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PiratmacPiratmac
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Added days 2019-11, 2019-12 and 2019-13
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‎2019/11-Space Police.py‎

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# -------------------------------- Input data ---------------------------------------- #
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import os, pathfinding, IntCode
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from complex_utils import *
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test_data = {}
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test = 1
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test_data[test] = {
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"input": """""",
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"expected": ["Unknown", "Unknown"],
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}
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test = "real"
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input_file = os.path.join(
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os.path.dirname(__file__),
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"Inputs",
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os.path.basename(__file__).replace(".py", ".txt"),
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)
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test_data[test] = {
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"input": open(input_file, "r+").read().strip(),
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"expected": ["1934", "RKURGKGK"],
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}
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# -------------------------------- Control program execution ------------------------- #
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case_to_test = "real"
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part_to_test = 2
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# -------------------------------- Initialize some variables ------------------------- #
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puzzle_input = test_data[case_to_test]["input"]
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puzzle_expected_result = test_data[case_to_test]["expected"][part_to_test - 1]
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puzzle_actual_result = "Unknown"
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# -------------------------------- Actual code execution ----------------------------- #
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position = 0
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direction = north
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if part_to_test == 1:
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panels = {0: 0}
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else:
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panels = {0: 1}
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computer = IntCode.IntCode(puzzle_input)
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while computer.state != "Stopped":
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if position in panels:
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computer.add_input(panels[position])
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else:
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computer.add_input(0)
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computer.restart()
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computer.run()
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color, dir = computer.outputs[-2:]
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panels[position] = color
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direction *= (
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relative_directions["left"] if dir == 0 else relative_directions["right"]
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)
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position += direction
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if part_to_test == 1:
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puzzle_actual_result = len(panels)
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else:
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grid = pathfinding.Graph()
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grid.vertices = {x: "X" if panels[x] == 1 else " " for x in panels}
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puzzle_actual_result = "\n" + grid.vertices_to_grid(wall=" ")
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# -------------------------------- Outputs / results --------------------------------- #
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print("Expected result : " + str(puzzle_expected_result))
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print("Actual result : " + str(puzzle_actual_result))

‎2019/12-The N-Body Problem.py‎

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# -------------------------------- Input data ---------------------------------------- #
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import os, pathfinding, re, math, copy
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from complex_utils import *
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test_data = {}
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test = 1
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test_data[test] = {
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"input": """<x=-1, y=0, z=2>
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<x=2, y=-10, z=-7>
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<x=4, y=-8, z=8>
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<x=3, y=5, z=-1>""",
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"expected": ["179 after 10 steps", "2772"],
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}
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test = "real"
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input_file = os.path.join(
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os.path.dirname(__file__),
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"Inputs",
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os.path.basename(__file__).replace(".py", ".txt"),
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)
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test_data[test] = {
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"input": open(input_file, "r+").read().strip(),
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"expected": ["12773", "306798770391636"],
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}
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# -------------------------------- Control program execution ------------------------- #
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case_to_test = "real"
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part_to_test = 2
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# -------------------------------- Initialize some variables ------------------------- #
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puzzle_input = test_data[case_to_test]["input"]
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puzzle_expected_result = test_data[case_to_test]["expected"][part_to_test - 1]
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puzzle_actual_result = "Unknown"
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# -------------------------------- Actual code execution ----------------------------- #
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stars = []
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for string in puzzle_input.split("\n"):
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x, y, z = map(int, re.findall("[-0-9]{1,}", string))
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stars.append([x, y, z, 0, 0, 0])
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if part_to_test == 1:
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for step in range(1000):
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for star_id in range(len(stars)):
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for coord in range(3):
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stars[star_id][3 + coord] += sum(
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[1 for other in stars if stars[star_id][coord] < other[coord]]
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)
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stars[star_id][3 + coord] += sum(
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[-1 for other in stars if stars[star_id][coord] > other[coord]]
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)
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for star_id in range(len(stars)):
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for coord in range(3):
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stars[star_id][coord] += stars[star_id][3 + coord]
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energy = sum(
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[
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(abs(x) + abs(y) + abs(z)) * (abs(dx) + abs(dy) + abs(dz))
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for (x, y, z, dx, dy, dz) in stars
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]
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)
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puzzle_actual_result = energy
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else:
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# 1st trick: For this part, do the computation on each axis independently (since they're independent)
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# 2nd trick: the function state => next state is invertible, so any repetition will go through the initial state (we can't have 3>0>1>0>1>0>1, it has to be something like 3>0>1>3>0>1)
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repeats = []
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for coord in range(3):
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step = -1
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repeat = 0
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stars_pos_vel = [
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[stars[star_id][coord], stars[star_id][coord + 3]]
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for star_id in range(len(stars))
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]
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init_stars_pos_vel = [
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[stars[star_id][coord], stars[star_id][coord + 3]]
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for star_id in range(len(stars))
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]
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while repeat == 0: # and step < 20:
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step += 1
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for star_id in range(len(stars)):
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stars_pos_vel[star_id][1] += sum(
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[
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1
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for other in stars_pos_vel
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if stars_pos_vel[star_id][0] < other[0]
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]
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)
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stars_pos_vel[star_id][1] -= sum(
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[
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1
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for other in stars_pos_vel
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if stars_pos_vel[star_id][0] > other[0]
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]
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)
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for star_id in range(len(stars)):
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stars_pos_vel[star_id][0] += stars_pos_vel[star_id][1]
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if stars_pos_vel == init_stars_pos_vel:
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repeat = step + 1
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repeats.append(repeat)
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lcm = repeats[0]
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for val in repeats:
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lcm = lcm * val // math.gcd(lcm, val)
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puzzle_actual_result = lcm
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# -------------------------------- Outputs / results --------------------------------- #
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print("Expected result : " + str(puzzle_expected_result))
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print("Actual result : " + str(puzzle_actual_result))

