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3D rendering engine. Plus modelling. Expected glsl textures 3d and 2d rendering3D primitives, and a lot of scenes' samples to test.+ Game Jogl reworked, Calculator (numbers and vectors). Java code parser implementation starts (<=1.2)
The newest version!
/*
*
* * Copyright (c) 2024. Manuel Daniel Dahmen
* *
* *
* * Copyright 2024 Manuel Daniel Dahmen
* *
* * Licensed under the Apache License, Version 2.0 (the "License");
* * you may not use this file except in compliance with the License.
* * You may obtain a copy of the License at
* *
* * http://www.apache.org/licenses/LICENSE-2.0
* *
* * Unless required by applicable law or agreed to in writing, software
* * distributed under the License is distributed on an "AS IS" BASIS,
* * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* * See the License for the specific language governing permissions and
* * limitations under the License.
*
*
*/
/*__
* *
* Global license GNU GPL v2
* author Manuel Dahmen [email protected]_
*/
package one.empty3.library;
import one.empty3.library.core.nurbs.ParametricCurve;
import one.empty3.library.core.nurbs.ParametricSurface;
import one.empty3.library.core.nurbs.Point3DS;
import one.empty3.library.core.nurbs.ThickSurface;
import one.empty3.pointset.PCont;
import java.awt.*;
import java.awt.image.BufferedImage;
import java.util.Iterator;
import java.util.List;
import java.util.function.Consumer;
import java.util.logging.Level;
import java.util.logging.Logger;
/***
* * Classe de rendu graphique
P2 écran 2 int
P3 x y z
Tgt x y z
N x y z
Tex u v w TextId [12 double 1 int
(1 double)imeid 1 ref. ]
T
Representable container
*/
class Data {
/**
* Point x y z t x y z n x y z t u v w
* Int textId int4 out rgba
* Representable surface line point3d
*/
Double[][][] dataP;
Representable[][] container;
ZBufferImpl8 zBuffer;
int la;
int ha;
public Data(int w, int h, ZBufferImpl8 zBuffer) {
dataP = new Double[16][h][w];
container = new Representable[h][w];
this.zBuffer = zBuffer;
this.la = w;
this.ha = h;
Logger.getAnonymousLogger().log(Level.INFO, "la,ha " + la + ", " + ha);
}
public void clear() {
for (int j = 0; j < ha; j++)
for (int i = 0; i < la; i++) {
dataP[13][j][i] = 9999999999.9; //Double.MAX_VALUE;
container[j][i] = ZBufferImpl8.INFINI;
dataP[9][j][i] = 1.0 * i / la;
dataP[10][j][i] = 1.0 * j / ha;
}
}
public boolean addData(Double px, Double py, Double pz,
Double tx, Double ty, Double tz,
Double nx, Double ny, Double nz,
Double u, Double v, Double w,
Representable r) {
Point p = null;
if ((p = testP(px, py, pz)) != null) {
int x = (int) p.getX();
int y = (int) p.getY();
dataP[0][y][x] = px;
dataP[1][y][x] = py;
dataP[2][y][x] = pz;
dataP[3][y][x] = tx;
dataP[4][y][x] = ty;
dataP[5][y][x] = tz;
dataP[6][y][x] = nx;
dataP[7][y][x] = ny;
dataP[8][y][x] = nz;
dataP[9][y][x] = u;
dataP[10][y][x] = v;
dataP[11][y][x] = w;
/*if(r==null){
r = zBuffer;
}(*/
container[y][x] = r;
//Logger.getAnonymousLogger().log(Level.INFO, "x,y "+x+", "+y+" u,v : " + u+" "+v+" r " +r.getClass());
return true;
}
return false;
}
public Point testP(Double px, Double py, Double pz) {
if (px == null || py == null || pz == null)
return null;
return testDeep(new Point3D(px, py, pz));
}
public Point testDeep(Point3D x3d) {
if (x3d == null)
return null;
Camera cam = zBuffer.scene().camera();
Point ce = cam.coordonneesPoint2D(
cam.calculerPointDansRepere(x3d),
zBuffer);
if (ce == null)
return null;
double deep = zBuffer.camera().distanceCamera(x3d);
int x = (int) ce.getX();
int y = (int) ce.getY();
if ((x >= 0) & (x < la) & (y >= 0) & (y < ha)
&& (deep < dataP[13][y][x])) {
dataP[13][y][x] = deep;
return ce;
}
return null;
}
public ECBufferedImage getBufferedImage() {
BufferedImage bi = new BufferedImage(la, ha, BufferedImage.TYPE_INT_RGB);
int[] c = new int[4];
for (int j = 0; j < ha; j++)
for (int i = 0; i < la; i++)
if (dataP[9][j][i] != null && dataP[10][j][i] != null) {
c[0] = container[j][i].texture().getColorAt(
dataP[9][j][i], dataP[10][j][i]);
bi.setRGB(i, j, i, j, c, 0, la);
} else
Logger.getAnonymousLogger().log(Level.INFO, "error texture null Data.getBufferedImage");
return new ECBufferedImage(bi);
}
}
public class ZBufferImpl8 extends ZBufferImpl {
public static final int DISPLAY_ALL = 0;
public static final int SURFACE_DISPLAY_TEXT_QUADS = 1;
private static final int SURFACE_DISPLAY_TEXT_TRI = 2;
public static final int SURFACE_DISPLAY_COL_QUADS = 3;
public static final int SURFACE_DISPLAY_COL_TRI = 4;
public static final int SURFACE_DISPLAY_LINES = 5;
public static final int SURFACE_DISPLAY_POINTS = 6;
/*__
* Couleur de fond (texture: couleur, image, vidéo, ...
