Esempio n. 1
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    def update(self):
        # Check if the locally cached vehicle list has gotten stale.
        if len(self.passengers) != len(common.passengers):
            self.passengers = common.passengers.values()
            self.passengers.sort()

        lines = []
        for pax in self.passengers:
            assert isinstance(pax, Passenger)
            lines.append([str(pax.ID),
                        "%.3f" % pax.time,
                        str(pax.src_station.ID),
                        str(pax.dest_station.ID),
                        str(pax.loc.ID),
                        self.type_str(pax.loc),
                        sec_to_hms(pax.wait_time),
                        sec_to_hms(pax.walk_time),
                        sec_to_hms(pax.ride_time),
                        sec_to_hms(pax.total_time),
                        str(pax.trip_success),
                        str(pax.mass),
                        str(pax.will_share),
                        str(pax.unload_delay),
                        str(pax.load_delay),
                        pax.src_station.label,
                        pax.dest_station.label,
                        pax.loc.label])
        self._lines = lines
Esempio n. 2
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    def update(self):
        if len(self.s_list) != len(common.stations):
            self.s_list = common.stations.values()
            self.s_list.sort()

        lines = []
        for s in self.s_list:
            assert isinstance(s, Station)
            berths, unload, load, unload_load, queue = 0, 0, 0, 0, 0
            for platform in s.platforms:
                for berth in platform.berths:
                    berths += 1
                    if berth.unloading and berth.loading:
                        unload_load += 1
                    elif berth.unloading:
                        unload += 1
                    elif berth.loading:
                        load += 1
                    else: # no loading or unloading capability
                        queue += 1
            pax_wait_times = s.all_pax_wait_times()
            if pax_wait_times:
                min_pax_wait = sec_to_hms(min(pax_wait_times))
                mean_pax_wait = sec_to_hms(sum(pax_wait_times)/len(pax_wait_times))
                max_pax_wait = sec_to_hms(max(pax_wait_times))
            else:
                min_pax_wait = "N/A"
                mean_pax_wait = "N/A"
                max_pax_wait = "N/A"
            lines.append(["%d" % s.ID,
                         s.label,
                         "%d" % len(s.platforms),
                         "%d" % berths,
                         "%d" % unload,
                         "%d" % load,
                         "%d" % unload_load,
                         "%d" % queue,
                         "%d" % len(s._passengers),
                         "%d" % sum(1 for pax in s._all_passengers if pax.src_station is s),
                         "%d" % s._pax_arrivals_count,
                         "%d" % s._pax_departures_count,
                         min_pax_wait,
                         mean_pax_wait,
                         max_pax_wait,
                         "inc", # TODO: Vehicle-related stats
                         "inc",
                         "inc",
                         "inc"])
        self._lines = lines
Esempio n. 3
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 def _get_unload_delay_text(self):
     return sec_to_hms(self.item.unload_delay)
Esempio n. 4
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 def _get_total_time_text(self):
     return sec_to_hms(self.item.total_time)
Esempio n. 5
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 def _get_walk_time_text(self):
     return sec_to_hms(self.item.walk_time)
Esempio n. 6
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 def _get_ride_time_text(self):
     return sec_to_hms(self.item.ride_time)
Esempio n. 7
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    def update(self, pax_report, vehicle_report, station_report, power_report):
        """Returns a list of strings containing summary info."""
        assert isinstance(pax_report, PaxReport)
        assert isinstance(vehicle_report, VehicleReport)
        assert isinstance(station_report, StationReport)
        assert isinstance(power_report, PowerReport)

        KM_TO_MILES = 0.621371192
        lines = []

        lines.append("Minutes Simulated:\t %.1f" % (Sim.now()/60.))
        lines.append("")

