594 lines
24 KiB
Python
594 lines
24 KiB
Python
import random
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import sys
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random.seed(0)
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class Card:
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possible_moves = ['forward', 'forward x2', 'forward x3', 'backward', 'turn left', 'turn right', 'turn around']
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card_counter = 0
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def __init__(self):
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self.number = Card.card_counter
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Card.card_counter += 1
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self.action = random.choice(Card.possible_moves)
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self.priority = random.randint(0, 100)
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def __str__(self):
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return "Card No. " + str(self.number) + " " + self.action + " " + str(self.priority)
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def __repr__(self):
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return self.action + " (" + str(self.priority) + ")"
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class CardDeck:
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def __init__(self, n=84):
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self.deck = {}
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# generate cards
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for i in range(0, n):
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self.deck[i] = Card()
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self.dealt = set()
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self.discard_pile = set()
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def draw_cards(self, n=1):
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available = set(self.deck.keys()).difference(self.dealt)
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# print("{} cards are available".format(len(available)))
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if len(available) < n:
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drawn = list(available) # give out remaining cards
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# print("drawing remaining {} cards".format(len(drawn)))
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self.dealt = self.dealt.union(drawn)
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# put the cards from the discard pile back into the game
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self.dealt = self.dealt - self.discard_pile
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self.discard_pile = set() # reset the discard pile
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# draw rest of cards
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available = set(self.deck.keys()).difference(self.dealt)
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# print("drawing another {} cards".format(n - len(drawn)))
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drawn += random.sample(available, n - len(drawn))
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else:
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drawn = random.sample(available, n)
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# print("cards drawn: {}".format(drawn))
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self.dealt = self.dealt.union(drawn)
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return [self.deck[i] for i in drawn]
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def return_cards(self, cards):
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self.discard_pile = self.discard_pile.union(set([c.number for c in cards]))
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pass
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class Robot:
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# dictionary mapping the current orientation and a turn command to the resulting orientation
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resulting_orientation = {
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'^': {'turn left': '<', 'turn right': '>', 'turn around': 'v'},
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'>': {'turn left': '^', 'turn right': 'v', 'turn around': '<'},
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'v': {'turn left': '>', 'turn right': '<', 'turn around': '^'},
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'<': {'turn left': 'v', 'turn right': '^', 'turn around': '>'},
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}
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# dictionary mapping the current orientation and the target orientation to the necessary turn command
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necessary_turn = {
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'^': {'>': 'turn right', 'v': 'turn around', '<': 'turn left'},
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'>': {'v': 'turn right', '<': 'turn around', '^': 'turn left'},
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'v': {'<': 'turn right', '^': 'turn around', '>': 'turn left'},
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'<': {'^': 'turn right', '>': 'turn around', 'v': 'turn left'},
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}
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# dictionary mapping an orientation to its opposite
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opposites = {'^': 'v', '>': '<', 'v': '^', '<': '>'}
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def __init__(self, x, y, orientation, marker_id, board):
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self.x = x
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self.y = y
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self.orientation = orientation
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self.marker_id = marker_id
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self.damage = 0
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self.collected_flags = set()
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self.board = board
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# mark the tile on the board as occupied
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self.board[(x,y)].occupant = self
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def get_tile(self):
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# return the tile the robot is standing on
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return self.board[(self.x, self.y)]
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def get_adjecent_tile(self, direction):
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# get the tile adjecent to the robot in the given direction
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current_tile = self.get_tile()
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return self.board[current_tile.get_neighbor_coordinates(direction)]
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def get_accessed_tiles(self, count, forward=True):
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# create a list of all tiles the robot would enter if it drives <count> steps forward
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tiles = []
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current_tile = self.get_tile()
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for i in range(1, count + 1):
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if forward:
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current_tile = self.board.get(current_tile.get_neighbor_coordinates(self.orientation))
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else:
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current_tile = self.board.get(current_tile.get_neighbor_coordinates(Robot.opposites[self.orientation]))
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if current_tile is None:
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return tiles
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else:
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tiles.append(current_tile)
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return tiles
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def is_pushable(self, direction):
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# check if the robot can be pushed in the given direction
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# this is the case if there is a non-blocking tile next to the robot or if there is another robot that is pushable
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robot_tile = self.get_tile()
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neighbor_tile = self.board.get(robot_tile.get_neighbor_coordinates(direction))
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if neighbor_tile is None: # neighbor tile could not be found -> robot would be pushed out of the board
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return False
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else:
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if neighbor_tile.is_empty():
