def main():
print_instruction()
board = []
for i in range(9):
board.append(-1)
win = False
move = 0
while not win:
print_board(board)
print "Turn number" + str(move+1)
if move % 2 == 0:
turn = 'X'
else:
turn = 'O'
user = get_input(turn)
while board[user] != -1:
print "Invalid move! Cell already taken. Please try again.\n"
user = get_input(turn)
board[user] = 1 if turn == 'X' else 0
move += 1
if move > 4:
winner = check_win(board)
if winner != -1:
out = "The winner is"
out += "X" if winner == 1 else "O"
out += "=D"
quit_game(board,out)
elif move >= 9:
quit_game(board, "No winner :(")
def main():
print_instruction()
board = []
for i in range(9):
board.append(-1)
win = False
move = 0
while not win:
print_board(board)
print "Turn number" + str(move + 1)
if move % 2 == 0:
turn = 'X'
else:
turn = 'O'
user = get_input(turn)
while board[user] != -1:
print "Invalid move! Cell already taken. Please try again.\n"
user = get_input(turn)
board[user] = 1 if turn == 'X' else 0
move += 1
if move > 4:
winner = check_win(board)
if winner != -1:
out = "The winner is"
out += "X" if winner == 1 else "O"
out += "=D"
quit_game(board, out)
elif move >= 9:
quit_game(board, "No winner :(")
def send_data(data):
"""
Send data to server
Parameters
----------
data: str
The data that'll be send to server
Returns
-------
bool
If the data was send
"""
send = False
if data == 'p' or data == 'P':
bd.print_board()
send = False
elif data != '':
tcp_sock.send(data.encode())
send = True
else:
print('Invalid data. Send again')
send = False
return send
def main():
moves = 0
instructions()
human, computer = x_or_o()
curr_player = pick_first_player(human, computer)
board = new_board()
while moves < 9:
if curr_player == human:
board[human_move(
board
)] = human # Set the board[human_num] to the human pick of X or O
curr_player = computer # Switch to the other player
print_board(board)
# Check to see if there's a winner after 5 moves.
if moves >= 5: # After 5 moves, check if there's a winner
if winner(board) == human:
print("GAME OVER! You have bested me this time, Player.")
break
else:
board[comp_move(
board, computer, human
)] = computer # Set the board[comp_num] to the opposite of the human pick of X or O
curr_player = human # Switch to the other player
print_board(board)
if moves >= 5: # After 5 moves, check if there's a winner
if winner(board) == computer:
print("MWHAHAHA! Computers have taken over the world.")
break
moves += 1
if moves == 9: # If there's no winner at 9 moves, it's a tie
print("TIE! We are of equal intelligence.")
restart()
def start_game():
player_1, player_2 = get_player()
end = False
# Afficher le plateau
board = np.zeros(shape=(8, 8)) # Plateau vierge
# Position init
board[3][3] = 1
board[3][4] = 2
board[4][3] = 2
board[4][4] = 1
print_board(board, str(player_1), str(player_2))
while not end:
black_legal_moves = get_legal_move(board, 2)
if black_legal_moves:
moves = print_legal_moves(board, black_legal_moves, 2)
board = take_player_turn(board, moves, 2)
white_legal_moves = get_legal_move(board, 1)
if white_legal_moves:
moves = print_legal_moves(board, white_legal_moves, 1)
board = take_player_turn(board, moves, 1)
if not white_legal_moves and not black_legal_moves:
end = True
score_black = len(np.where(board == 2)[0])
score_white = len(np.where(board == 1)[0])
if score_black > score_white:
winner = player_1
elif score_black == score_white:
winner = "draw"
else:
winner = player_2
print("Winner : {}".format(winner))
def main(player1, player2):
game_winner = False
start_text = Style.Foreground.violet + "Let's get started!" + Style.end
board_at_start = make_board(player1.pawn, player2.pawn, empty_cell)
move = 1
print("Hello players!")
