A driver advisory system with dynamic losses for passenger electric multiple units

•Implementation procedure of an online driver advisory system for EMUs.•Novel approach for modeling of energy losses in the traction system.•A prototype as a basis for reference and further development in the field of EETC.•Significant improvement in the energy calculations compared to the old model...

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Veröffentlicht in:Transportation research. Part C, Emerging technologies Emerging technologies, 2017-12, Vol.85, p.111-130
Hauptverfasser: Ghaviha, Nima, Bohlin, Markus, Holmberg, Christer, Dahlquist, Erik, Skoglund, Robert, Jonasson, Daniel
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Sprache:eng
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Zusammenfassung:•Implementation procedure of an online driver advisory system for EMUs.•Novel approach for modeling of energy losses in the traction system.•A prototype as a basis for reference and further development in the field of EETC.•Significant improvement in the energy calculations compared to the old models.•Tests on a track in Sweden show high potential for energy saving. Driver advisory systems, instructing the driver how to control the train in an energy efficient manner, is one the main tools for minimizing energy consumption in the railway sector. There are many driver advisory systems already available in the market, together with significant literature on the mathematical formulation of the problem. However, much less is published on the development of such mathematical formulations, their implementation in real systems, and on the empirical data from their deployment. Moreover, nearly all the designed driver advisory systems are designed as an additional hardware to be added in drivers’ cabin. This paper discusses the design of a mathematical formulation and optimization approach for such a system, together with its implementation into an Android-based prototype, the results from on-board practical experiments, and experiences from the implementation. The system is based on a more realistic train model where energy calculations take into account dynamic losses in different components of the propulsion system, contrary to previous approaches. The experimental evaluation shows a significant increase in accuracy, as compared to a previous approach. Tests on a double-track section of the Mälaren line in Sweden demonstrates a significant potential for energy saving.
ISSN:0968-090X
1879-2359
1879-2359
DOI:10.1016/j.trc.2017.09.010