void Page::setNormHandAt(ofPoint _hand, float lerpPct){
if ( hand != _hand ){
hand.x = ofLerp(hand.x, _hand.x, lerpPct );
hand.y = ofLerp(hand.y, _hand.y, lerpPct );
bChange = true;
}
}
//--------------------------------------------------------------
void Page::preDraw()
{
ofPushMatrix();
ofPoint currPos;
currPos.x = ofLerp(startPos.x, pos.x, tornadoAmount);
currPos.y = ofLerp(startPos.y, pos.y, tornadoAmount);
currPos.z = ofLerp(startPos.z, pos.z, tornadoAmount);
ofTranslate(currPos);
// sway
ofTranslate(swayPos);
ofRotate(RAD_TO_DEG * (swayAngle + M_PI / 2), 0, 0, 1);
// flip
ofRotate(RAD_TO_DEG * flipAngle, 0, 0, 1);
// vert bend
ofTranslate(0, vertOffsetY);
ofRotate(vertAngle, 1, 0, 0);
// twirl
ofRotate(RAD_TO_DEG * twirlAngle, 0, 1, 0);
// tilt
ofRotate(RAD_TO_DEG * tiltAngle, 1, 0, 1);
// align
ofRotate(RAD_TO_DEG * alignAngle * alignAmount, alignPivot.x, alignPivot.y, alignPivot.z);
}
ofVec3f testApp::startAnimationCameraPosition()
{
float smoothnessFactor=35*SpiralPoints[700*cameraindex].z +1.6*combinedImageObjects[numberofImages-cameraindex].theloadedimage.getHeight();
float timeInterval=smoothnessFactor/1500;
if(startAnimationCounter<=smoothnessFactor-timeInterval)
{
tweenvalue = (startAnimationCounter) /smoothnessFactor;
if(tweenvalue<0.98)
startAnimationCounter+=timeInterval;
else startAnimationCounter+=(timeInterval);
overshotCameraStartingPosition=tweenedCameraPosition;
}
//else isstartingAnimationActive=false;
else {startAnimationCounter=0; startoverShotCameraAnimation=true;
}
tweenedCameraPosition.x=ofLerp(0, 0 , tweenvalue);
tweenedCameraPosition.y=ofLerp(0, 0, tweenvalue);
tweenedCameraPosition.z=ofLerp(0, 35*SpiralPoints[700*cameraindex].z +21.6*combinedImageObjects[numberofImages-cameraindex].theloadedimage.getHeight(), tweenvalue);
return tweenedCameraPosition;
}
//-------------------------------------------------------------
void camApp::riseFallUpdate(){
bSlowDown = false;
for(int i = 0; i < nodes.size(); i++){
nodes[i]->checkState(myPerson.pos.x, myPerson.pos.y, myPerson.pos.z);
if( nodes[i]->shouldPersonWait() ){
bSlowDown = true;
}
}
//TODO: make this escapable by allowing people to move out of the node!
if( percentOver >= 1.0 ){
bSlowDown = true;
}
if( bSlowDown ){
dragAmnt = ofLerp(dragAmnt, 0.75, 0.2);
updateSpeed = ofLerp(updateSpeed, 0.06, 0.25);
}else{
dragAmnt = ofLerp(dragAmnt, 1.0, 0.2);
updateSpeed = ofLerp(updateSpeed, 1.0, 0.05);
}
}
ofVec3f testApp::adjustoverShotCameraPosition()
{
float smoothnessFactor=35*SpiralPoints[700*cameraindex].z +1.6*combinedImageObjects[numberofImages-cameraindex].theloadedimage.getHeight();
float timeInterval=smoothnessFactor/500;
// cout<<"smoothness factor\n"<<smoothnessFactor;
if(startAnimationCounter<=smoothnessFactor-timeInterval)
{
cout<<"\nCamera Position"<< tweenedCameraPosition.z;
tweenvalue = (startAnimationCounter) /smoothnessFactor;
if(tweenvalue<0.98)
startAnimationCounter+=timeInterval;
else startAnimationCounter+=(timeInterval);
}
else {isstartingAnimationActive=false;startoverShotCameraAnimation=false;}
tweenedCameraPosition.x=ofLerp(0, 35*SpiralPoints[700*cameraindex].x, tweenvalue);
tweenedCameraPosition.y=ofLerp(0, 35*SpiralPoints[700*cameraindex].y, tweenvalue);
