""" Created on 17 oct. 2018 @author: Axel Huynh-Phuc, Thibaud Gasser """ """ This module defines the business model of our application """ import collections from traci._trafficlight import Logic as SUMO_Logic from typing import Tuple, Set from shapely.geometry import Point, LineString from shapely.geometry import Polygon from shapely.geometry.base import BaseGeometry class Lane: """ The Lane class includes the polygon defining the lane and keep in memory the initial maximum speed on the lane """ def __init__(self, lane_id: str, polygon: LineString, initial_max_speed: float): """ Lane constructor :param lane_id: The ID of the lane :param polygon: The polygon defining the shape of the lane :param initial_max_speed: The initial maximum speed """ self.polygon = polygon self.lane_id = lane_id self.initial_max_speed = initial_max_speed def __hash__(self): """Overrides the default implementation""" return hash(self.lane_id) class Phase: """ The Phase class defines a phase of a traffic light """ def __init__(self, duration: float, minDuration: float, maxDuration: float, phaseDef: str): """ Phase constructor :param duration: The duration of the phase (in seconds) :param minDuration: The minimum duration of the phase :param maxDuration: The maximum duration of the phase :param phaseDef: The definition of the phase, following the definition rules of SUMO (See : http://sumo.dlr.de/wiki/Simulation/Traffic_Lights#.3Cphase.3E_Attributes) """ self.duration = duration self.minDuration = minDuration self.maxDuration = maxDuration self.phaseDef = phaseDef def __repr__(self) -> str: """ :return: The Phase string representation """ repr = f'Phase(duration:{self.duration},minDuration:{self.minDuration},maxDuration:{self.maxDuration},phaseDef:{self.phaseDef})' return str(repr) class Logic: """ The Logic class defines the strategy of a traffic light. This class includes the Logic instance of SUMO with all phases corresponding to it. A Logic object contains multiple phases. """ def __init__(self, logic: SUMO_Logic, phases: Set[Phase]): """ Logic constructor :param logic: The SUMO Logic object :param phases: The list of phases belonging to this logic """ self._logic = logic self._phases: Set[Phase] = phases class TrafficLight: """ This TrafficLight class defines a traffic light """ def __init__(self, tl_id: str, logics: Set[Logic]): """ TrafficLight constructor :param tl_id: The traffic light ID :param logics: The list of logics belonging to the traffic light """ self.tl_id = tl_id self._logics: Set[Logic] = logics def __hash__(self): """Overrides the default implementation""" return hash(self.tl_id) class Emission: """ This class defines the different pollutant emissions """ def __init__(self, co2=0, co=0, nox=0, hc=0, pmx=0): """ Emission constructor :param co2: Quantity of CO2(in mg) :param co: Quantity of C0(in mg) :param nox: Quantity of Nox(in mg) :param hc: Quantity of HC(in mg) :param pmx: Quantity of PMx(in mg) """ self.co2 = co2 self.co = co self.nox = nox self.hc = hc self.pmx = pmx def __add__(self, other): """ Add two emission objects :param other: The other Emission object to add :return: A new object whose emission values ​​are the sum of both Emission object """ return Emission(self.co2 + other.co2, self.co + other.co, self.nox + other.nox, self.hc + other.hc, self.pmx + other.pmx) def value(self): """ :return: The sum of all emissions """ return self.co2 + self.co + self.nox + self.hc + self.pmx def __repr__(self) -> str: """ :return: The Emission string representation """ repr = f'Emission(co2={self.co2},co={self.co},nox={self.nox},hc={self.hc},pmx={self.pmx})' return str(repr) class Area: """ The Area class defines a grid area of the simulation map """ def __init__(self, coords, name): """ Area constructor :param coords: The coordinates of the zone, defined by the bounds coordinates of this area : (xmin, ymin, xmax, ymax) :param name: The Area name """ self.limited_speed = False self.locked = False self.tls_adjusted = False self.weight_adjusted = False self.rectangle = Polygon(coords) self.name = name self.emissions_by_step = [] self._lanes: Set[Lane] = set() self._tls: Set[TrafficLight] = set() def set_window_size(self, window_size): self.window = collections.deque(maxlen=window_size) def __eq__(self, other): """ Overrides the equal definition :param other: The other Area object :return: True if the two rectangles are equals """ return self.rectangle.__eq__(other) def __contains__(self, item): """ :param item: A position on the map :return: True if the area contains the item """ return self.rectangle.contains(item) @property def bounds(self): """ Return the bounds rectangle of this area :return: """ return self.rectangle.bounds def intersects(self, other: BaseGeometry) -> bool: """ :param other: A BaseGeometry object :return: True if this area intersects with other """ return self.rectangle.intersects(other) def add_lane(self, lane: Lane): """ Add a new lane object into lanes list :param lane: A Lane object :return: """ self._lanes.add(lane) def add_tl(self, tl: TrafficLight): """ Add a new trafficLight object into lanes list :param tl: A TrafficLight object :return: """ self._tls.add(tl) def remove_lane(self, lane: Lane): """ Remove a lane from lanes list :param lane: The Lane object to remove :return: """ self._lanes.remove(lane) def sum_all_emissions(self): """ Sum all Emissions object from initial step to final step :return: The sum Emission object """ sum = Emission() for emission in self.emissions_by_step: sum += emission return sum def sum_emissions_into_window(self, current_step): """ Sum all Emissions object into the acquisition window :param current_step: The current step of the simulation :return: """ self.window.appendleft(self.emissions_by_step[current_step].value()) sum = 0 for i in range(self.window.__len__()): sum += self.window[i] return sum @classmethod def from_bounds(cls, xmin, ymin, xmax, ymax): return cls(( (xmin, ymin), (xmin, ymax), (xmax, ymax), (xmax, ymin))) class Vehicle: """ The Vehicle class defines a vehicle object """ def __init__(self, veh_id: int, pos: Tuple[float, float]): """ Vehicle constructor :param veh_id: The vehicle ID :param pos: The position of the vehicle one the map """ self.emissions: Emission = Emission() self.veh_id = veh_id self.pos = Point(pos) def __repr__(self) -> str: """ :return: The Vehicle string representation """ return str(self.__dict__)