public void setup() {
brek = new AudioSample[4][4];
// load audio samples
minim = new Minim(this);
for (int i = 0; i < 4; i++) {
println("break-beat-0" + (i + 1) + ".mp3");
brek[i][0] = minim.loadSample("break-beat-0" + (i + 1) + ".mp3", 512);
brek[i][1] = minim.loadSample("break-perc-0" + (i + 1) + ".mp3", 512);
brek[i][2] = minim.loadSample("break-piano-0" + (i + 1) + ".mp3", 512);
brek[i][3] = minim.loadSample("break-strings-0" + (i + 1) + ".mp3", 512);
}
size(cellSize * cols, cellSize * rows);
// bytes[0]=0;
// bytes[1]=1;
grid = new Cell[cols][rows];
for (int i = 0; i < cols; i++) {
for (int j = 0; j < rows; j++) {
grid[i][j] = new Cell(i * cellSize, j * cellSize, cellSize, cellSize);
}
}
println(Serial.list());
String portName = Serial.list()[2];
myPort = new Serial(this, portName, 9600);
}
public SoundControl(String s) throws IOException {
MinimObject minimObj = new MinimObject();
minim = new Minim(minimObj);
maxBass = Constants.MAX_PLAYER_SIZE;
frame = Constants.FRAME_TO_GENERATE_ENEMIES;
fftThreshold = Constants.FFT_THRESHOLD;
fftLeftThreshold = Constants.FFT_LEFT_THRESHOLD;
consecFramesGenned = 0;
song = minim.loadFile(s);
songLength = song.length();
songOver = false;
fadeEnter = false;
fft = new FFT(song.bufferSize(), song.sampleRate());
fft.linAverages(bands);
setFftLog(new FFT(song.bufferSize(), song.sampleRate()));
getFftLog().logAverages(22, 12);
fftPrev = new float[bands];
fftDiff = new float[bands];
groupings = new int[120];
beats = new boolean[120];
beat = new BeatDetect(song.bufferSize(), song.sampleRate());
beat.setSensitivity(10);
bl = new BeatListener(beat, song);
}
public boolean validFreq(float f) {
if (f < 60) {
Minim.error("This filter quickly becomes unstable below 60 Hz, setting frequency to 60 Hz.");
return false;
}
return true;
}
public void setup() {
int window_height = 220;
size((int) (window_height * 5.12f), 220);
canvas = createGraphics((int) (window_height * 5.12f) / 2, 220, JAVA2D);
textMode(SCREEN);
textFont(createFont("SanSerif", 12));
minim = new Minim(this);
in = minim.getLineIn(Minim.MONO, buffer_size, sample_rate);
// create an FFT object that has a time-domain buffer
// the same size as line-in's sample buffer
fft = new FFT(in.bufferSize(), in.sampleRate());
// Tapered window important for log-domain display
fft.window(FFT.HAMMING);
// initialize peak-hold structures
peaksize = 1 + Math.round(fft.specSize() / binsperband);
peaks = new float[peaksize];
peak_age = new int[peaksize];
particles = new Particle[fft.specSize()];
for (int i = 0; i < fft.specSize(); i++) particles[i] = new Particle(i);
}
@Override
protected void removeInput(UGen input) {
Minim.debug("Bus::removeInput - Removing " + input + " to the m_ugens list of " + this);
for (int i = 0; i < m_ugens.size(); ++i) {
if (m_ugens.get(i) == input) {
m_ugens.set(i, null);
}
}
}
/**
* Performs a forward transform on the passed buffers.
*
* @param buffReal the real part of the time domain signal to transform
* @param buffImag the imaginary part of the time domain signal to transform
*/
public void forward(float[] buffReal, float[] buffImag) {
if (buffReal.length != timeSize || buffImag.length != timeSize) {
Minim.error("FFT.forward: The length of the passed buffers must be equal to timeSize().");
return;
}
setComplex(buffReal, buffImag);
bitReverseComplex();
fft();
fillSpectrum();
}
public PureWaveSound(Minim minim, float frequency, float intensity) {
// Creates the sine wave
this.wave = new SineWave(frequency, intensity, SAMPLE_RATE);
// Creates an output line, add the wave signal and silence it.
this.output = minim.getLineOut(Minim.MONO, BUFFER_SIZE);
this.output.addSignal(this.wave);
this.output.noSound();
// this.output.mute();
}
// ddf: override because everything that patches to us
// goes into our list. then when we generate a sample
// we'll sum the audio generated by all of the ugens patched to us.
