LUTs_debug.h

00001 #ifndef LUTS_DEBUG_H
00002 #define LUTS_DEBUG_H
00003 
00004 /** Spaceship Test
00005 @brief Checks LUT values are correct
00006 @author Luke Cartwright, University of Leeds
00007 @date May 2020
00008 @return true if debug is passed
00009 */
00010 
00011 // Objects
00012 LUTs luts;
00013 
00014 /**debugs sine wave
00015 * @takes input wavetable number and expected
00016 * @returns true sin table value
00017 */ 
00018 bool sin_debug(int i, int expected_sin) {
00019     luts.sin_wavetable();
00020     if (sin_wavtable[i]==expected_sin) {
00021         return (1);
00022     } else {
00023         printf("expected-%i__real-%u \n",expected_sin,sin_wavtable[i]);
00024         return(0);
00025     }
00026 }
00027 
00028 /**debugs tri wave
00029 * @takes input Pulsewidth, wavetable number and expected
00030 * @returns true tri table value
00031 */ 
00032 bool tri_debug(int pulsewidth,int i, int expected_tri)
00033 {
00034     luts.tri_wavetable(pulsewidth);
00035 
00036     if (tri_wavtable[i]==expected_tri) {
00037         return (1);
00038     } else {
00039         printf("expected-%i__real-%u \n",expected_tri,tri_wavtable[i]);
00040         return(0);
00041     }
00042 }
00043 
00044 /**debugs sqr wave
00045 * @takes input Pulsewidth, wavetable number and expected
00046 * @returns true sqr table value
00047 */
00048 bool pulse_debug(int pulsewidth,int i, int expected_pulse)
00049 {
00050     luts.pulse_wavetable(pulsewidth);
00051 
00052     if (pulse_wavtable[i]==expected_pulse) {
00053         return (1);
00054     } else {
00055         printf("expected-%i__real-%u \n",expected_pulse,pulse_wavtable[i]);
00056         return(0);
00057     }
00058 }
00059 
00060 #endif