def paint(start_color):
p = (0, 0)
d = UP
grid = {}
ic = Intcode(input_ints)
while True:
color = grid.get(p, 0) if grid else start_color
ic.add_input(color)
outputs = list(ic.run_safe())
if not outputs:
break
color, turn = outputs
grid[p] = color
d = turn_dir(d, turn)
p = move_point(p, d)
return grid
class Robot:
def __init__(self):
self.ic = Intcode(input_ints)
self.grid = {}
self.pos = (0, 0)
self.moves = []
def next_pos(self, move):
dx, dy = VECTORS[move]
return self.pos[0] + dx, +self.pos[1] + dy
def move(self, move):
next_pos = self.next_pos(move)
self.ic.add_input(move)
output = list(self.ic.run_safe())[0]
if output not in VALID_OUTPUT:
raise Exception(f"invalid output {output}")
self.grid[next_pos] = output
if output == WALL:
return None
self.pos = next_pos
return self.pos
def new_move(self):
for move in [NORTH, SOUTH, EAST, WEST]:
next_pos = self.next_pos(move)
if next_pos in self.grid:
continue
pos = self.move(move)
if pos:
return move
return None
def map_grid(self):
move = self.new_move()
if not move:
raise Exception("first move failed")
self.moves.append(move)
while self.moves:
move = self.new_move()
if move:
self.moves.append(move)
else:
self.move(INVERSE[self.moves.pop()])
def run(automatic=False):
input_ints[0] = 2
ic = Intcode(input_ints)
tiles = {}
s1 = None
run_step(ic, tiles, draw=True)
s2 = get_state(tiles)
while True:
i = get_auto_input(s1, s2) if automatic else get_key_input()
ic.add_input(i)
s1 = s2
run_step(ic, tiles, draw=True)
s2 = get_state(tiles)
if s2[BALL][1] > s2[PADDLE][1]:
print("GAME OVER!")
break
if BLOCK not in tiles.values():
print("WIN!")
break
