Magic Cube

///////////////////////////////////////////////////////////////////////////////////////////////////

// Copyright 2020 Leszek Koltunski                                                               //

//                                                                                               //

// This file is part of Magic Cube.                                                              //

//                                                                                               //

// Magic Cube is free software: you can redistribute it and/or modify                            //

// it under the terms of the GNU General Public License as published by                          //

// the Free Software Foundation, either version 2 of the License, or                             //

// (at your option) any later version.                                                           //

//                                                                                               //

// Magic Cube is distributed in the hope that it will be useful,                                 //

// but WITHOUT ANY WARRANTY; without even the implied warranty of                                //

// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the                                 //

// GNU General Public License for more details.                                                  //

//                                                                                               //

// You should have received a copy of the GNU General Public License                             //

// along with Magic Cube.  If not, see <http://www.gnu.org/licenses/>.                           //

///////////////////////////////////////////////////////////////////////////////////////////////////

package org.distorted.objects;

import android.content.res.Resources;

import android.graphics.Canvas;

import android.graphics.Paint;

import org.distorted.helpers.FactorySticker;

import org.distorted.library.main.DistortedEffects;

import org.distorted.library.main.DistortedTexture;

import org.distorted.library.mesh.MeshBase;

import org.distorted.library.mesh.MeshSquare;

import org.distorted.library.type.Static3D;

import org.distorted.library.type.Static4D;

import org.distorted.main.R;

import org.distorted.main.RubikSurfaceView;

import static org.distorted.helpers.FactoryCubit.COS54;

import static org.distorted.helpers.FactoryCubit.SIN18;

import static org.distorted.helpers.FactoryCubit.SIN54;

public class TwistyMegaminx extends TwistyMinx

{

      {

        16, 18, 22,  1, 20, 13, 14, 15,  0, 12,  2,  3

      };

  private static MeshBase[][] mEdgeMeshes;

  TwistyMegaminx(int size, Static4D quat, DistortedTexture texture, MeshSquare mesh,

                 DistortedEffects effects, int[][] moves, Resources res, int scrWidth)

    {

    super(size, size, quat, texture, mesh, effects, moves, ObjectList.MEGA, res, scrWidth);

    }

// TODO

  double[][] getVertices(int cubitType)

    {

    return null;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

// TODO

  int[][] getVertIndexes(int cubitType)

    {

    return null;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

// 3 --> 3, 5 --> 4, 7 --> 5, 9 --> 6

  int getNumCubitTypes(int numLayers)

    {

    return 2 + numLayers/2;

    }

  private int numCubitsPerCorner(int numLayers)

    {

    return 3*((numLayers-1)/2)*((numLayers-3)/2) + 1;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

  private int numCubitsPerEdge(int numLayers)

    {

    return numLayers-2;

    }

  float getScreenRatio()

    {

    return 1.07f;

    }

  int getNumStickerTypes(int numLayers)

    {

///////////////////////////////////////////////////////////////////////////////////////////////////

  float[] getCuts(int numLayers)

    {

    float[] cuts = new float[numLayers-1];

    float X = 2*D*E/(1+2*E);  // height of the 'upper' part of a dodecahedron, i.e. put it on a table,

                              // It's edge length = numLayers/3.0f.

    int num = (numLayers-1)/2;

    float G = X*(0.5f-MEGA_D)/num; // height of one Layer

    for(int i=0; i<num; i++)

      {

      }

    return cuts;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////////////////////////////

    mCurrCornerV[1] = RubikSurfaceView.rotateVectorByQuat(mBasicCornerV[1],quat);

    mCurrCornerV[2] = RubikSurfaceView.rotateVectorByQuat(mBasicCornerV[2],quat);

///////////////////////////////////////////////////////////////////////////////////////////////////

    float D = numLayers/3.0f;

    if( part==0 )

      {

    else

      {

      int index = (part-1) / N;

      Static4D sec = mCurrCornerV[(index+2)%3];

      int multS = (block / layers);

                          corn[0]*D + (pri.get0()*multP + sec.get0()*multS)*E,

                          corn[1]*D + (pri.get1()*multP + sec.get1()*multS)*E,

                          corn[2]*D + (pri.get2()*multP + sec.get2()*multS)*E

                         };

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

    return (part+1)/2;

    }

    float[] c2 = CORNERS[ mEdgeMap[edge][1] ];

    float y = D * (c1[1]+c2[1]) / 2;

    float z = D * (c1[2]+c2[2]) / 2;

    if( part==0 )

      {

    else

      {

      int mult = (part+1)/2;

      int dir  = (part+1)%2;

      float[] center = mCenterCoords[ mEdgeMap[edge][dir+2] ];

      float vY = D*center[1] - y;

      float vZ = D*center[2] - z;

      A /= (float)Math.sqrt(vX*vX+vY*vY+vZ*vZ);

///////////////////////////////////////////////////////////////////////////////////////////////////

    int numCubitsPerCorner = numCubitsPerCorner(numLayers);

    for(int corner=0; corner<NUM_CORNERS; corner++)

