GY-63_MS5611/libraries/Complex/examples/complex/complex.ino
2021-10-19 19:44:42 +02:00

238 lines
4.6 KiB
C++

//
// FILE: complex.ino
// AUTHOR: Rob Tillaart
// DATE: 2013-09-23
//
// PUPROSE: test complex math
//
// Serial.print(Complex) supported since 0.1.05
#include "Complex.h"
void setup()
{
Serial.begin(115200);
Serial.print("\n Complex numbers test for Arduino: ");
Serial.println(COMPLEX_LIB_VERSION);
Serial.println("\n1. Print Complex, set, real, imag");
Complex c1(10.0, -2.0);
Complex c2(3, 0);
Complex c3(-10, 4);
Complex c4(-5,-5);
Complex c5(0, 0);
Serial.println(one);
Serial.println(c1);
Serial.println(c2);
Serial.println(c3);
Serial.println(c4);
c3.set(0,0);
Serial.println(c3);
Serial.println(c3.real());
Serial.println(c3.imag());
Serial.println("\n2. == != ");
c5 = c1;
if (c5 == c1) Serial.println("ok :)");
else Serial.println(" fail :(");
c5 = c1 + 1;
if (c5 != c1) Serial.println("ok :)");
else Serial.println(" fail :(");
c5 = 3;
if (c5 == 3) Serial.println("ok :)");
else Serial.println(" fail :(");
Serial.println("\n3. negation - ");
c5 = -c1;
Serial.println(c5);
c5 = -c5;
Serial.println(c5);
if (c5 == c1) Serial.println("ok :)");
else Serial.println(" fail :(");
Serial.println("\n4. + - ");
c5 = c1 + c2;
Serial.println(c5);
c5 = c1 + 3;
Serial.println(c5);
c5 = c1 - c2;
Serial.println(c5);
c5 = c1 - 3;
Serial.println(c5);
Serial.println("\n5. * / ");
c5 = c1 * c2;
Serial.println(c5);
c5 = c5 * 3;
Serial.println(c5);
c5 = c5 / c2;
Serial.println(c5);
c5 = c5 / 3;
Serial.println(c5);
c5 = c1 / c2 * c2;
Serial.println(c5);
c5 = c1 * c4 / c4;
Serial.println(c5);
Serial.println("\n6. assign += -= *= /=");
c5 = c1;
c5 += c1;
Serial.println(c5);
c5 += 3;
Serial.println(c5);
c5 -= c1;
Serial.println(c5);
c5 -= 3;
Serial.println(c5);
c5 *= c1;
Serial.println(c5);
c5 *= 3;
Serial.println(c5);
c5 /= c1;
Serial.println(c5);
c5 /= 3;
Serial.println(c5);
Serial.println("\n7. phase modulus polar");
Serial.println(c1);
double m = c1.modulus();
Serial.println(m);
double p = c1.phase();
Serial.println(p);
c5.polar(m, p);
Serial.println(c5);
Serial.println("\n8. conjugate reciprocal");
c5 = c1.conjugate();
Serial.println(c5);
c5 = c5.conjugate();
Serial.println(c5);
c5 = c1.reciprocal();
Serial.println(c5);
c5 = c5.reciprocal();
Serial.println(c5);
Serial.println("\n9. power: exp log pow sqrt sqr logn log10");
c5 = c1.c_sqr();
Serial.println(c5);
c5 = c1.c_exp();
Serial.println(c5);
c5 = c5.c_log();
Serial.println(c5);
c5 = c1.c_pow(2);
Serial.println(c5);
c5 = c5.c_sqrt();
Serial.println(c5);
c5 = c5.c_sqr();
Serial.println(c5);
c5 = c1.c_pow(c2);
Serial.println(c5);
c5 = c5.c_pow(c2.reciprocal());
Serial.println(c5);
c5 = c5.c_logn(c4);
Serial.println(c5);
c5 = c4.c_pow(c5);
Serial.println(c5);
c5 = c5.c_log10();
Serial.println(c5);
Serial.println("\n10. gonio: sin cos tan asin acos atan");
c1.set(0.5, 0.5);
c5 = c1.c_sin();
Serial.println(c5);
c5 = c5.c_asin();
Serial.println(c5);
c5 = c1.c_cos();
Serial.println(c5);
c5 = c5.c_acos();
Serial.println(c5);
c5 = c1.c_tan();
Serial.println(c5);
c5 = c5.c_atan();
Serial.println(c5);
Serial.println("\n11. gonio csc sec cot acsc asec acot");
c1.set(0.5, 0.5);
c5 = c1.c_csc();
Serial.println(c5);
c5 = c5.c_acsc();
Serial.println(c5);
c5 = c1.c_sec();
Serial.println(c5);
c5 = c5.c_asec();
Serial.println(c5);
c5 = c1.c_cot();
Serial.println(c5);
c5 = c5.c_acot();
Serial.println(c5);
Serial.println("\n12. gonio hyperbolicus I ");
c1.set(0.5, 0.5);
c5 = c1.c_sinh();
Serial.println(c5);
c5 = c5.c_asinh();
Serial.println(c5);
c5 = c1.c_cosh();
Serial.println(c5);
c5 = c5.c_acosh();
Serial.println(c5);
c5 = c1.c_tanh();
Serial.println(c5);
c5 = c5.c_atanh();
Serial.println(c5);
Serial.println("\n13. gonio hyperbolicus II ");
c1.set(0.5, 0.5);
c5 = c1.c_csch();
Serial.println(c5);
c5 = c5.c_acsch();
Serial.println(c5);
c5 = c1.c_sech();
Serial.println(c5);
c5 = c5.c_asech();
Serial.println(c5);
c5 = c1.c_coth();
Serial.println(c5);
c5 = c5.c_acoth();
Serial.println(c5);
Serial.println("\n14. gonio bug fix (minimal) test");
c1.set(3, 4);
Serial.println(c1);
c2 = c1.c_sin();
c2 = c2 * c2;
c3 = c1.c_cos();
c3 = c3 * c3;
Serial.println(c2 + c3); // should print 1, 0i
Serial.println("\n.. Complex done");
uint32_t start = micros();
for (int i = 0; i < 1000; i++)
{
c5 = c5.c_csc();
}
uint32_t dur = micros() - start;
Serial.println(dur);
Serial.println(one);
}
void loop()
{
}
// -- END OF FILE --