GY-63_MS5611/libraries/ACS712/test/unit_test_001.cpp
2022-11-21 20:44:08 +01:00

216 lines
4.6 KiB
C++

//
// FILE: unit_test_001.cpp
// AUTHOR: Rob Tillaart
// DATE: 2020-12-06
// PURPOSE: unit tests for the ACS712 current sensor
// https://github.com/RobTillaart/ACS712
// https://www.adafruit.com/product/2857
// https://github.com/Arduino-CI/arduino_ci/blob/master/REFERENCE.md
//
// supported assertions
// ----------------------------
// assertEqual(expected, actual)
// assertNotEqual(expected, actual)
// assertLess(expected, actual)
// assertMore(expected, actual)
// assertLessOrEqual(expected, actual)
// assertMoreOrEqual(expected, actual)
// assertTrue(actual)
// assertFalse(actual)
// assertNull(actual)
#include <ArduinoUnitTests.h>
#include "Arduino.h"
#include "ACS712.h"
#define A0 0
unittest_setup()
{
fprintf(stderr, "ACS712_LIB_VERSION: %s\n", (char *) ACS712_LIB_VERSION);
}
unittest_teardown()
{
}
unittest(test_constants)
{
assertEqualFloat(1.0/sqrt(2), ACS712_FF_SINUS, 0.001);
assertEqualFloat(1.0, ACS712_FF_SQUARE, 0.001);
assertEqualFloat(1.0/sqrt(3), ACS712_FF_TRIANGLE, 0.001);
assertEqualFloat(1.0/sqrt(3), ACS712_FF_SAWTOOTH, 0.001);
assertEqual(21, ACS712_DEFAULT_NOISE);
assertEqual(50, ACS712_DEFAULT_FREQ);
}
unittest(test_mA_DC)
{
GodmodeState* state = GODMODE();
state->reset();
// 0 == A0
ACS712 ACS(0, 5.0, 1023, 100); // analogPin, volts, maxADC, mVperA
// assertEqual(0, ACS.mA_AC(50));
// assertEqual(0, ACS.mA_AC(60));
int future[12] = {0, 0, 100, 100, 200, 200, 511, 511, 900, 900, 1023, 1023};
state->analogPin[0].fromArray(future, 12);
assertEqualFloat(-24975.6, ACS.mA_DC(), 1);
assertEqualFloat(-20088.0, ACS.mA_DC(), 1);
assertEqualFloat(-15200.4, ACS.mA_DC(), 1);
assertEqualFloat(0.0, ACS.mA_DC(), 1);
assertEqualFloat( 19012.7, ACS.mA_DC(), 1);
assertEqualFloat( 25024.4, ACS.mA_DC(), 1);
}
unittest(test_mA_AC)
{
ACS712 ACS(A0, 5.0, 1023, 100); // analogPin, volts, maxADC, mVperA
// loop with micros and a lot of analogReads - not possible
// assertEqual(0, ACS.mA_AC(50));
// assertEqual(0, ACS.mA_AC(60));
assertEqual(1, 1);
}
unittest(test_mA_AC_samples)
{
ACS712 ACS(A0, 5.0, 1023, 100); // analogPin, volts, maxADC, mVperA
// loop with micros and a lot (150?) of analogReads - not possible
// assertEqual(0, ACS.mA_AC_samples(50));
// assertEqual(0, ACS.mA_AC_samples(60));
assertEqual(1, 1);
}
unittest(test_midPoint)
{
ACS712 ACS(A0, 5.0, 1023, 100); // analogPin, volts, maxADC, mVperA
// loop with micros and a lot of analogReads - not possible
// ACS.autoMidPoint(50);
// uint16_t amp50 = ACS.getMidPoint();
// assertEqual(0, amp50);
//
// ACS.autoMidPoint(60);
// uint16_t amp60 = ACS.getMidPoint();
// assertEqual(0, amp60);
uint16_t amp = ACS.getMidPoint();
assertEqual(511, amp);
ACS.setMidPoint(1000);
amp = ACS.getMidPoint();
assertEqual(1000, amp);
ACS.incMidPoint();
amp = ACS.getMidPoint();
assertEqual(1001, amp);
ACS.decMidPoint();
amp = ACS.getMidPoint();
assertEqual(1000, amp);
ACS.decMidPoint();
amp = ACS.getMidPoint();
assertEqual(999, amp);
ACS.resetMidPoint();
amp = ACS.getMidPoint();
assertEqual(511, amp);
// test range ends
ACS.setMidPoint(1023);
amp = ACS.incMidPoint();
assertEqual(1023, amp);
ACS.setMidPoint(0);
amp = ACS.decMidPoint();
assertEqual(0, amp);
}
unittest(test_formFactor)
{
ACS712 ACS(A0, 5.0, 1023, 100);
// default 0.5 * sqrt(2)
float ff = ACS.getFormFactor();
float eff = 0.5 * sqrt(2);
float delta = abs(eff - ff);
assertMoreOrEqual(0.0001, delta);
ACS.setFormFactor(0.8);
ff = ACS.getFormFactor();
eff = 0.8;
delta = abs(eff - ff);
assertMoreOrEqual(0.0001, delta);
}
unittest(test_Noise)
{
ACS712 ACS(A0, 5.0, 1023, 100);
int nmv = ACS.getNoisemV();
assertEqual(21, nmv); // default value..
ACS.setNoisemV(100);
nmv = ACS.getNoisemV();
assertEqual(100, nmv);
}
unittest(test_mVperAmp)
{
ACS712 ACS(A0, 5.0, 1023, 100);
float mpa = ACS.getmVperAmp();
assertEqualFloat(100, mpa, 0.001); // default value..
float mva = 25.0;
while (mva < 200)
{
ACS.setmVperAmp(mva);
mpa = ACS.getmVperAmp();
assertEqualFloat(mva, mpa, 0.001);
mva += 24.8; // just a bit random adjustments
}
}
unittest(test_AmperePerStep)
{
ACS712 ACS(A0, 5.0, 1023, 100);
float aps = ACS.getAmperePerStep();
assertEqualFloat(0.047885, aps, 0.001);
float mva = 25.0;
while (mva < 200)
{
ACS.setmVperAmp(mva);
aps = ACS.getAmperePerStep();
assertEqualFloat(5000.0/1023/mva, aps, 0.001);
mva += 24;
}
}
unittest_main()
// -- END OF FILE --