public void visualize(Cluster3DExt cluster) {
if ((long) ((((double) (System.currentTimeMillis() - startTime)) / 500.0)) % 2 == 0) {
// GL gl = Tools3D.getGL(pApplet);
// Tools3D.beginGL(pApplet);
// gl.glBegin(gl.GL_LINES);
// MTLine[] lines = getVisualizationLines(cluster.getChildren());
// for(MTLine line : lines)
// {
//
// gl.glVertex3f(line.getVerticesLocal()[0].x,line.getVerticesLocal()[0].y,line.getVerticesLocal()[0].z);
//
// gl.glVertex3f(line.getVerticesLocal()[1].x,line.getVerticesLocal()[1].y,line.getVerticesLocal()[1].z);
// }
// gl.glEnd();
// Tools3D.endGL(pApplet);
pApplet.beginShape(PApplet.LINES);
MTLine[] lines = getVisualizationLines(cluster.getChildren());
for (MTLine line : lines) {
pApplet.vertex(
line.getVerticesLocal()[0].x,
line.getVerticesLocal()[0].y,
line.getVerticesLocal()[0].z);
pApplet.vertex(
line.getVerticesLocal()[1].x,
line.getVerticesLocal()[1].y,
line.getVerticesLocal()[1].z);
}
// gl.glEnd();
// Tools3D.endGL(pApplet);
pApplet.endShape();
}
}
/**
* Calls vertex() with all vertices in the vertex list. NOTE: begin/endShape() are not called.
*
* @param p
*/
public void drawVertices(PApplet p) {
int id = 0;
for (int i = 0; i < n; i++) {
p.vertex(v[id].x, v[id].y, v[id++].z);
}
}
public void displayByArea(DisplayArea area) {
changeMode();
position.add(direction);
if (position.z > 300 || position.z < -300) { // ograniczenie poruszania się obszaru wyświetlania
direction.mult(-1);
}
area.moveCenterTo(position);
pApplet.stroke(255, 0, 0);
pApplet.pushMatrix();
for (int j = 0; j < model.getSegmentCount(); j++) {
Segment segment = model.getSegment(j);
Face[] faces = segment.getFaces();
pApplet.beginShape(PConstants.QUADS);
for (Face face : faces) {
if (area.isColliding(face.getCenter())) {
PVector[] v = face.getVertices();
PVector[] n = face.getNormals();
for (int k = 0; k < v.length; k++) {
pApplet.normal(n[k].x, n[k].y, n[k].z);
pApplet.vertex(v[k].x, v[k].y, v[k].z);
}
}
}
pApplet.endShape();
}
pApplet.popMatrix();
}
/**
* Calls beginShape() without parameters, then vertex() with all vertices in the vertex list
* before finally calling endShape().
*
* @param p
*/
public void draw(PApplet p) {
int id = 0;
p.beginShape();
for (int i = 0; i < n; i++) {
p.vertex(v[id].x, v[id].y, v[id++].z);
}
p.endShape();
}
// Draw the shadow with texture mapping
void display() {
parent.noStroke();
parent.tint(0, 17);
parent.beginShape();
parent.texture(img);
for (int p = 0; p < shadow.length; p++) {
parent.vertex(shadow[p].x, shadow[p].y, corners[p].x, corners[p].y);
}
parent.endShape();
parent.noTint();
}
/**
* Calls begin/endShape(QUAD_STRIP) and draws all vertices in the vertex list.
