Esempio n. 1
0
def WriteToCurrent(self):
    global UserPromptCount
    global PromptStatus
    curGrid = ResetGame()
    if (UserPromptCount < 1 or UserPromptCount > 3):
        return 0
    ################################
    solvedCurGrid = CopyGrid(curGrid)
    #################################
    LineEditNumber = int(self.objectName()[9:])
    solveSudoku(solvedCurGrid)
    curGrid[int((LineEditNumber - 1) / 9)][int(
        (LineEditNumber - 1) % 9)] = solvedCurGrid[int(
            (LineEditNumber - 1) / 9)][int((LineEditNumber - 1) % 9)]
    UserPromptCount -= 1
    self.setText(
        str(curGrid[int((LineEditNumber - 1) / 9)][int(
            (LineEditNumber - 1) % 9)]))
    self.setDisabled(True)
    self.setStyleSheet(
        "background-color:#9b9b9b;color:white;font-family:Arial;font-size:15px;font-weight:bold;padding-left:7%;"
    )

    try:
        with open('CurrentGame.data', 'wb') as tempFile:
            for row in range(9):
                for col in range(9):
                    tempFile.write(bytes((curGrid[row][col], )))
            tempFile.write(bytes((UserPromptCount, )))
    except:
        return UserPromptCount
    return UserPromptCount
 def check_solver(self):
     # easy Sudokus (no backtracking required). From New York Times, 31 May 2020 - 2 June 2020
     puzzles = [
         '280070309600104007745080006064830100102009800000201930006050701508090020070402050',
         '910780200027001894684000300000846001740059080009000050106093008000500706002070130'
     ]
     solutions = [
         '281576349693124587745983216964835172132749865857261934426358791518697423379412658',
         '913784265527361894684925317235846971741259683869137452176493528398512746452678139'
     ]
     for puzzle, solution in zip(puzzles, solutions):
         puzzle, solution = list(map(parse, [puzzle, solution]))
         my_solution, done, _ = solveSudoku(puzzle, verbose=False)
         self.assertTrue(done)
         self.assertTrue(grid_equal(solution, my_solution))
     # medium to hard Sudoku (some backtracking). From New York Times, 31 May 2020 - 2 June 2020
     puzzles = [
         '100020400035040900704000001800000000091032080000100097070900600000000000000450000',
         '000832067000600200800700010010020000509004700000008000007000940000005000402000500',
         '000010030009005008804006025000000600008004000120087000300900200065008000900000000'
     ]
     solutions = [
         '189327465235641978764895321827569143491732586653184297372918654546273819918456732',
         '195832467743651298826749315318927654569314782274568139657283941931475826482196573',
         '752819436639245718814736925473592681598164372126387549387951264265478193941623857'
     ]
     for puzzle, solution in zip(puzzles, solutions):
         puzzle, solution = list(map(parse, [puzzle, solution]))
         my_solution, done, _ = solveSudoku(puzzle, verbose=False)
         self.assertTrue(done)
         self.assertTrue(grid_equal(solution, my_solution))
Esempio n. 3
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def ShowErrors(ValidGrid, OriginalGrid, self, C=1):
    if (Colision(ValidGrid) == 0):
        C = 0
        return
    for row in range(9):
        for col in range(9):
            if (C):
                if (ValidGrid[row][col] != OriginalGrid[row][col]):
                    tmpGrid = CopyGrid(OriginalGrid)
                    tmpGrid[row][col] = ValidGrid[row][col]
                    #Grid=	solveSudoku(tmpGrid)
                    if (Colision(tmpGrid)):
                        exec(
                            "self.lineEdit_" + str((((row % 9) * 9 +
                                                     (col % 9)) + 1)) +
                            ".setStyleSheet(\"background-color:red;color:black;font-family:Arial; font-size:15px;font-weight:bold;padding-left:7%;\")"
                        )
                        #  tmpGrid[row][col]=0
                        ValidGrid[row][col] = 0
                    else:
                        if (solveSudoku(tmpGrid)):
                            tmpGrid = CopyGrid(OriginalGrid)
                            tmpGrid[row][col] = ValidGrid[row][col]
                            exec(
                                "self.lineEdit_" + str((((row % 9) * 9 +
                                                         (col % 9)) + 1)) +
                                ".setStyleSheet(\"background-color:white;color:black;font-family:Arial; font-size:15px;font-weight:bold;padding-left:7%;\")"
                            )
                            ShowErrors(ValidGrid, tmpGrid, self)
            else:
                break
Esempio n. 4
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def solveIt(puzzle):
    try:
        grid = str2grid(puzzle)
        solution_set, done, info = solveSudoku(grid,
                                               verbose=False,
                                               all_solutions=False)
        if not done:
            return ""

