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Dependencies: mbed QEI HIDScope biquadFilter MODSERIAL FastPWM
Diff: motorAndSensorControl.cpp
- Branch:
- Branch2
- Revision:
- 66:fa7171cf3f67
- Parent:
- 40:82addb417220
diff -r 6252198c3b67 -r fa7171cf3f67 motorAndSensorControl.cpp --- a/motorAndSensorControl.cpp Wed Oct 16 12:37:02 2019 +0000 +++ b/motorAndSensorControl.cpp Wed Oct 16 13:39:19 2019 +0000 @@ -2,14 +2,19 @@ //period in seconds //dt the time between measurements, i.o.w. Ticker timing -/* + #include "mbed.h" #include "FastPWM.h" #include "QEI.h" -#include "functions.h" +#include "MODSERIAL.h" +//#include "stdio.h" + +#include "global.h" #include "structures.h" +//#include "functions.h" - extern motorData motorReturn; +//Serial pc(USBTX,USBRX); + //Objects //Motors @@ -17,46 +22,68 @@ DigitalOut motor1Dir(D7); //Motor1 directional pin FastPWM motor2(D5); //Motor2 PWM output pin DigitalOut motor2Dir(D4); //Motor2 directional pin + //FastPWM motor3(); //Motor3 PWM output pin + //DigitalOut motor3Dir(); //Motor3 directional pin //Encoders QEI encoderMotor1(D12,D13,NC,64,QEI::X2_ENCODING); QEI encoderMotor2(D12,D13,NC,64,QEI::X2_ENCODING); + //QEI encoderMotor3(,,NC,64,QEI::X2_ENCODING); //Variables static int countsMotor1[2]; //Array to store motor counts for i and i-1 static int countsMotor2[2]; + static int countsMotor3[2]; static float velocityMotor1; static float velocityMotor2; + static float velocityMotor3; static float angleMotor1; static float angleMotor2; + static float angleMotor3; //Constants const int uniqueMeasurementPoints = 4200; //From Canvas X4 = 8400, X1 = 2100, so X2 = 4200 https://canvas.utwente.nl/courses/4023/pages/project-materials?module_item_id=91422 - const double PI = 3.14159265358979; + //const double PI = 3.14159265358979; const float countsToRadians = (2*PI)/uniqueMeasurementPoints; //Number of radians per count - + //motorData motorReturn; -void motorAndEncoder(float PWM1, float PWM2, float dt) +void motorAndEncoder() { + float PWM1 = motorData.motor1.input.PWM; + float PWM2 = motorData.motor2.input.PWM; + float PWM3 = motorData.motor3.input.PWM; + float dt = motorData.dt; //Set motors //Direction - if (PWM1<0) - { - PWM1 *= -1; //Shorthand for *-1 - motor1Dir.write(1); //negative direction - } - else - { - motor1Dir.write(0); //positive direction - } - if (PWM2<0) - { - PWM2 *= -1; //Shorthand for *-1 - motor2Dir.write(1); //negative direction - } - else - { - motor2Dir.write(0); //positive direction - } + //Motor 1 + if (PWM1<0) + { + PWM1 *= -1; //Shorthand for *-1 + motor1Dir.write(1); //negative direction + } + else + { + motor1Dir.write(0); //positive direction + } + //Motor 2 + if (PWM2<0) + { + PWM2 *= -1; //Shorthand for *-1 + motor2Dir.write(1); //negative direction + } + else + { + motor2Dir.write(0); //positive direction + } + //Motor 3 + if (PWM3<0) + { + PWM3 *= -1; //Shorthand for *-1 + // motor3Dir.write(1); //negative direction + } + else + { + //motor3Dir.write(0); //positive direction + } //Period and PWM float periodPWM = 1/2000; motor1.period(periodPWM); @@ -64,28 +91,52 @@ motor2.period(periodPWM); motor2.write(PWM2); + + //motor3.period(periodPWM); + //motor3.write(PWM3); + //Read encoders + //Counts //set the value from last loop to poisition 0 in the vector countsMotor1[0] = countsMotor1[1]; countsMotor2[0] = countsMotor2[1]; + //countsMotor3[0] = countsMotor3[1]; //set the new number of counts to position 1 in the vector countsMotor1[1] = encoderMotor1.getPulses(); countsMotor2[1] = encoderMotor2.getPulses(); + //countsMotor3[1] = encoderMotor3.getPulses(); //Angle angleMotor1 = countsMotor1[1]/countsToRadians; - angleMotor2 = countsMotor2[1]/countsToRadians; + angleMotor2 = countsMotor2[1]/countsToRadians; + //angleMotor3 = countsMotor3[1]/countsToRadians; //Velocity calculation - velocityMotor1 = ((countsMotor1[1]-countsMotor1[0])/countsToRadians)/dt; //rad/s + velocityMotor1 = ((countsMotor1[1]-countsMotor1[0])/countsToRadians)/dt; //difference in counts difided by the number of counts per radians [rad/s] velocityMotor2 = ((countsMotor2[1]-countsMotor2[0])/countsToRadians)/dt; //rad/s - - motorReturn.motor1.counts = countsMotor1[1]; - motorReturn.motor2.counts = countsMotor2[1]; + //velocityMotor3 = ((countsMotor3[1]-countsMotor3[0])/countsToRadians)/dt; //rad/s - motorReturn.motor1.angle = angleMotor1; - motorReturn.motor2.angle = angleMotor2; - - motorReturn.motor1.velocity = velocityMotor1; - motorReturn.motor2.velocity = velocityMotor2; + //Push variables to global structure + ::motorData.motor1.output.counts = countsMotor1[1]; //:: To signal the global structure + ::motorData.motor2.output.counts = countsMotor2[1]; + //::motorReturn.motor3.counts = countsMotor3[1]; + + ::motorData.motor1.output.angle = angleMotor1; + ::motorData.motor2.output.angle = angleMotor2; + //::motorReturn.motor3.angle = angleMotor3; + + ::motorData.motor1.output.velocity = velocityMotor1; + ::motorData.motor2.output.velocity = velocityMotor2; + //::motorReturn.motor3.velocity = velocityMotor3; + + //debug Mode + /*if (motorData.debug == true) + { + pc.printf("Motor debug mode is on"); + pc.printf("PWM motor 1 to 3: .2%f, .2%f, .2%f \r\n",motorData.motor1.input.PWM, motorData.motor2.input.PWM, motorData.motor3.input.PWM); + pc.printf("CalibrationCounts motor 1 to 3: %i, %i, %i \r\n",motorData.motor1.input.calibrationCounts, motorData.motor2.input.calibrationCounts, motorData.motor3.input.calibrationCounts); + pc.printf("Current counts motor 1 to 3: %i, %i, %i \r\n", motorData.motor1.output.counts, motorData.motor2.output.counts, motorData.motor3.output.counts); + //pc.printf("Current Velocity motor 1 to 3: .3%f, .3%f, .3%f \r\n",); + } + */ } -*/ \ No newline at end of file +