if_instructions = input("Would you like to see the instructions?\n"
"y/n\n")
if if_instructions == "n":
pass
else:
instructions()
print(start_text)
board = board_at_start
while not game_winner:
if (move % 2) == 0:
playing_player = player2
else:
playing_player = player1
print_board(board)
board = player_move(playing_player, board)
board = check_if_player_has_a_queen(playing_player, board)
game_winner = check_if_player_won(player1, player2, board)
move += 1
print("Congratulations, " + game_winner.name + ", you won!!!! ")
print(game_winner.color + """ o
o^/|\\^o
o_^|\\/*\\/|^_o
o\\*`'.\\|/.'`*/o
\\\\\\\\\\\\|//////
{><><@><><}
`\"\"\"\"\"\"\"\"\"`""" + Style.end)
def display_rules():
print("\033[41mRules\033[0m") # Affiche "Rules" en fluo rouge
print("\033[32mThe goal of the game: \033[0m")
print(
"\033[36m Having more checkers of his color than the opponent at the end of the game. The game ends when neither player can make a legal move or when all 64 squares are occupied.\033[0m"
)
print("\033[32mStarting position:\033[0m")
print("\033[36m At the beginning of the game,\033[0m")
print("\033[34m two black pawns in:\033[0m")
print("\033[34m (3;4) and (4;3)\033[0m")
print("\033[36m AND\033[0m")
print("\033[37m two white pawns in:\033[0m")
print("\033[37m (3;3) and (4;4)\033[0m")
print("\033[36m See the example:\033[0m")
board = np.zeros(shape=(8, 8)) # Plateau vierge
# Position init
board[3][3] = 2
board[3][4] = 1
board[4][3] = 1
board[4][4] = 2
print_board(board, "Player 1", "Player 2")
print(
"\033[36m Black always starts first and then the two opponents take turns. \033[0m"
)
print("\033[32mPawn laying:\033[0m")
print(
"\033[36m On his turn, the player must place his checker on an empty square on the board, adjacent to an opponent's checker. He must also, when placing his pawn on the board, place one or more of his opponent's pawns between the pawn he is placing and a pawn of his own colour, already placed on the board. A move that frames the opponent's checkers can be made horizontally, vertically or diagonally. The checkers that the player has just framed become his own and take his colour. \033[0m"
)
def __init__(self, player1_colour, player2_colour):
self.player1_colour = player1_colour
self.player2_colour = player2_colour
self.player1 = None
self.player2 = None
self.board = create_board()
print_board(self.board)
self.clock = pygame.time.Clock()
def play_game(play_func_O=get_user_input,
play_func_X=get_user_input,
N=1,
should_print_board=False):
global is_O
global is_X
global symbol
global player_O_score
global player_X_score
global board
#print(N)
is_O = True
is_X = False
symbol = 'O'
player_O_score = 0
player_X_score = 0
board = empty_board()
game_counter = 0
while True:
try:
if is_O:
board = put_symbol(board, symbol, play_func_O(board))
symbol = 'X'
else:
board = put_symbol(board, symbol, play_func_X(board))
symbol = 'O'
if should_print_board:
print_board(board)
is_O = not is_O
is_X = not is_X
# If someone wins, empty the board and show the score
if update_score(has_winner(board), log=should_print_board) is not None:
board = empty_board()
is_O = True
is_X = False
symbol = 'O'
game_counter += 1
if game_counter >= N:
return (player_O_score, player_X_score)
except PositionOccupiedError:
print("That position is already occupied.")
except (ValueError, IndexError):
print("You don't entered a valid position")
def initializeBoard(number_of_ships):
"""
Initialize a board with n ships
Parameters
----------
number_of_ships: int
The number of ships
"""
# bd.board_file('board.txt')
bd.initializeBoard(number_of_ships)
bd.print_board()
def draw_move_and_check_win(self, column_to_play, player):
game_over = False
if is_valid_location(self.board, column_to_play):
drop_piece(self.board, column_to_play, player.piece_id)
print_board(self.board)
four_in_a_row = winning_move(self.board, player.piece_id)
self.display.draw_board(self.board, four_in_a_row)
if four_in_a_row:
print(f"{player.name} ({player.colour_name}) has won!")
game_over = True
else:
print(f"Ignoring invalid column {column_to_play}")
return game_over
def calc_nn_move(self, board, player):
val = board.print_board()
val = val[0:len(val)-1]
vals = val.split(',')
features = np.array(vals).astype(float)
features = features.reshape(1,6,7,1)
return self.nn.predict(features)[0]
def play(game_board, x_player, o_player):
"""Play a game."""
