//! The main function
int main(int argc, char *argv[])
{
dsp32_t vect1[SIZE];
int cycle_count;
int frequency, sample_rate;
dsp32_t phase, amplitude;
// Switch to external Oscillator 0.
pm_switch_to_osc0(&AVR32_PM, FOSC0, OSC0_STARTUP);
// Initialize the DSP debug module
dsp_debug_initialization(FOSC0);
// 1 KHz
frequency = 1000;
// 10 KHz
sample_rate = 100000;
// phase = PI/2
phase = DSP32_Q(0.5);
// amplitude
amplitude = DSP32_Q(1.);
dsp32_debug_printf("32-bit signal generation program test\n");
// Compute the signal to generate
switch(SIGNAL_TO_USE)
{
// Sinusoidal
case SIGNAL_SIN:
dsp32_debug_printf("Sine\n");
dsp32_debug_printf("Frequency: %d, Fs: %d, Phase: %f\n", frequency, sample_rate, phase);
cycle_count = Get_sys_count();
dsp32_gen_sin(vect1, SIZE, frequency, sample_rate, phase);
cycle_count = Get_sys_count() - cycle_count;
break;
// Cosinusoidal
case SIGNAL_COS:
dsp32_debug_printf("Cosine\n");
dsp32_debug_printf("Frequency: %d, Fs: %d, Phase: %f\n", frequency, sample_rate, phase);
cycle_count = Get_sys_count();
dsp32_gen_cos(vect1, SIZE, frequency, sample_rate, phase);
cycle_count = Get_sys_count() - cycle_count;
break;
// Noise
case SIGNAL_NOISE:
dsp32_debug_printf("Noise\n");
dsp32_debug_printf("Amplitude: %d\n", amplitude);
cycle_count = Get_sys_count();
dsp32_gen_noise(vect1, SIZE, amplitude);
cycle_count = Get_sys_count() - cycle_count;
break;
}
// Print the number of cycles
dsp32_debug_printf("Cycle count: %d\n", cycle_count);
// Print the signal
dsp32_debug_print_vect(vect1, SIZE);
while(1);
}
void dsp32_gen_dcomb(dsp32_t *vect1, int size, int f, int fs, dsp32_t delay)
{
int i;
int t_inc, t_low, cp;
int t_delay;
// Number of sample per period
t_inc = fs / f;
// Number of sample for the delay
t_delay = (((S64) delay) * ((S64) t_inc)) >> DSP32_QB;
// Number of sample per low signal
t_inc--;
i = 0;
t_low = t_delay;
// Main loop
while(i < size)
{
// Low part
cp = MIN(t_low, size);
for(; i<cp; i++)
vect1[i] = DSP32_Q(0.);
// High part
if (i < size)
vect1[i++] = DSP32_Q(1.);
t_low = t_inc + i;
}
}
void dsp32_gen_rect(dsp32_t *vect1, int size, int f, int fs, dsp32_t duty, dsp32_t delay)
{
int i = 0;
int t_low_inc, t_high_inc, cp;
int t_low, t_high, t_delay;
// Number of sample per period
t_low_inc = fs / f;
// Number of sample per high signal
t_high_inc = (((S64) duty) * ((S64) t_low_inc)) >> DSP32_QB;
// Number of sample for the delay
t_delay = (((S64) delay) * ((S64) t_low_inc)) >> DSP32_QB;
// Number of sample per low signal
t_low_inc -= t_high_inc;
i = 0;
// For the delay
t_high = MIN(t_high_inc, t_delay - t_low_inc);
t_low = MIN(t_low_inc, t_delay);
if (t_high > 0)
t_low += t_high;
// Main loop
while(i < size)
{
// High part
cp = MIN(t_high, size);
for(; i<cp; i++)
vect1[i] = DSP32_Q(1.);
// Low part
cp = MIN(t_low, size);
for(; i<cp; i++)
vect1[i] = DSP32_Q(-1.);
t_high = t_high_inc + i;
t_low = t_high + t_low_inc;
}
}
