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Sketch za Arduino - Home Energy Monitor
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| #include <Esp8266.h> | |
| #include "EmonLib.h" | |
| #include <SoftwareSerial.h> | |
| SoftwareSerial mySerial1(3, 2); /* RX:D3, TX:D2 */ | |
| // Kalibracija Senzora | |
| #define SAMPLE_COUNT 10 | |
| #define VOLT_CAL 258.7 //voltage calibration | |
| #define CURRENT_CAL1 61.5 //sensor 1 calibration -- R | |
| #define CURRENT_CAL2 61.5 //sensor 2 calibration -- S | |
| #define CURRENT_CAL3 61.5 //sensor 3 calibration -- T | |
| //create 2 instances of the energy monitor lib | |
| EnergyMonitor emon1; | |
| EnergyMonitor emon2; | |
| EnergyMonitor emon3; | |
| //arrays to hold the sample data | |
| double volts1[SAMPLE_COUNT]; | |
| double amps1[SAMPLE_COUNT]; | |
| double watts1[SAMPLE_COUNT]; | |
| double volts2[SAMPLE_COUNT]; | |
| double amps2[SAMPLE_COUNT]; | |
| double watts2[SAMPLE_COUNT]; | |
| double volts3[SAMPLE_COUNT]; | |
| double amps3[SAMPLE_COUNT]; | |
| double watts3[SAMPLE_COUNT]; | |
| const int currentPin1 = 1; | |
| const int currentPin2 = 2; | |
| const int currentPin3 = 3; | |
| const int voltagePin = 0; | |
| //counter to keep track of the current sample location | |
| int counter = 0; | |
| void setup() | |
| { | |
| Serial.begin(115200); | |
| mySerial1.begin(9600); | |
| emon1.voltage(voltagePin, VOLT_CAL, 1.7); // Voltage: input pin, calibration, phase_shift | |
| emon1.current(currentPin1, CURRENT_CAL1); // Current: input pin, calibration. | |
| emon2.voltage(voltagePin, VOLT_CAL, 1.7); // Voltage: input pin, calibration, phase_shift | |
| emon2.current(currentPin2, CURRENT_CAL2); // Current: input pin, calibration. | |
| emon3.voltage(voltagePin, VOLT_CAL, 1.7); // Voltage: input pin, calibration, phase_shift | |
| emon3.current(currentPin3, CURRENT_CAL3); // Current: input pin, calibration. | |
| } | |
| void loop() | |
| { | |
| //reset the var that keeps track of the number of samples taken | |
| //(loop back around to 0 on the array for our running total) | |
| if(counter >= SAMPLE_COUNT){ | |
| counter = 0; | |
| } | |
| //calculate the most recent readings | |
| emon1.calcVI(20,5000); | |
| emon2.calcVI(20,5000); | |
| emon3.calcVI(20,5000); | |
| //save the voltage, current, watts to the array for later averaging | |
| amps1[counter] = emon1.Irms; | |
| volts1[counter] = emon1.Vrms; | |
| watts1[counter] = emon1.Vrms * emon1.Irms; | |
| amps2[counter] = emon2.Irms; | |
| volts2[counter] = emon2.Vrms; | |
| watts2[counter] = emon2.Vrms * emon2.Irms; | |
| amps3[counter] = emon3.Irms; | |
| volts3[counter] = emon3.Vrms; | |
| watts3[counter] = emon3.Vrms * emon3.Irms; | |
| counter++; | |
| //setup the vars to be averaged | |
| double wattAvg1 = 0; | |
| double voltAvg1 = 0; | |
| double ampAvg1 = 0; | |
| double wattAvg2 = 0; | |
| double voltAvg2 = 0; | |
| double ampAvg2 = 0; | |
| double wattAvg3 = 0; | |
| double voltAvg3 = 0; | |
| double ampAvg3 = 0; | |
| //add em up for averaging | |
| for(int i = 0; i < SAMPLE_COUNT; i++){ | |
| wattAvg1 += watts1[i]; | |
| voltAvg1 += volts1[i]; | |
| ampAvg1 += amps1[i]; | |
| wattAvg2 += watts2[i]; | |
| voltAvg2 += volts2[i]; | |
| ampAvg2 += amps2[i]; | |
| wattAvg3 += watts3[i]; | |
| voltAvg3 += volts3[i]; | |
| ampAvg3 += amps3[i]; | |
| } | |
| //get the final average by dividing by the # of samples | |
| wattAvg1 /= SAMPLE_COUNT; | |
| ampAvg1 /= SAMPLE_COUNT; | |
| voltAvg1 /= SAMPLE_COUNT; | |
| wattAvg2 /= SAMPLE_COUNT; | |
| ampAvg2 /= SAMPLE_COUNT; | |
| voltAvg2 /= SAMPLE_COUNT; | |
| wattAvg3 /= SAMPLE_COUNT; | |
| ampAvg3 /= SAMPLE_COUNT; | |
| voltAvg3 /= SAMPLE_COUNT; | |
| //calculate the total amps and watts | |
| double totalAmp = ampAvg1 + ampAvg2 + ampAvg3; | |
| double totalWatt = wattAvg1 + wattAvg2 + wattAvg3; | |
| if (voltAvg1 <= 30){ | |
| voltAvg1 = 0; | |
| } | |
| if(totalAmp <= 0.35){ | |
| totalAmp = 0; | |
| } | |
| if(totalWatt <= 80){ | |
| totalWatt = 0; | |
| } | |
| Serial.println("Voltage:"); | |
| Serial.println(voltAvg1); | |
| Serial.println("Current:"); | |
| Serial.println(totalAmp); | |
| Serial.println("Watt:"); | |
| Serial.println(totalWatt); | |
| Serial.println(" "); | |
| //send the power info to the ESP module through Serial1 | |
| sendPowerInfo (voltAvg1, totalAmp, totalWatt); | |
| } | |
| //send the power info to the ESP module through Serial1 (comma separated and starting with *) | |
| void sendPowerInfo(double Volts, double Amps, double Watts){ | |
| mySerial1.print("*"); | |
| mySerial1.print(Volts); | |
| mySerial1.print(","); | |
| mySerial1.print(Amps); | |
| mySerial1.print(","); | |
| mySerial1.println(Watts); | |
| } |
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