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How to use coords method in fMBT

Best Python code snippet using fMBT_python

GregChess.py

Source:GregChess.py

...29captured_pieces = {"White(capitals)": [], "Black(lowercase)": []}  #Tracks captured pieces30move_list = []             #Tracks all moves made during the game.31#Takes a piece/position and returns its index values in the board array32# Ra1 -> (7,0) : White rook is in row[7], column[0]33def piece_coords(piece):34    return (row_indexes[piece[2]],column_indexes[piece[1]])35#Takes a position on the board and returns the piece at that position, " " or "X" if empty36def piece_at(position, current_board):37    position_coords = row_indexes[position[1]],column_indexes[position[0]]38    return current_board[position_coords[0]][position_coords[1]]39#Takes a lits of piece positions and redraws the board given those positions40def update_board(piece_positions):41    new_board = copy.deepcopy(base_board)42    for piece in piece_positions:43        x, y = piece_coords(piece)44        new_board[x][y] = piece45    return new_board46#Takes a board and prints a representation for the player with a-h,1-8 chess coords47def display_board(board):48    top = "  | a | b | c | d | e | f | g | h |"49    divider = "  |___|___|___|___|___|___|___|___|"50    print(top)51    print(divider)52    for row in enumerate(board):53        num = str(8-row[0])54        for space in row[1]:55            num+=" | "+space[0]56        num+=" |"57        print (num)58        print(divider)59#Takes a piece and returns its color: "White or Black"60def piece_color(piece):61    if piece[0] in "RKBQGP":62        return "White(capitals)"63    return "Black(lowercase)"64def opposing_color(color):65    if color == "White(capitals)":66        return "Black(lowercase)"67    return "White(capitals)"68#Takes a piece and a destination space and updates current piece positions with the new positon.69#If the desination space already contains a piece, that piece is removed and added to the captured pieces dictionary.70#Piece format = Ra1 (white rook at a1) Desination format = a5 (space a5)71def move_piece(piece, destination, player, current_board, move=True):72    if not valid_move(piece, destination, player, current_board):73        if move:74            print ("Invalid Move")75        return False76    intended_positions = copy.deepcopy(current_piece_positions)77    intended_positions.remove(piece)78    intended_positions.append(piece[0]+destination)79    for p in current_piece_positions:80        if p[1:] == destination:81            intended_positions.remove(p)82            intended_board = update_board(intended_positions)83            if not valid_capture(piece, p):84                if move:85                    print("Invalid move, can't capture your own piece!")86                return False87            elif check_for_check(player, intended_positions, intended_board):88                if move:89                    print("Invalid move, can't move into check!")90                return False91            elif move:92                print(p + " captured!")93                captured_pieces[piece_color(p)]+=[p]94                current_piece_positions.remove(p)95    intended_board = update_board(intended_positions)96    if check_for_check(player, intended_positions, intended_board):97        if move :98            print("Invalid move, can't move into check!")99        return False100    if not move:101        return True102    current_piece_positions.remove(piece)103    new_piece_position = piece[0]+destination104    #Handle Pawn Promotion105    if piece[0] in "Pp":106        if destination[1] in "18":107            new_piece = "XXX"108            while new_piece not in "rkbqpRKBQP":109                new_piece = input("Promote your pawn. Enter the letter of the piece type you wish to use.")110                if new_piece not in "rkbqpRKBQP":111                    print("Invalid piece type. Please select again.")112            if piece[0] == "P":113                new_piece = new_piece.upper()114            else:115                new_piece = new_piece.lower()116            new_piece_position = new_piece+destination117    move_list.append((piece, destination))118    current_piece_positions.append(new_piece_position)119    return True120#Checks if a given piece can capture another piece121def valid_capture(moving_piece, threatened_piece):122    if piece_color(moving_piece) == piece_color(threatened_piece):123        return False124    return True125#Checks if given move is valid. The move piece function already ensures that a piece cannot capture a friendly piece.126def valid_move(piece, destination, player, current_board):127    coords = piece_coords(piece)128    if destination[1] not in row_indexes or destination[0] not in column_indexes:129        return False130    destination_coords = row_indexes[destination[1]],column_indexes[destination[0]]131    