Maximilian Examples

Author: pschatzmann

examples/examples-maximilian/00-Setup/Setup.ino

@@ -18,7 +18,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
     output[0]=mySine.sinewave(440);
     output[1]=output[0];
 }

examples/examples-maximilian/01-TestTone/01-testTone.ino

@@ -20,7 +20,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {//this is where the magic happens. Very slow magic.
+void play(float *output) {//this is where the magic happens. Very slow magic.
     //output[0] is the left output. output[1] is the right output
     output[0]=mySine.sinewave(440)+myOtherSine.sinewave(441);//these two sines will beat together. They're now a bit too loud though..
     output[1]=output[0];

examples/examples-maximilian/02-TwoTones/02-TwoTones.ino

@@ -20,7 +20,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
 
     // This form of amplitude modulation is straightforward multiplication of two waveforms.
     // Notice that the maths is different to when you add waves.

examples/examples-maximilian/03-AM1/03-AM1.ino

@@ -23,7 +23,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
 
     //Using the phasor we can create a ramp, and use this ramp to set the frequency of one of the waves.
     //When the frequency of the lower waveform passes over the threshold of 20hz, we start to hear two new waveforms.

examples/examples-maximilian/04-AM2/04-AM2.ino

@@ -27,7 +27,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
 
     // In this example, the 'myOtherSine.sinewave' is at an amplitude of 1, it's original amplitude.
     // This is pretty simple and not too useful.

examples/examples-maximilian/05-FM1/05-FM1.ino

@@ -21,7 +21,7 @@ void setup() {//some inits
   maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
     output[0]=mySine.sinewave(myOtherSine.sinewave(myLastSine.sinewave(0.1)*30)*440);//awesome bassline
     output[1]=output[0];
 }

examples/examples-maximilian/06-FM2/06-FM2.ino

@@ -27,7 +27,7 @@ void setup() {
     freq=20; // Here we initialise the variable
 }
 
-void play(double *output) {
+void play(float *output) {
 
     myClock.ticker(); // This makes the clock object count at the current samplerate
 

examples/examples-maximilian/07-Counting1/07-Counting1.ino

@@ -28,7 +28,7 @@ void setup() {//some inits
     maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
 
     // Here you can see that CurrentCount is an int. It's taking the continuous output of the phasor and convering it.
     // You don't need to explicityly 'cast' (i.e. change) the value from a float to an int.

examples/examples-maximilian/08-Counting2/08-Counting2.ino

@@ -21,7 +21,7 @@ void setup() {//some inits
     maximilian.begin(cfg);
 }
 
-void play(double *output) {
+void play(float *output) {
 
 	CurrentCount=myCounter.phasorBetween(1, 1, 9);//phasor can take three arguments; frequency, start value and end value.