Kubepublic class Kube extends android.app.Activity implements KubeRenderer.AnimationCallback
| Fields Summary |
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| android.opengl.GLSurfaceView | mView | | KubeRenderer | mRenderer | | Cube[] | mCubes | | Layer[] | mLayers | | static int[] | mLayerPermutations | | int[] | mPermutation | | Random | mRandom | | Layer | mCurrentLayer | | float | mCurrentAngle | | float | mEndAngle | | float | mAngleIncrement | | int[] | mCurrentLayerPermutation | | static final int | kUp | | static final int | kDown | | static final int | kLeft | | static final int | kRight | | static final int | kFront | | static final int | kBack | | static final int | kMiddle | | static final int | kEquator | | static final int | kSide |
| Methods Summary |
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| public void | animate()
// change our angle of view
mRenderer.setAngle(mRenderer.getAngle() + 1.2f);
if (mCurrentLayer == null) {
int layerID = mRandom.nextInt(9);
mCurrentLayer = mLayers[layerID];
mCurrentLayerPermutation = mLayerPermutations[layerID];
mCurrentLayer.startAnimation();
boolean direction = mRandom.nextBoolean();
int count = mRandom.nextInt(3) + 1;
count = 1;
direction = false;
mCurrentAngle = 0;
if (direction) {
mAngleIncrement = (float)Math.PI / 50;
mEndAngle = mCurrentAngle + ((float)Math.PI * count) / 2f;
} else {
mAngleIncrement = -(float)Math.PI / 50;
mEndAngle = mCurrentAngle - ((float)Math.PI * count) / 2f;
}
}
mCurrentAngle += mAngleIncrement;
if ((mAngleIncrement > 0f && mCurrentAngle >= mEndAngle) ||
(mAngleIncrement < 0f && mCurrentAngle <= mEndAngle)) {
mCurrentLayer.setAngle(mEndAngle);
mCurrentLayer.endAnimation();
mCurrentLayer = null;
// adjust mPermutation based on the completed layer rotation
int[] newPermutation = new int[27];
for (int i = 0; i < 27; i++) {
newPermutation[i] = mPermutation[mCurrentLayerPermutation[i]];
// newPermutation[i] = mCurrentLayerPermutation[mPermutation[i]];
}
mPermutation = newPermutation;
updateLayers();
} else {
mCurrentLayer.setAngle(mCurrentAngle);
}
| | private void | createLayers()
mLayers[kUp] = new Layer(Layer.kAxisY);
mLayers[kDown] = new Layer(Layer.kAxisY);
mLayers[kLeft] = new Layer(Layer.kAxisX);
mLayers[kRight] = new Layer(Layer.kAxisX);
mLayers[kFront] = new Layer(Layer.kAxisZ);
mLayers[kBack] = new Layer(Layer.kAxisZ);
mLayers[kMiddle] = new Layer(Layer.kAxisX);
mLayers[kEquator] = new Layer(Layer.kAxisY);
mLayers[kSide] = new Layer(Layer.kAxisZ);
| | private GLWorld | makeGLWorld()
GLWorld world = new GLWorld();
int one = 0x10000;
int half = 0x08000;
GLColor red = new GLColor(one, 0, 0);
GLColor green = new GLColor(0, one, 0);
GLColor blue = new GLColor(0, 0, one);
GLColor yellow = new GLColor(one, one, 0);
GLColor orange = new GLColor(one, half, 0);
GLColor white = new GLColor(one, one, one);
GLColor black = new GLColor(0, 0, 0);
// coordinates for our cubes
float c0 = -1.0f;
float c1 = -0.38f;
float c2 = -0.32f;
float c3 = 0.32f;
float c4 = 0.38f;
float c5 = 1.0f;
// top back, left to right
mCubes[0] = new Cube(world, c0, c4, c0, c1, c5, c1);
mCubes[1] = new Cube(world, c2, c4, c0, c3, c5, c1);
mCubes[2] = new Cube(world, c4, c4, c0, c5, c5, c1);
// top middle, left to right
mCubes[3] = new Cube(world, c0, c4, c2, c1, c5, c3);
mCubes[4] = new Cube(world, c2, c4, c2, c3, c5, c3);
mCubes[5] = new Cube(world, c4, c4, c2, c5, c5, c3);
// top front, left to right
mCubes[6] = new Cube(world, c0, c4, c4, c1, c5, c5);
mCubes[7] = new Cube(world, c2, c4, c4, c3, c5, c5);
mCubes[8] = new Cube(world, c4, c4, c4, c5, c5, c5);
// middle back, left to right
mCubes[9] = new Cube(world, c0, c2, c0, c1, c3, c1);
mCubes[10] = new Cube(world, c2, c2, c0, c3, c3, c1);
mCubes[11] = new Cube(world, c4, c2, c0, c5, c3, c1);
// middle middle, left to right
mCubes[12] = new Cube(world, c0, c2, c2, c1, c3, c3);