dsp32_t dsp32_gen_saw(dsp32_t *vect1, int size, int f, int fs, dsp32_t duty, dsp32_t delay)
{
int i = 0;
S32 t_low_inc, t_high_inc, t;
dsp32_t delta_rise, delta_decrease, delta;
// Number of sample per period
t_low_inc = fs / f;
// Number of sample per high signal
t_high_inc = (((S64) duty) * ((S64) t_low_inc)) >> DSP32_QB;
// Number of sample for the delay
t = (((S64) delay) * ((S64) t_low_inc)) >> DSP32_QB;
// Number of sample per low signal
t_low_inc -= t_high_inc;
// Calculate the delta coefficient of the rising edge of the saw tooth
delta_rise = (DSP32_Q(1.) / t_high_inc) * 2;
// Calculate the delta coefficient of the decreasing edge of the saw tooth
delta_decrease = (DSP32_Q(1.) / t_low_inc) * 2;
// Compute the initial value
if (t < t_high_inc)
delta = DSP32_Q(-1.) + t * delta_rise;
else
delta = DSP32_Q(1.) - (t - t_high_inc) * delta_decrease;
while(i < size)
{
int lim, j;
if (i)
t = 0;
lim = Max(0, Min(t_high_inc - t, size - i));
for(j=0; j<lim; j++)
vect1[i++] = (delta += delta_rise);
t += lim;
if (j)
delta = DSP32_Q(1.);
lim = Min(t_high_inc + t_low_inc - t, size - i);
for(j=0; j<lim; j++)
vect1[i++] = (delta -= delta_decrease);
t += lim;
delta = DSP32_Q(-1.);
}
return (t << DSP32_QB) / (t_high_inc + t_low_inc);
}
#include "sysclk.h"
#include "cycle_counter.h"
// Length of the output signal
#define VECT1_SIZE 16
// Length of the first input signal
#define VECT2_SIZE 16
// Length of the second input signal
#define VECT3_SIZE 16
// The output signal
A_ALIGNED dsp32_t vect1[VECT1_SIZE];
// The first input signal
A_ALIGNED dsp32_t vect2[VECT2_SIZE] = {
DSP32_Q(0.012010),
DSP32_Q(0.059717),
DSP32_Q(0.101397),
DSP32_Q(0.0583150),
DSP32_Q(0.0000000),
DSP32_Q(0.0921177),
DSP32_Q(0.0951057),
DSP32_Q(0.0884270),
DSP32_Q(0.0732020),
DSP32_Q(0.515080),
DSP32_Q(0.0583150)
};
// The second input signal
A_ALIGNED dsp32_t vect3[VECT3_SIZE] = {
DSP32_Q(0.5),
DSP32_Q(0.101397),
#include "dsp_debug.h"
#include "pm.h"
#include "cycle_counter.h"
//! The size of the input signal
#define VECT2_SIZE 64
//! The number of tap
#define VECT3_SIZE 25
//! The output buffer
A_ALIGNED dsp32_t vect1[VECT2_SIZE + 2*(VECT3_SIZE - 1) + 4]; // <- "+4" for avr32-uc3 optimized FIR version
//! First input signal
A_ALIGNED dsp32_t vect2[VECT2_SIZE] = {
DSP32_Q(0.00000000000),
DSP32_Q(0.05971733275),
DSP32_Q(0.10139671590),
DSP32_Q(0.11013997328),
DSP32_Q(0.07684940150),
DSP32_Q(0.00000000009),
DSP32_Q(-0.11375674268),
DSP32_Q(-0.25026678813),
DSP32_Q(-0.38974690925),
DSP32_Q(-0.50960156480),
DSP32_Q(-0.58778525220),
DSP32_Q(-0.60622623913),
DSP32_Q(-0.55381024235),
DSP32_Q(-0.42847700897),
DSP32_Q(-0.23810168698),
DSP32_Q(-0.00000000072),
#include "sysclk.h"
#include "cycle_counter.h"
// The size of the signal
#define SIZE 32
// log2(SIZE)
#define NLOG 6
// The output buffer
A_ALIGNED dsp32_complex_t vect1[SIZE];
A_ALIGNED dsp32_t fft_real[SIZE];
// Input signal resulting from a multiplication between a cosine and a sine.