*
* @param p
*/
public void drawQuadStrip(PApplet p) {
int id = 0;
p.beginShape(QUAD_STRIP);
int nn = n / 2;
for (int i = 0; i < nn; i++) {
p.vertex(v[id].x, v[id].y, v[id++].z);
p.vertex(v[id].x, v[id].y, v[id++].z);
}
p.endShape();
}
public void visualize(Cluster3DExt cluster) {
// GL gl = Tools3D.getGL(pApplet);
// Tools3D.beginGL(pApplet);
// gl.glBegin(gl.GL_LINES);
// MTLine[] lines = getVisualizationLines(cluster.getChildren());
// MTComponent linesGroup = new MTComponent(pApplet);
// for(MTLine line : lines)
// {
// linesGroup.addChild(line);
// }
// cluster.setVisualComponentGroup(linesGroup);
//
// for(MTLine line : lines)
// {
//
// gl.glVertex3f(line.getVerticesLocal()[0].x,line.getVerticesLocal()[0].y,line.getVerticesLocal()[0].z);
//
// gl.glVertex3f(line.getVerticesLocal()[1].x,line.getVerticesLocal()[1].y,line.getVerticesLocal()[1].z);
// }
// gl.glEnd();
// Tools3D.endGL(pApplet);
pApplet.beginShape(PApplet.LINES);
MTLine[] lines = getVisualizationLines(cluster.getChildren());
MTComponent linesGroup = new MTComponent(pApplet);
for (MTLine line : lines) {
linesGroup.addChild(line);
}
cluster.setVisualComponentGroup(linesGroup);
for (MTLine line : lines) {
pApplet.vertex(
line.getVerticesLocal()[0].x, line.getVerticesLocal()[0].y, line.getVerticesLocal()[0].z);
pApplet.vertex(
line.getVerticesLocal()[1].x, line.getVerticesLocal()[1].y, line.getVerticesLocal()[1].z);
}
pApplet.endShape();
}
public void render(float _f) {
parent.pushMatrix();
parent.scale(_f, -_f, _f);
for (int i = 0; i < faces.length; i++) {
parent.beginShape(TRIANGLES);
for (int j = 0; j < 3; j++) {
int vt = faces[i][j];
PVector dis;
if (apply == -1) {
dis = new PVector(0.0f, 0.0f, 0.0f);
} else {
dis = auList[apply].getMotion(vt);
}
parent.vertex(vertices[vt].x + dis.x, vertices[vt].y + dis.y, vertices[vt].z + dis.z);
}
parent.endShape();
}
parent.popMatrix();
}
public void moveNormals() {
changeMode();
pApplet.pushMatrix();
for (int j = 0; j < model.getSegmentCount(); j++) {
Segment segment = model.getSegment(j);
Face[] faces = segment.getFaces();
pApplet.beginShape(PConstants.QUADS);
for (int i = 0; i < faces.length; i++) {
PVector[] vertices = faces[i].getVertices();
PVector normal = faces[i].getNormal();
float nor = PApplet.abs(PApplet.sin(PApplet.radians((pApplet.frameCount + i))) * 100);
for (PVector vertex : vertices) {
pApplet.vertex(
vertex.x + (normal.x * nor),
vertex.y + (normal.y * nor),
vertex.z + (normal.z * nor));
}
}
pApplet.endShape();
}
pApplet.popMatrix();
}
/**
* Draws the vertices to the screen.
*
* @param inpAudioFrameIdx The audio frame to reference for height data.
*/
public void drawSphere(int inpAudioFrameIdx) {
_audioFrameDataVals = rtrvAudioFrameData(inpAudioFrameIdx);
float prevAudioFrameLvlNbr, currAudioFrameLvlNbr;
if (inpAudioFrameIdx > 0) {
prevAudioFrameLvlNbr = rtrvAudioFrameData(inpAudioFrameIdx - 1)[0];
} else {
prevAudioFrameLvlNbr = 0;
}
currAudioFrameLvlNbr = rtrvAudioFrameData(inpAudioFrameIdx)[0];
// _parApp.noStroke();
_parApp.stroke(_fillClrNbr);
_lerpClrAmt = _parApp.frameCount / (float) _musicData.length;
_fillClrNbr = (int) PApplet.lerpColor(FROM_CLR_NBR, TO_CLR_NBR, _lerpClrAmt, PApplet.RGB);
_parApp.fill(_fillClrNbr);
float newVertexHghtNbr = 0,
adjacentLatitudeLnLatitudeDegNbr = 0,
adjacentLatitudeLnLongitudeDegNbr = 0,
adjacentLatitudeLnRadiusLenNbr = 0,
currLatitudeLnLatitudeDegNbr = 0,
currLatitudeLnLongitudeDegNbr = 0;
PVector adjacentVertex, currVertex;
int adjacentLatitudeVertexIdx = 0, currLatitudeVertexIdx = 0;
for (int latitudeDegNbr = -90; latitudeDegNbr <= 90; latitudeDegNbr += _resNbr) {
if (PApplet.abs(latitudeDegNbr) == 90) {
// Create Triangle Fans for each of the poles.