tweenedCameraPosition.z=ofLerp(overshotCameraStartingPosition.z, 35*SpiralPoints[700*cameraindex].z +1.6*combinedImageObjects[numberofImages-cameraindex].theloadedimage.getHeight(), tweenvalue);
return tweenedCameraPosition;
}
ofPoint LedStrip::getLedPosition(int led){
float ledX = ofLerp(start.x, end.x, led / (float)ledCount);
float ledY = ofLerp(start.y, end.y, led / (float)ledCount);
return ofPoint(ledX,ledY);
}
void ofApp::updateMesh(ofMesh* mesh, ofMesh* MeshOut) {
for (int i=0; i<mesh->getNumVertices(); i++) {
auto vertex = mesh->getVertex(i);
auto normal = mesh->getNormal(i);
// calc noise distortion
auto noiseVert = vertex / noiseInDiv;
if (isNoiseFromNormal) {
// use normals
noiseVert = MeshOut->getNormal(i) / noiseInDiv;
// Sydney Opera House
float scalar = i % noiseVertMod;
noiseVert = ofVec3f(scalar, scalar, scalar) * noiseInDiv;
}
// simplex noise creates uneven shapes
float noise = ofNoise(noiseVert.z*noiseIn.get().z, noiseVert.x*noiseIn.get().x, noiseVert.y*noiseIn.get().y) -0.5;
// sin multiplier gives more even lumps
//noise = sin(noiseVert.z*noiseIn.get().x) * sin(noiseVert.x*noiseIn.get().y) * sin(noiseVert.y*noiseIn.get().z);
// cos multiplier gives more even lumps
//noise = cos(noiseVert.z*noiseIn.get().x) * cos(noiseVert.x*noiseIn.get().y) * cos(noiseVert.y*noiseIn.get().z);
// threshold for square shapes
//if (noise > 0.2) noise = 0.5;
//if (noise < -0.2) noise = -0.5;
auto nextVertex = vertex += normal * (noise * noiseOutMult);
auto lastVert = MeshOut->getVertex(i);
vertex.x = ofLerp(lastVert.x, nextVertex.x, 0.1);
vertex.y = ofLerp(lastVert.y, nextVertex.y, 0.1);
vertex.z = ofLerp(lastVert.z, nextVertex.z, 0.1);
// update vert
MeshOut->setVertex(i, vertex);
}
}
//--------------------------------------------------------------
void ofApp::draw() {
ofBackground(255);
if(debugMode) {
ofSetColor(0);
// draw a vector field for the debug screen
for(int i = 0; i < width; i += step) {
for(int j = 0; j < height; j += step) {
ofVec2f field = getField(ofVec2f(i, j));
ofPushMatrix();
ofTranslate(i, j);
ofSetColor(0);
ofDrawLine(0, 0, ofLerp(-windSpeed, windSpeed, field.x), ofLerp(-windSpeed, windSpeed, field.y));
ofPopMatrix();
}
}
// draw the points as circles
ofSetColor(ofColor::red);
for(int i = 0; i < nPoints; i++) {
ofDrawCircle(points[i], 2);
}
} else {
// when not in debug mode, draw all the points to the screen
ofSetColor(0, 10);
cloud.draw();
}
ofDrawBitmapStringHighlight("click to reset\nhit any key for debug", 10, 10, ofColor::white, ofColor::black);
}
void Subdivision::update()
{
int r, g, b;
if (parent == NULL) return;
if (parent->horizontal)
{
x = parent->x + (topleft ? 0.0 : parent->width * parent->ratio);
y = parent->y;
width = parent->width * (topleft ? parent->ratio : 1.0 - parent->ratio);
height = parent->height;
}
else
{
y = parent->y + (topleft ? 0.0 : parent->height * parent->ratio);
x = parent->x;
width = parent->width;
height = parent->height * (topleft ? parent->ratio : 1.0-parent->ratio);
}
if (*isLerp)
{
r = ofClamp(ofLerp(255 * color->r, 255 * parent->color->r +
255 * varColor->r * 0.2 * offset.x, 0.2), 0, 255);
g = ofClamp(ofLerp(255 * color->g, 255 * parent->color->g +
255 * varColor->g * 0.2 * offset.y, 0.2), 0, 255);