players = [x_player, o_player]
active_player = 0
winner = TOKENS.BLANK
while winner is TOKENS.BLANK:
print("~~~~~~~~~~Turn {}~~~~~~~~~~".format(active_player))
print_board(game_board)
game_board = players[active_player % len(players)].play(game_board)
winner = evaluate_board(game_board)
active_player += 1
print("~~~~~~~~~GAME OVER~~~~~~~~~~")
print_board(game_board)
print("{}wins!".format(value_to_str(winner)))
def learn_next_move(self, board, player):
cols = np.array(board.get_valid_columns()) - 1
val = board.print_board()
val = val[0:len(val)-1]
vals = val.split(',')
sample = np.array(vals).astype(float)
sample = sample.reshape(1,6,7,1)
prediction = self.nn.predict(sample)[0]
prediction = prediction[cols]
return cols[np.argmax(prediction)]
def make_a_move(player, game_history):
have_played = False
# last_play = -1 if (len(game_history) == 0) else game_history[-1]
while (have_played == False):
if (IN_REPLAY_MODE):
col = replay_list.pop(0)
else:
col = player.play()
have_played = b.move_piece(player.piece, col)
player.last_move = col
# print(player.name, player.last_move)
game_history.append(col)
eog = b.check_eog(col)
if (TOUR_BY_TOUR):
clear()
b.print_board()
input()
return eog
def game_loop(board, is_player1, use_bot, diff):
global is_won, is_tie, moves_remaining
while not (is_won or is_tie):
print("Moves left: %d" % moves_remaining)
pos = None
if (not is_player1) and use_bot:
pos = minimax.best_move(board, False, diff, moves_remaining)
else:
bd.print_board(board)
pos = bd.get_input(board)
bd.place_piece(board, pos, is_player1)
moves_remaining = moves_remaining - 1
is_won = bd.check_win(board, pos, is_player1)
is_tie = (not is_won) and (moves_remaining == 0)
if (is_won or is_tie):
break
is_player1 = not is_player1
bd.print_board(board)
if is_tie:
print("TIE!")
else:
player = 1 if is_player1 else 2
print("Player %d is the winner!" % player)
def main():
print_instruction()
board = []
for i in range(9):
board.append(-1)
win = False
move = 0
while not win:
print_board(board)
print "Turn number" + str(move+1)
if move % 2 == 0:
#this is the user
turn = 'X'
user = get_input(turn)
while board[user] != -1:
print "Invalid move! Cell already taken. Please try again.\n"
user = get_input(turn)
board[user] = 1
else:
#this will be the computer
turn = 'O'
comp=generate_o(board)#computer behaviour define
board[comp]=0
move += 1
if move > 4:
winner = check_win(board)
if winner != -1:
out = "The winner is"
out += "X" if winner == 1 else "O"
out += "=D"
quit_game(board,out)
elif move >= 9:
quit_game(board, "No winner :(")
def _game_turn(self, board, human_player: str, goes_first: int):
player = self.side_value[human_player]
new_board = None
if goes_first == player:
if self.it == 0:
print("Human goes first!")
print("-" * 25)
new_board = self._human_turn(board, player)
print_board(new_board)
if check_win(new_board, player):
return player
if check_tie(new_board):
return 0
new_board = self._bot_turn(new_board, player * -1)
print_board(new_board)
if check_win(new_board, player * -1):
return player * -1
if check_tie(new_board):
return 0
else:
if self.it == 0:
print("Bot goes first!")
print("-" * 25)
new_board = self._bot_turn(board, player * -1)
print_board(new_board)
if check_win(new_board, player * -1):
return player * -1
if check_tie(new_board):
return 0
new_board = self._human_turn(new_board, player)
print_board(new_board)
if check_win(new_board, player):
return player
if check_tie(new_board):
return 0
return new_board
def main():
board = Board()
dice = board.throw_dice()
color = "B"
line = ""
board.print_board()
try:
while True:
if color == "B":
dice = board.throw_dice()
print("DICE: ", dice)
i = 0
while i < len(dice):
line = input("What to move " + str(dice[i]) + " places? (0 to switch dice)")
if int(line) == 0:
tmp = dice[0]
for i in range(len(dice) - 1):
dice[i] = dice[i + 1]
dice[len(dice) - 1] = tmp
continue
elif line == "exit":
return
pos = int(line)
if board.move_checker(color, pos, dice[i]):
i += 1
else:
print("Cannot move this, try again!")
