/* return color in atom format */
private Atom[] pColor(int _i) {
return new Atom[] {
Atom.newAtom(patternColor[_i][0]),
Atom.newAtom(patternColor[_i][1]),
Atom.newAtom(patternColor[_i][2])
};
}
public void draw() {
sketch.send("moveto", coords);
sketch.send("framecircle", new Atom[] {Atom.newAtom(size)});
if (triggered) {
sketch.send("circle", new Atom[] {Atom.newAtom(size)});
} else if (hover) {
sketch.send("circle", new Atom[] {Atom.newAtom(size)});
} else if (selected) {
sketch.send("circle", new Atom[] {Atom.newAtom(size)});
}
}
private void trigger(double dist) {
triggered = true;
outlet(
0,
new Atom[] {
Atom.newAtom(name),
Atom.newAtom(polar[0]),
Atom.newAtom(polar[1]),
Atom.newAtom(size),
Atom.newAtom(coords[0]),
Atom.newAtom(coords[1]),
Atom.newAtom(coords[2])
});
}
// function that draws already calculated pattern
public void drawPaisley(int _i, float _x, float _y, float _sx, float _sy, boolean calc) {
if (calc) renderDrawPaisley(_i, _x, _y, _sx, _sy);
else {
float _mirror = mMirrorDistance * _sx;
for (int e = 0; e < eNum; e++) {
float _dir = 1; // mirror x values in opposite direction
// mirror the bezier
for (int m = 0; m < 2; m++) {
if (m == 0 || (m == 1 && _mirrored)) {
if (m == 1) _dir *= -1;
// --- - - - - - - - - --- - -draw BEZIER - - - -- - - -- - -- - -- -- -- - ----
sketch.call("glcolor", pColor()); // same color for all patterns
sketch.call("glbegin", "tri_strip");
for (int i = 0; i <= bSlices; i++) {
// x + _mirror*_dir + bezierPoint[_t][0]*_sx*_dir + _offOutside[0]*_sx*_dir;
// y + bezierPoint[_t][1]*_sy + _offOutside[1]*_sy
float x1 = _x + _mirror * _dir + masterBezierOffset[e][i][0][0] * _sx * _dir;
float y1 = _y + masterBezierOffset[e][i][0][1] * _sy;
float z1 = 0;
float x2 = _x + _mirror * _dir + masterBezierOffset[e][i][1][0] * _sx * _dir;
float y2 = _y + masterBezierOffset[e][i][1][1] * _sy;
float z2 = 0;
sketch.call(
"glvertex", new Atom[] {Atom.newAtom(x1), Atom.newAtom(y1), Atom.newAtom(z1)});
sketch.call(
"glvertex", new Atom[] {Atom.newAtom(x2), Atom.newAtom(y2), Atom.newAtom(z2)});
}
sketch.call("glend");
}
// --- - - - - - - - - --- - - --end drawing -- - - -- - -- - -- -- -- - ---- -
}
}
}
}
public void blendMode(int b1, int b2) {
sketchBlendMode1 = b1;
sketchBlendMode2 = b2;
sketch.setAttr("blend_mode", new Atom[] {Atom.newAtom(b1), Atom.newAtom(b2)});
}
public void resize(int x, int y) {
texture_width = x;
texture_height = y;
texture.setAttr("dim", new Atom[] {Atom.newAtom(texture_width), Atom.newAtom(texture_height)});
if (debug) post("resized to " + x + " " + y);
}
private Atom[] pColor() {
// mainColor
return new Atom[] {
Atom.newAtom(mainColor[0]), Atom.newAtom(mainColor[1]), Atom.newAtom(mainColor[2])
};
}
/* draw n-grade bezier with strokewidth that converges at endpoints */
public void drawBezier(
int _i, float x, float y, float[][] points, float w, float _sx, float _sy) {
int slices = bSlices;
// TODO calculate slices based on curve length ?