b = ofClamp(ofLerp(255 * color->b, 255 * parent->color->b +
255 * varColor->b * 0.2 * offset.z, 0.2), 0, 255);
}
else
{
r = 255 * parent->color->r + 255 * varColor->r * offset.x;
g = 255 * parent->color->g + 255 * varColor->g * offset.y;
b = 255 * parent->color->b + 255 * varColor->b * offset.z;
}
color->set(ofColor(r, g, b, 255));
}
Lights::Lights( int x, int y, int w, int h, int r){
bActive = false;
whichLight = 1;
ofSetCircleResolution(100);
int index=0;
// top
for (int i=0; i < 10; i++ ){
ofVec2f p = ofVec2f(ofLerp( (float) x + r*2, (float)x + r + (w-r),(float)i/10.0f), y);
points.push_back(p);
index++;
}
// right
for (int i=0; i < 8; i++ ){
ofVec2f p = ofVec2f(x + w, ofLerp( (float) y + r*2, (float) y + r + (h-r),(float)i/8.0f) );
points.push_back(p);
index++;
}
// bottom
for (int i=0; i < 11; i++ ){
ofVec2f p = ofVec2f(ofLerp( (float)x + r + (w-r), (float) x + r*2, (float)i/10.0f), y + h);
points.push_back(p);
index++;
}
// left
for (int i=0; i < 8; i++ ){
ofVec2f p = ofVec2f(x, ofLerp((float) y + r + (h-r), (float) y + r *2, (float)i/8.0f));
points.push_back(p);
index++;
}
}
void lineOsc::update() {
for (int i = 0; i < lineObjs.size(); i++) {
float t = ofMap(sin(TWO_PI * ofGetFrameNum() / lineObjs[i].frequency), -1, 1, 0, 1);
lineObjs[i].position.x = ofLerp(lineObjs[i].start.x, lineObjs[i].end.x, t);
lineObjs[i].position.y = ofLerp(lineObjs[i].start.y, lineObjs[i].end.y, t);
for (int j = 0; j < lineObjs.size(); j++) {
if(j != i && lineObjs[i].playing == false) {
float ac = ofDist(lineObjs[j].start.x, lineObjs[j].start.y, lineObjs[i].position.x, lineObjs[i].position.y);
float cb = ofDist(lineObjs[i].position.x, lineObjs[i].position.y, lineObjs[j].end.x, lineObjs[j].end.y);
float ab = ofDist(lineObjs[j].start.x, lineObjs[j].start.y, lineObjs[j].end.x, lineObjs[j].end.y);
if (abs((ac + cb) - ab) <= 1.0) {
//Wave Object i collided with the string of Wave Object j
lineObjs[i].playing = true;
int degree = (int)ofMap(i, 0, lineObjs.size(), 0, 10);
trigger(degree);
}
}
lineObjs[i].playCounter--;
if(lineObjs[i].playCounter == 0) {
lineObjs[i].playing = false;
lineObjs[i].playCounter = PLAY_DURATION;
}
}
}
}
void Ribbon::draw()
{
ofPushStyle();
ofNoFill();
ofSetLineWidth(lineWidth);
ofSetColor(contour->color, ofMap(abs(age - maxAge * 0.5), 0, maxAge * 0.5, maxAlpha, 0));
ofBeginShape();
for (int i = 0; i < points.size(); i++)
{
if (match)
{
idxMatched = floor(contour->points.size() * lookupMatched[i]);
points[i].x = ofLerp(points[i].x, contour->points[idxMatched].x +
margin * ofSignedNoise(i * noiseFactor, ageFactor * age, 5), lerpRate);
points[i].y = ofLerp(points[i].y, contour->points[idxMatched].y +
margin * ofSignedNoise(i * noiseFactor, ageFactor * age, 10), lerpRate);
}
else
{
points[i].x = ofLerp(points[i].x, contour->points[lookup[i]].x +
margin * ofSignedNoise(i * noiseFactor, ageFactor * age, 5), lerpRate);
points[i].y = ofLerp(points[i].y, contour->points[lookup[i]].y +
margin * ofSignedNoise(i * noiseFactor, ageFactor * age, 10), lerpRate);
}
curved ? ofCurveVertex(points[i].x, points[i].y) : ofVertex(points[i].x, points[i].y);
}
ofEndShape();
ofPopStyle();
}
ofVec2f
testApp::blob_to_data(ofxCvBlob &blob, int which)