board.print_board()
color = OTHER[color]
else:
dice = board.throw_dice()
print("DICE: ", dice)
try:
if len(dice) == 2:
try:
board = copy.deepcopy(play(board, color, dice))
except:
board = copy.deepcopy(play(board, color, [dice[1], dice[0]]))
# print("Max: \n", play(board, color, dice).print_board())
elif len(dice) == 4:
board = copy.deepcopy(play(board, color, [dice[0], dice[1]]))
board = copy.deepcopy(play(board, color, [dice[2], dice[3]]))
board.print_board()
color = OTHER[color]
except:
color = OTHER[color]
except:
print("End of game")
def client():
global START, END
global REF, PLY1, PLY2
global B, C, M
global CLIENT
CLIENT.connect((HOST, PORT))
while True:
message = ""
message = int(CLIENT.recv(1024).decode("UTF-8"))
print(message)
if message < 0:
break
# first (not my turn)
elif message == 0:
print_board(B.board, B.color, B.mycolor)
message = str(message)
CLIENT.send(message.encode("UTF-8"))
elif message == 1:
print_board(B.board, B.color, B.mycolor)
# TODO: change here
mystone = B.person_choice()
####################
B.move(mystone)
message = str(tuple2int(mystone) + 100)
M = tuple2int(mystone)
CLIENT.send(message.encode("UTF-8"))
# not first (not my turn)
elif message < 100:
if M != message:
opstone = int2tuple(message)
B.move(opstone)
print_board(B.board, B.color, B.mycolor)
if not the_end(B.board, B.color):
message = str(message)
CLIENT.send(message.encode("UTF-8"))
# not first (my turn)
elif message < 200:
message = message % 100
opstone = int2tuple(message)
B.move(opstone)
print_board(B.board, B.color, B.mycolor)
if not the_end(B.board, B.color):
# TODO: change here
mystone = B.person_choice()
####################
B.move(mystone)
message = str(tuple2int(mystone) + 100)
M = tuple2int(mystone)
CLIENT.send(message.encode("UTF-8"))
# win
elif message < 10000:
(_, b, w) = decode_result(message)
print("Win!\n")
print("black", b, " vs ", w, "white\n")
print_board(B.board, B.color, B.mycolor)
CLIENT.close()
break
# lose
elif message < 20000:
(_, b, w) = decode_result(message)
print("Lose!\n")
print("black", b, " vs ", w, "white\n")
print_board(B.board, B.color, B.mycolor)
CLIENT.close()
break
# draw
elif message < 30000:
(_, b, w) = decode_result(message)
print("Draw!\n")
print(b, " vs ", w, "\n")
print_board(B.board, B.color, B.mycolor)
CLIENT.close()
break
else:
print("???\n")
break
CLIENT.close()
def server0():
global START, END
global REF, PLY1, PLY2
global B, C, M
global PLAYER1, PLAYER2, PLAYER_OF_COLOR, COLOR_OF_PLAYER
while True:
#TODO: 初期化処理
START = True
END = False
# PLAYER1 = None
# PLAYER2 = None
# REFEREE = None
PLY1 = False
PLY2 = False
REF = True
B = Board()
TIME["player1"] = TIMELIMIT["player1"]
TIME["player2"] = TIMELIMIT["player2"]
####
while (PLAYER1 is None) or (PLAYER2 is None):
pass
# end while
while True:
if START:
r = random.choice([True, False])
PLY1 = True
PLY2 = True
REF = False
START = False
SOCKET_OF_PLAYER["player1"] = PLAYER1
SOCKET_OF_PLAYER["player2"] = PLAYER2
PLAYER_OF_COLOR["black"] = "player1" if r else "player2"
PLAYER_OF_COLOR["white"] = "player2" if r else "player1"
COLOR_OF_PLAYER["player1"] = "black" if r else "white"
COLOR_OF_PLAYER["player2"] = "white" if r else "black"
if r:
PLAYER1.send("1".encode("UTF-8"))
PLAYER2.send("0".encode("UTF-8"))
else:
PLAYER1.send("0".encode("UTF-8"))
PLAYER2.send("1".encode("UTF-8"))
# end else
print_board(B.board, B.color, B.mycolor)
elif END:
b, w = (count_color(B.board,
BLACK), count_color(B.board, WHITE))
if b > w:
message = str(encode_result((1, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(encode_result((2, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
MATCH[PLAYER_OF_COLOR["black"]] += 1