float _add = 1.f / (float) (slices); // defines segments of curve
/* calculate all bezier points and their offset vectors beforehand */
float[][] bezierPoint = new float[slices + 1][3];
float[][] offsetVector = new float[slices + 1][3];
// calculate all points along the bezier curve
for (int _t = 0; _t <= slices; _t++) {
float t = _t * _add;
bezierPoint[_t] = P(t, points);
}
// calculate vector perpendicular to the line connecting the previous and next bezier point
for (int _t = 0; _t <= slices; _t++) {
if (_t == 0) offsetVector[_t] = perpendicularVector(bezierPoint[_t], bezierPoint[_t + 1]);
else if (_t == slices)
offsetVector[_t] = perpendicularVector(bezierPoint[_t - 1], bezierPoint[_t]);
else offsetVector[_t] = perpendicularVector(bezierPoint[_t - 1], bezierPoint[_t + 1]);
}
// calculate offsetPoints before drawing.
float _scw = w;
float[][][] bezierOffset =
new float[slices + 1][2][3]; // hold offset points on both sides of curve
float _mirror = mMirrorDistance * _sx;
float _dir = 1; // mirror x values in opposite direction
// mirror the bezier
for (int m = 0; m < 2; m++) {
if (m == 0 || (m == 1 && _mirrored)) {
if (m == 1) _dir *= -1;
for (int _t = 0; _t <= slices; _t++) {
float t = _t * _add;
_scw = restrict(halfCircle(t) * w, 0.01f, 100f);
float[] _offOutside = scaleVector(offsetVector[_t], _scw);
float[] _offInside = scaleVector(offsetVector[_t], -_scw);
bezierOffset[_t][0][0] =
x + _mirror * _dir + bezierPoint[_t][0] * _sx * _dir + _offOutside[0] * _sx * _dir;
bezierOffset[_t][1][0] =
x + _mirror * _dir + bezierPoint[_t][0] * _sx * _dir + _offInside[0] * _sx * _dir;
bezierOffset[_t][0][1] = y + bezierPoint[_t][1] * _sy + _offOutside[1] * _sy;
bezierOffset[_t][1][1] = y + bezierPoint[_t][1] * _sy + _offInside[1] * _sy;
bezierOffset[_t][0][2] = -0.f;
bezierOffset[_t][1][2] = -0.f;
}
// --- - - - - - - - - --- - -draw BEZIER - - - -- - - -- - -- - -- -- -- - ----
// sketch.call("glcolor", pColor(_i)); // patterns individual color
sketch.call("glcolor", pColor()); // same color for all patterns
sketch.call("glbegin", "tri_strip");
for (int i = 0; i <= slices; i++) {
sketch.call(
"glvertex",
new Atom[] {
Atom.newAtom(bezierOffset[i][0][0]),
Atom.newAtom(bezierOffset[i][0][1]),
Atom.newAtom(bezierOffset[i][0][2])
});
// if(i!=0 && i!=slices) // don't draw the first and last point twice!
