{"title":"Performance simulation of hydrogen-electric transit bus running in a mountain environment","authors":"F. Ciancetta","doi":"10.48295/et.2023.90.9","DOIUrl":null,"url":null,"abstract":"As is well known, the transport sector accounts for a third of all final energy consumption in the EU and is responsible for more than a quarter of total greenhouse gas emissions, making it one of the main contributors to climate change. Reducing the negative effects of transport is a strategic objective of the EU, which has put in place a series of actions to promote cleaner and more efficient transport modes, using more sustainable technologies, fuels, and infrastructure. The development of more sustainable and zero-emission collective transport solutions implies the use of novel propulsion systems capable of using energy carriers produced from renewable energy sources. This article deals with the preliminary design and performance analysis of a hydrogen hybrid passenger bus to be used in a mountainous area characterized by mainly curvilinear routes with high gradients both uphill and downhill, within an experimental context of technological-energy innovation. The study is part of a wider project (LIFE3H) co-funded by the European Union, which, among other objectives, intends to lay the bases for the development of a Hydrogen Valley (integrated hydrogen production, storage, and use site), through public hydrogen transport and refuelling stations in the mountain area of “Altopiano delle Rocche” in Abruzzo (Italy). The studied vehicle power-train configuration is based on an electric motor fed by a hybrid power unit consisting of a hydrogen fuel cell functionally coupled with an electrochemical battery. A minibus configuration run over a round trip path according to the real traffic conditions is simulated and main vehicle powertrain components are sized. Finally, hydrogen consumption for traction is estimated.","PeriodicalId":45410,"journal":{"name":"European Transport-Trasporti Europei","volume":null,"pages":null},"PeriodicalIF":0.7000,"publicationDate":"2023-02-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"European Transport-Trasporti Europei","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.48295/et.2023.90.9","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q4","JCRName":"TRANSPORTATION","Score":null,"Total":0}
引用次数: 0
Abstract
As is well known, the transport sector accounts for a third of all final energy consumption in the EU and is responsible for more than a quarter of total greenhouse gas emissions, making it one of the main contributors to climate change. Reducing the negative effects of transport is a strategic objective of the EU, which has put in place a series of actions to promote cleaner and more efficient transport modes, using more sustainable technologies, fuels, and infrastructure. The development of more sustainable and zero-emission collective transport solutions implies the use of novel propulsion systems capable of using energy carriers produced from renewable energy sources. This article deals with the preliminary design and performance analysis of a hydrogen hybrid passenger bus to be used in a mountainous area characterized by mainly curvilinear routes with high gradients both uphill and downhill, within an experimental context of technological-energy innovation. The study is part of a wider project (LIFE3H) co-funded by the European Union, which, among other objectives, intends to lay the bases for the development of a Hydrogen Valley (integrated hydrogen production, storage, and use site), through public hydrogen transport and refuelling stations in the mountain area of “Altopiano delle Rocche” in Abruzzo (Italy). The studied vehicle power-train configuration is based on an electric motor fed by a hybrid power unit consisting of a hydrogen fuel cell functionally coupled with an electrochemical battery. A minibus configuration run over a round trip path according to the real traffic conditions is simulated and main vehicle powertrain components are sized. Finally, hydrogen consumption for traction is estimated.
众所周知,运输部门占欧盟最终能源消耗的三分之一,温室气体排放总量的四分之一以上,是气候变化的主要贡献者之一。减少交通的负面影响是欧盟的一项战略目标,欧盟已经采取了一系列行动,促进更清洁、更高效的交通方式,使用更可持续的技术、燃料和基础设施。发展更可持续和零排放的集体运输解决方案意味着使用能够使用可再生能源生产的能源载体的新型推进系统。本文在技术-能源创新的实验背景下,讨论了一种氢混合动力客车的初步设计和性能分析,该客车将用于以高坡度的曲线路线为主的山区。该研究是欧盟共同资助的一个更广泛的项目(LIFE3H)的一部分,该项目除其他目标外,旨在通过意大利阿布鲁佐(Abruzzo)“Altopiano delle Rocche”山区的公共氢运输和加氢站,为氢谷(综合氢生产、储存和使用地点)的发展奠定基础。所研究的车辆动力系统配置基于由氢燃料电池和电化学电池组成的混合动力单元提供的电动机。根据实际交通条件,模拟了在往返路径上运行的小巴配置,并对车辆主要动力总成部件进行了尺寸计算。最后,对牵引用氢的消耗量进行了估算。