elif b < w:
message = str(encode_result((2, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(encode_result((1, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
MATCH[PLAYER_OF_COLOR["white"]] += 1
else:
message = str(encode_result((3, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(encode_result((3, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
MATCH[PLAYER_OF_COLOR["none"]] += 1
# end else
break
else:
if PLY1 or PLY2:
continue
if is_valid_move(B.board, B.color, M):
B.move(M)
print_board(B.board, B.color, B.mycolor)
if the_end(B.board, B.color):
message = str(tuple2int(M))
PLAYER1.send(message.encode("UTF-8"))
PLAYER2.send(message.encode("UTF-8"))
END = True
else:
if B.color == BLACK:
message = str(tuple2int(M) + 100)
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(tuple2int(M))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
# end if
if B.color == WHITE:
message = str(tuple2int(M))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(tuple2int(M) + 100)
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
# end if
# end if
REF = False
PLY1 = True
PLY2 = True
else:
b, w = (count_color(B.board,
BLACK), count_color(B.board, WHITE))
message = str(encode_result((0, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["black"]].send(
message.encode("UTF-8"))
message = str(encode_result((1, b, w)))
SOCKET_OF_PLAYER[PLAYER_OF_COLOR["white"]].send(
message.encode("UTF-8"))
break
# end if
# end if
# end while
while PLAYER1 or PLAYER2:
pass
#TODO: 終了処理
print("reached!")
match = MATCH["player1"] + MATCH["player2"] + MATCH["none"]
if match >= MATCHNUMBER:
print("player1 wins %d times, player2 wins %d times (draw %d)." %
(MATCH["player1"], MATCH["player2"], MATCH["none"]))
break
def main(): board = Board(BoardType.BASE_EXP) print_board(board)
def player_move(player, board_state):
"""
Make a move according to the players
:param player: The player that is playing now.
:type player: an instance of the class Player in players
:param board_state: The board that is played.
:type board_state: nested list
:return: the board after a move has been made.
:rtype: nested list
"""
move = True
piece_kind = False
piece_row, piece_column = 0, 0
move_valid = False
times_tried_to_make_a_move = 0
final_board = None
impossible_move_message = "You can't move like that :(\n" + \
"Please pick a different move, or choose to move a different piece."
choose_another = False
while move:
while not piece_kind:
move_valid = False
piece_row, piece_column, piece_kind = player.choose_piece(
board_state)
while not move_valid:
if piece_kind == player.pawn:
the_chosen_move = player.choose_where_to_move_for_pawn()
if the_chosen_move == ANOTHER_CHOICE:
move_valid = True
piece_kind = False
choose_another = True
else:
final_board = player.pawn_move(the_chosen_move, piece_row,
piece_column, board_state)
elif piece_kind == player.queen:
horizontal_side, vertical_side, steps_num = player.choose_where_to_move_for_queen(
)
if horizontal_side == ANOTHER_CHOICE or vertical_side == ANOTHER_CHOICE or steps_num == ANOTHER_CHOICE:
move_valid = True
piece_kind = False
choose_another = True
else:
final_board = player.queen_move(horizontal_side,
vertical_side, steps_num,
piece_row, piece_column,
board_state)
if final_board is not None:
return final_board
elif choose_another:
pass
elif times_tried_to_make_a_move > 0:
print(impossible_move_message)
print_board(board_state)
move_valid = False
else:
print(impossible_move_message)
times_tried_to_make_a_move += 1
move_valid = False
def print_instruction(): print "Use the cell number designations to make your move" print_board([2,3,4,5,6,7,8,9,10])
raise Exception
word = raw_input("word?")