‎2019/13-Care Package.py‎

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# -------------------------------- Input data ---------------------------------------- #
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import os, pathfinding, IntCode
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from complex_utils import *
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test_data = {}
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test = 1
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test_data[test] = {
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"input": """""",
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"expected": ["Unknown", "Unknown"],
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}
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test = "real"
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input_file = os.path.join(
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os.path.dirname(__file__),
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"Inputs",
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os.path.basename(__file__).replace(".py", ".txt"),
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)
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test_data[test] = {
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"input": open(input_file, "r+").read().strip(),
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"expected": ["462", "23981"],
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}
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# -------------------------------- Control program execution ------------------------- #
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case_to_test = "real"
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part_to_test = 2
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verbose_level = 1
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# -------------------------------- Initialize some variables ------------------------- #
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puzzle_input = test_data[case_to_test]["input"]
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puzzle_expected_result = test_data[case_to_test]["expected"][part_to_test - 1]
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puzzle_actual_result = "Unknown"
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# -------------------------------- Actual code execution ----------------------------- #
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tiles = {0: " ", 1: "#", 2: "ø", 3: "_", 4: "o"}
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grid = pathfinding.Graph()
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computer = IntCode.IntCode(puzzle_input)
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if part_to_test == 1:
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computer.run()
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grid.vertices = {}
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for i in range(len(computer.outputs) // 3):
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position = SuperComplex(
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computer.outputs[i * 3] - j * computer.outputs[i * 3 + 1]
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)
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grid.vertices[position] = tiles[computer.outputs[i * 3 + 2]]
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puzzle_actual_result = sum([1 for val in grid.vertices.values() if val == "ø"])
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else:
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computer.instructions[0] = 2
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blocks_left = 1
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score = 0
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vertices = {}
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while blocks_left > 0 and computer.state != "Failure":
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computer.run()
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# Check if we can still play
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blocks_left = 0
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ball_position = 0
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paddle_position = 0
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for i in range(len(computer.outputs) // 3):
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vertices[
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computer.outputs[i * 3] - j * computer.outputs[i * 3 + 1]
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] = computer.outputs[i * 3 + 2]
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# The ball has not fallen
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if computer.outputs[i * 3 + 2] == 4:
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ball_position = (
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computer.outputs[i * 3] - j * computer.outputs[i * 3 + 1]
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)
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if ball_position.imag < -21:
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print("Failed")
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computer.state = "Failure"
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break
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# Check the score
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elif computer.outputs[i * 3] == -1 and computer.outputs[i * 3 + 1] == 0:
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score = computer.outputs[i * 3 + 2]
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# Store the paddle position
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elif computer.outputs[i * 3 + 2] == 3:
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paddle_position = (
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computer.outputs[i * 3] - j * computer.outputs[i * 3 + 1]
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)
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# There are still blocks to break
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blocks_left = len([x for x in vertices if vertices[x] == 2])
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# Move paddle
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if paddle_position.real < ball_position.real:
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joystick = 1
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elif paddle_position.real > ball_position.real:
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joystick = -1
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else:
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joystick = 0
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computer.add_input(joystick)
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if verbose_level >= 2:
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print(
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"Movements",
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len(computer.all_inputs),
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" - Score",
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score,
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" - Blocks left",
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blocks_left,
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" - Ball",
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ball_position,
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" - Paddle",
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paddle_position,
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" - Direction",
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joystick,
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)
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# 'Restart' the computer to process the input
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computer.restart()
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# Outputs the grid (just for fun)
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grid.vertices = {x: tiles.get(vertices[x], vertices[x]) for x in vertices}
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print(grid.vertices_to_grid())
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puzzle_actual_result = score
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# -------------------------------- Outputs / results --------------------------------- #
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print("Expected result : " + str(puzzle_expected_result))
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print("Actual result : " + str(puzzle_actual_result))

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