        # Passenger summary statistics
        if common.passengers: # some passengers were simulated
            pax_list = common.passengers.values()

            success_rate = sum(1 for p in pax_list if p.trip_success)/len(pax_list) * 100
            lines.append("Passenger Statistics")
            lines.append("Number of Passengers:  %d" % len(pax_list))

            min_t, max_t, sum_t = 0, 0, 0
            for p in pax_list:
                t = p.wait_time
                if t < min_t:
                    min_t = t
                if t > max_t:
                    max_t = t
                sum_t += t
            lines.append("Wait times (Min/Mean/Max):\t%s\t%s\t%s" % \
                           (sec_to_hms(min_t),
                            sec_to_hms(sum_t/len(pax_list)),
                            sec_to_hms(max_t)))

            min_t, max_t, sum_t = 0, 0, 0
            for p in pax_list:
                t = p.walk_time
                if t < min_t:
                    min_t = t
                if t > max_t:
                    max_t = t
                sum_t += t
            lines.append("Walk times (Min/Mean/Max):\t%s\t%s\t%s" % \
                           (sec_to_hms(min_t),
                            sec_to_hms(sum_t/len(pax_list)),
                            sec_to_hms(max_t)))

            min_t, max_t, sum_t = 0, 0, 0
            for p in pax_list:
                t = p.ride_time
                if t < min_t:
                    min_t = t
                if t > max_t:
                    max_t = t
                sum_t += t
            lines.append("Ride times (Min/Mean/Max):\t%s\t%s\t%s" % \
                           (sec_to_hms(min_t),
                            sec_to_hms(sum_t/len(pax_list)),
                            sec_to_hms(max_t)))

            min_t, max_t, sum_t = 0, 0, 0
            for p in pax_list:
                t = p.total_time
                if t < min_t:
                    min_t = t
                if t > max_t:
                    max_t = t
                sum_t += t
            lines.append("Total times (Min/Mean/Max):\t%s\t%s\t%s" % \
                           (sec_to_hms(min_t),
                            sec_to_hms(sum_t/len(pax_list)),
                            sec_to_hms(max_t)))
            lines.append("%% Trip success:\t%5d" % success_rate)
            lines.append("")

        else:
            lines.append("No passengers simulated.")
            lines.append("")

        # Vehicle summary statistics
        distances = [v.get_dist_travelled() for v in common.vehicle_list]
        operational_times = [v.get_operational_time() for v in common.vehicle_list]
        nonempty_distances = [v.get_nonempty_dist() for v in common.vehicle_list]
        nonempty_times = [v.get_nonempty_time() for v in common.vehicle_list]
        pax_distances = [v.get_pax_dist() for v in common.vehicle_list]
        pax_counts = [v.total_pax for v in common.vehicle_list]

        total_dist = sum(distances)
        total_km = total_dist/1000.
        total_miles = total_km * KM_TO_MILES
        total_nonempty_dist = sum(nonempty_distances)
        total_nonempty_km = total_nonempty_dist/1000.
        total_nonempty_miles = total_nonempty_km * KM_TO_MILES
        total_pax_dist = sum(pax_distances)
        total_pax_km = total_pax_dist/1000.
        total_pax_miles = total_pax_km * KM_TO_MILES
        total_time = sum(operational_times) # seconds
        total_time_hours = total_time/3600.
        total_nonempty_time = sum(nonempty_times) # seconds
        total_nonempty_time_hours = total_nonempty_time/3600.

        mean_km = total_km/len(common.vehicle_list)
        mean_miles = mean_km * KM_TO_MILES
        max_km = max(distances)/1000.
        max_miles = max_km * KM_TO_MILES
        min_km = min(distances)/1000.
        min_miles = min_km * KM_TO_MILES

        try:
            mean_vel_kph = total_km/total_time_hours
            mean_vel_mph = total_miles/total_time_hours
        except ZeroDivisionError:
            mean_vel_kph = 0
            mean_vel_mph = 0

        try:
            mean_pax_vel_kph = total_nonempty_km/total_nonempty_time_hours
            mean_pax_vel_mph = total_nonempty_miles/total_nonempty_time_hours
        except ZeroDivisionError:
            mean_pax_vel_kph = 0
            mean_pax_vel_mph = 0

        total_pax = sum(pax_counts)
        min_pax = min(pax_counts)
        mean_pax = total_pax/len(common.vehicle_list)
        max_pax = max(pax_counts)