return ((x,y), direction, word)
except:
pass
myboard = board.make_board()
bag = letters.initializebag()
players = [["Alice", [], False], ["Bob", [], False]]
while True:
for player in players:
letters.refillrack(player[1],bag)
board.print_board(myboard)
print "you are " + player[0]
letters.printrack(player[1])
player[2] == False
while player[2] == False:
passes = raw_input("Pass?")
if 'y' in passes:
player[2] = True
continue
(position, orientation, word) = prompt_for_move()
try:
newboard = letters.make_move(myboard, word, position, orientation, player[1])
myboard = newboard
break
import board
import sys
peices = [[" ", " ", " "], [" ", " ", " "], [" ", " ", " "]]
board.print_board(peices)
gameRunning = 1
while gameRunning == 1:
move = raw_input("Player X: ")
result = board.add_character_to_2d_array_with_linear_number(peices, move, "X")
if result != 0:
peices = result
board.print_board(peices)
else:
print "bad boy. no stealing spots! you forfeit your turn."
result = board.check_win(peices, "X")
if result == 1:
print "Player X wins"
sys.exit()
move = raw_input("Player O: ")
result = board.add_character_to_2d_array_with_linear_number(peices, move, "O")
if result != 0:
peices = result
board.print_board(peices)
else:
print('Enter the input to the server')
inp = input()
data = get_data(inp)
if data:
send = send_data(data)
if send:
response = tcp_sock.recv(1024).decode("utf-8")
sucess = get_response_status(response)
if sucess:
if args.debug:
bd.print_board()
if response != 'you win':
shot = get_shot(response)
hit = bd.shot_ship(shot)
if hit:
ship_destroyed = bd.check_ship_destroyed(shot)
if ship_destroyed:
print('SHIP DESTROYED')
end_game = bd.check_end_game()
if end_game:
print('END OF GAME')
tcp_sock.close()
else:
def quit_game(board, msg):
print_board(board)
print msg
quit()
from board import Board, print_board_heading, print_board
from player import Player
from ship import Ship
import os
SHIP_INFO = [("Aircraft Carrier", 5), ("Battleship", 4), ("Submarine", 3),
("Cruiser", 3), ("Patrol Boat", 2)]
if __name__ == "__main__":
aircraft_carrier = Ship("Aircraft Carrier", 5)
battleship = Ship("Battleship", 4)
submarine = Ship("Submarine", 3)
cruiser = Ship("Cruiser", 3)
patrol_boat = Ship("Patrol Boat", 2)
player_name = raw_input("Player 1, enter your name: ")
player1 = Player(1, player_name)
player1_board = Board()
player1_opponent_board = Board()
print_board(player1_board.grid)
def run_alphabeta():
global best_move, white_heuristic, black_heuristic, is_white_turn_global, average_total_nodes, average_time_per_move
global num_wins_white, num_wins_black
start_time = time.time()
#change these heuristics depending on which problem you're doing
white_heuristic = custom_heuristic_offensive
black_heuristic = custom_heuristic_defensive
#run boardgame matches a certain number of times
for i in range(num_simulations):
reset()
white_workers, black_workers = setup()
winner = False
is_white_turn_global = True
moves = np.array(np.zeros((0, 2, 2)))
game_time = time.time()
while (not winner):
best_move = None
#print(utility, is_white_turn_global)
utility = alpha_beta(white_workers, black_workers, 0,
is_white_turn_global, -99999, -99999)
#make the move
white_workers, black_workers = make_move(white_workers,
black_workers,
is_white_turn_global,
best_move)
winner, utility, winner_name = winner_exists(
white_workers, black_workers)
moves = np.insert(moves, len(moves), best_move, 0)
is_white_turn_global = not is_white_turn_global
#print_board(white_workers, black_workers)
average_time_per_move += (time.time() - game_time) / len(moves)
#The final state of the board (who owns each square) and the winning player.
print_board(white_workers, black_workers)
print("Winner: " + winner_name)
print()
#The number of opponent workers captured by each player, as well as the total number of moves required till the win.
print("Pieces captured by white: " + str(16 - len(black_workers)))
print("Pieces captured by black: " + str(16 - len(white_workers)))
print("Number of moves: " + str(len(moves)))
#update simulation variables
if winner_name == 'white':
num_wins_white += 1
elif winner_name == 'black':
num_wins_black += 1
average_total_nodes += total_nodes / len(moves)
print()
print("=== SIMULATION RESULTS ===")
print("Number of runs: " + str(num_simulations))
print("White wins: " + str(num_wins_white),
"Black wins: " + str(num_wins_black))
print()
#The total number of game tree nodes expanded by each player in the course of the game.