A_ALIGNED dsp32_t vect2[SIZE] = {
DSP32_Q(0.0000000000),
DSP32_Q(0.0597173328),
DSP32_Q(0.1013967159),
DSP32_Q(0.1101399733),
DSP32_Q(0.0768494015),
DSP32_Q(0.0000000000),
DSP32_Q(-0.1137567428),
DSP32_Q(-0.2502667883),
DSP32_Q(-0.3897469095),
DSP32_Q(-0.5096015650),
DSP32_Q(-0.5877852523),
DSP32_Q(-0.6062262391),
DSP32_Q(-0.5538102421),
DSP32_Q(-0.4284770086),
DSP32_Q(-0.2381016864),
DSP32_Q(-0.0000000000),
#include "compiler.h"
#include "board.h"
#include "dsp.h"
#include "dsp_debug.h"
#include "pm.h"
#include "cycle_counter.h"
#include "gpio.h"
//! \brief The size of the input signal
#define SIZE 64
//! \brief Buffer containing input data
A_ALIGNED dsp32_t input_x[SIZE] = {
DSP32_Q(0.00000000000),
DSP32_Q(0.03718075139),
DSP32_Q(0.07131184859),
DSP32_Q(0.09963983090),
DSP32_Q(0.11997464035),
DSP32_Q(0.13090169944),
DSP32_Q(0.13191810690),
DSP32_Q(0.12347962859),
DSP32_Q(0.10695389264),
DSP32_Q(0.08448437894),
DSP32_Q(0.05877852523),
DSP32_Q(0.03284069954),
DSP32_Q(0.00967618536),
DSP32_Q(-0.00800483670),
DSP32_Q(-0.01805432735),
DSP32_Q(-0.01909830056),
void svpwm_calc(volatile svpwm_options_t *svpwm_options,U8 dir)
{
volatile U32 dx,dy,div;
volatile U32 T;
div = dsp32_op_div(svpwm_options->teta,svpwm_options->resolution);
dy = dsp32_op_sin(dsp32_op_mul(DSP32_Q(1./3.),div));
dy = (((U64)(svpwm_options->amplitude))*((U64)(dy)))>>DSP32_QB;
div = dsp32_op_div(svpwm_options->resolution-svpwm_options->teta,svpwm_options->resolution);
dx = dsp32_op_sin(dsp32_op_mul(DSP32_Q(1./3.),div));
dx = (((U64)(svpwm_options->amplitude))*((U64)(dx)))>>DSP32_QB;
T = svpwm_options->max_frequency / 2;
if (dir==0)
{
switch(svpwm_options->sector_number)
{
case HS_001 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 + dy/2) ; break ;
case HS_101 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 + dy/2) ; break ;
case HS_100 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 - dy/2) ; break ;
case HS_110 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 - dy/2) ; break ;
case HS_010 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 - dy/2) ; break ;
case HS_011 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 + dy/2) ; break ;
default :
svpwm_options->PWM0 = (unsigned short int) (T) ;
svpwm_options->PWM1 = (unsigned short int) (T) ;
svpwm_options->PWM2 = (unsigned short int) (T) ; break ;
}
}
else
{
switch(svpwm_options->sector_number)
{
case HS_110 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 + dy/2) ; break ;
case HS_010 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 + dy/2) ; break ;
case HS_011 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 - dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 - dy/2) ; break ;
case HS_001 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 + dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T - dx/2 - dy/2) ; break ;
case HS_101 :
svpwm_options->PWM0 = (unsigned short int) (T + dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 - dy/2) ; break ;
case HS_100 :
svpwm_options->PWM0 = (unsigned short int) (T - dx/2 + dy/2) ;
svpwm_options->PWM1 = (unsigned short int) (T - dx/2 - dy/2) ;
svpwm_options->PWM2 = (unsigned short int) (T + dx/2 + dy/2) ; break ;
default :
svpwm_options->PWM0 = (unsigned short int) (T) ;
svpwm_options->PWM1 = (unsigned short int) (T) ;
svpwm_options->PWM2 = (unsigned short int) (T) ; break ;
}
}
}
//! The main function
int main(int argc, char *argv[])
{
dsp32_t number, result;
int cycle_count;
char sin_result[50], cos_result[50], asin_result[50], acos_result[50],
rand_result[50], sqrt_result[50], abs_result[50], ln_result[50],
log2_result[50], log10_result[50], exp_result[50], pow_result[50];
/**
* \note the call to sysclk_init() will disable all non-vital
* peripheral clocks, except for the peripheral clocks explicitly
* enabled in conf_clock.h.
