else:
if not reversion:
path.append(direction)
else:
reversion = False
x += moves[direction][0]
y += moves[direction][1]
o2.add((x, y))
if (x,y) in counts:
if len(path)+1 < counts[(x,y)]:
counts[(x,y)] = len(path)
else:
counts[(x,y)] = len(path)
i = 0
while (x + moves[direction][0], y + moves[direction][1]) in valid.union(wall, o2):
if (x + moves[direction][0], y + moves[direction][1]) in counts:
if counts[(x + moves[direction][0], y + moves[direction][1])] > (len(path)+1):
counts[(x + moves[direction][0], y + moves[direction][1])] = len(path)+1
direction = next_dir[direction]
i += 1
if i == 4:
direction = revert[path.pop()]
reversion = True
break
vm.stopped = False
vm.set_input(direction)
if (count == 2455):
break
print(counts[(16, -12)])
y = 0
facing = 0 # 0 - Up, 1 Right, 2 Down, 3 Left
while not vm.is_done():
vm.run()
colour = vm.output
area[(x, y)] = colour
vm.stopped = False
vm.run()
direction = int(vm.output)
if direction:
facing = (facing + 1) % 4
else:
facing = (facing - 1) % 4
x, y = move(x, y, facing)
if not vm.is_done():
vm.set_input(area.get((x, y), "0"))
print(len(area.keys()))
lowestx = 0
maxx = 0
maxy = 0
lowesty = 0
for set in area.keys():
if set[0] < lowestx:
lowestx = set[0]
elif set[0] > maxx:
maxx = set[0]
if set[1] < lowesty:
lowesty = set[1]
elif set[1] > maxy:
maxy = set[1]
output = [['.' for i in range(lowesty, maxy + 1)]