@Override
protected void addInput(UGen input) {
Minim.debug("Bus::addInput - Adding " + input + " to the m_ugens list of " + this);
// it needs to know how many channels of audio we expect
// we set the channel count before adding because concurrency means
// that we might try to tick input between the add finishing and
// setAudioChannelCount completing.
input.setAudioChannelCount(m_tickBuffer.length);
m_ugens.add(input);
}
@Override
public void forward(float[] buffer) {
if (buffer.length != timeSize) {
Minim.error(
"FFT.forward: The length of the passed sample buffer " + "must be equal to timeSize().");
return;
}
doWindow(buffer);
// copy samples to real/imag in bit-reversed order
bitReverseSamples(buffer);
// perform the fft
fft();
// fill the spectrum buffer with amplitudes
fillSpectrum();
}
@Override
public void inverse(float[] buffer) {
if (buffer.length > real.length) {
Minim.error("FFT.inverse: the passed array's length must equal FFT.timeSize().");
return;
}
// conjugate
for (int i = 0; i < timeSize; i++) {
imag[i] *= -1;
}
bitReverseComplex();
fft();
// copy the result in real into buffer, scaling as we do
for (int i = 0; i < buffer.length; i++) {
buffer[i] = real[i] / real.length;
}
}
@Override
public void scaleBand(int i, float s) {
if (s < 0) {
Minim.error("Can't scale a frequency band by a negative value.");
return;
}
if (spectrum[i] != 0) {
real[i] /= spectrum[i];
imag[i] /= spectrum[i];
spectrum[i] *= s;
real[i] *= spectrum[i];
imag[i] *= spectrum[i];
}
if (i != 0 && i != timeSize / 2) {
real[timeSize - i] = real[i];
imag[timeSize - i] = -imag[i];
}
}
@Override
public void setBand(int i, float a) {
if (a < 0) {
Minim.error("Can't set a frequency band to a negative value.");
return;
}
if (real[i] == 0 && imag[i] == 0) {
real[i] = a;
spectrum[i] = a;
} else {
real[i] /= spectrum[i];
imag[i] /= spectrum[i];
spectrum[i] = a;
real[i] *= spectrum[i];
imag[i] *= spectrum[i];
}
if (i != 0 && i != timeSize / 2) {
real[timeSize - i] = real[i];
imag[timeSize - i] = -imag[i];
}
}
// EVENTUALLY, ASSOCIATE A SOUNDFILE FROM THE CONSTRUCTOR AS WELL!!!
public Dialog(String sFile, int time, Minim m) {
timeStamp = time;
type = DIA_TIME;
ap = m.loadFile(sFile, 2048);
}
public void stop() {
in.close();
minim.stop();
super.stop();
}
public void stop() {
song.close();
minim.stop();
}
public void setup() {
size(1200, 200, JAVA2D);
preview = createGraphics(width, 100);
minim = new Minim(this);
mimp = new JSMinim(this);
mimp.debugOn();
// specify that we want the audio buffers of the AudioPlayer
// to be 1024 samples long because our FFT needs to have
// a power-of-two buffer size and this is a good size.
jingle = minim.loadFile(filename, 1024);
// loop the file indefinitely
jingle.loop();
// create an FFT object that has a time-domain buffer
// the same size as jingle's sample buffer
// note that this needs to be a power of two
// and that it means the size of the spectrum will be half as large.
fft = new FFT(jingle.bufferSize(), jingle.sampleRate());
MultiChannelBuffer sampleBuffer = new MultiChannelBuffer(0, 0); // params don't matter!