{
ofPoint cent = blob.centroid;
float in_x, in_y;
float tgt_x, tgt_y;
in_x = cent.x;
in_y = kinect.getHeight() - blob.boundingRect.getMinY();
//not enough change
if (abs(in_x - prev_points[which].x) < blob_eps && abs(in_y - prev_points[which].y) < blob_eps) {
tgt_x = prev_points[which].x;
tgt_y = prev_points[which].y;
return(ofVec2f(0.0, 0.0));
}
tgt_x = ofLerp(prev_points[which].x, in_x, 0.8);
tgt_y = ofLerp(prev_points[which].y, in_y, 0.8);
prev_points[which].x = tgt_x;
prev_points[which].y = tgt_y;
tgt_x /= (float)kinect.getWidth();
tgt_y /= (float)kinect.getHeight();
return(ofVec2f(tgt_x, tgt_y));
}
void ofApp::update() {
if(ofGetKeyPressed('1')) {
ofSeedRandom(0);
for(int i = 0; i < mesh.getNumVertices(); i++) {
ofVec3f point = mesh.getVertex(i);
point*=1.001;
point+=ofVec3f(ofRandomf(), ofRandomf(), ofRandomf());
mesh.setVertex(i, point);
}
}
if(ofGetKeyPressed('2')) {
for(int i = 0; i< referenceMesh.getNumVertices(); i++) {
ofVec3f refpoint = referenceMesh.getVertex(i);
ofVec3f point = mesh.getVertex(i);
float increment=1-.3;
float lerpX = ofLerp(refpoint.x, point.x, increment);
float lerpY = ofLerp(refpoint.y, point.y, increment);
float lerpZ = ofLerp(refpoint.z, point.z, increment);
ofVec3f move(lerpX, lerpY, lerpZ);
ofColor cur = referenceMesh.getColor(i).lerp(mesh.getColor(i), increment);
mesh.setColor(i, cur);
mesh.setVertex(i, move);
}
}
}
//-----------------------------------------------------------------------------------------
//
void ofApp::update()
{
// Update time, this let's us hit space and slow down time, even reverse it.
if( ofGetKeyPressed(' ') ) { timeStep = ofLerp( timeStep, ofMap( ofGetMouseX(), 0, ofGetWidth(), -(1.0f/60.0f), (1.0f/60.0f) ), 0.1f );}
else { timeStep = ofLerp( timeStep, 1.0f / 60.0f, 0.1f ); }
time += timeStep;
}
void CirclePainter::update()
{
//interpolate current into wanted
_radius.value = ofLerp(_radius.value, _radius.target, _radius.changeRate);
_radius.target = ofLerp(_radius.target, _radius.init, _radius.changeRate);
_theta = _tempo.getBarProgress() * TWO_PI;
}
void GuiRangeSliderBase::update()
{
if (lerpFrame < lerpNumFrames)
{
setValueLow(ofLerp(lerpPrevLow, lerpNextLow, (float) lerpFrame / (lerpNumFrames-1)));
setValueHigh(ofLerp(lerpPrevHigh, lerpNextHigh, (float) lerpFrame / (lerpNumFrames-1)));
lerpFrame++;
}
}
void Graph::addSample(float sample) {
noData = false;
if(!buffer.empty() && (upSmoothing != 0 || downSmoothing != 0)) {
if(sample > buffer.back()) {
sample = ofLerp(sample, buffer.back(), upSmoothing);
} else {
sample = ofLerp(sample, buffer.back(), downSmoothing);
}
}
if(minRange != 0 || maxRange != 0) {
sample = ofClamp(sample, minRange, maxRange);
}
if(!buffer.empty()) {
float diff = sample - buffer.back();
float cmp = bidirectional ? abs(diff) : diff;
if(!derivative.empty() && derivative.back() < threshold && cmp > threshold) {
lastTrigger = ofGetElapsedTimef();
triggered = true;
} else {
triggered = false;
}
derivative.push_back(abs(diff));
}
buffer.push_back(sample);
// could use a better datastructure to avoid resorting every sample
float curThreshold = getMedian(derivative, percentile);
if(threshold == 0 || threshold != threshold) {
threshold = curThreshold;
} else {