        lines.append("Vehicle statistics")
        lines.append("Number of Vehicles:\t%d" % len(common.vehicle_list))
        lines.append("Total vehicle km travelled:\t%10.3f\t(%.3f miles)" % (total_km, total_miles))
        lines.append("Vehicle km travelled (Min/Mean/Max):\t%9.3f\t%9.3f\t%9.3f" % (min_km, mean_km, max_km))
        lines.append("Vehicle miles travelled (Min/Mean/Max):\t%9.3f\t%9.3f\t%9.3f" % (min_miles, mean_miles, max_miles))
        lines.append("Mean velocity:\t%10d km/hr\t(%d mph)" % (mean_vel_kph, mean_vel_mph))
        lines.append("Mean velocity w/ passengers:\t%10d km/hr\t(%d mph)" % (mean_pax_vel_kph, mean_pax_vel_mph))
        lines.append("Total passengers carried:\t%10d" % total_pax)
        lines.append("Pax carried per vehicle (Min/Mean/Max):\t%9d\t%9.3f\t%9d" % (min_pax, mean_pax, max_pax))
        lines.append("Passenger km travelled: %.1f\t(%.1f miles)" % (total_pax_km, total_pax_miles))
        lines.append("")

        # Station summary statistics
        lines.append("Station statistics")
        lines.append("Number of stations:\t%d" % len(common.station_list))
        lines.append("")

        # Power summary statistics
        try:
            lines.append("Power statistics")
            total_energy = power_report.plot_data.get_data('total_energy').get_data()[-1]
            lines.append("Total Energy:\t%.1f KW-hrs" % total_energy)
            lines.append("Energy/Distance:\t%.1f Watt-hrs/km\t (%.1f Watt-hrs/mile)" \
                         % ((total_energy*1000.)/total_km, (total_energy*1000.)/total_miles))
        except (IndexError, ZeroDivisionError):
            pass

        self._lines = lines
        self._text = self.LINE_DELIMETER.join(self._lines)
Esempio n. 8
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 def _get_max_all_pax_wait_text(self):
     return sec_to_hms(self.item.max_all_pax_wait)
Esempio n. 9
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 def _get_mean_curr_pax_wait_text(self):
     return sec_to_hms(self.item.mean_curr_pax_wait)
Esempio n. 10
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    def station_selection_handler(self, object, name, new):
        """This handler method will get called every time the metadata of the
        datasourcse get updated.  We'll just dump out the
        contents of that metadata to screen.  In this case, it is the index
        of the point directly under the mouse, and the index of the last
        point the mouse clicked on (indicated by "selection").
        name is 'metadata changed'
        new is 'True'
        """
        metadata = object.metadata
        selected = []
        if "hover" in metadata:  # and not self.data_label_index:
            #            print "Hover:", metadata["hover"][0]
            select = metadata['hover'][0]
            point = (self.plot_data.get_data('stat_x')[select],
                     self.plot_data.get_data('stat_y')[select])
            #            print "Point:", point
            stat = common.station_list[select]
            stat_name = stat.label
            num_pax = len(stat._passengers)
            now = SimPy.now()
            wait_times = [pax.wait_time for pax in stat._passengers]
            if wait_times:
                max_wait = utility.sec_to_hms(max(wait_times))
                avg_wait = utility.sec_to_hms(
                    sum(wait_times) / len(wait_times))
            else:
                max_wait = utility.sec_to_hms(0)
                avg_wait = utility.sec_to_hms(0)


#            print "stuff", stat_name, num_pax, max_wait, avg_wait
            self._stat_label = chaco.DataLabel(component=self.plot,
                                               data_point=point,
                                               lines=[
                                                   '%s' % stat_name,
                                                   'sID: %d' % stat.ID,
                                                   'PAX Waiting: %d' % num_pax,
                                                   'max wait: %s' % max_wait,
                                                   'avg wait: %s' % avg_wait
                                               ])
            self.plot.overlays.append(self._stat_label)

        # Ahh, the hackery work of a hack. Suck.
        # An explanation: It seems like the metadata is being updated twice,
        # but only on the first time the mouse hovers over any station. Rather
        # than trying to figure out what's up, I'm just deleting all DataLabels
        # whenever the mouse moves. Better long term soln is probably to write
        # my own version of a scatter_inspector that handles the DataLabels
        # internally.
        else:
            to_delete = []
            for idx, overlay in enumerate(self.plot.overlays):
                if isinstance(overlay, chaco.DataLabel):
                    to_delete.append(idx)
            for x in reversed(to_delete):
                del self.plot.overlays[x]

        if "selections" in metadata:
            #            print metadata["selections"]
            try:
                for select in metadata["selections"]:
                    stat = common.station_list[select]
                    stat.edit_traits()
                del metadata["selections"]  # clear the selection list
            except IndexError:
                pass