if coords == destination_coords:132        return False133    if piece not in current_board[coords[0]]:134        return False135    #Check Rook136    if piece[0]in "Rr":137        return check_rook(piece, destination,coords,destination_coords,current_board)138    #Check Knight139    if piece[0]in "Kk":140        move_possibilities = []141        for pos in [(-2,-1),(-2,1),(-1,-2),(-1,2)]:142            move_possibilities.append((coords[0]+pos[0],coords[1]+pos[1]))143            move_possibilities.append((coords[0]-pos[0],coords[1]+pos[1]))144        if destination_coords not in move_possibilities:145            return False146        return True147    #Check Pawn148    if piece[0]== "P":   #Checks for white pawns149        #If pawn has not moved, check if the player is trying to move it two spaces.150        if coords[0] == 6:151            if destination_coords[0] == coords[0]-2:152                if piece_at(destination,current_board) not in " X" or current_board[coords[0]-1][coords[1]] not in " X" or destination_coords[1] != coords[1]:153                    return False154                return True155        #Checks pawn moves other than moving two spaces156        if destination_coords[0] != coords[0]-1: #If pawn does not move into the next row, return false157            return False158        #Pawn cannot move anywhere other than the 3 spaces in front of it.159        if abs(destination_coords[1]-coords[1]) > 1:160            return False161        if destination_coords[1] == coords[1]:  #If pawn is moving straight, it cannot capture162            if piece_at(destination,current_board) not in " X":163                return False164        if abs(destination_coords[1]-coords[1]) == 1: #If pawn is moving digonally, that space must contain a piece to capture...165            if piece_at(destination,current_board) not in " X":166                return True167            #unless capturing en passent. In this case, check the last move in the movelist for a black pawn that moved 2 spaces forward and ended next to the white pawn.168            if piece[2] == "5":                                                                                   #In the same column the pawn is attempting to move into169                if move_list[-1][0][0] == "p" and move_list[-1][0][2] == "7" and move_list[-1][1][1] == "5" and piece_coords(move_list[-1][0])[1] == destination_coords[1]:170                    captured_pieces["Black(lowercase)"]+=move_list[-1][0]171                    current_piece_positions.remove(move_list[-1][0][0]+move_list[-1][1])172                    return True173            return False174        return True175    if piece[0]== "p": #Checks for black pawns176        if coords[0] == 1:177            if destination_coords[0] == coords[0]+2:178                if piece_at(destination,current_board) not in " X" or current_board[coords[0]+1][coords[1]] not in " X" or destination_coords[1] != coords[1]:179                    return False180                return True181        #Checks pawn moves other than moving two spaces182        if destination_coords[0] != coords[0]+1: #If pawn does not move into the next row, return false183            return False184        #Pawn cannot move aywhere other than the 3 spaces in front of it.185        if abs(destination_coords[1]-coords[1]) > 1:186            return False187        if destination_coords[1] == coords[1]:  #If pawn is moving straight, it cannot capture188            if piece_at(destination,current_board) not in " X":189                return False190        if abs(destination_coords[1]-coords[1]) == 1: #If pawn is moving digonally, it must capture191            if piece_at(destination,current_board) not in " X":192                return True193            #unless capturing en passent. In this case, check the last move in the movelist for a black pawn that moved 2 spaces forward and ended next to the white pawn.194            if piece[2] == "4":195                if move_list[-1][0][0] == "P" and move_list[-1][0][2] == "2" and move_list[-1][1][1] == "4" and piece_coords(move_list[-1][0])[1] == destination_coords[1]:196                    captured_pieces["White(capitals)"]+=move_list[-1][0]197                    current_piece_positions.remove(move_list[-1][0][0]+move_list[-1][1])198                    return True199            return False200        return True201    #Check King202    if piece[0]in "Gg":203        if abs(destination_coords[0]-coords[0]) <=1 and abs(destination_coords[1]-coords[1]) <=1:204            return True205        if abs(destination_coords[1]-coords[1]) == 2 and (destination_coords[0]-coords[0]) == 0:   #Castling attempt206            for p, dest in move_list:    #If the king has already moved, it can't castle207                if p[0] == piece[0]:208                    return False209            if (destination_coords[1]-coords[1]) == 2:   #Determine which rook to move......