threshold = ofLerp(curThreshold, threshold, thresholdSmoothing);
}
bufferPolyline = buildPolyline(buffer);
derivativePolyline = buildPolyline(derivative);
bufferBox = getBoundingBox(buffer);
derivativeBox = getBoundingBox(derivative);
if(minRange != 0 || maxRange != 0) {
bufferBox.y = minRange;
bufferBox.height = maxRange - minRange;
buffer.back() = ofClamp(buffer.back(), minRange, maxRange);
}
if(bufferBox.height > FLT_EPSILON) {
normalized = ofMap(buffer.back(), bufferBox.y, bufferBox.y + bufferBox.height, 0, 1);
}
if(derivative.size() > 0 && derivativeBox.height > FLT_EPSILON) {
normalizedDerivative = ofMap(derivative.back(), derivativeBox.y, derivativeBox.y + derivativeBox.height, 0, 1);
}
activity = ofLerp(normalizedDerivative, activity, activitySmoothing);
}
//------------------------------------------------------------------------------
void branch::update(float factor, float drawPctIn){
if( drawPct < 0.2 && drawPctIn >= 0.2 ){
if( lines.size() ){
ofPoint tipPos = lines.back().getTip();
globalSnd.play("BRANCH_GROWING", ofRandom(0.8, 0.9), 1.0, ofMap(tipPos.x, -(float)ofGetWidth()/2, (float)ofGetWidth()/2, -1, 1, true) );
}
}
if( ourLeafState == LEAF_DYING && leafHealthPct > 0.01 ){
leafHealthPct *= 0.98;
if( leafHealthPct <= 0.01 ){
leafHealthPct = 0.0;
}
}
if( ourLeafState == LEAF_GROWING && leafHealthPct < 1.0 ){
leafHealthPct += 0.03;
if( leafHealthPct >= 1.0 ) leafHealthPct = 1.0;
for(int i = 0; i < lines.size(); i++){
for(int k = 0; k < lines[i].leafs.size(); k++){
if( lines[i].leafs[k].visible == false ){
lines[i].leafs[k].visible = true;
}
lines[i].leafs[k].shrink = ofLerp(lines[i].leafs[k].shrink, 1.0, 0.1);
}
}
}
if( lines.size() && level == 0 && drawPctIn >= 1.0){
if( leafHealthPct < 0.7 && ourLeafState == LEAF_DYING ){
updateAngle(270);
for(int i = 0; i < children.size(); i++){
children[i].updateAngle(270);
}
}
}
drawPct = drawPctIn;
for(int i = 0; i < lines.size(); i++){
lines[i].update(factor, leafHealthPct);
lines[i].scale = powf(ofClamp(drawPct*4, 0, 1), 0.2);
if( leafHealthPct > 0.3 && ourLeafState != LEAF_DYING ){
lines[i].restoreAngleToTarget();
}
}
for(int k = 0; k < children.size(); k++){
children[k].update(factor, MAX(0, ofLerp(children[k].drawPct, drawPct-1.0, 0.1)) );
}
}
void froebelContainer::update(){
bgColor.update();
slider.x = x;
if (bEnable){
// Adjust the size
//
if (totalBoxHeight != height)
height = ofLerp(height, totalBoxHeight, damp);
// Recalculate the totalLenght of the elements
//
totalLenght = 0;
for(int i = 0; i < elements.size(); i++){
totalLenght += elements[i]->height;
}
if (totalLenght > height){
ofPoint mouse = ofPoint(ofGetMouseX(),ofGetMouseY());
// Scrolling
//
if ( inside(mouse) ){
// if ( bCheckList || (getSelected().size() == 0) ){
float offsetPct = ofMap(mouse.y-y, 0,height,0.0,1.0,true);
float diff = totalLenght - height;
offsetY = ofLerp(offsetY, -diff * offsetPct, damp);
// Slider Scrolling
//
slider.y = y + ofMap(offsetY,0,-totalLenght,0,height);
slider.height = (height/totalLenght)*height;
// }
}
}
float previusY = 0;
for(int i = 0; i < elements.size(); i++){
elements[i]->x = x ;
elements[i]->y = y + previusY + offsetY;
elements[i]->width = width;
elements[i]->update();
