SUMO

Simulation of Urban MObility

User

Introduction
- The traffic simulation SUMO
Basic Usage
- Notation in this Documentation
- Needed, basic Computer Skills
- Installing SUMO
- Using SUMO Command Line Applications
- Tutorials
- Validating application inputs
Network Building
- SUMO Road Networks
- Abstract networks generation
- NETCONVERT
- Creating and modifying networks with NETEDIT
- Including elevation data
Demand Modelling
- Introduction to SUMO Demand Modelling
- Definition of Vehicles, Vehicle Types, and Routes
- Simulation of public transport
- Simulation of individual persons and trip chains
- Simulation of logistics
- Shortest or Optimal Path Routing
- Intermodal Routing
- Routing in the Simulation
- Computing Dynamic User Assignment
- Generate a vehicle type distribution to model the fleet
Data sources for demand generation
- Importing O/D Matrices
- - Other VISUM Demand Importers
  - Other Vissim Demand Importers
- Routes from Observation Points
- Routing by Turn Probabilities
- Activity-based Demand Generation
- Random Trips
Simulation
- Basic Definition
- Simulation output
- TraCI (On-line Interaction)
- Saving and Loading Simulation State
Traffic Management and Other Structures
- Traffic Lights
- Public Transport
- Variable Speed Signs
- Rerouter / Alternative Route Signage
- Vaporizer
- Dynamic calibration of flow and speed
- Parking areas
Traffic Modes
- Pedestrian simulation
- Bicycle simulation
- Railway simulation
- Waterway simulation
Additional Features
- Emissions
- Electric Vehicles
- Logistics
- Generic Parameters
- Shapes Visualisation
- Wireless Device Detection
- Emergency Vehicles
Model details
- Vehicle speed
- Vehicle insertion
- Vehicle permissions (access restrictions)
- Intersection dynamics
- Randomness
- Routing and Re-routing
- Sublane Model
- Opposite Direction Driving
- Safety
- Mesoscopic model
Common Problems
- Why Vehicles are teleporting
- Unexpected jamming
- Unexpected lane-changing maneuvers?
- How to get high flows?
Additional Tools
- osmWebWizard
- TraCI/Interfacing_TraCI_from_Python
- Reading SUMO networks and outputs with Python (sumolib)
- Tools for converting SUMO outputs to CSV/Spreadsheet
- Exporting mobility Traces (traceExporter)
- Determining the differences between two networks
- Tools/Visualization
- Tool index
Theory
- Traffic simulations in general
Application Manuals
- SUMO
- SUMO-GUI
- NETCONVERT
- NETEDIT
- NETGENERATE
- OD2TRIPS
- DUAROUTER
- JTRROUTER
- DFROUTER
- MAROUTER
- POLYCONVERT
- ACTIVITYGEN
- EMISSIONSMAP
- EMISSIONSDRIVINGCYCLE
Appendices
- ChangeLog
- Glossary
- FAQ
- Additional Tools
- Known File Extensions

Further Resources

Developer

Developer Docs
Daily Tests Status
Doxygen Documentation
Python Modules Documentation
- traci
- sumolib
Java Modules Documentation
- TraCI4J
- TraaS

Tools/District

generated on 2017-05-02 00:27:06.113200 from the wiki page for Tools/District for SUMO 0.30.0

Contents

1 districts2poly.py
2 edgesInDistricts.py
3 generateBidiDistricts.py

districts2poly.py

Transform districts into polygons for visualization in SUMO-GUI. Using the options --hue, --saturation, --brightness the colors can be controlled. Each of these options supports values from [0, 1] as well as the special value random.

<SUMO_HOME>/tools/districts2poly.py myNet.net.xml myDistricts.rou.xml

Caution:
Only districts using the attribute edges are currently supported

edgesInDistricts.py

Parsing a number of networks and taz (district) files with shapes this script writes a taz file with all the edges which are inside the relevant taz.

 <SUMO_HOME>/tools/edgesInDistricts.py -n myNet.net.xml -t myDistricts.rou.xml

Call option --help for additional details.

generateBidiDistricts.py

Finds edges that are opposites of each other and puts them in a common district (TAZ). This can be used to improve routing in conjunction with trip attributes fromTaz and toTaz.

 <SUMO_HOME>/tools/generateBidiDistricts.py myNet.net.xml

Call option --help for additional details.

This page was last modified on 2 March 2016, at 16:25.