def day11_2(text):
# create a numpy array
picture = np.array([list(line) for line in lines(text)])
rows, columns = picture.shape
# get indices from the seat locations
seat_locations = list(zip(*np.where(picture == "L")))
# create dictionary neighbours
dict_neighbours = {c: [] for c in seat_locations}
dict_neighbours = get_neighbors_part2(locations=seat_locations,
x=rows,
y=columns,
layout=picture,
d=dict_neighbours)
final_seating_arrangement = occupation_of_seats(layout=picture,
d=dict_neighbours,
threshold=4)
unique, counts = np.unique(final_seating_arrangement, return_counts=True)
nr_occupied_seats = dict(zip(unique, counts))['#']
return nr_occupied_seats
def day7_1(text, target='shiny gold'):
"""How many colors of bags can contain the target color bag? """
rules = lines(text)
colors = []
x = [target]
while x:
s = x
x = []
for rule in rules:
if any(value in rule.split('contain')[1] for value in s):
colors.append(rule[:rule.find("bags contain")])
x.append(rule[:rule.find("bags contain")])
return len(set(colors))
def day11_1(text):
# create a numpy array
picture = np.array([list(line) for line in lines(text)])
# get indices from the seat locations
seat_locations = list(zip(*np.where(picture == "L")))
# create dictionary neigbours
dict_neighbours = {}
for s in seat_locations:
dict_neighbours[s] = list(get_neighbours(cell=s, size=picture.shape))
final_seating_arrangement = occupation_of_seats(layout=picture,
d=dict_neighbours,
threshold=3)
unique, counts = np.unique(final_seating_arrangement, return_counts=True)
nr_occupied_seats = dict(zip(unique, counts))['#']
return nr_occupied_seats
def day12_1(text):
instructions = lines(text=text)
ship_location = {"N": 0, "S": 0, "E": 0, "W": 0}
facing = "E"
degree = 90
compass = {0: "N", 90: "E", 180: "S", 270: "W"}
for instruction in instructions:
action = instruction[:1]
value = int(instruction[1:])
print(f"Action: {action} with value {value}")
if action in ("R", "L") and value > 360:
print(f"WARNING")
if action == "F":
# Action F means to move forward by the given value in the direction the ship is currently facing.
ship_location[facing] += value
elif action in ("N", "S", "E", "W"):
# Action N means to move north by the given value. etc.
ship_location[action] += value
elif action == "R":
# Action R means to turn right the given number of degrees.
degree = (degree + value) % 360
facing = compass[degree]
elif action == "L":
# Action L means to turn left the given number of degrees.
degree = degree - value
if degree < 0:
degree = 360 + degree
facing = compass[degree]
print(f"Ship location: {ship_location}")
manhattan_dist = abs(ship_location["E"] -
ship_location["W"]) + abs(ship_location["N"] -
ship_location["S"])
return manhattan_dist
def day12_2(text):
instructions = lines(text=text)
ship_location = {"N": 0, "S": 0, "E": 0, "W": 0}
waypoint_location = {
"N": 1,
"E": 10,
}
waypoint_dir = ["N", "E"]
compass = {0: "N", 90: "E", 180: "S", 270: "W"}
compass_reverse = {"N": 0, "E": 90, "S": 180, "W": 270}
for instruction in instructions:
action = instruction[:1]
value = int(instruction[1:])
print(f"Action: {action} with value {value}")
print(ship_location)
print(waypoint_location)
if action == "F":
# Action F means to move forward to the waypoint a number of times equal to the given value.
for k, v in waypoint_location.items():
ship_location[k] += (value * v)
elif action in waypoint_dir:
waypoint_location[action] += value
elif action in {"N", "E", "S", "W"} - set(waypoint_dir):
# Action N means to move the waypoint north by the given value. etc.
if action == "N":
waypoint_location["S"] -= value
elif action == "E":
waypoint_location["W"] -= value
elif action == "S":
waypoint_location["N"] -= value
elif action == "W":
waypoint_location["E"] -= value
else:
new_dir = []
values = []
if action == "R":
# Action R means to rotate the waypoint around the ship right (clockwise)
# the given number of degrees.
for w in waypoint_dir:
deg = (compass_reverse[w] + value) % 360
dir = compass[deg]
new_dir.append(dir)
values.append(waypoint_location[w])
elif action == "L":
# Action L means to rotate the waypoint around the ship left (counter-clockwise)
# the given number of degrees.
for w in waypoint_dir:
deg = compass_reverse[w] - value
if deg < 0:
deg = 360 + deg
dir = compass[deg]
new_dir.append(dir)
values.append(waypoint_location[w])
waypoint_location = dict(zip(new_dir, values))
waypoint_dir = new_dir
print(ship_location)
manhattan_dist = abs(ship_location["E"] -
ship_location["W"]) + abs(ship_location["N"] -
ship_location["S"])
return manhattan_dist