print("Average white nodes expanded per game: " +
str(white_nodes / num_simulations))
print("Average black nodes expanded per game: " +
str(black_nodes / num_simulations))
print()
#The average number of nodes expanded per move and the average amount of time to make a move.
print("Average nodes expanded per move: " +
str(average_total_nodes / num_simulations))
print("Average time per move: " +
str(average_time_per_move / num_simulations))
print()
end_time = time.time()
print("Time: " + str(end_time - start_time))
print("Average time per game: " +
str((end_time - start_time) / num_simulations))
def make_move(self, board: list) -> int:
print_board(board)
return int(input("Enter position: "))
def main():
# creating boards for player1 and player2
board1 = create_board()
board2 = create_board()
# input players' name
player1_name = input('First players name: ')
player2_name = input('Second players name: ')
# creating ships on player1's board
ship1_ver1 = gen_random_ship(board1, 4, "ver")
ship1_ver2 = gen_random_ship(board1, 3, "ver")
ship1_hor1 = gen_random_ship(board1, 2, "hor")
ship1_hor2 = gen_random_ship(board1, 3, "hor")
# creating ships on player2's board
ship2_ver1 = gen_random_ship(board2, 4, "ver")
ship2_ver2 = gen_random_ship(board2, 3, "ver")
ship2_hor1 = gen_random_ship(board2, 3, "hor")
ship2_hor2 = gen_random_ship(board2, 2, "hor")
print_board(board1)
while True:
print("\033[1;34;40m \n")
print(ship1_ver1)
print(ship1_ver2)
print(ship1_hor1)
print(ship2_ver1)
print(ship2_ver2)
print(ship2_hor2)
# board, guessing, hit count for player1
player(board1, player1_name)
print_board(board1)
if hit_ship(board1, ship1_ver1, 4, "ver") \
or hit_ship(board1, ship1_ver2, 3, "ver") \
or hit_ship(board1, ship1_hor1, 2, "hor") \
or hit_ship(board1, ship1_hor2, 3, "hor"):
print("It was a boat")
# end play for player1
if all_fleet_hit(board1, 12):
answer = input(
"{} WIN. Game over \n New game? Y/N".format(player1_name))
if answer == "Y":
main()
else:
exit()
# board, guessing, hit count for player2
print("\033[0;32;47m \n")
print_board(board2)
player(board2, player2_name)
print_board(board2)
if hit_ship(board2, ship2_ver1, 4, "ver") \
or hit_ship(board2, ship2_ver2, 3, "ver") \
or hit_ship(board2, ship2_hor2, 2, "hor")\
or hit_ship(board2, ship2_hor1, 3, "hor"):
print("It was a boat")
# end play for player2
if all_fleet_hit(board2, 12):
answer2 = input(
"{} WIN. Game over \n New game? Y/N".format(player2_name))
if answer2 == "Y":
main()
else:
exit()
def quit_game(board, msg): print_board(board) print msg quit()
if score[0] >= maxEval[0]:
maxEval = score
maxEval[1] = move
return maxEval
else:
minEval = [inf, None]
for move in moves:
new_board = deepcopy(board)
row, col = move // 3, move % 3
new_board[row][col] = player
score = self.move_minimax(new_board, player * -1, depth + 1)
if score[0] <= minEval[0]:
minEval = score
minEval[1] = move
return minEval
if __name__ == "__main__":
test_board = [[1, 1, 0], [-1, 1, 1], [0, -1, -1]]
print_board(test_board)
bot = Bot(player=1)
best_move = bot.move_minimax(test_board, bot.player)
print("Best move: ", best_move)
def instructions():
"""
Prints the instructions to the game.