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return True
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elif neighbor_tile.modifier == '#': # if there's a wall on the neighbor tile the robot cannot be pushed there
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return False
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else:
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# this means there's another robot on the neighbor tile -> check if it can be pushed away
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return neighbor_tile.occupant.is_pushable(direction)
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def has_opposite_orientation(self, direction):
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opposites = [('^', 'v'), ('>', '<'), ('v', '^'), ('<', '>')]
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return (self.orientation, direction) in opposites
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def get_turn_direction(self, target_orienation):
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return Robot.necessary_turn[self.orientation][target_orienation]
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def get_opposite_orientation(self):
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return Robot.opposites[self.orientation]
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def turn(self, type):
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# change the orientation of the robot
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self.orientation = Robot.resulting_orientation[self.orientation][type]
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return "{}, {}".format(type, self.marker_id)
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def move(self, type):
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# move the robot forward or backward
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# this involves
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tile = self.get_tile()
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if type == 'forward':
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target_tile = self.get_adjecent_tile(self.orientation)
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if target_tile.occupant is not None:
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print("error: target tile is not empty")
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sys.exit(1)
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tile.occupant = None # delete the robot from the current tile
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target_tile.occupant = self # place the robot in the next tile
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self.x = target_tile.x
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self.y = target_tile.y
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# return the move for sending to the controller
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return "forward, {}".format(self.marker_id)
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elif type == 'backward':
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opposite_orientation = self.get_opposite_orientation()
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target_tile = self.get_adjecent_tile(opposite_orientation)
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if target_tile.occupant is not None:
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print("error: target tile is not empty")
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sys.exit(1)
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tile.occupant = None # delete the robot from the current tile
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target_tile.occupant = self # place the robot in the next tile
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self.x = target_tile.x
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self.y = target_tile.y
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# return the move for sending to the controller
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return "backward, {}".format(self.marker_id)
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else:
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print("error: invalid move")
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sys.exit(1)
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def nop(self):
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# do nothing command
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return "nop, {}".format(self.marker_id)
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def board_element_processable(self):
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# check if we can directly process the board element for the tile the current robot is located on
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tile = self.get_tile()
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if tile.modifier in ['^', '>', 'v', '<']:
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direction = tile.modifier
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neighbor_tile = self.get_adjecent_tile(direction)
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return neighbor_tile.occupant is None # if the adjacent tile the robot will be pushed into is empty
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# we can execute the push
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return True
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def take_damage(self, count):
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self.damage = min(self.damage + count, 4)
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def heal_damage(self, count):
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self.damage = max(self.damage - count, 0)
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def pick_up_flag(self, flag):
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self.collected_flags.add(flag)
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def __str__(self):
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return str(self.marker_id)
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class Tile:
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# possible modifiers:
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# # : wall (robot is blocked from moving there)
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# [<, >, ^, v] : conveyors (robot is pushed to the next tile)
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# + : rotation in positive direction (robot is rotated ccw)
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# - : rotation in negative direction (robot is rotated cw)
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# p : pit (robot takes damage)
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# r : repair station (robot heals damage)
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# [a,b,c,d] : flag (robot scores)
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#
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# occupant: Robot that is standing on the tile
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def __init__(self, x, y, modifier=None):
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if modifier == ' ':
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self.modifier = None
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else:
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self.modifier = modifier
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self.occupant = None
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self.x = x
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self.y = y
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def get_neighbor_coordinates(self, direction):
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# get the coordinates of the neighboring tile in the given direction
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if direction == '^':
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return (self.x, self.y - 1)
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elif direction == '>':
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return (self.x + 1, self.y)
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elif direction == 'v':
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return (self.x, self.y + 1)
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elif direction == '<':
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return (self.x - 1, self.y)
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else:
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print("error: unknown direction")
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sys.exit(1)
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def is_empty(self):
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# check if the tile is non-empty and does not contain a wall
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return self.occupant is None and self.modifier != '#'
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def __str__(self):
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if self.is_empty():
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if self.modifier is None:
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return ' '