        # print(solution_set[0])
        return (solution_set[0])
    except IndexError:
        return ""
Esempio n. 5
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 def solve_X_sudoku(self):
     puzzles = [
         ('060050200000000060532008000000049103000100050000000007005010008004000006000006500',
          '968751234741392865532468719257649183493187652186235497675914328814523976329876541'
          ),
         ('030040200520006700000000000080020170000070000050000003400000032000600000000080691',
          '638547219521936748749218365984325176362179584157864923496751832813692457275483691'
          )
     ]
     for puzzle, solution in puzzles:
         puzzle, solution = str2grid(puzzle), str2grid(solution)
         solution_set, done, info = solveSudoku(puzzle,
                                                verbose=False,
                                                all_solutions=False,
                                                is_X_Sudoku=True)
         self.assertTrue(done)
         solver_sol = str2grid(solution_set[0])
         self.assertTrue(grid_equal(solution, solver_sol))
Esempio n. 6
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 def check_solved_puzzles(self):
     # these puzzles were sovled with the solver. This is to check solutions still hold.
     puzzles = [
         # from https://dev.to/aspittel/how-i-finally-wrote-a-sudoku-solver-177g
         (
             # very easy puzzle
             '530070000600195000098000060800060003400803001700020006060000280000419005000080079',
             '534678912672195348198342567859761423426853791713924856961537284287419635345286179'
         ),
         # https://www.nytimes.com/puzzles/sudoku/
         ('106000050070030004090005200002060007000108000047020000000000803003200006000000002',
          '186742359275839164394615278812564937639178425547923681721456893953281746468397512'
          ),
         # Arto Inkala Puzzles from  https://norvig.com/sudoku.html
         (
             # not that hard actually
             '85...24..72......9..4.........1.7..23.5...9...4...........8..7..17..........36.4.',
             '859612437723854169164379528986147352375268914241593786432981675617425893598736241'
         ),
         (
             # have to make at least 3 guesses
             '..53.....8......2..7..1.5..4....53...1..7...6..32...8..6.5....9..4....3......97..',
             '145327698839654127672918543496185372218473956753296481367542819984761235521839764'
         ),
         (
             # have to make at least 3 guesses
             '800000000003600000070090200050007000000045700000100030001000068008500010090000400',
             '812753649943682175675491283154237896369845721287169534521974368438526917796318452'
         ),
         # 17 clue puzzle from https://theconversation.com/good-at-sudoku-heres-some-youll-never-complete-5234
         (
             #  1 unique solution. Very fun to do
             '000700000100000000000430200000000006000509000000000418000081000002000050040000300',
             '264715839137892645598436271423178596816549723759623418375281964982364157641957382'
         ),
         # 17 clue puzzle from  https://cracking-the-cryptic.web.app/sudoku/PMhgbbQRRb
         ('029000400000500100040000000000042000600000070500000000700300005010090000000000060',
          '329816457867534192145279638931742586684153279572968314796321845418695723253487961'
          ),
         # https://www.sudokuwiki.org/Weekly_Sudoku.asp
         (  # May 24 2020 Extreme -> requires multiple diabolical+extreme strategies
             '003100720700000500050240030000720000006000800000014000060095080005000009049002600',
             '693158724724963518851247936538726491416539872972814365267495183385671249149382657'
         ),
         (
             #403 'unsolvable' - no known logical solution
             '100200000065074800070006900004000000050008704000030000000000600080000057006007089',
             '138259476965374821472186935824761593653928714791435268517893642389642157246517389'
         ),
         (
             #404 'unsolvable' - no known logical solution
             '400009200000010080005400006004200001050030060700005300500007600090060000002800007',
             '468579213279613485135428796384296571951734862726185349513947628897362154642851937'
         ),
         (
             # June 7 2020 Extreme
             '080001206000020000020305040060010900002050400008000010030704050000030000406100080',
             '785941236143628795629375841564213978912857463378469512231784659897536124456192387'
         )
     ]
     for puzzle, solution in puzzles:
         puzzle, solution = str2grid(puzzle), str2grid(solution)
         solution_set, done, _ = solveSudoku(puzzle,
                                             verbose=False,
                                             all_solutions=False)
         self.assertTrue(done)
         solver_sol = str2grid(solution_set[0])
         self.assertTrue(grid_equal(solution, solver_sol))
Esempio n. 7
0
        puzzles = f.read().strip().split('\n')

    verbose = False
    all_solutions = False

    t0 = time.time()
    metrics = {'times': [], 'calls': [], 'max depths': [], 'nsolutions': []}
    num_solved = 0
    for k, puzzle in enumerate(puzzles):
        # if k != 86:
        #     continue
        tk0 = time.time()
        ## solve
        puzzle = str2grid(puzzle)
        my_solution, done, info = solveSudoku(puzzle,
                                              verbose=verbose,
                                              all_solutions=all_solutions)
        # my_solution, done, info = solveSudokuBrute(puzzle)
        deltaTk = time.time() - tk0
        ## update metrics
        num_solved += done
        metrics['times'].append(deltaTk)
        metrics['calls'].append(info['calls'])
        metrics['max depths'].append(info['max depth'])
        metrics['nsolutions'].append(info['nsolutions'])
    deltaT = time.time() - t0