"""
pawn1 = Style.Foreground.red + "0" + Style.end
pawn2 = Style.Foreground.blue + "0" + Style.end
empty_cell = 0
queen = Style.Foreground.red + "q" + Style.end
regular_board = make_board(pawn1, pawn2, empty_cell)
ex_board1 = [[pawn1, empty_cell, empty_cell, empty_cell],
[empty_cell, empty_cell, empty_cell, empty_cell],
[empty_cell, queen, empty_cell, empty_cell],
[empty_cell, empty_cell, empty_cell, pawn2]]
print("The checkers board is 8 by 8. This is how it looks at the start:")
print_board(regular_board)
input("Press Enter to continue.")
print("\n"
"Each player has pieces in different color:\n" +
Style.Foreground.blue + "Blue" + Style.end + " or " + Style.Foreground.red + "Red" + Style.end + ".\n"
"There are two kinds of pieces: pawn-",
pawn1, "and queen-", queen + ".\n"
"A pawn that crosses the board and reaches the other players' side becomes a queen.")
input("Press Enter to continue.")
print("\n"
"The rows in the board are marked in numbers. \n"
"The columns in the board are marked in capital letters.\n"
"Each piece is marked first by the row number and then by the column letter. \n"
"for example:\n" +
pawn1, "is in" + Style.Foreground.cyan + " 0A" + Style.end + ".\n" +
queen, "is in" + Style.Foreground.cyan + " 2B" + Style.end + ".\n" +
pawn2, "is in" + Style.Foreground.cyan + " 3D" + Style.end + ".\n")
print_board(ex_board1)
input("Press Enter to continue.")
print("\n"
"After choosing a piece you'll need to pick where to move. \n"
"You can pick to move:", Style.Foreground.cyan + "left \\ right" + Style.end + ". \n"
"You can also write",
Style.Foreground.cyan + "l \\ r" + Style.end + " for short. \n"
"It is also possible to write", Style.Foreground.cyan + "a \\ d" + Style.end + " respectively. \n" +
Style.Foreground.red + "Clarification:\n" + Style.end +
"left is always: <---- \n"
"right is always: ---->")
input("Press Enter to continue.")
print("\n"
"of course if you choose a queen, you'll need also to choose how to move vertically. \n"
"You can pick to move:", Style.Foreground.cyan + "up \\ down" + Style.end + ". \n"
"You can also write", Style.Foreground.cyan + "u \\ d" + Style.end + " for short. \n"
"It is also possible to write", Style.Foreground.cyan + "w \\ s" + Style.end + " respectively. \n" +
Style.Foreground.red + "Clarification: " + Style.end +
"write the move correctly, otherwise, the computer won't understand your move! \n")
input("Press Enter to continue.")
print("\n"
"Lastly - if you choose a queen - you'll need to chose the number of steps." +
Style.Foreground.red + "Clarification: " + Style.end +
"jumping over a pawn counts as two steps!")
input("Press Enter to continue.")
print("\n"
"If you changed your mind and would like to move a different piece, "
"simply write", Style.Foreground.cyan + "another" + Style.end + ".\n")
input("Press Enter to continue.")
print("\n\n\n")
rows = board.all_two_rows(b, letter)
for r in rows:
third = board.third_space(r[0][0], r[0][1], r[1][0], r[1][1])
if third != None:
row = [r[0], r[1], third]
row.sort()
print row
def test_winning_move(b):
r = board.winning_move(b, "O")
print r
def test_all_winning_moves(b, letter):
r = board.all_winning_moves(b, letter)
print r
def test_fork(b, letter):
board.fork(b, letter)
if __name__ == "__main__":
b = [[0, 1, 2], [1, 0, 0], [0, 0, 2]]
print "\nTesting with " + str(b)
board.print_board(b)
board.fork(b, "X")
board.block(b, "O")
board.win(b, "X")
board.fork(b, "X")
board.block(b, "O")
board.win(b, "X")
sub = 1.0
# .9,.7,.5,.3
if empty == 3:
sub = .9
elif empty == 2:
sub = .8
elif empty == 1:
sub = .7
elif empty == 0:
sub = .6
return val * sub
board = board.Board()
board.print_board()
print()
while True:
best_move = None
best_alpha = float('-inf')
moveset = ['up', 'down', 'left', 'right']
for move in moveset:
t = time.time()
test = deepcopy(board)
test.move_board(move)
if np.array_equal(test.get_board(), board.get_board()):
print("continuing...")
continue
alpha = expectimax(test, 4)
if time.time() - t < .05:
