python纯tk制作三阶魔方还原源码,使用RubikTwoPhase库,二十步还原魔方

import random import msvcrt import os import time import copy class MagicCube: def __init__(self): self.cube = [ [ [4, 4, 4], [4, 4, 4], [4, 4, 4] ], [ [1, 1, 1], [1, 1, 1], [1, 1, 1] ], [ [2, 2, 2], [2, 2, 2], [2, 2, 2] ], [ [3, 3, 3], [3, 3, 3], [3, 3, 3] ], [ [5, 5, 5], [5, 5, 5], [5, 5, 5] ], [ [6, 6, 6], [6, 6, 6], [6, 6, 6] ] ] self.xyz = ['x', 'y', 'z'] self.Row = [0, 1, 2] self.Number = [0, 1, 2, 3] self.Moves = [] def view(self, cube): for i in range(3): print(' ' * 9, cube[5][i]) for i in range(3): for ii in range(4): print(cube[ii][i], end=' ') print('') for i in range(3): print(' ' * 9, cube[4][i]) def RightTurn(self, row): self.cube[0][row], self.cube[1][row], self.cube[2][row], self.cube[3][row] = self.cube[3][row], self.cube[0][ row], self.cube[1][row], self.cube[2][row] if row == 0: # top Right Turn self.cube[5] = [[row[i] for row in self.cube[5]] for i in reversed(range(3))] if row == 2: # bottom Right Turn self.cube[4] = [[row[i] for row in reversed(self.cube[4])] for i in range(3)] def RowToColumn(self): self.cube[0], self.cube[1], self.cube[2], self.cube[3], self.cube[4], self.cube[5] = self.cube[4], self.cube[1], \ self.cube[5], self.cube[3], \ self.cube[2], self.cube[0] self.cube[0] = [[row[i] for row in reversed(self.cube[0])] for i in range(3)] self.cube[1] = [[row[i] for row in reversed(self.cube[1])] for i in range(3)] self.cube[2] = [[row[i] for row in reversed(self.cube[2])] for i in range(3)] self.cube[3] = [[row[i] for row in self.cube[3]] for i in reversed(range(3))] self.cube[4] = [[row[i] for row in reversed(self.cube[4])] for i in range(3)] self.cube[5] = [[row[i] for row in reversed(self.cube[5])] for i in range(3)] def ColumnToRow(self): self.cube[4], self.cube[1], self.cube[5], self.cube[3], self.cube[2], self.cube[0] = self.cube[0], self.cube[1], \ self.cube[2], self.cube[3], \ self.cube[4], self.cube[5] self.cube[0] = [[row[i] for row in self.cube[0]] for i in reversed(range(3))] self.cube[1] = [[row[i] for row in self.cube[1]] for i in reversed(range(3))] self.cube[2] = [[row[i] for row in self.cube[2]] for i in reversed(range(3))] self.cube[3] = [[row[i] for row in reversed(self.cube[3])] for i in range(3)] self.cube[4] = [[row[i] for row in self.cube[4]] for i in reversed(range(3))] self.cube[5] = [[row[i] for row in self.cube[5]] for i in reversed(range(3))] def run(self, xyz, Row, Number): if xyz == 'x': for null in range(Number): self.RightTurn(Row) elif xyz == 'y': self.RowToColumn() for null in range(Number): self.RightTurn(Row) self.ColumnToRow() elif xyz == 'z': self.RightTurn(0) self.RightTurn(1) self.RightTurn(2) self.RowToColumn() for null in range(Number): self.RightTurn(Row) self.ColumnToRow() for null in range(3): self.RightTurn(0) self.RightTurn(1) self.RightTurn(2) def Hybrid(self): for null in range(20): xyz = random.choice(self.xyz) Row = random.choice(self.Row) Number = random.choice(self.Number) self.run(xyz, Row, Number) def MoveNotations(self, notations): for notation in notations: if notation in ["u", "U"]: self.run('x', 0, 3) elif notation in ["u2", "U2"]: self.run('x', 0, 2) elif notation in ["u'", "U'"]: self.run('x', 0, 1) elif notation in ["d", "D"]: self.run('x', 2, 1) elif notation in ["d2", "D2"]: self.run('x', 2, 2) elif notation in ["d'", "D'"]: self.run('x', 2, 3) elif notation in ["l", "L"]: self.run('y', 0, 3) elif notation in ["l2", "L2"]: self.run('y', 0, 2) elif notation in ["l'", "L'"]: self.run('y', 0, 1) elif notation in ["r", "R"]: self.run('y', 2, 1) elif notation in ["r2", "R2"]: self.run('y', 2, 2) elif notation in ["r'", "R'"]: self.run('y', 2, 3) elif notation in ["f", "F"]: self.run('z', 2, 1) elif notation in ["f2", "F2"]: self.run('z', 2, 2) elif notation in ["f'", "F'"]: self.run('z', 2, 3) elif notation in ["b", "B"]: self.run('z', 0, 3) elif notation in ["b2", "B2"]: self.run('z', 0, 2) elif notation in ["b'", "B'"]: self.run('z', 0, 1) elif notation in ["x", "X"]: self.run('y', 0, 1) self.run('y', 1, 1) self.run('y', 2, 1) elif notation in ["x2", "X2"]: self.run('y', 0, 2) self.run('y', 1, 2) self.run('y', 2, 2) elif notation in ["x'", "X'"]: self.run('y', 0, 3) self.run('y', 1, 3) self.run('y', 2, 3) elif notation in ["y", "Y"]: self.run('x', 0, 3) self.run('x', 1, 3) self.run('x', 2, 3) elif notation in ["y2", "Y2"]: self.run('x', 0, 2) self.run('x', 1, 2) self.run('x', 2, 2) elif notation in ["y'", "Y'"]: self.run('x', 0, 1) self.run('x', 1, 1) self.run('x', 2, 1) elif notation in ["z", "Z"]: self.run('z', 0, 1) self.run('z', 1, 1) self.run('z', 2, 1) elif notation in ["z2", "Z2"]: self.run('z', 0, 2) self.run('z', 1, 2) self.run('z', 2, 2) elif notation in ["z'", "Z'"]: self.run('z', 0, 3) self.run('z', 1, 3) self.run('z', 2, 3) elif notation in ["m", "M"]: self.run('y', 1, 3) elif notation in ["m2", "M2"]: self.run('y', 1, 2) elif notation in ["m'", "M'"]: self.run('y', 1, 1) elif notation in ["e", "E"]: self.run('x', 1, 1) elif notation in ["e2", "E2"]: self.run('x', 1, 2) elif notation in ["e'", "E'"]: self.run('x', 1, 3) elif notation in ["s", "S"]: self.run('z', 1, 1)