@Test
public void testAddAFewWindCoordinates() {
Mesh3D mesh = reader.readGlobe(GlobeType.Full);
Collection<Face> allFaces = mesh.getFaces();
int oldCount = allFaces.size();
TriangleMesh newMesh = new TriangleMesh();
newMesh.addMesh(mesh);
// TriangleMesh offers easier access to the faces,
// unfortunately it is also significantly slower when adding faces
for (int i = 0; i < 100; i++) {
Face face = newMesh.faces.get(i);
Vec3D cloudPoint = face.getCentroid();
cloudPoint.x += 7;
cloudPoint.y += 7;
cloudPoint.z += 7;
mesh.addFace(cloudPoint, face.a, face.b);
mesh.addFace(cloudPoint, face.b, face.c);
mesh.addFace(cloudPoint, face.c, face.a);
}
mesh.computeFaceNormals();
int newCount = mesh.getNumFaces();
assertFalse(oldCount == newCount);
String path = getClass().getResource(".").getFile();
File file = new File(path, "manipulated.stl");
TriangleMesh meshforWriting = new TriangleMesh();
meshforWriting.addMesh(mesh);
writer.write(file, meshforWriting);
}
void flow(VoxelGrid volume) {
// get the value of the current voxel
float v = volume.getValue(this);
// check neighbouring voxels for difference
Vec3D from = volume.repelFromValue(this, 0, 1, 0.1f).limit(0.1f);
if (!from.isZeroVector()) {
lastSub += 1;
} else {
lastSub = 0;
}
addForce(from);
}
public VerletParticle3D setPreviousPosition(Vec3D p) {
prev.set(p);
return this;
}
public VerletParticle3D scaleVelocity(float scl) {
prev.interpolateToSelf(this, 1f - scl);
return this;
}
public VerletParticle3D clearVelocity() {
prev.set(this);
return this;
}
public VerletParticle3D clearForce() {
force.clear();
return this;
}
protected void applyForce() {
temp.set(this);
addSelf(sub(prev).addSelf(force.scale(weight)));
prev.set(temp);
force.clear();
}
public VerletParticle3D addVelocity(Vec3D v) {
prev.subSelf(v);
return this;
}
public VerletParticle3D addForce(Vec3D f) {
force.addSelf(f);
return this;
}
public void setDestroyer() {
// convert cur mouse pos to lat and long
// map(value, low1, high1, low2, high2)
if (doCursor == true) {
// theLat = map(oscY1, 1, 0, 0, 90);
// theLong = map(oscX1, 0, 1, -180, 180);
/// change osc values to mouse-parsed
float newOscY = map(oscY1, 0, 1, 0, screenHeight);
float newOscX = map(oscX1, 0, 1, 0, screenWidth);
desRot.interpolateToSelf(new Vec3D(newOscX * 0.51f, newOscY * 0.51f, 0), 0.25f / currZoom);
theLat = desRot.y; // map(mouseY, 0, screenHeight, 0, 90);
theLong = desRot.x; // map(mouseX, 0, screenWidth, -180, 180);
} else {
// theLat = map(mouseY, 600, 0, 0, 90);
// theLong = map(mouseX, 200, 800, -180, 180);
}
if (!mousePressed && useKeyboard == true) {
/// *
desRot.interpolateToSelf(new Vec3D(mouseX * 0.51f, mouseY * 0.51f, 0), 0.25f / currZoom);
theLat = desRot.y; // map(mouseY, 0, screenHeight, 0, 90);
theLong = desRot.x; // map(mouseX, 0, screenWidth, -180, 180);
// */
}
doCursor = false;
/*
* theCamX = camRot.x;
theCamY = camRot.y;
*/
//
theDestroyer.setSpherePosition(theLong, theLat);
theDestroyer.computePosOnSphere(EARTH_RADIUS);
//// CHECK FOR INTERSECTION with other markers
boolean isPopupVisible = false;
for (int i = 0; i < GPSArray.size(); i++) {
// for(int i=0; i<2; i++){
/// DESTROYER LAT AND LONG
float dlat = theDestroyer.theLat;
float dlong = theDestroyer.theLong; // theDestroyer.theLat;
//// MARKER LAT AND LONG
float mlat = GPSArray.get(i).theLat;
float mlong = GPSArray.get(i).theLong;
// println("dlat " + dlat + " mlat: " + mlat);
// println("dlong " + dlong + " mlong: " + mlong);
//// check to see if the destroyer is within the range of the current lat and long
/// if (dlat >= (mlat -1) && dlat <= (mlat + 1) && dlong <= (mlong + 1) && dlong >= (mlong -
// 1)){
//// CHECK INTERSECTION of MARKER AND DESTROYER
GPSMarker tMark = GPSArray.get(i);
if (isPopupVisible == false
&& theDestroyer.pos.y <= (tMark.pos.y + 10)
&& theDestroyer.pos.y >= (tMark.pos.y - 10)
&& theDestroyer.pos.x <= (tMark.pos.x + 10)
&& theDestroyer.pos.x >= (tMark.pos.x - 10)) {
tMark.doHit();