*/
// DEFINITIONS
public static double INFINI_PROF = Double.MAX_VALUE;
protected Point3D planproj = null;
protected Point3D camera = null;
protected boolean colorationActive = false;
protected boolean experimental = true;
protected double angleX = Math.PI / 3;
protected double angleY = Math.PI / 3;
protected ECBufferedImage bi;
protected ImageMap ime;
public static Point3D INFINI = new Point3D(0d, 0d, INFINI_PROF);
private Camera cameraC = new Camera();
// PARAMETRES
private float zoom = 1.05f;
private boolean locked = false;
private boolean firstRun = true;
// VARIABLES
private long idImg = 1;
private int dimx;
private int dimy;
private Point3D[][] Scordinate;
private int[] Scolor;
private long[][] Simeid;
private double[][] Simeprof;
private Scene currentScene;
public Box2D box;
private Point3D activeLight = new Point3D(-10d, 0d, 100d);
private int displayType = DISPLAY_ALL;
ZBufferImpl8 that;
Data data1;
public ZBufferImpl8() {
that = this;
texture(new TextureCol(Color.BLACK));
}
public ZBufferImpl8(int l, int h) {
this();
la = l;
ha = h;
dimx = la;
dimy = ha;
//this.ime = new ImageMap(la, ha);
data1 = new Data(la, ha, this);
//Point3D.start();
}
public ZBufferImpl8(Resolution resolution) {
this(resolution.x(), resolution.y());
}
protected long idImg() {
return idImg;
}
public Point3D activeLight() {
return activeLight;
}
public void activeLight(Point3D l) {
activeLight = l;
}
public Camera camera() {
return this.scene().cameraActive();
}
public void camera(Camera c) {
this.cameraC = c;
this.scene().cameraActive(c);
}
/***
*
* Draw buffer with data
* Iterate on objects
*/
public void predraw() {
draw();
}
/**
* Textures and lights
*
* @return image null
*/
public BufferedImage finishDraw() {
return null;
}
public void draw() {
data1.clear();
scene().lumieres().clear();
for (int i = 0; i < scene().getObjets().data1d.size(); i++)
if (scene().getObjets().getElem(i).getClass().isAssignableFrom(Lumiere.class))
scene().lumieres().add((Lumiere) scene().getObjets().getElem(i));
if (firstRun && ime == null) {
ime = new ImageMap(la, ha);
firstRun = false;
}
draw(scene());
}
public void draw(Representable r) {
Point3D.start();
/*
* if (r instanceof RepresentableType) { try { ((RepresentableType)
* r).draw(this); } catch (Exception ex) { ex.printStackTrace(); } return; }
*
* if (r.getPainter() != null) { try { r.paint(); } catch (Exception ex) {
* ex.printStackTrace(); } }
*/
// COLLECTION
r.texture().timeNext();
Iterator it;
if (r instanceof Scene) {
Scene scene = (Scene) r;
this.setTexture(scene.texture() == null ? this.texture() : scene.texture());
it = scene.iterator();
while (it.hasNext()) {
draw(it.next());
}
} else if (r instanceof RepresentableConteneur) {
RepresentableConteneur rc = (RepresentableConteneur) r;
it = rc.iterator();
while (it.hasNext()) {
draw(it.next());
}
} else
/* OBJECTS */
if (r instanceof Point3D) {
Point3D p = (Point3D) r;
add(p.get(0), p.get(1), p.get(2), null, null, null, null, null, null, 0.0, 0.0, 0.0, p);
} else if (r instanceof ThickSurface) {
// Logger.getAnonymousLogger().log(Level.INFO, "Surface");
ThickSurface n = (ThickSurface) r;
// TODO Dessiner les bords
for (double u = n.getStartU(); u <= n.getEndU(); u += n.getIncrU()) {
// Logger.getAnonymousLogger().log(Level.INFO, "(u,v) = ("+u+","+")");
for (double v = n.getStartU(); v <= n.getEndV(); v += n.getIncrV()) {
Point3D p1, p2, p3, p4;
p1 = rotate(n.calculerPoint3D(u, v), n);
p2 = rotate(n.calculerPoint3D(u + n.getIncrU(), v), n);
p3 = rotate(n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n);
p4 = rotate(n.calculerPoint3D(u, v + n.getIncrV()), n);
switch (displayType) {
case DISPLAY_ALL:
case SURFACE_DISPLAY_COL_QUADS:
case SURFACE_DISPLAY_TEXT_QUADS:
tracerQuad(p1, p2, p3, p4, n.texture(), u, u + n.getIncrU(), v, v + n.getIncrV(), n);
break;
case SURFACE_DISPLAY_COL_TRI:
case SURFACE_DISPLAY_TEXT_TRI:
tracerTriangle(
n.calculerPoint3D(u, v),
n.calculerPoint3D(u + n.getIncrU(), v),
n.calculerPoint3D(u + n.getIncrU(),
v + n.getIncrV()),
n.texture(),
u,
v, u + n.getIncrU(), v + n.getEndV());
tracerTriangle(n.calculerPoint3D(u, v),
n.calculerPoint3D(u, v + n.getIncrV()),
n.calculerPoint3D(u + n.getIncrU(),
v + n.getIncrV()),
n.texture(),
u,
v, u + n.getIncrU(), v + n.getEndV());
break;
case SURFACE_DISPLAY_LINES:
tracerLines(p1, p2, p3, p4, n.texture(), u, u + n.getIncrU(), v, v + n.getIncrV(), n);
break;
case SURFACE_DISPLAY_POINTS:
ime.testDeep(p1);
ime.testDeep(p2);
ime.testDeep(p3);
ime.testDeep(p4);
break;
}
}
}
} else if (r instanceof TRI) {
TRI tri = (TRI) r;
switch (displayType) {
case SURFACE_DISPLAY_LINES:
for (int i = 0; i < 3; i++)
line(rotate(tri.getSommet().getElem(i), r),
rotate(tri.getSommet().getElem((i + 1) % 3), r)
, tri.texture);
break;
case SURFACE_DISPLAY_POINTS:
for (int i = 0; i < 3; i++)