float jingleBuffer = loadFileIntoBuffer(filename, sampleBuffer);
totalSamples = sampleBuffer.getBufferSize();
beat = new BeatDetect(4096 * 4, jingle.sampleRate());
beat.setSensitivity(1);
beat.detectMode(BeatDetect.FREQ_ENERGY);
// find ALL beats
float data[] = new float[2048];
samples = sampleBuffer.getChannel(1);
// for( int i = 0; i < samples.length; i+= data.length ){
// int j = Math.min( samples.length-1, i + data.length - 1 );
//// System.out.println( "copy up to including " + ( j ) + " / " + samples.length);
// System.arraycopy( samples, i, data, 0, 1 + j - i );
// beat.detect( data );
// if( beat.isOnset() ){
// beats.add( i );
// System.out.println( i + ": " + beat.isKick() );
// }
// }
// pick some starting point ...
loopEnd = samples.length;
int start = (int) random(3 * samples.length / 5);
analyze(start);
new Thread() {
public void run() {
try {
while (true) {
Thread.sleep(1);
// figure it out
int s = (int) (loopStart * 1000l / jingle.getFormat().getSampleRate());
int e = (int) (loopEnd * 1000l / jingle.getFormat().getSampleRate());
if (jingle.position() < s) jingle.cue(s + 10);
else if (jingle.position() > e) jingle.cue(s);
else continue;
Thread.sleep(500);
}
} catch (InterruptedException e) {
e.printStackTrace();
}
}
}.start();
// System.exit(0);
}
SplashScreen(PApplet p) {
parent = p;
splash1 = loadImage("spaceFury01.png");
splash2 = loadImage("spaceFury02.png");
splash3 = loadImage("spaceFury03.png");
playbutton = loadImage("playbutton.png");
playbutton2 = loadImage("playbutton2.png");
highscorebutton = loadImage("highscore.png");
highscorebutton2 = loadImage("highscore2.png");
settingbutton = loadImage("setting.png");
settingbutton2 = loadImage("setting2.png");
quitbutton = loadImage("quit.png");
quitbutton2 = loadImage("quit2.png");
backbutton = loadImage("back.png");
backbutton2 = loadImage("back2.png");
// control images
moverl = parent.loadImage("moverightleft.png");
spaceShoot = parent.loadImage("spaceShoot.png");
pauseimg = parent.loadImage("pauseimg.png");
buttonR = parent.loadImage("buttonR.png");
buttonM = parent.loadImage("buttonM.png");
buttonQ = parent.loadImage("buttonQ.png");
// headers
controlsline = parent.loadImage("controlsline.png");
bulletsline = parent.loadImage("bulletsline.png");
difficultyline = parent.loadImage("difficultyline.png");
// firebullet
bullet1 = parent.loadImage("fireball1.png");
bullet2 = parent.loadImage("fireball2.png");
bullet3 = parent.loadImage("fireball3.png");
bullet4 = parent.loadImage("fireball4.png");
// waterbullet
waterbullet1 = parent.loadImage("waterbullet1.png");
waterbullet2 = parent.loadImage("waterbullet2.png");
waterbullet3 = parent.loadImage("waterbullet3.png");
waterbullet4 = parent.loadImage("waterbullet4.png");
// difficulty image rollover
easy = parent.loadImage("easy.png");
easy2 = parent.loadImage("easy2.png");
medium = parent.loadImage("medium.png");
medium2 = parent.loadImage("medium2.png");
hard = parent.loadImage("hard.png");
hard2 = parent.loadImage("hard2.png");
// highscore animation images
topShooters = parent.loadImage("topShooters.png");
topShooters2 = parent.loadImage("topShooters2.png");
topShooters3 = parent.loadImage("topShooters3.png");
topShooters4 = parent.loadImage("topShooters4.png");
topShooters5 = parent.loadImage("topShooters5.png");
topShooters6 = parent.loadImage("topShooters6.png");
scoreList.add(0);
scoreList.add(0);
scoreList.add(0);
minim = new Minim(this);
menuMusic = minim.loadFile("menuMusic.mp3", 2048);
menuMusic.play();
}