previusY += elements[i]->height;
}
} else {
if (totalBoxHeight != height)
height = ofLerp(height, 0.0, damp);
}
}
//--------------------------------------------------------------
void ofxUIMovingGraphThreshold::setThreshold(float _value)
{
m_thresholdValue = _value;
if (m_thresholdValue<getMin()){
ofLog()<< "setting thresold to mid range (value too low)";
m_thresholdValue = ofLerp(getMin(),getMax(),0.5f);
}
else
if (m_thresholdValue>getMax()){
ofLog()<< "setting thresold to mid range (value too high)";
m_thresholdValue = ofLerp(getMin(),getMax(),0.5f);
}
}
void ofApp::update(){
// particle collision detection
for(std::size_t i = 0; i < numNodes; i++){
particles[i].update();
if(particles[i].position.x > cageSize || particles[i].position.x < 0) {
particles[i].velocity.x *= -1.0;
}
if(particles[i].position.y > cageSize || particles[i].position.y < 0) {
particles[i].velocity.y *= -1.0;
}
if(particles[i].position.z > cageSize || particles[i].position.z < 0) {
particles[i].velocity.z *= -1.0;
}
}
//attractor noise and collision detection
t = ofGetFrameNum() * timeSpeed; // time value for noiseField
ofPoint field = noiseField(attractorCenter);
float speed = (1 + ofNoise(t, field.x, field.y)) / speedLim;
attractorCenter.x += ofLerp(-speed, speed, field.x);
attractorCenter.y += ofLerp(-speed, speed, field.y);
if(attractorCenter.x > cageSize || attractorCenter.x < 0) {
attractorCenter.x = ofGetWidth()/2;
}
if(attractorCenter.y > cageSize || attractorCenter.y < 0) {
attractorCenter.y = ofGetHeight()/2;
}
// normalize volume input
if(!soundP){
scaledVol = ofMap(sqrt(smoothedVol), 0.0, 0.412, 0.0, 1.0, true);
}
// for SoundPlayer get levels
if (soundP) {
float * val = ofSoundGetSpectrum(1);
scaledVol = val[0]*10;
}
}
void measureCamFps(){
float timeDiff = ofGetElapsedTimef()-lastTime;
lastTime = ofGetElapsedTimef();
float curFps = 1.0/ofClamp(timeDiff, .01, 1000);
camFps = ofLerp(curFps, camFps, .95);
}
void echoBackChanger::update()
{
if(!isTransitionFinished)
{
backOpacity = ofLerp(backOpacity,FULL_TRANSPARENT,lerpSpeed);
if(backOpacity < FULL_TRANSPARENT + THRESHOLD)
{
backOpacity = FULL_VISIBLE;
currentImageNumber = nextImageNumber;
if(currentImageNumber == images.size() - 1) nextImageNumber = 0;
else nextImageNumber = nextImageNumber + 1;
isTransitionFinished = true;
isTimerBegan = false;
}
}
else
{
if(!isTimerBegan)
{
timer->beginCountdown();
isTimerBegan = true;
}
timer->update();
if(timer->getCompleteness()) nextBackground();
}
}
void update() {
if( goFullscreen == 2 ){
ofSetFullscreen(false);
ofSetWindowPosition(1920, 0);
}
if( goFullscreen == 4 ){
ofSetFullscreen(true);
ofViewport(ofGetNativeViewport());
}
goFullscreen++;
if(goFullscreen > 4 && ofGetWindowPositionX() < 1440) {
goFullscreen = 0;
}
renderTimer.tick();
while(osc.hasWaitingMessages()) {
ofxOscMessage msg;
osc.getNextMessage(&msg);
if(msg.getAddress() == "/lookAngle/set") {
targetLookAngle = msg.getArgAsFloat(0);
}
if(msg.getAddress() == "/lookAngle/add") {
targetLookAngle += msg.getArgAsFloat(0);
ofLog() << "targetLookAngle: " << targetLookAngle;
}
if(msg.getAddress() == "/screenshot") {
saveScreen("button/");
}
}
lookAngle = ofLerp(lookAngle, targetLookAngle, .1);
if(screenshotTimer.tick()) {
