def PlaceBusinesses():
global world
pweights = WeightedChoice()
profiles = {}
for profname, profile in world.IterNodes(nodetype='BusinessProfile'):
pweights.AddChoice(profname, ProfileWeights.get(profname, 2))
profiles[profname] = profile
# add some factories
factory = profiles['large-factory']
for i in range(8):
name = GenName('large-factory')
business = world.AddBusiness(name, ScaleProfile(factory))
location = PlaceBusiness(business)
if not location:
world.DropNode(business)
break
# add some factories
school = profiles['high-school']
for i in range(2):
name = GenName('high-school')
business = world.AddBusiness(name, ScaleProfile(school))
location = PlaceBusiness(business)
if not location:
world.DropNode(business)
break
# add some large services
service = profiles['large-service']
for i in range(2):
name = GenName('large-service')
business = world.AddBusiness(name, ScaleProfile(service))
location = PlaceBusiness(business)
if not location:
world.DropNode(business)
break
# and fill in with more random businesses
while len(profiles) > 0:
# this is a uniform distribution of businesses from the options
# pname = random.choice(profiles.keys())
pname = pweights.Choose()
profile = profiles[pname]
name = GenName(pname)
business = world.AddBusiness(name, ScaleProfile(profile))
location = PlaceBusiness(business)
# if we could not place the business, then all locations
# have fitness of 0... so don't try again
if not location:
world.DropNode(business)
del profiles[pname]
pweights.DropChoice(pname)
def __init__(self, srcplace, dstplace, estimator=None, te_id=None):
self.SrcPlace = srcplace
self.DstPlace = dstplace
self.Duration = estimator.ComputeTravelTime(
srcplace.Details,
dstplace.Details) if estimator else self.DefaultDuration
self.EventID = te_id or GenName('TRAVEL')
def PlacePeople():
global world
profile = world.FindNodeByName('worker')
bizlist = {}
for name, biz in world.IterNodes(nodetype='Business'):
bizlist[name] = biz
people = 0
for name, biz in bizlist.iteritems():
bprof = biz.EmploymentProfile
for job, demand in bprof.JobList.iteritems():
for p in range(0, demand):
people += 1
name = GenName(wprof.Name)
person = world.AddPerson(name, wprof)
world.SetEmployer(person, biz)
SocialNodes.Person.SetJob(person, job)
SocialNodes.Person.SetVehicle(
person, wprof.VehicleType.PickVehicleType())
SetRulePreferences(person)
location = PlacePerson(person)
if not location:
logger.warn('ran out of residences after %d people',
people)
return
logger.info('created %d people', people)
def SetVehicle(person, vehicletype) :
"""
Args:
person -- object of type Person
job -- object of type SocialDecoration.JobDescription
"""
name = GenName('veh' + vehicletype)
person.AddDecoration(SocialDecoration.VehicleDecoration(name, vehicletype))
return name
def __init__(self,
details,
stimevar,
etimevar,
duration=0.01,
ade_id=None):
PlaceEvent.__init__(self, details, stimevar, etimevar, duration,
ade_id)
self.MinimumSplitDuration = duration
self.AggregateID = GenName('AGGREGATE')
self.AggregateHead = True
def __init__(self, stime, etime=None, id=None):
""" Create a variable to use for time constraints
Args:
stime -- float, the interval start time
etime -- float, the interval end time
id -- unique identifier for the time variable
"""
self.IntervalStart = float(min(stime, etime or stime))
self.IntervalEnd = float(max(stime, etime or stime))
self.ID = id or GenName('TV')
def AddResidentialLocation(self, profname, endpoints):
"""
Args:
profname -- string name of the business location profile collection
endpoints -- list of endpoint objects of type LayoutNodes.Endpoint
"""
profile = self.Nodes[profname]
if profile.NodeType.Name != LayoutNodes.ResidentialLocationProfile.__name__:
raise ValueError(
'Invalid residential location profile name; {0}'.format(
profname))
location = LayoutNodes.ResidentialLocation(GenName('rezloc'), profile)
WorldInfo.WorldInfo.AddResidentialLocation(self, location)
# residential locations have one endpoint per capsule
for endpoint in endpoints:
capsule = LayoutNodes.LocationCapsule(GenName('rezcap'))
WorldInfo.WorldInfo.AddLocationCapsule(self, capsule)
capsule.AddEndPointToCapsule(endpoint)
location.AddCapsuleToLocation(capsule)
return location
def __init__(self, details, stimevar, etimevar, duration = 0.01, id = None) :
self.Details = details
self.EventID = id or GenName('PLACE')
# EventStart and EventEnd properties contain the original interval definitions, all
# constraint resolution will happen on copies of these variables stored
# EventStart and EventEnd properties.
self.BaseEventStart = stimevar
self.BaseEventEnd = etimevar
self.Reset()
# Duration is the minimum duration of the event
self.Duration = max(duration, 0.01)
# Arrival and Departure properties connect this event into an
# ordered chain of events
self.Arrival = None
self.Departure = None
def __init__(self, traveler, stime, source, destination):
"""
Args:
traveler -- object of type Traveler
stime -- float, world time at the start of the trip
source -- LayoutNodes.LocationCapsule
destination -- LayoutNodes.LocationCapsule
"""
self.Traveler = traveler
self.ScheduledStartTime = stime
self.ActualStartTime = 0
self.Source = source
self.Destination = destination
# the vehicle name should come from the person, however Sumo
# does not generate create events when a vehicle name is reused
self.TripID = GenName(self.Traveler.Person.Name + '_trip')
self.VehicleName = self.TripID
self.VehicleType = self.Traveler.Person.Vehicle.VehicleType
def ScaleProfile(profile):
scale = GenWeight(1.0, 0.5, 0.5, 3.0)
offset = GenWeight(0.0, 0.2, -1.5, 1.5)
name = GenName('sp_' + profile.Name)
return world.AddScaledBusinessProfile(name, profile, scale, offset)
def __init__(self):
self.ConstraintID = GenName('CONSTRAINT')
def GenNodeName(prefix='node'):
return GenName(prefix)