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Feasibility study of a diesel-powered hybrid DMU

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摘要 Nowadays,the interest in hybrid vehicles is constantly increasing,not only in the automotive sector,but also in other transportation systems,to reduce pollution and emissions and to improve the overall efficiency of the vehicles.Although railway vehicles are typically the most eco-friendly transportation system,since commonly their primary energy source is electricity,they can still gain benefits from hybrid technologies,as many lines worldwide are not electrified.In fact,hybrid solutions allow ICEpowered(internal combustion engine)railway vehicles,such as diesel multiple units(DMUs),to operate in fullelectric mode even when the track lacks electrification.The possibility to switch to full electric mode is of paramount importance when the vehicle runs on urban or underground track sections,where low or zero emission levels are required.We conduct the feasibility study of hybridization of an existing DMU vehicle,designed by Blue Engineering S.r.l.,running on the Aosta–Torino Italian railway line,which includes a non-electrified urban track section and an electrified underground section.The hybridization is obtained by replacing one of the diesel generators installed on the original vehicle with a battery pack,which ensures the vehicle to operate in full-electric mode to complete its mission profile.The hybridization is also exploited to implement a regenerative braking strategy,which allows an increase in the energetical efficiency of the vehicle up to 18%.This work shows the sizing of the battery pack based on dynamic simulations performed on the Turin underground track section,and the results demonstrate the feasibility of the hybridization process.
出处 《Railway Engineering Science》 2021年第3期271-284,共14页 铁道工程科学(英文版)
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  • 1Knowlen C,Matick AT,Bruckner AP.High efficiency energy conversion systems for liquid nitrogen automobiles.SAE paper 1998;No 981898.
  • 2ECOSTAR:European concentrated solar thermal road-mapping,Deliverable No.7,Roadmap Document,Nov.2004,Available online:http://www.vgb.org/data.o/vgborg_/Forschung/road-map252.pdf[2007-03-20]. Receiveddate:04/15/2008 Modifieddate:07/02/2008 Published:03/10/2009
  • 3Mclarnon FR,Cairns EJ.Energy storage.Ann Rev Energy 1989;14:241-71.
  • 4Baker JN,Collinson A.Electrical energy storage at the turn of the millennium.Power Eng J 1999;6:107-12.
  • 5Dti Report.Status of electrical energy storage systems.DG/DTI/00050/00/00,URN NUMBER 04/1878,UK Department of Trade and Industry;2004,p.1-24.
  • 6Australian Greenhouse Office.Advanced electricity storage technol-ogies programme.ISBN:1 921120 37 1,Australian Greenhouse Office;2005,p.1-35.
  • 7Walawalkar R,Apt J,Mancini R.Economics of electric energy storage for energy arbitrage and regulation.Energy Policy 2007;5:2558-68.
  • 8Dti Report.Review of electrical energy storage technologies and systems and of their potential for the UK.DG/DTI/00055/00/00,URN NUMBER 04/1876,UK Department of Trade and Industry;2004,p.1-34.
  • 9Dobie WC.Electrical energy storage.Power Eng J 1998;12:177-81.
  • 10Koot M,Kessels J,Jager B,et al.Energy management strategies for vehicular electric power systems.IEEE T Veh Technol 2005;54:771-82.

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