    pm = '\u00b1'  #plus or minus symbol

    print(' ')
    print("%d/%d puzzles solved in %.5fs" % (num_solved, len(puzzles), deltaT))
Esempio n. 8
0
def GenPdf(UserSudoku):
    if (not os.path.exists("pdf")):
        os.makedirs("pdf")
    countOfPDFFiles = 1
    for file in os.listdir("pdf"):
        if (file.endswith(".pdf") and file[:11] == "SudokuGame_"):
            countOfPDFFiles += 1
    FileName = "pdf/SudokuGame_" + str(countOfPDFFiles) + ".pdf"
    print(FileName)

    tmpGrid = CopyGrid(UserSudoku)
    SudokuSolved = solveSudoku(tmpGrid)

    if (SudokuSolved == False or SudokuSolved == True):
        print("Something go wrong with current game file:(\nTry again")
        return
    try:
        Game = canvas.Canvas(FileName, pagesize=letter)
        Game.drawString(210, 750, 'Plansza Sudoku - Bartek Zoltowski')

        Game.setLineWidth(2.5)
        Game.line(165, 725, 435, 725)
        Game.setLineWidth(1)
        Game.line(165, 695, 435, 695)
        Game.line(165, 665, 435, 665)
        Game.setLineWidth(2.5)
        Game.line(165, 635, 435, 635)
        Game.setLineWidth(1)
        Game.line(165, 605, 435, 605)
        Game.line(165, 575, 435, 575)
        Game.setLineWidth(2.5)
        Game.line(165, 545, 435, 545)
        Game.setLineWidth(1)
        Game.line(165, 515, 435, 515)
        Game.line(165, 485, 435, 485)
        Game.setLineWidth(2.5)
        Game.line(165, 455, 435, 455)

        Game.line(165, 725, 165, 455)
        Game.setLineWidth(1)
        Game.line(195, 725, 195, 455)
        Game.line(225, 725, 225, 455)
        Game.setLineWidth(2.5)
        Game.line(255, 725, 255, 455)
        Game.setLineWidth(1)
        Game.line(285, 725, 285, 455)
        Game.line(315, 725, 315, 455)
        Game.setLineWidth(2.5)
        Game.line(345, 725, 345, 455)
        Game.setLineWidth(1)
        Game.line(375, 725, 375, 455)
        Game.line(405, 725, 405, 455)
        Game.setLineWidth(2.5)
        Game.line(435, 725, 435, 455)

        Game.drawString(265, 400, 'Rozwiazanie')

        Game.setLineWidth(2.5)
        Game.line(165, 375, 435, 375)
        Game.setLineWidth(1)
        Game.line(165, 345, 435, 345)
        Game.line(165, 315, 435, 315)
        Game.setLineWidth(2.5)
        Game.line(165, 285, 435, 285)
        Game.setLineWidth(1)
        Game.line(165, 255, 435, 255)
        Game.line(165, 225, 435, 225)
        Game.setLineWidth(2.5)
        Game.line(165, 195, 435, 195)
        Game.setLineWidth(1)
        Game.line(165, 165, 435, 165)
        Game.line(165, 135, 435, 135)
        Game.setLineWidth(2.5)
        Game.line(165, 105, 435, 105)

        Game.line(165, 375, 165, 105)
        Game.setLineWidth(1)
        Game.line(195, 375, 195, 105)
        Game.line(225, 375, 225, 105)
        Game.setLineWidth(2.5)
        Game.line(255, 375, 255, 105)
        Game.setLineWidth(1)
        Game.line(285, 375, 285, 105)
        Game.line(315, 375, 315, 105)
        Game.setLineWidth(2.5)
        Game.line(345, 375, 345, 105)
        Game.setLineWidth(1)
        Game.line(375, 375, 375, 105)
        Game.line(405, 375, 405, 105)
        Game.setLineWidth(2.5)
        Game.line(435, 375, 435, 105)

        Sudoku_y = 705
        SudokuSolved_y = 355
        for i in range(9):
            Sudoku_x = 177
            SudokuSolved_x = 177
            for j in range(9):
                if (UserSudoku[i][j] != 0):
                    Game.drawString(Sudoku_x, Sudoku_y, str(UserSudoku[i][j]))
                Game.drawString(SudokuSolved_x, SudokuSolved_y,
                                str(SudokuSolved[i][j]))
                Sudoku_x += 30
                SudokuSolved_x += 30
            Sudoku_y -= 30
            SudokuSolved_y -= 30

        Game.save()

    except:
        print("Something go wrong :(\nTry again")
        return
    try:
        subprocess.Popen(["xdg-open", FileName])
    except:
        return