 && tempC>=2) { // TimerMode is On, but it's not frozen digitalWrite (A3, LOW); lcd.setCursor (13,0); lcd.print ("On "); } buttonstate = digitalRead(A1);// check to see if our override button is pressed, if it is, change the status of the flag if (buttonstate == LOW ) { OverRideFlag = ~OverRideFlag; } pushlength = pushlengthset; pushlength = getpushlength (); delay (10); if (pushlength <pushlengthset) { lcd.clear (); ShortPush (); lcd.clear (); } //This runs the setclock routine if the knob is pushed for a long time if (pushlength >pushlengthset) { lcd.clear(); DateTime now = RTC.now(); setyeartemp=now.year(),DEC; setmonthtemp=now.month(),DEC; setdaytemp=now.day(),DEC; sethourstemp=now.hour(),DEC; setminstemp=now.minute(),DEC; setclock(); pushlength = pushlengthset; }; } //sets the clock void setclock (){ setyear (); lcd.clear (); setmonth (); lcd.clear (); setday (); lcd.clear (); sethours (); lcd.clear (); setmins (); lcd.clear(); RTC.adjust(DateTime(setyeartemp,setmonthtemp,setdaytemp,sethourstemp,setminstemp,setsecs)); //set the DS1307 RTC CalcSun (); //refresh the sunrise and sunset times delay (1000); } // subroutine to return the length of the button push. int getpushlength () { buttonstate = digitalRead(A0); if(buttonstate == LOW && buttonflag==false) { pushstart = millis(); buttonflag = true; }; if (buttonstate == HIGH && buttonflag==true) { pushstop = millis (); pushlength = pushstop - pushstart; buttonflag = false; }; return pushlength; } // The following subroutines set the individual clock parameters int setyear () { lcd.setCursor (0,0); lcd.print ("Set Year"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { return setyeartemp; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { //bit of software de-bounce knobval = -1; } if (knobval > 1) { knobval = 1; } setyeartemp=setyeartemp + knobval; if (setyeartemp < 2014) { //Year can't be older than currently, it's not a time machine. setyeartemp = 2014; } lcd.print (setyeartemp); lcd.print(" "); setyear(); } int setmonth () { lcd.setCursor (0,0); lcd.print ("Set Month"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { return setmonthtemp; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { knobval = -1; } if (knobval > 1) { knobval = 1; } setmonthtemp=setmonthtemp + knobval; if (setmonthtemp < 1) {// month must be between 1 and 12 setmonthtemp = 1; } if (setmonthtemp > 12) { setmonthtemp=12; } lcd.print (setmonthtemp); lcd.print(" "); setmonth(); } int setday () { if (setmonthtemp == 4 || setmonthtemp == 5 || setmonthtemp == 9 || setmonthtemp == 11) { //30 days hath September, April June and November maxday = 30; } else { maxday = 31; //... all the others have 31 } if (setmonthtemp ==2 && setyeartemp % 4 ==0) { //... Except February alone, and that has 28 days clear, and 29 in a leap year. maxday = 29; } if (setmonthtemp ==2 && setyeartemp % 4 !=0) { maxday = 28; } lcd.setCursor (0,0); lcd.print ("Set Day"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { return setdaytemp; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { knobval = -1; } if (knobval > 1) { knobval = 1; } setdaytemp=setdaytemp+ knobval; if (setdaytemp < 1) { setdaytemp = 1; } if (setdaytemp > maxday) { setdaytemp = maxday; } lcd.print (setdaytemp); lcd.print(" "); setday(); } int sethours () { lcd.setCursor (0,0); lcd.print ("Set Hours"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { return sethourstemp; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { knobval = -1; } if (knobval > 1) { knobval = 1; } sethourstemp=sethourstemp + knobval; if (sethourstemp < 1) { sethourstemp = 1; } if (sethourstemp > 23) { sethourstemp=23; } lcd.print (sethourstemp); lcd.print(" "); sethours(); } int setmins () { lcd.setCursor (0,0); lcd.print ("Set Mins"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { return setminstemp; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { knobval = -1; } if (knobval > 1) { knobval = 1; } setminstemp=setminstemp + knobval; if (setminstemp < 0) { setminstemp = 0; } if (setminstemp > 59) { setminstemp=59; } lcd.print (setminstemp); lcd.print(" "); setmins(); } int setmode () { //Sets the mode of the timer. Auto, On or Off lcd.setCursor (0,0); lcd.print ("Set Mode"); pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { EEPROM.update (0,TimerMode); //write the mode setting to EEPROM return TimerMode; } lcd.setCursor (0,1); knob.write(0); delay (50); knobval=knob.read(); if (knobval < -1) { knobval = -1; } if (knobval > 1) { knobval = 1; } TimerMode=TimerMode + knobval; if (TimerMode < 0) { TimerMode = 0; } if (TimerMode > 3) { TimerMode=3; } if (TimerMode == 0) { lcd.print("Off "); lcd.print(" "); } if (TimerMode == 1) { lcd.print("On "); lcd.print(" "); } if (TimerMode == 2) { lcd.print("Auto "); lcd.print(" "); } if (TimerMode == 3) { lcd.print("Auto Extend"); lcd.print(" "); } setmode (); } int CalcSun () { //Calculates the Sunrise and Sunset times DateTime now = RTC.now(); sunTime[3] = now.day(); // Give Timelord the current date sunTime[4] = now.month(); sunTime[5] = now.year(); myLord.SunRise(sunTime); // Computes Sun Rise. Sunrise = sunTime[2] * 60 + sunTime[1]; // Sunrise returned in minutes past midnight SunriseHour = sunTime[2]; SunriseMin = sunTime [1]; sunTime[3] = now.day(); // Uses the Time library to give Timelord the current date sunTime[4] = now.month(); sunTime[5] = now.year(); myLord.SunSet(sunTime); // Computes Sun Set. Sunset = sunTime[2] * 60 + sunTime[1]; // Sunset returned in minutes past midnight SunsetHour = sunTime[2]; SunsetMin = sunTime [1]; } void ShortPush () { //This displays the calculated sunrise and sunset times when the knob is pushed for a short time. for (long Counter = 0; Counter < 604 ; Counter ++) { //returns to the main loop if it's been run 604 times //(don't ask me why I've set 604,it seemed like a good number) lcd.setCursor (0,0); lcd.print ("Sunrise "); lcd.print (SunriseHour); lcd.print (":"); if (SunriseMin <10) { lcd.print("0"); } lcd.print (SunriseMin); lcd.setCursor (0,1); lcd.print ("Sunset "); lcd.print (SunsetHour); lcd.print (":"); if (SunsetMin <10) { lcd.print("0"); } lcd.print (SunsetMin); //If the knob is pushed again, enter the mode set menu pushlength = pushlengthset; pushlength = getpushlength (); if (pushlength != pushlengthset) { lcd.clear (); TimerMode = setmode (); } } } /* * Copyright (c) 2015 Andrew Doswell * * Permission is hereby granted, free of charge, to any person obtaining a copy * of this software and associated documentation files (the "Software"), to deal * in the Software without restriction, including without limitation the rights * to use, copy, modify, merge, publish, distribute, sublicense, and/or sell * copies of the Software, and to permit persons to whom the Software is * furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be included in * all copies or substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE * AUTHOR(S) OR COPYRIGHT HOLDER(S) BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN * THE SOFTWARE. */
Hope this helps! Have fun and check back soon!
PS. Some users are having trouble with contact bounce... Add C1/C2, R5 & R6...
