Guten Tag,
bin der Manuel und Arduino Neuling, bin gerade an meinem ersten großen Projekt drann und würde eure hilfe benötigen.
Ich habe einen 1,5" OLED Display angeschlossen an einem Arduino Nano Board,
wo ich 3x NTC Sensoren, 1x Typ K Sensor und 1x einen 10 Bar Sensor laufen habe.
Das funktioniert alles so weit,
Beim Starten des Displays würde ich gerne eine Animation Abspielen und danach soll er wieder in das Hauptprogramm springen mit den Sensoren.
Ich habe es bis jetzt Nur Mit einem einzigen Bild zum Laufen gebracht und nicht mit einer Animation.
Ich benutze zum Betreiben des Displays die U8g2 Bibliothek.
vlt könnte mir jemand weiter Helfen. Danke
#include <Arduino.h>
#include <SPI.h>
#include <U8g2lib.h>
#include "max6675.h"
#include "Volvo_bild.h"
U8G2_SH1107_128X128_2_HW_I2C u8g2(U8G2_R0);
int thermoDO = 4;
int thermoCS = 5;
int thermoCLK = 6;
MAX6675 thermocouple(thermoCLK, thermoCS, thermoDO);
#define coolantsensorDivider 10000 //defines the resistor value that is in series in the voltage divider
#define coolantsensorPin1 A0
#define coolantsensorPin2 A1 //defines the analog pin of the input voltage from the voltage divider
#define coolantsensorPin3 A2
#define NUMSAMPLES 5 //defines the number of samples to be taken for a smooth average
const float steinconstA1 = 0.00132775349985195; //steinhart equation constant A, determined from wikipedia equations
const float steinconstB1 = 0.000253553759466436; //steinhart equation constant B, determined from wikipedia equations
const float steinconstC1 = 0.000000201514685565505; // //steinhart equation constant C, determined from wikipedia equations
const float steinconstA2 = 0.00132775349985195; //steinhart equation constant A, determined from wikipedia equations
const float steinconstB2 = 0.000253553759466436; //steinhart equation constant B, determined from wikipedia equations
const float steinconstC2 = 0.000000201514685565505;
const float steinconstA3 = 0.00113023607410303000000; //steinhart equation constant A, determined from wikipedia equations
const float steinconstB3 = 0.00025359817622849800000; //steinhart equation constant B, determined from wikipedia equations
const float steinconstC3 = 0.00000007377513607871290;
int samples1[NUMSAMPLES];
int samples2[NUMSAMPLES]; //variable to store number of samples to be taken
int samples3[NUMSAMPLES];
const int sensorPin = A3;
const float alpha = 0.78; // Low Pass Filter alpha (0 - 1 )
const float aRef = 4.9; // analog reference
float filteredVal = 103; // midway starting point
float sensorVal;
float voltage;
float psiVal;
const int pressureZero = 102.4; //analog reading of pressure transducer at 0psi
const int pressureMax = 921.6; //analog reading of pressure transducer at 100psi
const int pressuretransducermaxBAR = 10.34 ; //psi value of transducer being used
float pressureValue = 0; //variable to store the value coming from the pressure transducer
void setup() {
Serial.begin(9600);
u8g2.begin();
u8g2.setContrast(400);
u8g2.firstPage();
do {
u8g2.drawXBMP( 0, 28, 128, 71, epd_bitmap_vectordesign2);
delay(10);
} while ( u8g2.nextPage() );
delay(3000);
}
void loop() {
uint8_t i; //integer for loop
float average1;
float average2; //decimal for average
float average3;
for (i=0; i<NUMSAMPLES; i++) {
samples1[i] = analogRead(coolantsensorPin1); //takes samples at number defined with a short delay between samples
delay(10);
}
for (i=0; i<NUMSAMPLES; i++) {
samples2[i] = analogRead(coolantsensorPin2); //takes samples at number defined with a short delay between samples
delay(10);
}
for (i=0; i<NUMSAMPLES; i++) {
samples3[i] = analogRead(coolantsensorPin3); //takes samples at number defined with a short delay between samples
delay(10);
}
average1 = 0;
for (i=0; i< NUMSAMPLES; i++) {
average1 += samples1[i]; //adds all number of samples together
}
average1 /= NUMSAMPLES;
average2 = 0;
for (i=0; i< NUMSAMPLES; i++) {
average2 += samples2[i]; //adds all number of samples together
}
average2 /= NUMSAMPLES; //divides by number of samples to output the average
average3 = 0;
for (i=0; i< NUMSAMPLES; i++) {
average3 += samples3[i]; //adds all number of samples together
}
average3 /= NUMSAMPLES;