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else:
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return self.modifier
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else:
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if self.occupant is None:
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return self.modifier
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else:
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return str(self.occupant)
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def __repr__(self):
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return "({}, {}) occ: {} mod: {}".format(self.x, self.y, self.occupant, self.modifier)
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class Board:
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x_dims = 13 # number of tiles in x direction
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y_dims = 7 # number of tiles in y direction
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def __init__(self):
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self.board = self.read_board_from_file('board.txt')
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#self.read_board_from_file('board.txt')
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# for x in range(Board.x_dims + 2):
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# for y in range(Board.y_dims + 2):
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# if (x == 0) or (x == Board.x_dims + 1) or (y == 0) or (y == Board.y_dims + 1):
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# # place walls around the board
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# self.board[(x, y)] = Tile(x, y, '#')
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# elif y > 2 and y < 6 and x == 7:
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# self.board[(x, y)] = Tile(x, y, '#')
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# elif x == 1 and (y >= 1) and (y < 4):
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# self.board[(x, y)] = Tile(x, y, 'v')
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# elif y == 4:
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# self.board[(x, y)] = Tile(x, y, '>')
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# elif y == 1 and (x >= 2) and (x < 5):
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# self.board[(x, y)] = Tile(x, y, '>')
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# elif y == 1 and (x >= 6) and (x <= 8):
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# self.board[(x, y)] = Tile(x, y, '<')
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# else:
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# self.board[(x,y)] = Tile(x,y)
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#
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# self.board[(5, 1)].modifier = '+'
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# self.board[(5, 4)].modifier = '-'
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# self.board[(2, 2)].modifier = 'p'
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# self.board[(3, 3)].modifier = 'r'
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#
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# # place flags near the corners of the board
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# self.board[(2,2)].modifier = 'a'
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# self.board[(Board.x_dims-1, 2)].modifier = 'b'
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# self.board[(Board.x_dims-1, Board.y_dims-1)].modifier = 'c'
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# self.board[(2, Board.y_dims-1)].modifier = 'd'
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# self.board[(2, 2)].modifier = '^'
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# self.board[(2, 1)].modifier = '<'
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self.robots = {}
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#self.robots[0] = Robot(1, 1, 'v', 0, self.board)
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#self.robots[1] = Robot(1, 2, 'v', 1, self.board)
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#self.robots[2] = Robot(2, 1, '>', 2, self.board)
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#self.robots[3] = Robot(2, 2, 'v', 3, self.board)
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#self.create_robot(1,1,'>', 7, 11)
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def read_board_from_file(self, file):
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fh = open('board.txt').readlines()
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Board.x_dims = len(fh[0].strip()) - 2
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Board.y_dims = len(fh) - 2
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board = {}
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for y, line in enumerate(fh):
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for x, tile_modifier in enumerate(line.strip()):
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board[(x,y)] = Tile(x, y, tile_modifier)
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return board
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def create_robot(self, x, y, orientation, player_id, marker_id):
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new_robot = Robot(x, y, orientation, marker_id, self.board)
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self.robots[player_id] = new_robot
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return new_robot
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def handle_push(self, direction, pushed_robot, forward=True, pushing_robot=None):
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cmd_list = []
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# push robot out of the way
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if pushed_robot.orientation == direction:
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if forward:
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# the pushed robot can just drive forward
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cmd_list += self.handle_single_action('forward', pushed_robot)
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else:
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# the pushed robot can just drive backward
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cmd_list += self.handle_single_action('backward', pushed_robot)
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elif pushed_robot.has_opposite_orientation(direction):
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if forward:
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# the pushed robot can drive backward
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cmd_list += self.handle_single_action('backward', pushed_robot)
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else:
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# the pushed robot drives forward
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cmd_list += self.handle_single_action('forward', pushed_robot)
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else:
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# we first have to turn the pushed robot s.t. it faces in the same orientation as the
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# pushing robot
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turn_direction = pushed_robot.get_turn_direction(direction)
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cmd_list += self.handle_single_action(turn_direction, pushed_robot)
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if forward:
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# then the pushed robot drives one step forward
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cmd_list += self.handle_single_action('forward', pushed_robot)
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else:
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# if its pushed backward it instead drives on step backward
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cmd_list += self.handle_single_action('backward', pushed_robot)
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# afterwards we turn the robot back to the original orientation
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if turn_direction == 'turn left':
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turn_back_direction = 'turn right'
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elif turn_direction == 'turn right':
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turn_back_direction = 'turn left'
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else:
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print("error: invalid turn direction")
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sys.exit(1)
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cmd_list += self.handle_single_action(turn_back_direction, pushed_robot)
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if pushing_robot is not None:
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# now the tile should be empty so the pushing robot can move into the tile
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if forward:
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cmd_list.append(pushing_robot.move('forward'))
