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IHOP3 – Economically consistent simulation of travel behavior with MATSim
The IHOP project series aims at building Sweden’s next generation strategic transportation model system. IHOP1 investigated the feasibility of deploying a dynamic and disaggregate network simulation package. IHOP2 developed a technical framework for integrating travel demand models and network assignment packages through the MATSim technology. IHOP3 moves on to ensure an economically consistent analysis of the travel behavior simulated in such a system. The concrete challenge addressed by IHOP3 is as follows. Sweden’s national travel demand model Sampers is static (i.e. it does not model time-of-day) and aggregate (i.e. it models representative person groups but no individual travelers). The person/network simulation system MATSim is, on the other hand, dynamic (full days are simulated second-by-second) and disaggregate (individual synthetic travelers interact in a simulated network environment). Given these different resolutions of time and travel demand, different utility functions are used in Sampers and MATSim, which in turn leads to different models of travel experience, leading ultimately to different cost-benefit analysis results. The objective of IHOP3 is to devise a simulation method that allows for the economically consistent integration of Sampers and MATSim, resulting in the specification of a common, fully dynamic and person-centric, utility function in both Sampers and MATSim. The proposed solution, which is already partially implemented in Sampers/MATSim, is demonstrated in a small simulation setting, with the objective to indicate its scalability and readiness for implementation in a production version of the IHOP system. This project has been funded by Trafikverket under contract TRV 2016/12446. ; IHOP3 - simulering med MatSim av resbeteende som är ekonomiskt konsistent
IHOP3 – Economically consistent simulation of travel behavior with MATSim
The IHOP project series aims at building Sweden’s next generation strategic transportation model system. IHOP1 investigated the feasibility of deploying a dynamic and disaggregate network simulation package. IHOP2 developed a technical framework for integrating travel demand models and network assignment packages through the MATSim technology. IHOP3 moves on to ensure an economically consistent analysis of the travel behavior simulated in such a system. The concrete challenge addressed by IHOP3 is as follows. Sweden’s national travel demand model Sampers is static (i.e. it does not model time-of-day) and aggregate (i.e. it models representative person groups but no individual travelers). The person/network simulation system MATSim is, on the other hand, dynamic (full days are simulated second-by-second) and disaggregate (individual synthetic travelers interact in a simulated network environment). Given these different resolutions of time and travel demand, different utility functions are used in Sampers and MATSim, which in turn leads to different models of travel experience, leading ultimately to different cost-benefit analysis results. The objective of IHOP3 is to devise a simulation method that allows for the economically consistent integration of Sampers and MATSim, resulting in the specification of a common, fully dynamic and person-centric, utility function in both Sampers and MATSim. The proposed solution, which is already partially implemented in Sampers/MATSim, is demonstrated in a small simulation setting, with the objective to indicate its scalability and readiness for implementation in a production version of the IHOP system. This project has been funded by Trafikverket under contract TRV 2016/12446. ; IHOP3 - simulering med MatSim av resbeteende som är ekonomiskt konsistent
IHOP3 – Economically consistent simulation of travel behavior with MATSim
Flötteröd, Gunnar (Autor:in) / Canella, Olivier (Autor:in)
01.01.2017
Trafikverkets forskningsportföljer
Paper
Elektronische Ressource
Englisch
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