ime.testDeep(rotate(tri.getSommet().getElem(i), r)
, tri.texture);
break;
default:
tracerTriangle(rotate(tri.getSommet().getElem(0), r),
rotate(tri.getSommet().getElem(1), r),
rotate(tri.getSommet().getElem(2), r)
, tri.texture());
break;
}
} else
// GENERATORS
if (r instanceof ParametricSurface) {
// Logger.getAnonymousLogger().log(Level.INFO, "Surface");
ParametricSurface n = (ParametricSurface) r;
// TODO Dessiner les bords
for (double u = n.getStartU(); u <= n.getEndU() - n.getIncrU(); u += n.getIncrU()) {
// Logger.getAnonymousLogger().log(Level.INFO, "(u,v) = ("+u+","+")");
for (double v = n.getStartV(); v <= n.getEndV() - n.getIncrV(); v += n.getIncrV()) {
/*
* draw(new TRI(n.calculerPoint3D(u, v), n.calculerPoint3D(u + n.getIncrU(), v),
* n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n.texture()), n);
* draw(new TRI(n.calculerPoint3D(u, v), n.calculerPoint3D(u, v + n.getIncrV()),
* n. calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n.texture()), n);
*/
/*
* tracerTriangle(n.calculerPoint3D(u, v), n.calculerPoint3D(u + n.getIncrU(),
* v), n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), new
* Color(n.texture().getColorAt(0.5,0.5))); tracerTriangle(n.calculerPoint3D(u,
* v), n.calculerPoint3D(u, v + n.getIncrV()), n.calculerPoint3D(u +
* n.getIncrU(), v + n.getIncrV()), new Color(n.texture().getColorAt(0.5,0.5)));
*//*
* tracerTriangle(n.calculerPoint3D(u, v), n.calculerPoint3D(u + n.getIncrU(),
* v), n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n.texture());
* tracerTriangle(n.calculerPoint3D(u, v), n.calculerPoint3D(u, v +
* n.getIncrV()), n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()),
* n.texture());
*
*/
/*
* Point3D[][] point3DS = {{n.calculerPoint3D(u, v), n.calculerPoint3D(u +
* n.getIncrU(), v)}, {n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()),
* n.calculerPoint3D(u, v + n.getIncrV())}};
*
* SurfaceParametricPolygonalBezier surfaceParametriquePolynomialeBezier = new
* SurfaceParametricPolygonalBezier(point3DS);
* draw(surfaceParametriquePolynomialeBezier, n);
*/
Point3D p1, p2, p3, p4;
p1 = n.calculerPoint3D(u, v);
p2 = n.calculerPoint3D(u + n.getIncrU(), v);
p3 = n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV());
p4 = n.calculerPoint3D(u, v + n.getIncrV());
if (n instanceof HeightMapSurface) {
Point3D n1, n2, n3, n4;
HeightMapSurface h = (HeightMapSurface) n;
n1 = n.calculerNormale3D(u, v);
n2 = n.calculerNormale3D(u + n.getIncrU(), v);
n3 = n.calculerNormale3D(u + n.getIncrU(), v + n.getIncrV());
n4 = n.calculerNormale3D(u, v + n.getIncrV());
p1 = p1.plus(n1.norme1().mult(h.height(u, v)));
p2 = p2.plus(n2.norme1().mult(h.height(u + n.getIncrU(), v)));
p3 = p3.plus(n3.norme1().mult(h.height(u + n.getIncrU(), v + n.getIncrV())));
p4 = p4.plus(n4.norme1().mult(h.height(u, v + n.getIncrV())));
}
if (displayType == SURFACE_DISPLAY_LINES) {
tracerLines(p1
, p2,
p3,
p4,
n.texture(), u, u + n.getIncrU(), v, v + n.getIncrV(), n);
break;
} else if (displayType == SURFACE_DISPLAY_POINTS) {
ime.testDeep(rotate(p1, r));
ime.testDeep(rotate(p2, r));
ime.testDeep(rotate(p3, r));
ime.testDeep(rotate(p4, r));
} else {
Logger.getAnonymousLogger().log(Level.INFO, "Surface" + n.getClass() + " u,v,u1,v1 = " + u + "," + v + " u1,v1 "
+ (u + n.getIncrU()) + " " + (v + n.getIncrV()));
tracerQuad(rotate(p1, n), rotate(p2, n),
rotate(p3, n), rotate(p4, n),
n.texture(), u, u + n.getIncrU(), v, v + n.getIncrV(), n);
}
/*
* line(n.calculerPoint3D(u, v), n.calculerPoint3D(u + n.getIncrU(), v),
* n.texture, u); line( n.calculerPoint3D(u + n.getIncrU(), v),
* n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n.texture, v); line(
* n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()), n.calculerPoint3D(u, v
* + n.getIncrV()), n.texture, u); line( n.calculerPoint3D(u, v + n.getIncrV()),
* n.calculerPoint3D(u, v), n.texture, v);
*/
//
//
// draw(new TRI(n.calculerPoint3D(u, v),
// n.calculerPoint3D(u + n.getIncrU(), v),
// n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()),
// n.texture()), n, u, v);
// draw(new TRI(n.calculerPoint3D(u, v),
// n.calculerPoint3D(u, v + n.getIncrV()),
// n.calculerPoint3D(u + n.getIncrU(), v + n.getIncrV()),
// n.texture()), n, u, v);
//
}
}
} else if (r instanceof TRIGenerable) {
r = ((TRIGenerable) r).generate();
} else if (r instanceof PGenerator) {
r = ((PGenerator) r).generatePO();
} else if (r instanceof TRIConteneur) {
r = ((TRIConteneur) r).getObj();
} else
// OBJETS
if (r instanceof TRIObject) {
TRIObject o = (TRIObject) r;
for (TRI t : o.getTriangles()) {
// Logger.getAnonymousLogger().log(Level.INFO, "Triangle suivant");
draw(t);
}
} else if (r instanceof Point3DS) {
Point3D p = ((Point3DS) r).calculerPoint3D(0);
ime.testDeep(rotate(p, r), r.texture());
} else if (r instanceof LineSegment) {