//Serial.print("Average Analog Coolant Reading1 = ");
//Serial.println(average1); //analog value at analog pin into arduino
average1 = (coolantsensorDivider*average1)/(1023-average1); //conversion equation to read resistance from voltage divider
//Serial.print("Coolant Sensor Resistance1 = ");
//Serial.println(average1);
//Serial.print("Average Analog Coolant Reading2 = ");
//Serial.println(average2); //analog value at analog pin into arduino
average2 = (coolantsensorDivider*average2)/(1023-average2); //conversion equation to read resistance from voltage divider
//Serial.print("Coolant Sensor Resistance2 = ");
//Serial.println(average2);
//Serial.print("Average Analog Coolant Reading3 = ");
//Serial.println(average3); //analog value at analog pin into arduino
average3 = (coolantsensorDivider*average3)/(1023-average3); //conversion equation to read resistance from voltage divider
//Serial.print("Coolant Sensor Resistance3 = ");
//Serial.println(average3);
float steinhart1; //steinhart equation to estimate temperature value at any resistance from curve of thermistor sensor
steinhart1 = log(average1); //lnR
steinhart1 = pow(steinhart1 ,3); //(lnR)^3
steinhart1 *= steinconstC1; //C*((lnR)^3)
steinhart1 += (steinconstB1*(log(average1))); //B*(lnR) + C*((lnR)^3)
steinhart1 += steinconstA1; //Complete equation, 1/T=A+BlnR+C(lnR)^3
steinhart1 = 1.0/steinhart1; //Inverse to isolate for T
steinhart1 -= 273.15; //Conversion from kelvin to celcius
float steinhart2; //steinhart equation to estimate temperature value at any resistance from curve of thermistor sensor
steinhart2 = log(average2); //lnR
steinhart2 = pow(steinhart2 ,3); //(lnR)^3
steinhart2 *= steinconstC2; //C*((lnR)^3)
steinhart2 += (steinconstB2*(log(average2))); //B*(lnR) + C*((lnR)^3)
steinhart2 += steinconstA2; //Complete equation, 1/T=A+BlnR+C(lnR)^3
steinhart2 = 1.0/steinhart2; //Inverse to isolate for T
steinhart2 -= 273.15;
float steinhart3; //steinhart equation to estimate temperature value at any resistance from curve of thermistor sensor
steinhart3 = log(average3); //lnR
steinhart3 = pow(steinhart3 ,3); //(lnR)^3
steinhart3 *= steinconstC3; //C*((lnR)^3)
steinhart3 += (steinconstB3*(log(average3))); //B*(lnR) + C*((lnR)^3)
steinhart3 += steinconstA3; //Complete equation, 1/T=A+BlnR+C(lnR)^3
steinhart3 = 1.0/steinhart3; //Inverse to isolate for T
steinhart3 -= 273.15;
sensorVal = (float)analogRead(sensorPin); // Read pressure sensor val (A0)
filteredVal = (alpha * filteredVal) + ((1.0 - alpha) * sensorVal);// Low Pass Filter
voltage = (filteredVal / 1024.0) * aRef; // calculate voltage
pressureValue = filteredVal; //reads value from input pin and assigns to variable
pressureValue = ((filteredVal-pressureZero)*pressuretransducermaxBAR)/(pressureMax-pressureZero); //conversion equation to convert analog reading to psi
//Serial.print("ECT = ");
//Serial.print(steinhart1); //prints final temp in celcius
//Serial.println(" *C");
//Serial.print("OILT = ");
//Serial.print(steinhart2); //prints final temp in celcius
//Serial.println(" *C");
//Serial.print("RCT = ");
//Serial.print(steinhart3); //prints final temp in celcius
//Serial.println(" *C");
//Serial.print("Öldruck = ");
//Serial.print(pressureValue, 1); //prints value from previous line to serial
//Serial.println(" Bar"); //prints label to serial
//Serial.print("voltage = ");
//Serial.println(voltage,2);
u8g2.firstPage();
do {
u8g2.setFont(u8g2_font_crox4hb_tf);
u8g2.drawStr(0,20,"RCT:");
u8g2.setCursor(55,20);
u8g2.println(steinhart3,1);
u8g2.drawCircle(110,6,2);
u8g2.drawStr(112,20, "C");
u8g2.drawStr(0,47,"OILT:");
u8g2.setCursor(55,47);
u8g2.println(steinhart2,1);
u8g2.drawCircle(110,33,2);
u8g2.drawStr(112,47, "C");
u8g2.drawStr(0,74,"OILP:");
u8g2.setCursor(53,74);
u8g2.println(pressureValue, 1);
u8g2.drawStr(92,74, "Bar");
u8g2.drawStr(0,101,"ECT:");
u8g2.setCursor(55,101);
u8g2.println(steinhart1,1);
u8g2.drawCircle(110,87,2);
u8g2.drawStr(112,101, "C");
u8g2.drawStr(0,128,"EGT:");
u8g2.setCursor(53,128);
u8g2.println(thermocouple.readCelsius(),1);
u8g2.drawCircle(110,114,2);
u8g2.drawStr(112,128, "C");
} while ( u8g2.nextPage() );
delay(200); //delay between readings
}