sketch.call(
"glvertex",
new Atom[] {
Atom.newAtom(bezierOffset[i][1][0]),
Atom.newAtom(bezierOffset[i][1][1]),
Atom.newAtom(bezierOffset[i][1][2])
});
}
sketch.call("glend");
}
// --- - - - - - - - - --- - - --end drawing -- - - -- - -- - -- -- -- - ---- -
}
}
/* draw aurora to jitter sketch object */
public void draw() {
if (animation) randomize(noiseFactor / 100.f, returnFactor / 100.f);
if (bgFading) {
bgFadeCounter++;
float fadeStep = bgFadeCounter * 1.f / (float) bgFadeTime;
if (debug) post("fadestep " + fadeStep + " counter " + bgFadeCounter);
bgColor[0] = bgColorFade1[0] + (bgColorFade2[0] - bgColorFade1[0]) * fadeStep;
bgColor[1] = bgColorFade1[1] + (bgColorFade2[1] - bgColorFade1[1]) * fadeStep;
bgColor[2] = bgColorFade1[2] + (bgColorFade2[2] - bgColorFade1[2]) * fadeStep;
if (bgFadeCounter >= bgFadeTime) {
// reached end of fade
bgColor[0] = bgColorFade2[0];
bgColor[1] = bgColorFade2[1];
bgColor[2] = bgColorFade2[2];
bgFading = false;
}
}
// if(debug) post("reset");
sketch.call("reset");
sketch.call(
"glclearcolor",
new Atom[] {
Atom.newAtom(bgColor[0]),
Atom.newAtom(bgColor[1]),
Atom.newAtom(bgColor[2]),
Atom.newAtom(bgColor[3])
});
sketch.call("glclear");
// if(debug) post("line_smooth");
if (lineSmooth) sketch.call("glenable", "line_smooth");
else sketch.call("gldisable", "line_smooth");
// create local variables, to avoid conflict when life-updating
// variables while rendering
float _size[] = new float[2]; // size from origin
float _scale[] = new float[2];
float _pos[] = new float[2]; // origin position
float _grid[] = new float[2];
for (int i = 0; i < 2; i++) { // only need x and y values
mSize[i] = (morphing) ? mSize[i] += (pSize[i] - mSize[i]) * slew : pSize[i];
_size[i] = mSize[i];
mScale[i] = (morphing) ? mScale[i] += (pScale[i] - mScale[i]) * slew : pScale[i];
_scale[i] = mScale[i] * scaleMult;
mPos[i] = (morphing) ? mPos[i] += (pPos[i] - mPos[i]) * slew : pPos[i];
_pos[i] = mPos[i];
mGrid[i] = (morphing) ? mGrid[i] += (pGrid[i] - mGrid[i]) * slew : pGrid[i];
_grid[i] = mGrid[i];
}
int _slices = bSlices;
mMirrorDistance =
(morphing) ? mMirrorDistance += (mirrorDistance - mMirrorDistance) * slew : mirrorDistance;
// new drawing loop, create 16x9 grid and only draw if item is within frame
float borderx = -_grid[0] * cols / 2.f;
float bordery = _grid[1] * rows / 2.f;
float wratio = 0.1f + (float) texture_width / (float) texture_height;
float hratio = 0.1f + 1.f; // add 0.1f to avoid on/off flickr on edges
float flip = 1.f;
int count = 0; // to calculate how many patterns are actually displayed
for (int r = 0; r < rows; r++) {
for (int c = 0; c < cols; c++) {
int id = r * cols + c;
if (displayed[id]) {
float _x = borderx + c * _grid[0];
_x += (r % 2 == 0) ? _grid[0] / 2.f : 0; // each second is shifted to the right
float _y = bordery - r * _grid[1];
flip = (r % 2 == 0) ? 1f : -1f;
_x *= _size[0];
_y *= _size[1];
if (_x >= -wratio && _x <= wratio && _y >= -hratio + cutOff * 2 && _y <= hratio) {
count++;
if (displayMode == 1) {
// twin
flip *= flipTwin ? -1.f : 1.f;
drawPaisley(
id,
(_pos[0] + _x),
(_pos[1] + _y - _grid[1] * _size[1]),
_scale[0] * _size[0],
_scale[1] * flip * _size[1],
activated[id] && precalc);
drawPaisley(
id,
(_pos[0] + _x),
(_pos[1] + _y),
_scale[0] * _size[0],
_scale[1] * flip * -1 * _size[1],
activated[id] && precalc);