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else:
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cmd_list.append(pushing_robot.move('backward'))
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return cmd_list
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def handle_single_action(self, action, robot):
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cmd_list = []
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if 'forward' in action: # driving forward
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if "x2" in action:
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move_count = 2
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elif "x3" in action:
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move_count = 3
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else:
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move_count = 1
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accessed_tiles = robot.get_accessed_tiles(move_count)
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for tile in accessed_tiles:
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if tile is None:
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# this case should not happen
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print("error: unknown state occured")
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sys.exit(1)
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elif tile.is_empty():
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# if the tile is empty we can just move there
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cmd_list.append(robot.move('forward'))
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elif tile.modifier == '#': # robot hits a wall -> stop the robot
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cmd_list.append(robot.nop())
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return cmd_list
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elif any([(tile.x, tile.y) == (r.x, r.y) for r in
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self.robots.values()]): # robots hits a tile occupied by another robot
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pushed_robot = next(filter(lambda r: (tile.x, tile.y) == (r.x, r.y), self.robots.values()))
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if pushed_robot.is_pushable(robot.orientation): # check if robot is pushable in the given direction
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cmd_list += self.handle_push(direction=robot.orientation, pushed_robot=pushed_robot, forward=True, pushing_robot=robot)
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else:
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cmd_list.append(robot.nop())
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return cmd_list
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else:
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# this case should not happen
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print("error: unknown state occured")
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sys.exit(1)
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elif action == 'backward':
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# basically do the same as with forward
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accessed_tiles = robot.get_accessed_tiles(1, forward=False)
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for tile in accessed_tiles:
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if tile is None:
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# this case should not happen
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print("error: unknown state occured")
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sys.exit(1)
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elif tile.is_empty():
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# if the tile is empty we can just move there
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cmd_list.append(robot.move('backward'))
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elif tile.modifier == '#': # robot hits a wall -> stop the robot
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cmd_list.append(robot.nop())
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return cmd_list
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elif any([(tile.x, tile.y) == (r.x, r.y) for r in
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self.robots.values()]): # robots hits a tile occupied by another robot
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pushed_robot = next(filter(lambda r: (tile.x, tile.y) == (r.x, r.y), self.robots.values()))
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if pushed_robot.is_pushable(Robot.opposites[robot.orientation]): # check if robot is pushable in the given direction
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cmd_list += self.handle_push(direction=robot.orientation, pushed_robot=pushed_robot, forward=False, pushing_robot=robot)
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else:
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cmd_list.append(robot.nop())
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return cmd_list
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else:
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# this case should not happen
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print("error: unknown state occured")
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sys.exit(1)
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else: # this means we have a turn action
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cmd_list.append(robot.turn(action))
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return cmd_list
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def handle_board_element(self, robot):
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cmd_list = []
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tile = self.board[(robot.x, robot.y)]
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if tile.modifier is None:
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return cmd_list
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elif tile.modifier in ['^', '>', 'v', '<']:
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# board element pushes the robot to next tile
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if robot.is_pushable(tile.modifier):
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cmd_list += self.handle_push(direction=tile.modifier, pushed_robot=robot, forward=True)
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else:
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cmd_list.append(robot.nop())
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elif tile.modifier == '+':
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cmd_list.append(robot.turn('turn left'))
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elif tile.modifier == '-':
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cmd_list.append(robot.turn('turn right'))
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elif tile.modifier == 'p':
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robot.take_damage(1)
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elif tile.modifier == 'r':
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|
robot.heal_damage(1)
|
|
elif tile.modifier in 'abcd':
|
|
robot.pick_up_flag(tile.modifier)
|
|
return cmd_list
|
|
|
|
def apply_actions(self, cards):
|
|
cmd_list = []
|
|
# apply the actions to the board and generate a list of movement commands
|
|
|
|
for i, phase in enumerate(cards): # process register phases
|
|
print("processing phase {}".format(i+1))
|
|
# sort actions by priority
|
|
sorted_actions = sorted(phase, key=lambda a: a[1].priority)
|
|
|
|
for a in sorted_actions:
|
|
robot_id = a[0]
|
|
robot = self.robots[robot_id]
|
|
action = a[1].action
|
|
|
|
print("robot {} action {}".format(robot, action))
|
|
|
|
cmd_list += self.handle_single_action(action, robot)
|
|
|
|
print(self)
|
|
|
|
# apply the actions caused by board elements at the end of the phase
|
|
cmd_list += self.apply_board_element_actions()
|
|
|
|
print(self)
|
|
|
|
return cmd_list
|
|
|
|
def apply_board_element_actions(self):
|
|
cmd_list = []
|
|
remaining_robots = set(self.robots.values())
|
|
processed_robots = set()
|
|
|
|
# first we compute all tiles the robots would enter as a result of board game elements
|
|
target_tiles = {} # get target tiles for each robot
|
|
for r in remaining_robots:
|
|
tile = r.get_tile()
|
|
if tile.modifier in ['^', '>', 'v', '<']: # tile would push the robot around
|
|
direction = tile.modifier
|
|
target_tiles[r] = r.get_adjecent_tile(direction) # save tile the robot would be pushed to
|
|
|
|
# now we check if there are any conflicts
|
|
conflicting_tiles = set([x for x in target_tiles.values() if list(target_tiles.values()).count(x) > 1])
|
|
if len(conflicting_tiles) > 0: # check if any robots would be pushed to the same tile
|
|
# there is a conflict -> skip the board element execution and mark those robots as processed
|
|
conflicting_robots = set(filter(lambda r: target_tiles[r] in conflicting_tiles, target_tiles.keys()))
|
|
processed_robots = processed_robots.union(conflicting_robots)