//// init popup data
thePopUp.theName = "";
thePopUp.theText = "";
thePopUp.theHeader = headerList.get(tMark.theID);
thePopUp.theName = nameList.get(tMark.theID);
thePopUp.theText = blurbList.get(tMark.theID);
// thePopUp.theVideoPath = videoPathList.get(tMark.theID);
/// swtich video if it's different than the current
if (curID != tMark.theID) {
// println("Cur ID: " + curID + " new ID: " + tMark.theID);
/// stop current, switch
thePopUp.stopVideo();
thePopUp.switchCurVideo(tMark.theID);
curID = tMark.theID;
}
//// showing popup data
thePopUp.drawPopup(tMark.theID);
isPopupVisible = true;
}
}
}
///////////////////////////////
/// GLOBE RENDERING
////////////////////////////////
private void renderGlobe() {
// smoothly interpolate camera rotation
// to new rotation vector based on mouse position
// each frame we only approach that rotation by 25% (0.25 value)
lights();
/* this looks pink
ambientLight(255, 0, 0);
specular(255, 0, 0);
*/
// store default 2D coordinate system
pushMatrix();
// switch to 3D coordinate system and rotate view based on mouse
translate(width / 2, height / 2, 0);
///// CHECK FOR MOUSE INPUT TO SET CAMERA
if (mousePressed) {
camRot.interpolateToSelf(new Vec3D(mouseY * 0.01f, mouseX * 0.01f, 0), 0.25f / currZoom);
// println("MOUSEX: " + mouseX);
// println("MouseY " + mouseY);
theCamX = camRot.x;
theCamY = camRot.y;
///// CHECK FOR OSC INPUT TO SET CAMERA
} else if (hasOsc == true) {
/// map(value, low1, high1, low2, high2)
println("rotate dammit!");
float newX = map(oscX0, 0, 1, 0, screenWidth); // /// maps our input to 1024
float oscY = map(oscY0, 0, 1, 0, screenHeight); // ///
camRot.interpolateToSelf(new Vec3D(oscY * 0.01f, newX * 0.01f, 0), 0.25f / currZoom);
theCamX = camRot.x;
theCamY = camRot.y;
// rotateX(camRot.x);
// rotateY(camRot.y);
// currZoom += (targetZoom - currZoom) * 0.25;
// */
}
theOldCamX = theCamX;
theOldCamY = theCamY;
hasOsc = false; // /switch off osc input until we get another osc signal
float newCamX =
map(new Float(theCamX), 0, 7, 2, 4); // narrow the range of vertical camera movement
currZoom += (targetZoom - currZoom) * 0.25;
// theCamX = newCamX;
rotateX(new Float(theCamX));
rotateY(new Float(theCamY));
// apply zoom factor
scale(currZoom);
// compute the normalized camera position/direction
// using the same rotation setting as for the coordinate system
// this vector is used to figure out if images are visible or not
// (see below)
Vec3D camPos =
new Vec3D(0, 0, 1)
.rotateX(new Float(theCamX))
.rotateY(new Float(theCamY)); // / changed from cam.x and cam.y
camPos.normalize();
noStroke();
fill(255);
// use normalized UV texture coordinates (range 0.0 ... 1.0)
textureMode(NORMAL);
// draw earth
gfx.texturedMesh(globe, earthTex, true);
////////////////////////////////////////
// /// SET GPS MARKERS ON THE SPHERE
// check marker position
for (int i = 0; i < GPSArray.size(); i++) {
GPSArray.get(i).updateScreenPos(this, camPos);
}
// check destroyer position
if (isVideoPlaying == false) {
// if(thePopUp.isVideoPlaying == true){
theDestroyer.updateScreenPos(this, camPos);
}
/////////////////////////////////////////
// switch back to 2D coordinate system
popMatrix();
// disable depth testing to ensure anything drawn next
// will always be on top/infront of the globe
hint(DISABLE_DEPTH_TEST);
// draw images centered around the given positions
imageMode(CENTER);
// now that they're in position, draw them
for (int i = 0; i < GPSArray.size(); i++) {
GPSArray.get(i).drawAsImage(IMG_SIZE * currZoom * 0.9f, showLabels);
}
// draw the destroyer
try {
theDestroyer.drawAsImage(this, IMG_SIZE * currZoom * 0.9f, showLabels);
} catch (Exception e) {
println("Cant draw destroyer" + e);
}
setDestroyer();
////////////////////////////////////////
// restore (default) depth testing
hint(ENABLE_DEPTH_TEST);
}
/** @param force the force to set */
public void setForce(Vec3D force) {
this.force = force;
scaledForce = force.scale(timeStep);
}