} else {
drawPaisley(
id,
(_pos[0] + _x),
(_pos[1] + _y),
_scale[0] * _size[0],
_scale[1] * flip * _size[1],
activated[id] && precalc);
}
}
}
}
}
// post("drawing "+count+" patterns");
// if(debug) post("drawimmediate");
// call drawimmediate, to execute drawing of sketch object
// try {
sketch.call("drawimmediate");
// } catch(Exception e) {
// if(debug) post("drawimmediate error: "+e);
// }
// if(debug) post("after drawimmediate");
}
/* instantiate mxj with render context as argument */
public FigurePaisley(String rc) {
context = rc; // render context
declareIO(2, 2); // declare 2 inlets, 1 outlet of DataTypes.ALL
// assist message for inlets and outlets (mouse hover)
setInletAssist(new String[] {"bang to compute and draw", "input settings"});
setOutletAssist(
new String[] {"outputs jit.gl.texture object", "connect to thispatcher for gui updating"});
// instantiate Jitter sketch object
sketch = new JitterObject("jit.gl.sketch");
sketch.setAttr("drawto", context);
sketch.setAttr("depth_enable", sketchDepthEnable);
sketch.setAttr("blend_enable", sketchBlendEnable);
sketch.setAttr("blend_mode", new Atom[] {Atom.newAtom(6), Atom.newAtom(7)});
sketch.setAttr("antialias", sketchAntialias);
sketch.setAttr(
"glclearcolor",
new Atom[] {Atom.newAtom(0.), Atom.newAtom(1.), Atom.newAtom(0.), Atom.newAtom(1.)});
sketch.setAttr("fsaa", sketchFsaa);
sketch.send("automatic", 0); /*
* set to not-automatic, to be able to use
* begin_capture and drawimmediate for
* capturing jit.gl.sketch as texture
*/
// instantiate Jitter texture object
texture = new JitterObject("jit.gl.texture");
texture.setAttr("drawto", context);
texture.setAttr("dim", new Atom[] {Atom.newAtom(texture_width), Atom.newAtom(texture_height)});
masterPattern =
new float[eNumMax][bNum][3]; // even though we only use xy, keep xyz for consistency
patternNoise = new float[pNumMax][eNumMax][bNum][3];
mPatternNoise = new float[pNumMax][eNumMax][bNum][3];
masterWidth = new float[eNumMax];
mMasterWidth = new float[eNumMax];
widthNoise = new float[pNumMax][eNumMax];
mWidthNoise = new float[pNumMax][eNumMax];
ePoints = new int[eNumMax];
eAnchor = new int[eNumMax];
activated = new boolean[pNumMax];
displayed = new boolean[pNumMax];
patternColor = new float[pNumMax][3];
for (int e = 0; e < eNumMax; e++) {
masterWidth[e] = 0.05f;
mMasterWidth[e] = 0.05f;
ePoints[e] = bNum;
eAnchor[e] = 0;
for (int b = 0; b < bNum; b++) {}
}
for (int p = 0; p < pNumMax; p++) {
for (int e = 0; e < eNumMax; e++) {
for (int b = 0; b < bNum; b++) {
mPatternNoise[p][e][b] = new float[] {0.f, 0.f, 0.f};
}
mWidthNoise[p][e] = 0.f;
}
activated[p] = false;
displayed[p] = true;
for (int c = 0; c < 3; c++) patternColor[p][c] = 1.f;
}
for (int i = 0; i < 5; i++) activate(theActive[i], 1);
createMasterPaisley();
randomize(0.1f, 0.f);
display(displayMode);
}
public void draw() {
sketch.send(
"moveto",
new Atom[] {Atom.newAtom(coords[0]), Atom.newAtom(coords[1]), Atom.newAtom(coords[2])});
sketch.send(
"lineto",
new Atom[] {Atom.newAtom(origin[0]), Atom.newAtom(origin[1]), Atom.newAtom(origin[2])});
sketch.send(
"lineto",
new Atom[] {
Atom.newAtom(origin[0]), Atom.newAtom(origin[1]), Atom.newAtom(origin[2] + 0.1)
});
sketch.send(
"lineto",
new Atom[] {Atom.newAtom(coords[0]), Atom.newAtom(coords[1]), Atom.newAtom(coords[2])});
}