_parApp.beginShape(PApplet.TRIANGLE_FAN);
// Draw the pole vertex.
currLatitudeVertexIdx = calcVertexIdx(latitudeDegNbr, 0);
newVertexHghtNbr =
calcAndStoreNewVertexHghtNbr(
currLatitudeVertexIdx, prevAudioFrameLvlNbr, currAudioFrameLvlNbr);
currVertex = Main.toCartesian(latitudeDegNbr, 0, newVertexHghtNbr);
// _parApp.text("Lat: " + latitudeDegNbr, currVertex.x, currVertex.y, currVertex.z + 20);
_parApp.vertex(currVertex.x, currVertex.y, currVertex.z);
float adjacentLatitudeDegNbr;
if (latitudeDegNbr == -90) {
adjacentLatitudeDegNbr = latitudeDegNbr + _resNbr;
} else {
adjacentLatitudeDegNbr = latitudeDegNbr - _resNbr;
}
// In order to complete the sphere, you have to go completely around the circle (i.e.,
// include both -180 and 180).
for (int longitudeDegNbr = -180; longitudeDegNbr <= 180; longitudeDegNbr += _resNbr) {
adjacentLatitudeVertexIdx = calcVertexIdx(adjacentLatitudeDegNbr, longitudeDegNbr);
if (longitudeDegNbr == 180) {
// When we complete the circle, use the heights that we used for longitude = -180 to
// stitch the mesh together.
newVertexHghtNbr = _radiusLenNbrs[calcVertexIdx(adjacentLatitudeDegNbr, -180)];
} else {
// If we're building the second pole, we need to stitch it to the previous ring.
if (adjacentLatitudeDegNbr == latitudeDegNbr - _resNbr) {
adjacentLatitudeVertexIdx = calcVertexIdx(adjacentLatitudeDegNbr, longitudeDegNbr);
newVertexHghtNbr = _radiusLenNbrs[adjacentLatitudeVertexIdx];
} else {
newVertexHghtNbr =
calcAndStoreNewVertexHghtNbr(
adjacentLatitudeVertexIdx, prevAudioFrameLvlNbr, currAudioFrameLvlNbr);
}
}
adjacentVertex =
Main.toCartesian(adjacentLatitudeDegNbr, longitudeDegNbr, newVertexHghtNbr);
_parApp.vertex(adjacentVertex.x, adjacentVertex.y, adjacentVertex.z);
}
_parApp.endShape();
} else if (latitudeDegNbr - _resNbr != -90) {
// We already built a triangle fan for the first pole, so we do not want to build a triangle
// strip over it.
_parApp.beginShape(PConstants.TRIANGLE_STRIP);
// In order to complete the sphere, you have to go completely around the circle (i.e.,
// include both -180 and 180).
for (int longitudeDegNbr = -180; longitudeDegNbr <= 180; longitudeDegNbr += _resNbr) {
if (PApplet.abs(latitudeDegNbr) < 90) {
adjacentLatitudeVertexIdx = calcVertexIdx(latitudeDegNbr - _resNbr, longitudeDegNbr);
adjacentLatitudeLnLatitudeDegNbr = _latitudeDegs[adjacentLatitudeVertexIdx];
adjacentLatitudeLnLongitudeDegNbr = _longitudeDegs[adjacentLatitudeVertexIdx];
adjacentLatitudeLnRadiusLenNbr = _radiusLenNbrs[adjacentLatitudeVertexIdx];
adjacentVertex =
Main.toCartesian(
adjacentLatitudeLnLatitudeDegNbr,
adjacentLatitudeLnLongitudeDegNbr,
adjacentLatitudeLnRadiusLenNbr);
_parApp.vertex(adjacentVertex.x, adjacentVertex.y, adjacentVertex.z);
}
currLatitudeVertexIdx = calcVertexIdx(latitudeDegNbr, longitudeDegNbr);
currLatitudeLnLatitudeDegNbr = _latitudeDegs[currLatitudeVertexIdx];
currLatitudeLnLongitudeDegNbr = _longitudeDegs[currLatitudeVertexIdx];
if (longitudeDegNbr == 180) {
// When we complete the circle, use the heights that we used for longitude = -180 to
// stitch the mesh together.
newVertexHghtNbr = _radiusLenNbrs[calcVertexIdx(latitudeDegNbr, -180)];
} else {
newVertexHghtNbr =
calcAndStoreNewVertexHghtNbr(
currLatitudeVertexIdx, prevAudioFrameLvlNbr, currAudioFrameLvlNbr);
}
currVertex =
Main.toCartesian(
currLatitudeLnLatitudeDegNbr, currLatitudeLnLongitudeDegNbr, newVertexHghtNbr);
_parApp.vertex(currVertex.x, currVertex.y, currVertex.z);
}
_parApp.endShape();
}
}
}