|
|
|
|
# Now we process the board game elements for the robots which have no conflicts.
|
|
# We have to pay attention to the order of the execution in order to avoid robots pushing other robots
|
|
# during this phase.
|
|
# This is done in a loop because we don't know yet which robot goes first. For instance, it may happen that
|
|
# multiple robots are queued on a conveyor belt. Then we first have to move the robot which is furthest down the
|
|
# line, then the second one and so on
|
|
# By doing this in a loop we can automatically determine the correct order by checking for each robot if it can
|
|
# move and then processing the robot such that the next robot can move
|
|
while len(processed_robots) < len(self.robots):
|
|
# update remaining robots to process
|
|
remaining_robots = set(self.robots.values()) - processed_robots
|
|
|
|
# check which robots can be moved around
|
|
processable_robots = list(filter(lambda r: r.board_element_processable(), remaining_robots))
|
|
|
|
if len(processable_robots) > 0:
|
|
# handle the board game elements for robots that can move
|
|
for current_robot in processable_robots:
|
|
cmd_list += self.handle_board_element(current_robot)
|
|
processed_robots.add(current_robot)
|
|
else:
|
|
# this happens if there is a deadlock that cannot be resolved (e.g. caused by a cyclical conveyor belt)
|
|
break
|
|
|
|
return cmd_list
|
|
|
|
def __str__(self):
|
|
#output = '#' * (Board.x_dims + 2) + '\n'
|
|
output = ''
|
|
for y in range(Board.y_dims+2):
|
|
for x in range(Board.x_dims+2):
|
|
if any((r.x, r.y) == (x,y) for (r_id, r) in self.robots.items()):
|
|
r = next(filter(lambda r: (r[1].x,r[1].y) == (x,y), self.robots.items()))
|
|
output += str(r[0])
|
|
else:
|
|
output += str(self.board[(x, y)])
|
|
output += '\n'
|
|
#output += '#' * (Board.x_dims + 2)
|
|
for r_id, r in self.robots.items():
|
|
output += "Robot {}: {}\n".format(r_id, r.orientation)
|
|
return output
|
|
|
|
if __name__ == "__main__":
|
|
n = 5
|
|
|
|
deck = CardDeck(n=1000)
|
|
|
|
player_1_cards = deck.draw_cards(200)
|
|
#player_2_cards = deck.draw_cards(200)
|
|
#player_3_cards = deck.draw_cards(200)
|
|
#player_4_cards = deck.draw_cards(200)
|
|
|
|
#player_1_cards = random.sample(list(filter(lambda c: 'turn around' in c.action, deck.deck.values())), n)
|
|
#player_2_cards = random.sample(list(filter(lambda c: 'turn around' in c.action, deck.deck.values())), n)
|
|
#player_3_cards = random.sample(list(filter(lambda c: 'turn around' in c.action, deck.deck.values())), n)
|
|
#player_4_cards = random.sample(list(filter(lambda c: 'turn around' in c.action, deck.deck.values())), n)
|
|
|
|
cards_1 = [(0, c) for c in player_1_cards]
|
|
#cards_2 = [(1, c) for c in player_2_cards]
|
|
#cards_3 = [(2, c) for c in player_3_cards]
|
|
#cards_4 = [(3, c) for c in player_4_cards]
|
|
|
|
|
|
|
|
#chosen_cards = list(zip(cards_1, cards_2, cards_3, cards_4))
|
|
chosen_cards = list(zip(cards_1))
|
|
|
|
b = Board()
|
|
print(b)
|
|
|
|
b.apply_actions(chosen_cards)
|
|
|