      {

      for(int part=0; part<numCubitsPerCorner; part++, index++)

        {

      }

      {

      for(int part=0; part<numCubitsPerEdge; part++, index++)

        {

      }

      {

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

    if( cubit < NUM_CORNERS*numCubitsPerCorner )

      {

      int corner = cubit/numCubitsPerCorner;

      {

      int edge = (cubit-NUM_CORNERS*numCubitsPerCorner)/numCubitsPerEdge;

      return QUAT_EDGE_INDICES[edge];

      }

    return QUAT_CENTER_INDICES[center];

///////////////////////////////////////////////////////////////////////////////////////////////////

  MeshBase createCubitMesh(int cubit, int numLayers)

    {

    int numCubitsPerCorner = numCubitsPerCorner(numLayers);

    int numCubitsPerEdge   = numCubitsPerEdge(numLayers);

    int variants = sizes.length;

        {

        mCornerMeshes[index] = FactoryCubit.getInstance().createMinxCornerMesh(numLayers, width);

      if( mEdgeMeshes[index][type]==null )

        {

        float width = (numLayers/3.0f)*2*MEGA_D + 2*type*height*SIN18/COS18;

      mesh = mEdgeMeshes[index][type].copy(true);

    else

      {

        {

        float width = 2 * (numLayers/3.0f) * (MEGA_D+(0.5f-MEGA_D)*SIN18);

      mesh = mCenterMeshes[index].copy(true);

    Static4D q = QUATS[getQuat(cubit,numCubitsPerCorner,numCubitsPerEdge)];

    return mesh;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

    int part  = cubit % numCubitsPerCorner;

    else

      {

      int N = (numCubitsPerCorner-1)/3;

      int index = (part-1) / N;

          {

          case 1: return cubitface==0 ? NUM_TEXTURES : mCornerFaceMap[corner][cubitface];

          case 2: return cubitface==2 ? NUM_TEXTURES : mCornerFaceMap[corner][cubitface];

      else

        {

          {

          case 1: return cubitface==2 ? mCornerFaceMap[corner][cubitface] : NUM_TEXTURES;

          case 2: return cubitface==1 ? mCornerFaceMap[corner][cubitface] : NUM_TEXTURES;

      }

    int variant = edge / numCubitsPerEdge;

///////////////////////////////////////////////////////////////////////////////////////////////////

///////////////////////////////////////////////////////////////////////////////////////////////////

  int getFaceColor(int cubit, int cubitface, int numLayers)

    {

    int numCubitsPerCorner = numCubitsPerCorner(numLayers);

    int numCubitsPerEdge   = numCubitsPerEdge(numLayers);

    if( cubit < NUM_CORNERS*numCubitsPerCorner )

      {

      return getCornerColor(cubit,cubitface,numLayers,numCubitsPerCorner);

      }

    else if( cubit<NUM_CORNERS*numCubitsPerCorner + NUM_EDGES*numCubitsPerEdge )

      {

      return getEdgeColor(edge,cubitface,numCubitsPerEdge);

    else

      {

      return getCenterColor( center, cubitface, numLayers);

    }

  void createFaceTexture(Canvas canvas, Paint paint, int face, int left, int top)

    {

    float R,S;

    float[] vertices;

    int variant = face/COLORS;

    if( variant==0 )

      {

      float Y = COS54/(2*SIN54);

      }

    else

      {

      int numLayers = getNumLayers();

      float height= (numLayers/3.0f)*(0.5f-MEGA_D)*COS18/((numLayers-1)*0.5f);

      float W = height*SIN18/COS18;

      float width = (numLayers/3.0f)*2*MEGA_D + 2*(variant-1)*W;

      if( variant < (numLayers+1)/2 )

        {

        float X1 = 0.5f*height;

        float Y1 = 0.5f*width;

        float Y2 = 0.5f*width + W;

        }

      else

        {

        float X1 = Z*COS54;

        float X2 = Z*COS18;

        float Y2 = Z*SIN18;

        }

      }

    FactorySticker factory = FactorySticker.getInstance();

    factory.drawRoundedPolygon(canvas, paint, left, top, vertices, S, FACE_COLORS[face%COLORS], R);

///////////////////////////////////////////////////////////////////////////////////////////////////

// PUBLIC API

  public boolean isSolved()

    {

    int index = CUBITS[0].mQuatIndex;

    for(int i=1; i<NUM_CUBITS; i++)

      {

    return true;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

  public int getObjectName(int numLayers)

    {

    if( numLayers==3 ) return R.string.minx3;

    return 0;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

  public int getInventor(int numLayers)

    {

    if( numLayers==3 ) return R.string.minx3_inventor;

    return 0;

    }

///////////////////////////////////////////////////////////////////////////////////////////////////

  public int getComplexity(int numLayers)

    {

    if( numLayers==3 ) return 4;

    return 5;

    }

}