def kill_move(self, moves, board):
if self.in_board(board) and self.can_kill_left(board):
moves.append(
Move((self.posX, self.posY),
(self.posX - 1, self.check_side(1)), False))
if self.in_board(board) and self.can_kill_right(board):
moves.append(
Move((self.posX, self.posY),
(self.posX + 1, self.check_side(1)), False))
def move_down(self, moves, board):
next_posY = self.posY + 1
while next_posY <= 7 and board[next_posY][self.posX]['p'] == '':
moves.append(
Move((self.posX, self.posY), (self.posX, next_posY), False))
next_posY += 1
if next_posY <= 7 and board[next_posY][self.posX]['p'] != '' and board[
next_posY][self.posX]['p'].side != self.side:
moves.append(
Move((self.posX, self.posY), (self.posX, next_posY), False))
def move_right(self, moves, board):
next_posX = self.posX + 1
while next_posX <= 7 and board[self.posY][next_posX]['p'] == '':
moves.append(
Move((self.posX, self.posY), (next_posX, self.posY), False))
next_posX += 1
if next_posX <= 7 and board[self.posY][next_posX]['p'] != '' and board[
self.posY][next_posX]['p'].side != self.side:
moves.append(
Move((self.posX, self.posY), (next_posX, self.posY), False))
def move_left(self, moves, board):
next_posX = self.posX - 1
while next_posX >= 0 and board[self.posY][next_posX]['p'] == '':
moves.append(
Move((self.posX, self.posY), (next_posX, self.posY), False))
next_posX -= 1
if next_posX >= 0 and board[self.posY][next_posX]['p'] != '' and board[
self.posY][next_posX]['p'].side != self.side:
moves.append(
Move((self.posX, self.posY), (next_posX, self.posY), False))
def move_up(self, moves, board):
next_posY = self.posY - 1
while next_posY >= 0 and board[next_posY][self.posX]['p'] == '':
moves.append(
Move((self.posX, self.posY), (self.posX, next_posY), False))
next_posY -= 1
if next_posY >= 0 and board[next_posY][self.posX]['p'] != '' and board[
next_posY][self.posX]['p'].side != self.side:
moves.append(
Move((self.posX, self.posY), (self.posX, next_posY), False))
def move_forward(self, moves, board):
if self.init_pos:
if self.empty_cell(board, self.posX,
self.check_side(2)) and self.empty_cell(
board, self.posX, self.check_side(1)):
moves.append(
Move((self.posX, self.posY),
(self.posX, self.check_side(2)), False))
if self.empty_cell(board, self.posX, self.check_side(1)):
moves.append(
Move((self.posX, self.posY),
(self.posX, self.check_side(1)), False))
else:
if self.in_board(board) and self.empty_cell(
board, self.posX, self.check_side(1)):
moves.append(
Move((self.posX, self.posY),
(self.posX, self.check_side(1)), False))
def make_move(self):
# output gives a number between 0 and 0.5
# Takes a list of floats
# Can loop through each move and add them together
# I can represent this board as a list of 1's and 2's
# 1s for ai and 2s for opponents
# There needs to be 9 inputs
output = self.net.activate(self.board.encode_board_state())
row = convert_to_input(output[0])
column = convert_to_input(output[1])
print(row, column)
print(output)
return Move(row, column, self)
def randomize(self):
valid_moves = self.board.get_valid_moves()
move_set = valid_moves[randint(0, len(valid_moves))]
return Move(move_set[0], move_set[1], self)
def make_move(self):
row = int(input("Which row? ")) - 1
column = int(input("Which column? ")) - 1
return Move(row, column, self)