LineSegment s = (LineSegment) r;
Point3D pO = s.getOrigine();
Point3D pE = s.getExtremite();
line(rotate(pO, r), rotate(pE, r), s.texture());
} else if (r instanceof BezierCubique) {
BezierCubique b = (BezierCubique) r;
int nt = largeur() / 10;
Point3D p0 = b.calculerPoint3D(0.0);
for (double t = 0; t < 1.0; t += 1.0 / nt) {
try {
Point3D p1 = b.calculerPoint3D(t);
line(rotate(p0, r), rotate(p1, r), b.texture());
p0 = p1;
} catch (Exception ex) {
ex.printStackTrace();
}
}
} else if (r instanceof BezierCubique2D) {
BezierCubique2D b = (BezierCubique2D) r;
int i1 = BezierCubique2D.DIM1, i2 = BezierCubique2D.DIM2;
for (int i = 0; i < i1; i++) {
for (int j = 0; j < i2; j++) {
draw(new one.empty3.library.Polygon(new Point3D[]{
rotate(b.calculerPoint3D((i - 1 < 0 ? 0 : i - 1) * 1d / i1, (j) * 1d / i2), r),
rotate(b.calculerPoint3D((i) * 1d / i1, (j) * 1d / i2), r),
rotate(b.calculerPoint3D((i) * 1d / i1, (j - 1 < 0 ? 0 : j - 1) * 1d / i2), r),
rotate(b.calculerPoint3D((i - 1 < 0 ? 0 : i - 1) * 1d / i1, (j - 1 < 0 ? 0 : j - 1) * 1d / i2), r)},
b.texture()));
}
}
} else if (r instanceof PCont) {
PCont b = (PCont) r;
b.getPoints().forEach(new Consumer() {
@Override
public void accept(Object o) {
ime.testDeep(rotate((Point3D) o, b)
, ((Point3D) o).texture().getColorAt(0, 0));
}
});
} else if (r instanceof POConteneur) {
POConteneur c = (POConteneur) r;
for (Point3D p : c.iterable()) {
{
ime.testDeep(rotate(p, r), p.texture());
}
}
} else if (r instanceof TRIConteneur) {
for (TRI t : ((TRIConteneur) r).iterable()) {
{
draw(t);
}
}
} else if (r instanceof ParametricCurve) {
ParametricCurve n = (ParametricCurve) r;
double incr = n.getIncrU().getData0d();
for (double u = n.start(); u <= n.endU(); u += incr) {
if (n.isConnected() && displayType != SURFACE_DISPLAY_POINTS) {
line(
n.calculerPoint3D(u),
n.calculerPoint3D(u + incr),
n.texture(), u, u + incr, n);
} else {
ime.testDeep(rotate(n.calculerPoint3D(u), r)
, n.texture().getColorAt(0.5, 0.5));
}
}
} else if (r instanceof Polygon) {
Polygon p = (Polygon) r;
List points = p.getPoints().getData1d();
int length = points.size();
Point3D centre = Point3D.O0;
for (int i = 0; i < points.size(); i++)
centre = centre.plus(points.get(i));
centre = centre.mult(1.0 / points.size());
for (int i = 0; i < length; i++) {
if (getDisplayType() <= SURFACE_DISPLAY_COL_TRI) {
draw(new TRI(points.get(i), points.get((i + 1) % points.size()), centre, p.texture()));
} else {
line(rotate(points.get((i % length)), p), rotate(points.get((i + 1) % length), p), p.texture);
}
}
}
Point3D.end();
}
public double echelleEcran() {
return box.echelleEcran();
}
public int getColorAt(Point p) {
if (ime.getIME().getElementProf((int) p.getX(), (int) p.getY()) >= INFINI_PROF) {
return ime.getIME().getElementCouleur((int) p.getX(), (int) p.getY());
} else {
return Color.TRANSLUCENT;
}
}
public int[] getData() {
return Scolor;
}
public ZBuffer getInstance(int x, int y) {
return new ZBufferImpl(x, y);
}
/*__
* @return hauteur du zbuffer
*/
public int hauteur() {
return ha;
}
@Override
public void setDimension(int width, int height) {
la = width;
ha = height;
}
public ECBufferedImage image() {
/*
ECBufferedImage bi2 = new ECBufferedImage(la, ha, ECBufferedImage.TYPE_INT_RGB);
for (int i = 0; i < la; i++) {
for (int j = 0; j < ha; j++) {
int elementCouleur = ime.ime.getElementCouleur(i, j);
bi2.setRGB(i, j, elementCouleur);
}
}
this.bi = bi2;
return bi2;
*/
return image2();
}
public ECBufferedImage image2() {
return data1.getBufferedImage();
}
public boolean isLocked() {
return locked;
}
public void isobox(boolean isBox) {
}
/*__
* @return largeur du zbuffer
*/
public int largeur() {
return la;
}
@Override
/*__
* @param p1 first point
* @param p2 second point
* @param t colour of de la line
*/
public void line(Point3D p1, Point3D p2, ITexture t) {
Point x1 = camera().coordonneesPoint2D(p1, this);
Point x2 = camera().coordonneesPoint2D(p2, this);
if (x1 == null || x2 == null) {
return;
}
Point3D n = p1.moins(p2).norme1();
double itere = Math.max(Math.abs(x1.getX() - x2.getX()), Math.abs(x1.getY() - x2.getY())) * 4 + 1;
for (int i = 0; i < itere; i++) {
Point3D p = p1.plus(p2.moins(p1).mult(i / itere));
p.texture(t);
add(p.get(0), p.get(1), p.get(2), null, null, null,
null, null, null, i / itere, 0.0, 0.0, p);
}
}
public void line(Point3D p1, Point3D p2, ITexture t, double u, double u1, ParametricCurve curve) {
Point x1 = camera().coordonneesPoint2D(p1, this);
Point x2 = camera().coordonneesPoint2D(p2, this);
if (x1 == null || x2 == null) {
return;
}
Point3D n = p1.moins(p2).norme1();
double itere = Math.max(Math.abs(x1.getX() - x2.getX()), Math.abs(x1.getY() - x2.getY())) * 4 + 1;
for (int i = 0; i < itere; i++) {
Point3D p = p1.plus(p2.moins(p1).mult(i / itere));
if (curve != null)
p = rotate(curve.calculerPoint3D(u + i / itere * (u1 - u)), curve);
add(p.get(0), p.get(1), p.get(2), null, null, null,
null, null, null, i / itere, 0.0, 0.0, curve);
}
}
public void line(Point3D p1, Point3D p2, ITexture texture, double u, double v, double u1, double v1,
ParametricSurface surface) {
// TODO Check
Point x1 = camera().coordonneesPoint2D(p1, this);
Point x2 = camera().coordonneesPoint2D(p2, this);
if (x1 == null || x2 == null) {
return;
}
Point3D n = p1.moins(p2).norme1();
double itereU = Math.max(Math.abs(x1.getX() - x2.getX()), Math.abs(x1.getY() - x2.getY())) * 4 + 1;
double itereV = Math.max(Math.abs(x1.getX() - x2.getX()), Math.abs(x1.getY() - x2.getY())) * 4 + 1;
for (int i = 0; i < itereU; i++) {
Point3D p = p1.plus(p2.moins(p1).mult(i / itereU));
//p.addData("u", u);
//p.addData("v", v);
if (surface != null) {
p = surface.calculerPoint3D(u + i / itereU * (u1 - u), v + i / itereV * (v1 - v));
}
add(p.get(0), p.get(1), p.get(2), null, null, null,
null, null, null, u + i / itereU * (u1 - u), v + i / itereV * (v1 - v), 0.0, surface);
}
}
public boolean lock() {
if (locked) {
return false;
}
locked = true;
return true;
}
public Lumiere lumiereActive() {
return currentScene.lumiereActive();
}
public double[][] map() {
double[][] Map = new double[la][ha];
for (int i = 0; i < la; i++) {
for (int j = 0; j < ha; j++) {
if (ime.getIME().getElementPoint(i, j) != null) {
Map[i][j] = ime.getIME().getElementPoint(i, j).getZ();
} else {
Map[i][j] = INFINI_PROF;
}
}
}
return Map;
}
public void plotPoint(Color color, Point3D p) {
if (p != null && color != null) {
ime.testDeep(p, color.getRGB());
}
}
public void plotPoint(Point3D p) {
if (p != null && p.texture() != null) {
ime.dessine(p, p.texture());
}
}
public void plotPoint(Point3D p, Color c) {
if (p != null && c != null) {
ime.dessine(p, c);
}
}
public Image rendu() {
return null;
}
public int resX() {
return largeur();
}
public int resY() {
return hauteur();
}
public Scene scene() {
return currentScene;
}
public void scene(Scene s) {
this.currentScene = s;
this.texture(s.texture());
}
public void setAngles(double angleXRad, double angleYRad) {
this.angleX = angleXRad;
this.angleY = angleYRad;
}
@Deprecated
public void setColoration(boolean a) {
this.colorationActive = a;
}
/*
public void next() {
if (texture() instanceof TextureMov) {
((TextureMov) texture()).nextFrame();
}
idImg++;
}
*/
@Override
public void testDeep(Point3D p, Color c) {
ime.testDeep(p, c);
}
@Override
public void testDeep(Point3D p, int c) {
ime.testDeep(p, c);
ime.testDeep(p, c);
}
public void testDeep(Point3D p) {
if (p != null && p.texture() != null) {
ime.testDeep(p, p.texture());
}
}
public void testPoint(Point3D p, Color c) {
int cc = c.getRGB();
if (scene().lumiereActive() != null) {
cc = scene().lumiereActive().getCouleur(c.getRGB(), p, p.getNormale());
}
ime.testDeep(p, cc);
}
public boolean add(Double px, Double py, Double pz, Double
tx, Double ty, Double tz, Double nx, Double ny, Double nz,
Double u, Double v, Double w, Representable r) {
// rotate(p);
// ime.testDeep(new Point3D(px, py, pz), new Point3D(nx, ny, nz), r.texture().getColorAt(u, v));
if (data1.addData(px, py, pz,
tx, ty, tz, nx, ny, nz, u, v, w, r)) {
//Logger.getAnonymousLogger().log(Level.INFO, ":");
return true;
}
return false;
}
public void tracerLumineux() {
throw new UnsupportedOperationException("Not supported yet."); // To
// change
// body
// of
// generated
// methods,
// choose
// Tools
// |
// Templates.
}
public void tracerTriangle(Point3D pp1, Point3D pp2, Point3D pp3, ITexture t, double u0, double u1, double v0, double v1) {
Point p1 = camera().coordonneesPoint2D(pp1, this);
Point p2 = camera().coordonneesPoint2D(pp2, this);
Point p3 = camera().coordonneesPoint2D(pp3, this);
if (p1 == null || p2 == null || p3 == null) {
return;
}
int col = t.getColorAt(u0, v0);
double iteres1 = 1.0 / (Math.abs(p1.getX() - p2.getX()) + Math.abs(p1.getY() - p2.getY()));
for (double a = 0; a < 1.0; a += iteres1) {
Point3D p3d = pp1.plus(pp1.mult(-1d).plus(pp2).mult(a));
Point pp = camera().coordonneesPoint2D(p3d, this);
if (pp != null) {
double iteres2 = 1.0 / (Math.abs(pp.getX() - p3.getX()) + Math.abs(pp.getY() - p3.getY()));
for (double b = 0; b < 1.0; b += iteres2) {
Point3D p = p3d.plus(p3d.mult(-1d).plus(pp3).mult(b));
p.texture(t);
// Point p22 = coordonneesPoint2D(p);
if (displayType <= SURFACE_DISPLAY_TEXT_TRI) {
add(p.get(0), p.get(1), p.get(2), null, null, null, null, null, null, u0 + a * (u1 - u0), v0 + b * (v1 - v0), 0.0, p);
} else if (displayType == SURFACE_DISPLAY_COL_TRI)
add(p.get(0), p.get(1), p.get(2), null, null, null, null, null, null, u0 + a * (u1 - u0), v0 + b * (v1 - v0), 0.0, p);
else ;
// LINES, POINTS;
}
}
}
}
public void tracerQuad(Point3D pp1, Point3D pp2, Point3D pp3, Point3D pp4, ITexture texture, double u0, double u1,
double v0, double v1, ParametricSurface n) {
Point p1, p2, p3, p4;
p1 = camera().coordonneesPoint2D(pp1, this);
p2 = camera().coordonneesPoint2D(pp2, this);
p3 = camera().coordonneesPoint2D(pp3, this);
p4 = camera().coordonneesPoint2D(pp4, this);
int col = texture.getColorAt(u0, v0);
if (p1 == null || p2 == null || p3 == null || p4 == null)
return;
TRI triBas = new TRI(pp1, pp2, pp3, texture);
Point3D normale = triBas.normale();
double inter = 1 / (maxDistance(p1, p2, p3, p4) + 1) / 3;
for (double a = 0; a < 1.0; a += inter) {
Point3D.start();
Point3D pElevation1 = pp1.plus(pp1.mult(-1d).plus(pp2).mult(a));
Point3D pElevation2 = pp4.plus(pp4.mult(-1d).plus(pp3).mult(a));
for (double b = 0; b < 1.0; b += inter) {
Point3D.start();
Point3D pFinal = (pElevation1.plus(pElevation1.mult(-1d).plus(pElevation2).mult(b)));
pFinal.setNormale(normale);
pFinal.texture(texture);
if (n != null) {
if (displayType == DISPLAY_ALL)
pFinal = n.calculerPoint3D(u0 + (u1 - u0) * a, v0 + (v1 - v0) * b);
else {
pFinal = pFinal;
}
}
if (displayType <= SURFACE_DISPLAY_TEXT_QUADS) {
Point3D no = n.calculerNormale3D(u0 + (u1 - u0) * a, v0 + (v1 - v0) * b);
add(pFinal.get(0), pFinal.get(1), pFinal.get(2), null, null, null, no.get(0), no.get(1), no.get(2), u0 + (u1 - u0) * a, v0 + (v1 - v0) * b, 0.0, n);
} else {
add(pFinal.get(0), pFinal.get(1), pFinal.get(2), null, null, null, normale.get(0), normale.get(1), normale.get(2), u0 + (u1 - u0) * a, v0 + (v1 - v0) * b, 0.0, n);
}
Point3D.end();
//Point3D.save(pFinal);
}
Point3D.end();
}
}
public void tracerTriangle(Point3D pp1, Point3D pp2, Point3D pp3, ITexture c) {
Point p1, p2, p3;
p1 = camera().coordonneesPoint2D(pp1, this);
p2 = camera().coordonneesPoint2D(pp2, this);
p3 = camera().coordonneesPoint2D(pp3, this);
Point3D n = (pp3.moins(pp1)).prodVect(pp2.moins(pp1)).norme1();
if (p1 == null || p2 == null || p3 == null) {
return;
}
double iteres1 = 1.0 / (maxDistance(p1, p2, p3) + 1) / 3;
for (double a = 0; a < 1.0; a += iteres1) {
Point3D p3d = pp1.plus(pp1.mult(-1d).plus(pp2).mult(a));
double iteres2 = 1.0 / maxDistance(p1, p2, p3) / 3;
for (double b = 0; b < 1.0; b += iteres2) {
Point3D p = p3d.plus(p3d.mult(-1d).plus(pp3).mult(b));
p.setNormale(n);
p.texture(c);
add(p.get(0), p.get(1), p.get(2), null, null, null, n.get(0), n.get(1), n.get(2), a, b, 0.0, p);
}
}
}
public boolean unlock() {
if (!locked) {
return false;
}
locked = false;
return true;
}
public void zoom(float z) {
if (z > 0) {
zoom = z;
}
}
@Override
public ITexture backgroundTexture() {
return texture();
}
public void couleurDeFond(ITexture couleurFond) {
}
public void backgroundTexture(ITexture texture) {
if (texture != null) {
texture(texture);
applyTex();
}
}
public void applyTex() {
if (texture instanceof TextureMov) {
for (int i = 0; i < la; i++) {
for (int j = 0; j < ha; j++) {
ime.ime.setElementCouleur(i, j, texture().getColorAt(1.0 * i / la, 1.0 * j / ha));
}
}
}
}
public class Box2D {
private double minx = 1000000;
private double miny = 1000000;
private double minz = 1000000;
private double maxx = -1000000;
private double maxy = -1000000;
private double maxz = -1000000;
private boolean notests = false;
/*
P3 x y z
Tgt x y z
N x y z
Tex u v w TextId
T
*/
public Box2D() {
SceneCadre cadre = currentScene.getCadre();
if (cadre.isCadre()) {
for (int i = 0; i < 4; i++) {
if (cadre.get(i) != null) {
test(cadre.get(i));
}
}
/*
* if (!cadre.isExterieur()) { notests = true; }
*/
}
if (!notests) {
Iterator it = currentScene.iterator();
while (it.hasNext()) {
Representable r = it.next();
// GENERATORS
if (r instanceof TRIGenerable) {
r = ((TRIGenerable) r).generate();
} else if (r instanceof PGenerator) {
r = ((PGenerator) r).generatePO();
} else if (r instanceof TRIConteneur) {
r = ((TRIConteneur) r).getObj();
}
// OBJETS
if (r instanceof TRIObject) {
TRIObject o = (TRIObject) r;
Iterator ts = o.iterator();
while (ts.hasNext()) {
TRI t = ts.next();
for (Point3D p : t.getSommet().getData1d()) {
test(p);
}
}
} else if (r instanceof Point3D) {
Point3D p = (Point3D) r;
test(p);
} else if (r instanceof LineSegment) {
LineSegment p = (LineSegment) r;
test(p.getOrigine());
test(p.getExtremite());
} else if (r instanceof TRI) {
TRI t = (TRI) r;
test(t.getSommet().getElem(0));
test(t.getSommet().getElem(1));
test(t.getSommet().getElem(2));
} /* else if (r instanceof BSpline) {
BSpline b = (BSpline) r;
Iterator ts = b.iterator();
while (ts.hasNext()) {
Point3D p = ts.next();
test(p);
}
} */ else if (r instanceof BezierCubique) {
BezierCubique b = (BezierCubique) r;
Iterator ts = b.iterator();
while (ts.hasNext()) {
Point3D p = ts.next();
test(p);
}
} else if (r instanceof BezierCubique2D) {
BezierCubique2D b = (BezierCubique2D) r;
for (int i = 0; i < 4; i++) {
for (int j = 0; j < 4; j++) {
Point3D p = b.getControle(i, j);
test(p);
}
}
} else if (r instanceof POConteneur) {
for (Point3D p : ((POConteneur) r).iterable()) {
test(p);
}
} else if (r instanceof PObjet) {
for (Point3D p : ((PObjet) r).iterable()) {
test(p);
}
} else if (r instanceof RepresentableConteneur) {
throw new UnsupportedOperationException("Conteneur non supporté");
}
}
}
// Adapter en fonction du ratio largeur/hauteur
double ratioEcran = 1.0 * la / ha;
double ratioBox = (maxx - minx) / (maxy - miny);
double minx2 = minx, miny2 = miny, maxx2 = maxx, maxy2 = maxy;
if (ratioEcran > ratioBox) {
// Ajouter des points en coordArr
minx2 = minx - (1 / ratioBox * ratioEcran / 2) * (maxx - minx);
maxx2 = maxx + (1 / ratioBox * ratioEcran / 2) * (maxx - minx);
} else if (ratioEcran < ratioBox) {
// Ajouter des points en y
miny2 = miny - (ratioBox / ratioEcran / 2) * (maxy - miny);
maxy2 = maxy + (ratioBox / ratioEcran / 2) * (maxy - miny);
}
minx = minx2;
miny = miny2;
maxx = maxx2;
maxy = maxy2;
double ajuste = zoom - 1.0;
minx2 = minx - ajuste * (maxx - minx);
miny2 = miny - ajuste * (maxy - miny);
maxx2 = maxx + ajuste * (maxx - minx);
maxy2 = maxy + ajuste * (maxy - miny);
minx = minx2;
miny = miny2;
maxx = maxx2;
maxy = maxy2;
}
public boolean checkPoint(Point3D p) {
return p.getX() > minx & p.getX() < maxx & p.getY() > miny & p.getY() < maxy;
}
public double echelleEcran() {
return (box.getMaxx() - box.getMinx()) / la;
}
public double getMaxx() {
return maxx;
}
public void setMaxx(double maxx) {
this.maxx = maxx;
}
public double getMaxy() {
return maxy;
}
public void setMaxy(double maxy) {
this.maxy = maxy;
}
public double getMaxz() {
return maxz;
}
public void setMaxz(double maxz) {
this.maxz = maxz;
}
public double getMinx() {
return minx;
}
public void setMinx(double minx) {
this.minx = minx;
}
public double getMiny() {
return miny;
}
public void setMiny(double miny) {
this.miny = miny;
}
public double getMinz() {
return minz;
}
public void setMinz(double minz) {
this.minz = minz;
}
public Rectangle rectangle() {
return new Rectangle((int) minx, (int) miny, (int) maxx, (int) maxy);
}
private void test(Point3D p) {
if (p.getX() < minx) {
minx = p.getX();
}
if (p.getY() < miny) {
miny = p.getY();
}
if (p.getZ() < minz) {
minz = p.getZ();
}
if (p.getX() > maxx) {
maxx = p.getX();
}
if (p.getY() > maxy) {
maxy = p.getY();
}
if (p.getZ() > maxz) {
maxz = p.getZ();
}
}
}
public class Box2DPerspective {
public float d = -10.0f;
public float w = 10.0f;
public float h = w * la / ha;
/*__
* @param scene
*/
public Box2DPerspective(Scene scene) {
}
}
public void preprocessor() {
if (data1 == null)
data1 = new Data(la, ha, this);
predraw();
finishDraw();
}
public class ImageMap {
protected ImageMapElement ime;
public ImageMap(int x, int y) {
dimx = x;
dimy = y;
ime = new ImageMapElement();
for (int i = 0; i < x; i++) {
for (int j = 0; j < y; j++) {
ime.setElementID(x, y, idImg);
ime.setElementPoint(x, y, INFINI);
ime.setElementCouleur(x, y, 0);
}
}
}
public void dessine(Point3D x3d, Color c) {
Point ce = camera().coordonneesPoint2D(x3d, that);
if (ce == null) {
return;
}
double prof = -1000;
int x = (int) ce.getX();
int y = (int) ce.getY();
if (x >= 0 & x < la & y >= 0 & y < ha && c.getAlpha() == 255) {
ime.setElementID(x, y, idImg);
ime.setElementPoint(x, y, x3d);
ime.setElementCouleur(x, y, c.getRGB());
ime.setDeep(x, y, prof);
}
}
public int getDimx() {
return dimx;
}
public int getDimy() {
return dimy;
}
public ImageMapElement getIME() {
return ime;
}
public void reinit() {
idImg++;
}
/*
* private boolean checkCoordinates(int coordArr, int y) { if (coordArr >= 0 & coordArr < la & y >= 0
* & y < ha) { return true; } return false; }
*/
public void setIME(int x, int y) {
ime.setElementID(x, y, idImg);
}
public void testDeep(Point3D x3d, int c) {
if (x3d == null)
return;
int cc = c;
Point ce = camera().coordonneesPoint2D(x3d, that);
if (ce == null)
return;
double deep = camera().distanceCamera(x3d);
int x = (int) ce.getX();
int y = (int) ce.getY();
if (x >= 0 & x < la & y >= 0 & y < ha
&& (deep < ime.getElementProf(x, y) /*
* || ime.getElementID(coordArr, y) != idImg
*/) /* && (((cc>>24)&0xff) == 0) */) {
if (scene().lumiereActive() != null) {
cc = scene().lumiereTotaleCouleur(c, x3d, x3d.getNormale());
}
ime.setElementID(x, y, idImg);
ime.setElementCouleur(x, y, cc);
ime.setDeep(x, y, deep);
ime.setElementPoint(x, y, x3d);
}
}
public void testDeep(Point3D p, Point3D n, Color c) {
// Color cc = c.getCouleur();
p.setNormale(n);
testDeep(p, c.getRGB());
}
public void testDeep(Point3D p, Point3D n, int c) {
testDeep(p, n, new Color(c));
}
public void testDeep(Point3D p, ITexture texture) {
testDeep(p, texture.getColorAt(0.5, 0.5));
}
public void dessine(Point3D p, ITexture texture) {
dessine(p, new Color(texture.getColorAt(0.5, 0.5)));