solution.py

Source:solution.py

1def usable(input):2    coords = input[1]3    x = coords[0]4    y = coords[1]5    z = coords[2]6    7    for coord in [x, y, z]:8        if (-50 > int(coord[0]) or int(coord[0]) > 50) or (-50 > int(coord[1]) or int(coord[1]) > 50):9            return False10    return True11         12    13def update_cube_list(status, coords, light_up):14    if status == 'on':15        for x in range(int(coords[0][0]), int(coords[0][1])+1):16            for y in range(int(coords[1][0]), int(coords[1][1])+1):17                for z in range(int(coords[2][0]), int(coords[2][1])+1):18                    light_up.add((x, y, z))19    else:20        new_light_up = set()21        for cube in light_up:22            if int(coords[0][0]) <= cube[0] <= int(coords[0][1]) and \23               int(coords[1][0]) <= cube[1] <= int(coords[1][1]) and \24               int(coords[2][0]) <= cube[2] <= int(coords[2][1]):25                #    print(cube)26                   continue27            else:28                new_light_up.add(cube)29        # for x in range(int(coords[0][0]), int(coords[0][1])+1):30        #     for y in range(int(coords[1][0]), int(coords[1][1])+1):31        #         for z in range(int(coords[2][0]), int(coords[2][1])+1):32        #             if (x, y, z) in light_up:33        #                 light_up.remove((x, y, z))34        light_up = new_light_up35    return light_up36'''37ON SOME_AREA38OFF SOME_AREA39ON SOME_AREA40'''41def validity(off_lights, on_lights, coordinates):42    x, y, z = coordinates43    # Check for duplicates44    for check_list in [off_lights, on_lights]:45        for check in check_list:46            x_bound, y_bound, z_bound = check47            if (x_bound[0] <= x <= x_bound[1]) and \48                (y_bound[0] <= y <= y_bound[1]) and \49                    (z_bound[0] <= z <= z_bound[1]):50                        return 051    return 152def update(off_checks, on_checks, input):53    status, coordinate = input[0], input[1]54    lights = 055    if status == 'off':56        off_checks.append(coordinate)57        return 058    else:59        x, y, z = coordinate60        for x_pos in range(x[0], x[1]+1):61            for y_pos in range(y[0], y[1]+1):62                for z_pos in range(z[0], z[1]+1):63                    lights += validity(off_checks, on_checks, [x_pos, y_pos, z_pos])64        on_checks.append(coordinate)65    return lights66def part2(inputs):67    off_checks = list()68    on_checks = list()69    lights = 070    num = len(inputs)71    counter = 172    for input in reversed(inputs):73        print('Complete %: {}'.format(counter/num))74        counter += 175        # if not usable(input):76        #     continue77        lights += update(off_checks, on_checks, input)78    print(lights)79    80            81def part1(inputs):82    light_up = set()83    for input in inputs:84        # if not usable(input):85        #     continue86        status = input[0]87        coords = input[1]88        light_up = update_cube_list(status, coords, light_up)89    90    return len(light_up)91        92filename = "input.txt"93lines = open(filename, 'r').read().splitlines()94inputs = []95for line in lines:96    status, coords = line.split(' ')97    coords = coords.split(',')98    x = list(map(int, coords[0].split('=')[-1].split('..')))99    y = list(map(int, coords[1].split('=')[-1].split('..')))100    z = list(map(int, coords[2].split('=')[-1].split('..')))101    inputs.append([status, [x, y, z]])102# print(inputs)103# result = part1(inputs)104# print(result)...

task2.py

Source:task2.py

1n = int(input())2horizontal = []3vertical = []4for x in range(n-1):5    input_str = input()6    horizontal.append([int(i) for i in input_str])7for y in range(n):8    input_str = input()9    vertical.append([int(i) for i in input_str])10def move(mode = 0):11    global end_moving, path12    #step right13    if coords[1] != n-1 and vertical[coords[0]][coords[1]] == mode:14        end_moving = False15        if vertical[coords[0]][coords[1]] == 0:16            vertical[coords[0]][coords[1]] = 217        else:18            vertical[coords[0]][coords[1]] = 119        coords[1] += 120        path += 'R'21    #step down22    elif coords[0] != n-1 and horizontal[coords[0]][coords[1]] == mode:23        end_moving = False24        if horizontal[coords[0]][coords[1]] == 0:25            horizontal[coords[0]][coords[1]] = 226        else:27            horizontal[coords[0]][coords[1]] = 128        coords[0] += 129        path += 'D'30    #step up31    elif coords[0] != 0 and horizontal[coords[0]-1][coords[1]] == mode:32        end_moving = False33        if horizontal[coords[0]-1][coords[1]] == 0:34            horizontal[coords[0]-1][coords[1]] = 235        else:36            horizontal[coords[0]-1][coords[1]] = 137        coords[0] -= 138        path += 'U'39    #step left40    elif coords[1] != 0 and vertical[coords[0]][coords[1]-1] == mode:41        end_moving = False42        if vertical[coords[0]][coords[1]-1] == 0:43            vertical[coords[0]][coords[1]-1] = 244        else:45            vertical[coords[0]][coords[1]-1] = 146        coords[1] -= 147        path += 'L'48coords = [0,0]49path = ''50while True:51    end_moving = True52    move(0)53    if end_moving:54        move(2)55    56    if end_moving:57        break58print(len(path))...

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