class Environment:
def __init__(self, city, kilometers):
self.density = 0
self.plane = Plane()
self.city = city
self.kilometers = kilometers
def planes_density(self):
self.density = random.randint(0, 30)
radius = random.uniform(30.0, 130.0)
if self.density > 27:
if radius > 100.0:
self.crash_probability = 17 / 20 * 100
print("Crash probability: {}".format(self.crash_probability))
print("Alert!There are {0} planes within a {1:05.2f} km radius.".
format(self.density, radius))
print(
"Do you want to:\n1.stay on this route\n2.change the route (recommended)?"
)
answer = input()
if answer == 1:
plane.change_route()
def turbulations(self):
turbulations_angle = random.gauss(0, 15)
self.plane.add_angle(turbulations_angle)
if abs(self.plane.angle) > abs(self.plane.max):
self.crash_danger()
return turbulations_angle
def crash_danger(self):
print("Alert! High crash probability detected!")
print("Immediate change of the route")
self.plane.change_route()
def airport_problem(self, city):
if not random.randint(0, 10) % 10:
print(
"Alert! Landing in {} is impossible. The plane will be rerouted to the nearest airport"
.format(city))
self.plane.change_route()
def run(self):
self.plane.set_angle()
self.plane.set_kilometers(self.kilometers)
for x in Plane():
self.turbulations()
self.plane.tilt_correction()
self.plane.decrease_km()
self.airport_problem(self.city)
self.planes_density()
if self.plane.left_kilometer <= 0:
print("You've reached the destination!")
break
self.plane.set_answer()
