Lifetime Analysis of Energy Storage Systems for Sustainable Transportation

被引:34
|
作者
Haidl, Peter [1 ]
Buchroithner, Armin [1 ]
Schweighofer, Bernhard [1 ]
Bader, Michael [2 ]
Wegleiter, Hannes [1 ]
机构
[1] Graz Univ Technol, Inst Elect Measurement & Measurement Signal Proc, Energy Aware Syst Grp, A-8010 Graz, Austria
[2] Graz Univ Technol, Inst Machine Components & Methods Dev, A-8010 Graz, Austria
关键词
flywheel energy storage; FESS; e-mobility; battery; supercapacitor; lifetime comparison; charging station; renewable energy storage; TECHNOLOGIES;
D O I
10.3390/su11236731
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
On the path to a low-carbon future, advancements in energy storage seem to be achieved on a nearly daily basis. However, for the use-case of sustainable transportation, only a handful of technologies can be considered, as these technologies must be reliable, economical, and suitable for transportation applications. This paper describes the characteristics and aging process of two well-established and commercially available technologies, namely Lithium-Ion batteries and supercaps, and one less known system, flywheel energy storage, in the context of public transit buses. Beyond the obvious use-case of onboard energy storage, stationary buffer storage inside the required fast-charging stations for the electric vehicles is also discussed. Calculations and considerations are based on actual zero-emission buses operating in Graz, Austria. The main influencing parameters and effects related to energy storage aging are analyzed in detail. Based on the discussed aging behavior, advantages, disadvantages, and a techno-economic analysis for both use-cases is presented. A final suitability assessment of each energy storage technology concludes the use-case analysis.
引用
收藏
页数:21
相关论文
共 50 条
  • [21] Lifetime Limitations in Multi-Service Battery Energy Storage Systems
    Ohrelius, Mathilda
    Berg, Magnus
    Wreland Lindstrom, Rakel
    Lindbergh, Goran
    ENERGIES, 2023, 16 (07)
  • [22] Lifetime Degradation Study of Batteries Operating as Community Energy Storage Systems
    Yepes-Fernandez, H.
    Restrepo, M.
    Arango-Manrique, A.
    2022 IEEE ANDESCON, 2022, : 564 - 569
  • [23] OPTIMAL POSITIONING OF WAYSIDE ENERGY STORAGE SYSTEMS IN LOCAL TRANSPORTATION NETWORKS
    Otto, Philip
    Gratzfeld, Peter
    PROCEEDINGS OF THE 2021 JOINT RAIL CONFERENCE (JRC2021), 2021,
  • [24] A Lagrangian Decomposition Approach to Energy Storage Transportation Scheduling in Power Systems
    Sun, Yingyun
    Li, Zuyi
    Tian, Wei
    Shahidehpour, Mohammad
    IEEE TRANSACTIONS ON POWER SYSTEMS, 2016, 31 (06) : 4348 - 4356
  • [25] Empowering Green Energy Storage Systems with MXene for a Sustainable Future
    Zaed, Ma
    Abdullah, Norulsamani
    Tan, K. H.
    Hossain, Mh
    Saidur, R.
    CHEMICAL RECORD, 2024, 24 (10):
  • [26] Exergetically efficient thermal energy storage systems for sustainable buildings
    Dincer, Ibrahim
    Rosen, Marc A.
    ASHRAE TRANSACTIONS 2008, VOL 114, PT 1, 2008, 114 : 98 - 107
  • [27] Evaluation of energy storage systems for sustainable development of renewable energy systems-A comprehensive review
    Gupta, Ankush
    Suhag, Sathans
    JOURNAL OF RENEWABLE AND SUSTAINABLE ENERGY, 2022, 14 (03)
  • [28] Residential photovoltaic and energy storage systems for sustainable development: An economic analysis applied to incentive mechanisms
    D'Adamo, Idiano
    Dell'Aguzzo, Alessandro
    Pruckner, Marco
    SUSTAINABLE DEVELOPMENT, 2024, 32 (01) : 84 - 100
  • [29] The role of compressed air energy storage (CAES) in future sustainable energy systems
    Lund, Henrik
    Salgi, Georges
    ENERGY CONVERSION AND MANAGEMENT, 2009, 50 (05) : 1172 - 1179
  • [30] Advances in ground heat exchangers and thermal energy storage for sustainable energy systems
    Patel, Meet
    Chaudhary, Veena
    Verma, Vikas
    Kumar, Aditya
    Kakati, Biraj Kumar
    INDIAN CHEMICAL ENGINEER, 2025,