def discover(self, x, y):
for direction in range(1, 5):
dx, dy = self.directions[direction]
new_x = x + dx
new_y = y + dy
# if position is already discovered continue
if (new_x, new_y) in self.map:
continue
self.inputs.append(direction)
self.numbers, out = Intcode.compute_result(self.numbers, self)
self.map[(new_x, new_y)] = out
# if we discover a wall we should undo the move
if out == 1:
self.discover(new_x, new_y)
self.inputs.append(self.undo_moves[direction])
self.numbers, out = Intcode.compute_result(self.numbers, self)
elif out == 1:
self.inputs.append(self.undo_moves[direction])
self.numbers, out = Intcode.compute_result(self.numbers, self)
#split into numbers
numbers = lines[0].split(',')
#convert to int
numbers = [int(i) for i in numbers]
#extend list
numbers.extend([0] * EXTEND)
#compute result part 1
tractor_beam = TractorBeam()
for i in range(MAX_PART1):
for j in range(MAX_PART1):
numbers_copy = tractor_beam.compute_input(numbers, i, j)
if Intcode.compute_result(numbers_copy, tractor_beam) == 1:
tractor_beam.part1 += 1
print("\nPart1: " + str(tractor_beam.part1))
#compute result part 2
y = 99
x = 0
# loop until you can make a square 100x100 full of 1
while True:
numbers_copy = tractor_beam.compute_input(numbers, x, y)
#Step1: find a line with 100 "pulled by something" responses
while Intcode.compute_result(numbers_copy, tractor_beam) == 0:
x += 1
numbers_copy = tractor_beam.compute_input(numbers, x, y)
#Step2: check if you cand make a square. check if above corner contain 1
x2 = x + 99
print(message[i * SIZE_COL + j], end='')
print('')
if __name__ == "__main__":
with open("input", 'r') as input:
lines = input.read().splitlines()
#split into numbers
numbers = lines[0].split(',')
#convert to int
numbers = [int(i) for i in numbers]
#extend list
numbers.extend([0] * EXTEND)
numbers_part2 = numbers[:]
# part 1
robo = Robot()
#compute result
robo = Intcode.compute_result(numbers, robo, 0)
print("\n Part 1: " + str(len(robo.painted)))
# part 2
robo = Robot()
#compute result
robo = Intcode.compute_result(numbers_part2, robo, 1)
print(" Part 2: " + str(len(robo.painted)))
robo.part2()
if __name__ == "__main__":
with open("input", 'r') as input:
lines = input.read().splitlines()
#split into numbers
numbers = lines[0].split(',')
#convert to int
numbers = [int(i) for i in numbers]
#extend list
numbers.extend([0] * EXTEND)
#make a copy for part2
numbers_part2 = numbers[:]
#compute part1
output = Intcode.compute_result(numbers, None)
lines, cols = print_path(output)
matrix = compute_matrix(output, lines, cols)
intersections = find_intersections(matrix, lines, cols)
part1 = compute_part1(intersections)
print("\nPart1: " + str(part1) + "\n")
#compute part2
numbers_part2[0] = 2
input_list = compute_input_part2()
output = Intcode.compute_result(numbers_part2, input_list)
lines, cols = print_path(output)
# day 13
import Intcode
EXTEND = 1000
if __name__ == "__main__":
with open("input", 'r') as input:
lines = input.read().splitlines()
#split into numbers
numbers = lines[0].split(',')
#convert to int
numbers = [int(i) for i in numbers]
#extend list
numbers.extend([0] * EXTEND)
#make a copy for part2
numbers_part2 = numbers[:]
#compute result part 1
part1, _ = Intcode.compute_result(numbers)
print("\nPart1: " + str(part1))
#compute result part 2
numbers_part2[0] = 2
_, part2 = Intcode.compute_result(numbers_part2)
print("Part2: " + str(part2) + "\n")