Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France.

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Accuracy and Efficiency in Simulating VANETs
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Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Accuracy and Efficiency in Simulating VANETs Enrique Alba, Sebastián Luna, and Jamal Toutouh Universidad de Málaga Accuracy and Efficiency in Simulating VANETs Enrique Alba, Sebastián Luna, and Jamal Toutouh Universidad de Málaga Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, Outline Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work 5 1 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Introduction and Motivation The performance evaluation of the different VANET protocols and applications is done by using both outdoor experiments and simulations The evaluation through outdoors experiments has several drawbacks:  neither easy nor cheap  difficult to analyze in an inherently distributed and complex environment  reproduction of all kinds of situations where they must act is not possible The simulation avoid the previous drawbacks. Nevertheless it presents the following one:  the fidelity of the simulated results versus the real ones Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work We present here a comparison between simulations and real tests The goal is to better know the actual VANET simulator used in CARLINK and the data/delay rates affecting the final applications 2 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 VANET Simulation Three kinds of approaches in VANET simulation have been initially considered: Using an specially-designed VANET simulator Alternatives: TraNS, MOVE, CARISMA, and STRAW Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Integrating a vehicular mobility model generator into an existing network (MANETs) simulator  Mobility model generator: SUDO and VanetMobiSim  Network simulators: Ns-2, GlomoSim, QualNet, and OpNet MANET applications programming framework which allows the developer to test the applications via simulations: Alternative: JANE VanetMobiSim/Ns-2 JANE 3 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 VanetMobiSim/Ns-2 [ mobility model generator + network simulator ] VANET Simulation. VanetMobiSim/Ns-2 Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work - Freely available - Different kind of outputs - Generates realistic models Macro-mobility features Micro-mobility features  Ns-2: - Freely available - Easily adding features - Widely used - Numerical output +  VanetMobiSim: Vehicular Data Transfer Protocol (VDTP) has been added  TARGET: making precise simulations of the real systems 4 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 JANE: Java Ad hoc Network Environment  Open source Java-based middleware platform which is intended to assist ad-hoc network researchers in application and protocol design  Three different execution modes: 1.Simulation Mode: the complete environment is simulated 2.Hybrid Mode: the devices and the ad-hoc network are simulated, but real users can interact with the simulation 3.Platform Mode: the whole setting is real  Drawback: It is not specialized for VANETs  not provide realistic mobility models for the simulation of vehicular networks  TARGET: programming high level applications VANET Simulation. JANE Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work 5 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 The CARLINK-UMA scenario The scenarios are defined by their specific mobility models: File transfers between two cars by using ad-hoc operation mode of the IEEE b MAC Layer Standard  PROXiM ORINOCO PCMCIA transceiver  Range extender antenna gain: 7 dBi Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work 6 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 The CARLINK-UMA scenario Each experiment is composed of different tests The tests consist in repeatedly transferring a file in specific scenarios:  File type 1: traffic information documents (1 MB)  File type 2: multimedia files (10 MB) The file transfers are carrying out by using the Vehicular Data Transfer Protocol (VDTP):  Chunk size: 25Kbytes  Retransmission time: 8 seconds  Max number of attempts per packet: 8 The test are named as follows:  Test A1  Test A2  Test B1  Test B2 It describes the scenario: Scenario A Scenario B Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Test Xi It denotes the file type: File type 1 = 1 MB File type 2 = 10 MB 7 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Results Test A1 (same sense, 1 MB files)  Average values: Real ExperimentsJANEVanetMobiSim/Ns-2 Transmission Time1.6 secs1.8 secs1.6 secs Data Rate626.9 KB/s563.8 KB/s609.7 KB/s Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Accurate results 8 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Results Test A2 (same sense, 10 MB files)  Average values: Real ExperimentsJANEVanetMobiSim/Ns-2 Transmission Time17.3 secs17.9 secs16.7 secs Data Rate585.1 KB/s564.4 KB/s611.1 KB/s Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Difference 0.6 secs 9 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Results Test B1 (opposite sense, 1 MB files)  Average values: Real ExperimentsJANEVanetMobiSim/Ns-2 Transmission Time2.7 secs1.8 secs2.6 secs Data Rate371.4 KB/s563.7 KB/s391.4 KB/s JANE: Only 3 completed transfers Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Accurate results 10 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Results Test B2 (opposite sense, 10 MB files)  Average values: Real ExperimentsJANEVanetMobiSim/Ns-2 Transmission Time20.1 secsN/A19.9 secs Data Rate502.1 KB/sN/A513.3 KB/s JANE: No transfers completed Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Accurate results 11 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Results Global average results  Mean data rate differences (absolute value in KB/s) between real and simulation results Test A1Test A2Test B1Test B2 JANE63.1 KB/s20.6 KB/s192.3 KB/sN/A VanetMobiSim/Ns KB/s25.8 KB/s20.0 KB/s11.3 KB/s Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work s 12 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Conclusions The real world is quite difficult to simulate in a trustworthy manner. Our simulations can be changed by including:  obstacles  signal reflections  etc. At the CARLINK-UMA Scenario an important quantity of data can be transferred with a transmission data rate always higher than 300 KB/s VanetMobiSim/Ns-2 is the most realistic simulator, if the goal is to model the VANET in a computer JANE is useful for programming/testing high-level applications As a future work:  perform simulations of other scenarios in order to predict the performance of the communications at urban and highway environments (almost finished)  combine the simulator (VMS/Ns-2) with optimization techniques in order to offer an optimal configuration of VDTP (in progress) Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work 13 /13

Enrique Alba, Sebastián Luna, and Jamal ToutouhAccuracy and Efficiency in Simulating VANETs MCO’08 Metz, France September 8-10 th, 2008 MCO’08 Metz, France September 8-10 th, 2008 Introduction and Motivation VANETs Simulation The CARLINK-UMA Scenario Results Conclusions and Future Work Thank you for your attention. Any questions?