// saveScreen("automatic/"); // uncomment to enable automatic screenshot
}
}
void testApp::drawLife(int id) {
Player& player = players[id];
ofEnableAlphaBlending();
if(player.life > 0) {
ofSetColor(255, 255);
} else {
ofSetColor(255, 64);
}
ofPushMatrix();
ofVec2f position = player.position;
ofTranslate(ofLerp(position.x, ofGetWidth() / 2, panel.getValueF("lifecenter")), position.y + panel.getValueF("lifey"));
int w = heartFull.getWidth();
float scale = ofMap(player.life, 0, Player::maxLife, 1., .3);
ofScale(scale, scale);
ofPushMatrix();
ofScale(8, 8);
string name = "PLAYER " + ofToString(id + 1);
ofDrawBitmapString(name, -4. * name.size(), -4);
ofPopMatrix();
ofTranslate(-w * Player::maxLife / 2., 0);
for(int i = 0; i < Player::maxLife; i++) {
if(i < player.life) {
heartFull.draw(0, 0);
} else {
heartEmpty.draw(0, 0);
}
ofTranslate(w, 0);
}
ofPopMatrix();
ofDisableAlphaBlending();
}
//--------------------------------------------------------------
void ofApp::audioIn(ofSoundBuffer & buffer){
// modified from audioInputExample
float rms = 0.0;
int numCounted = 0;
for (int i = 0; i < bufferSize; i++){
float leftSample = buffer[i * 2] * 0.5;
float rightSample = buffer[i * 2 + 1] * 0.5;
rms += leftSample * leftSample;
rms += rightSample * rightSample;
numCounted += 2;
}
rms /= (float)numCounted;
rms = sqrt(rms);
// rms is now calculated
vol = rms;
smoothedVol *= 0.93;
smoothedVol += 0.07 * vol;
threshold = ofLerp(threshold, minimumThreshold, decayRate);
if(rms > threshold) {
// onset detected!
threshold = rms;
bOnSet = true;
}else{
bOnSet = false;
}
}
//--------------------------------------------------
float ofPolyline::getAngleAtIndexInterpolated(float findex) const {
if(points.size() < 2) return 0;
int i1, i2;
float t;
getInterpolationParams(findex, i1, i2, t);
return ofLerp(getAngleAtIndex(i1), getAngleAtIndex(i2), t);
}
void ofxMarsyasNetwork::threadedFunction()
{
while( isThreadRunning() )
{
if (priority != targetPriority)
{
run();
priority = targetPriority;
}
// cout << "ofxMarsyasNetwork trying to lock" << endl;
if (lock())
{
// cout << "ofxMarsyasNetwork in lock" << endl;
tick();
thisTick = ofGetSystemTime();
rate = ofLerp(rate, 1000.0/(thisTick-lastTick), 0.001);
lastTick = thisTick;
update();
unlock();
// cout << "ofxMarsyasNetwork after unlock()" << endl;
}
else {
// cout << "ofxMarsyasNetwork sleeping" << endl;
ofSleepMillis(20);
}
if (targetRate>0)
ofSleepMillis(1000.0/targetRate);
}
}
void checkList::update(){
// Calculate the total height of addons elements
//
float totalLenght = 0;
for(int i = 0; i < elements.size(); i++){
totalLenght += elements[i]->height;
}
float offSetY = 0;
if (title != ""){
offSetY += elementHeight;
}
ofRectangle rect = *this;
if (title != ""){
rect.y += elementHeight*2.0;
rect.height -= elementHeight*2.5;
}
if (inside(ofGetMouseX(),ofGetMouseY()) && totalLenght > rect.height){
float pct = ofMap(ofGetMouseY()-rect.y, 0, rect.height, 0,1,true);
float diff = totalLenght - rect.height;
mouseOffSet = ofLerp( mouseOffSet, -diff * pct, damp);
}
for(int i = 0; i < elements.size(); i++){
elements[i]->x = x;
elements[i]->y = y + offSetY + mouseOffSet;
elements[i]->width = width;
offSetY += elements[i]->height;
}
}