}
public void testDeep(Point3D p) {
testDeep(p, (p != null && p.texture() != null) ? p.texture() : CFAST);//WTF
}
public void testDeep(Point3D p, Color c) {
testDeep(p, p.getNormale(), c);
}
public void testDeep(Point3D pFinal, Point3D point3D, int colorAt, Representable n) {
testDeep(pFinal, point3D, colorAt);
Point point = camera().coordonneesPoint2D(pFinal, that);
if (ime != null && point != null) {
ime.setElementRepresentable((int) point.getX(), (int) point.getY(), n);
}
}
public void testDeep(Point3D pFinal, int colorAt, Representable n) {
testDeep(pFinal, pFinal.getNormale(), colorAt, n);
}
}
public void dessine(Point3D p, ITexture texture) {
ime.dessine(p, new Color(texture.getColorAt(0.5, 0.5)));
}
public class ImageMapElement {
protected int couleur_fond_int = -1;
private ImageMapElement instance;
private Representable[][] Simerepresentable;
public ImageMapElement() {
Scordinate = new Point3D[la][ha];
Scolor = new int[la * ha];
Simeid = new long[la][ha];
Simeprof = new double[la][ha];
Simerepresentable = new Representable[la][ha];
for (int i = 0; i < la; i++) {
for (int j = 0; j < ha; j++) {
Simeprof[i][j] = INFINI.getZ();
Simeid[i][j] = idImg;
Scolor[j * la + i] = COULEUR_FOND_INT(i, j);
Simerepresentable[i][j] = null;
}
}
}
public Representable getElementRepresentable(int x, int y) {
if (checkCordinates(x, y)) {
return Simerepresentable[x][y];
}
return null;
}
public void setElementRepresentable(int x, int y, Representable representable) {
if (checkCordinates(x, y)) {
Simerepresentable[x][y] = representable;
}
}
public boolean checkCordinates(int x, int y) {
return x >= 0 && x < resX() && y >= 0 && y < resY();
}
public int COULEUR_FOND_INT(int x, int y) {
couleur_fond_int = texture().getColorAt(1.0 * x / largeur(), 1.0 * y / hauteur());
return couleur_fond_int;
}
public int getElementCouleur(int x, int y) {
if (checkCordinates(x, y) && Simeid[x][y] == idImg() && Simeprof[x][y] < INFINI.getZ()) {
return getRGBInt(Scolor, x, y);
} else {
return COULEUR_FOND_INT(x, y);
}
}
public long getElementID(int x, int y) {
if (checkCordinates(x, y)) {
return Simeid[x][y];
} else {
return -1;
}
}
public Point3D getElementPoint(int x, int y) {
if (checkCordinates(x, y) && Scordinate[x][y] != null) {
return Scordinate[x][y];
} else {
return INFINI;
}
}
private double getElementProf(int x, int y) {
if (checkCordinates(x, y) && Simeid[x][y] == idImg) {
return Simeprof[x][y];
} else {
return INFINI_PROF;
}
}
public ImageMapElement getInstance(int x, int y) {
if (instance == null) {
instance = new ImageMapElement();
}
return instance;
}
private int getRGBInt(int[] sc, int x, int y) {
return sc[x + y * la];
}
public void setElementCouleur(int x, int y, int pc) {
if (checkCordinates(x, y)) {
setElementID(x, y, idImg);
setRGBInts(pc, Scolor, x, y);
}
}
public void setElementID(int x, int y, long id) {
if (checkCordinates(x, y)) {
Simeid[x][y] = idImg;
}
}
public void setElementPoint(int x, int y, Point3D px) {
if (checkCordinates(x, y)) {
setElementID(x, y, idImg);
Scordinate[x][y] = px;
}
}
private void setDeep(int x, int y, double d) {
if (checkCordinates(x, y)) {
Simeprof[x][y] = (float) d;
}
}
private void setRGBInts(int rgb, int[] sc, int x, int y) {
sc[x + y * la] = rgb;
}
}
public Point3D clickAt(double x, double y) {
return clickAt((int) (x * largeur()), (int) y * hauteur());
}
/*__
*
* @param x Coordonnees de l'image ds ZBuffer
* @param y Coordonnees de l'image ds ZBuffer
* @return Point3D avec texture. Si vide Point3D.INFINI
*/
public Point3D clickAt(int x, int y) {
Point3D p = ime.getIME().getElementPoint(x, y);
p.texture(new TextureCol(ime.getIME().getElementCouleur(x, y)));
return p;
}
/*__
*
* @param x Coordonnees de l'image ds ZBuffer
* @param y Coordonnees de l'image ds ZBuffer
* @return Point3D avec texture. Si vide Point3D.INFINI
*/
public Representable representableAt(int x, int y) {
Representable p = ime.getIME().getElementRepresentable(x, y);
return p;
}
/*__
*
* @param x Coordonnées dans le composant
* @param y Coordonnées dans le composant
* @param orig point 3D à inverser dans le repère de la caméra
* @param camera Caméra où calculer. null="this.camera()"
* @return axe p1: camera.axe, p3 à dist.
*/
public Point3D invert(int x, int y, Point3D orig, Camera camera) {
x = (x - largeur() / 2);
y = (y - hauteur() / 2);
double dist = orig.moins(camera.getEye()).norme();
double pX = Math.cos(camera.getAngleX()) * dist;
double pY = Math.cos(camera.getAngleY()) * dist;
return camera.getMatrice().tild().mult(new Point3D(
pX * 2.0 * x / largeur(),
-pY * 2.0 * y / hauteur(), dist
));
}
public int getDisplayType() {
return displayType;
}
public void setDisplayType(int displayType) {
this.displayType = displayType;
}
}
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