mCubes[13] = null;
mCubes[14] = new Cube(world, c4, c2, c2, c5, c3, c3);
// middle front, left to right
mCubes[15] = new Cube(world, c0, c2, c4, c1, c3, c5);
mCubes[16] = new Cube(world, c2, c2, c4, c3, c3, c5);
mCubes[17] = new Cube(world, c4, c2, c4, c5, c3, c5);
// bottom back, left to right
mCubes[18] = new Cube(world, c0, c0, c0, c1, c1, c1);
mCubes[19] = new Cube(world, c2, c0, c0, c3, c1, c1);
mCubes[20] = new Cube(world, c4, c0, c0, c5, c1, c1);
// bottom middle, left to right
mCubes[21] = new Cube(world, c0, c0, c2, c1, c1, c3);
mCubes[22] = new Cube(world, c2, c0, c2, c3, c1, c3);
mCubes[23] = new Cube(world, c4, c0, c2, c5, c1, c3);
// bottom front, left to right
mCubes[24] = new Cube(world, c0, c0, c4, c1, c1, c5);
mCubes[25] = new Cube(world, c2, c0, c4, c3, c1, c5);
mCubes[26] = new Cube(world, c4, c0, c4, c5, c1, c5);
// paint the sides
int i, j;
// set all faces black by default
for (i = 0; i < 27; i++) {
Cube cube = mCubes[i];
if (cube != null) {
for (j = 0; j < 6; j++)
cube.setFaceColor(j, black);
}
}
// paint top
for (i = 0; i < 9; i++)
mCubes[i].setFaceColor(Cube.kTop, orange);
// paint bottom
for (i = 18; i < 27; i++)
mCubes[i].setFaceColor(Cube.kBottom, red);
// paint left
for (i = 0; i < 27; i += 3)
mCubes[i].setFaceColor(Cube.kLeft, yellow);
// paint right
for (i = 2; i < 27; i += 3)
mCubes[i].setFaceColor(Cube.kRight, white);
// paint back
for (i = 0; i < 27; i += 9)
for (j = 0; j < 3; j++)
mCubes[i + j].setFaceColor(Cube.kBack, blue);
// paint front
for (i = 6; i < 27; i += 9)
for (j = 0; j < 3; j++)
mCubes[i + j].setFaceColor(Cube.kFront, green);
for (i = 0; i < 27; i++)
if (mCubes[i] != null)
world.addShape(mCubes[i]);
// initialize our permutation to solved position
mPermutation = new int[27];
for (i = 0; i < mPermutation.length; i++)
mPermutation[i] = i;
createLayers();
updateLayers();
world.generate();
return world;
| | protected void | onCreate(android.os.Bundle savedInstanceState)
super.onCreate(savedInstanceState);
// We don't need a title either.
requestWindowFeature(Window.FEATURE_NO_TITLE);
mView = new GLSurfaceView(getApplication());
mRenderer = new KubeRenderer(makeGLWorld(), this);
mView.setRenderer(mRenderer);
setContentView(mView);
| | protected void | onPause()
super.onPause();
mView.onPause();
| | protected void | onResume()
super.onResume();
mView.onResume();
| | private void | updateLayers()
Layer layer;
GLShape[] shapes;
int i, j, k;
// up layer
layer = mLayers[kUp];
shapes = layer.mShapes;
for (i = 0; i < 9; i++)
shapes[i] = mCubes[mPermutation[i]];
// down layer
layer = mLayers[kDown];
shapes = layer.mShapes;
for (i = 18, k = 0; i < 27; i++)
shapes[k++] = mCubes[mPermutation[i]];
// left layer
layer = mLayers[kLeft];
shapes = layer.mShapes;
for (i = 0, k = 0; i < 27; i += 9)
for (j = 0; j < 9; j += 3)
shapes[k++] = mCubes[mPermutation[i + j]];
// right layer
layer = mLayers[kRight];
shapes = layer.mShapes;
for (i = 2, k = 0; i < 27; i += 9)
for (j = 0; j < 9; j += 3)
shapes[k++] = mCubes[mPermutation[i + j]];
// front layer
layer = mLayers[kFront];
shapes = layer.mShapes;
for (i = 6, k = 0; i < 27; i += 9)
for (j = 0; j < 3; j++)
shapes[k++] = mCubes[mPermutation[i + j]];
// back layer
layer = mLayers[kBack];
shapes = layer.mShapes;
for (i = 0, k = 0; i < 27; i += 9)
for (j = 0; j < 3; j++)
shapes[k++] = mCubes[mPermutation[i + j]];
// middle layer
layer = mLayers[kMiddle];
shapes = layer.mShapes;
for (i = 1, k = 0; i < 27; i += 9)
for (j = 0; j < 9; j += 3)
shapes[k++] = mCubes[mPermutation[i + j]];
// equator layer
layer = mLayers[kEquator];
shapes = layer.mShapes;
for (i = 9, k = 0; i < 18; i++)
shapes[k++] = mCubes[mPermutation[i]];
// side layer
layer = mLayers[kSide];
shapes = layer.mShapes;
for (i = 3, k = 0; i < 27; i += 9)
for (j = 0; j < 3; j++)
shapes[k++] = mCubes[mPermutation[i + j]];
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