*/
sysclk_init();
// Initialize the DSP debug USART module when running in external board
#if BOARD != AVR_SIMULATOR_UC3
dsp_debug_initialization(FOSC0);
#endif
number = DSP32_Q(NUMBER_TO_COMPUTE);
/*
* Place a breakpoint on sprintf and check the ASCII output in
* %operator%_result in Watch Window or Memory Window.
* Note: Edit the variable name in Watch Window and append
* "&" at the start and ",s" at the end for displaying string.
* Read Watch Window Format Specifiers for more info.
*/
// 32-bit fixed point cosine
cycle_count = Get_sys_count();
result = dsp32_op_cos(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(cos_result, "cos(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point sine
cycle_count = Get_sys_count();
result = dsp32_op_sin(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(sin_result, "sin(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point arc cosine
cycle_count = Get_sys_count();
result = dsp32_op_acos(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(acos_result, "acos(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point arc sine
cycle_count = Get_sys_count();
result = dsp32_op_asin(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(asin_result, "asin(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point random
dsp_op_srand(number);
cycle_count = Get_sys_count();
result = dsp32_op_rand();
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(rand_result, "rand() %f (%i cycles)\n", result,
cycle_count);
// 32-bit fixed point square root
cycle_count = Get_sys_count();
result = dsp32_op_sqrt(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(sqrt_result, "sqrt(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point absolute
cycle_count = Get_sys_count();
result = dsp32_op_abs(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(abs_result, "abs(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point natural logarithm
cycle_count = Get_sys_count();
result = dsp32_op_ln(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(ln_result, "ln(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point binary logarithm
cycle_count = Get_sys_count();
result = dsp32_op_log2(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(log2_result, "log2(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point common logarithm
cycle_count = Get_sys_count();
result = dsp32_op_log10(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(log10_result, "log10(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point exponential
cycle_count = Get_sys_count();
result = dsp32_op_exp(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(exp_result, "exp(%f) %f (%i cycles)\n", number,
result, cycle_count);
// 32-bit fixed point power
cycle_count = Get_sys_count();
result = dsp32_op_pow(DSP32_Q(0.), number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_sprintf(pow_result, "pow(0.5, %f) %f (%i cycles)\n", number,
result, cycle_count);
while (1) {
// Intentionally left blank.
}
}
//! The size of the input signal
#define SIZE 48
// A High-pass IIR Filter
// Butterworth model
// Fsample = 48 KHz
// Fcut-off = 2000 Hz
// Order 5
#define NUM_SIZE 6
#define NUM_PREDIV 3
#define DEN_SIZE 5
#define DEN_PREDIV 3
A_ALIGNED dsp32_t num[NUM_SIZE] = {
DSP32_Q(0.6537018 / (1 << NUM_PREDIV)),
DSP32_Q(-3.2685088 / (1 << NUM_PREDIV)),
DSP32_Q(6.5370176 / (1 << NUM_PREDIV)),
DSP32_Q(-6.5370176 / (1 << NUM_PREDIV)),
DSP32_Q(3.2685088 / (1 << NUM_PREDIV)),
DSP32_Q(-0.6537018 / (1 << NUM_PREDIV))
};
A_ALIGNED dsp32_t den[DEN_SIZE] = {
DSP32_Q(-4.1534907 / (1 << DEN_PREDIV)),
DSP32_Q(6.9612765 / (1 << DEN_PREDIV)),
DSP32_Q(-5.877997 / (1 << DEN_PREDIV)),
DSP32_Q(2.498365 / (1 << DEN_PREDIV)),
DSP32_Q(-0.427326 / (1 << DEN_PREDIV))
};
#define SIZE 144
// A Low-pass IIR Filter
// Butterworth model
// Fsample = 8 KHz
// Fcut-off = 2000 Hz
// Order 18
#define NUM_SIZE 19
#define DEN_SIZE 18
#define PREDIV 2
A_ALIGNED dsp32_t num[NUM_SIZE] = {
DSP32_Q(0.0000274/(1 << PREDIV)),
DSP32_Q(0.0004939/(1 << PREDIV)),
DSP32_Q(0.0041985/(1 << PREDIV)),
DSP32_Q(0.0223922/(1 << PREDIV)),
DSP32_Q(0.0839706/(1 << PREDIV)),
DSP32_Q(0.2351178/(1 << PREDIV)),
DSP32_Q(0.5094219/(1 << PREDIV)),
DSP32_Q(0.8732946/(1 << PREDIV)),
DSP32_Q(1.2007801/(1 << PREDIV)),
DSP32_Q(1.3342001/(1 << PREDIV)),
DSP32_Q(1.2007801/(1 << PREDIV)),
DSP32_Q(0.8732946/(1 << PREDIV)),
DSP32_Q(0.5094219/(1 << PREDIV)),
DSP32_Q(0.2351178/(1 << PREDIV)),
DSP32_Q(0.0839706/(1 << PREDIV)),
DSP32_Q(0.0223922/(1 << PREDIV)),
//! The main function
int main(int argc, char *argv[])
{
dsp32_t number, result;
int cycle_count;
// Switch to external Oscillator 0.
pm_switch_to_osc0(&AVR32_PM, FOSC0, OSC0_STARTUP);
// Initialize the DSP debug module
dsp_debug_initialization(FOSC0);
dsp32_debug_printf("32-bit fixed point operators program test\n");
dsp32_debug_printf("Type a number: ");
number = dsp_debug_read_q(DSP32_QA, DSP32_QB);
dsp32_debug_printf("Number to compute: %f\n", number);
// 32-bit fixed point cosine
cycle_count = Get_sys_count();
result = dsp32_op_cos(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("cos(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point sine
cycle_count = Get_sys_count();
result = dsp32_op_sin(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("sin(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point arc cosine
cycle_count = Get_sys_count();
result = dsp32_op_acos(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("acos(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point arc sine
cycle_count = Get_sys_count();
result = dsp32_op_asin(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("asin(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point random
dsp_op_srand(number);
cycle_count = Get_sys_count();
result = dsp32_op_rand();
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("rand()\t\t\t\t%f\t(%i cycles)\n", result, cycle_count);
// 32-bit fixed point square root
cycle_count = Get_sys_count();
result = dsp32_op_sqrt(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("sqrt(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point absolute
cycle_count = Get_sys_count();
result = dsp32_op_abs(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("abs(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point natural logarithm
cycle_count = Get_sys_count();
result = dsp32_op_ln(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("ln(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point binary logarithm
cycle_count = Get_sys_count();
result = dsp32_op_log2(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("log2(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point common logarithm
cycle_count = Get_sys_count();
result = dsp32_op_log10(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("log10(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point exponential
cycle_count = Get_sys_count();
result = dsp32_op_exp(number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("exp(%f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
// 32-bit fixed point power
cycle_count = Get_sys_count();
result = dsp32_op_pow(DSP32_Q(0.), number);
cycle_count = Get_sys_count() - cycle_count;
dsp32_debug_printf("pow(0.5, %f)\t\t%f\t(%i cycles)\n", number, result, cycle_count);
while(1);
}
