Advanced technologies in VRLA batteries for automotive applications

被引:18
|
作者
Ohmae, T [1 ]
Sawai, K [1 ]
Shiomi, M [1 ]
Osumi, S [1 ]
机构
[1] GS Yuasa Mft Ltd, Ctr Tech, Minami Ku, Kyoto, Japan
关键词
VRLA; high temperature; low temperature; idling stop;
D O I
10.1016/j.jpowsour.2005.10.049
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
This paper discusses battery temperature limits as a challenge to be answered when using valve-regulated lead-acid (VRLA) batteries in motor vehicles, and then describes the results obtained in road tests on VRLA batteries used in an idling-stop (stop and go) vehicle. In general, using lead-acid batteries at high-temperature increases grid corrosion and water loss, and accelerates deterioration. VRLA batteries are more susceptible to the effects of temperature than flooded batteries, but that is largely due to their structure. Water loss is fatal to VRLA batteries because water replenishment is impossible. At high temperature not only does the electrochemical decomposition of water increase considerably, but a substantial amount of water also evaporates due to the increased vapor pressure. This requires control to keep batteries from exceeding their maximum temperature. The low-temperature limit of lead-acid batteries is at least -50 to -60 degrees C, and that temperature is higher at a low SOC. This is dependent on change in the solidification point of the sulfuric acid electrolyte. From an environmental perspective there are expectations that idling-stop systems will find wide use as simple systems to improve fuel economy. We studied the performance of a conventional flooded battery, a conventional VRLA battery, and an improved VRLA battery in road tests with an idling-stop vehicle, and found that the improved VRLA battery is suited to idling-stop applications because it had a smaller capacity loss than the conventional flooded battery. (c) 2005 Elsevier B.V. All rights reserved.
引用
收藏
页码:523 / 529
页数:7
相关论文
共 50 条
  • [31] Outlier Screening for Advanced Automotive Applications
    Chen, Cinti
    Chang, Po-Hsien
    Li, Xiao-Yu
    2018 INTERNATIONAL SYMPOSIUM ON SEMICONDUCTOR MANUFACTURING (ISSM), 2018,
  • [32] Trends in Smart Power Technologies for Automotive Applications
    Diazzi, C.
    ENERGY CONSUMPTION AND AUTONOMOUS DRIVING, 2016, : 191 - 202
  • [33] Clean technologies for recycling - A case study on automotive batteries in Brazil
    de Medina, H. V.
    INNOVATION IN LIFE CYCLE ENGINEERING AND SUSTAINABLE DEVELOPMENT, 2006, : 199 - 208
  • [34] Advanced Joining Technologies for Aluminium Assembly for the Automotive Industry
    Han, L.
    Young, K.
    Hewitt, R.
    Blundel, N.
    Thornton, M.
    SHEET METAL 2009, 2009, 410-411 : 105 - 116
  • [35] Reliability management - The central enabler for advanced Technologies in Automotive
    Aal, Andreas
    MICROELECTRONICS RELIABILITY, 2016, 64 : 13 - 18
  • [36] Thermal runaway behaviour of VRLA batteries
    Jaworski, RK
    Hawkins, JM
    INTELEC - EIGHTEENTH INTERNATIONAL TELECOMMUNICATIONS ENERGY CONFERENCE, 1996, : 45 - 51
  • [37] Storage Impact in VRLA Batteries Life
    Soares, Alexandre Pinhel
    Fatima, M.
    Rosolem, N. C.
    Soares, Luiz Antonio
    dos Santos, Glauco Ribeiro
    Frare, Pamela Tobias
    Beck, Raul Fernando
    Arioli, Vitor Torquato
    INTELEC 08 - 30TH INTERNATIONAL TELECOMMUNICATIONS ENERGY, VOLS 1 AND 2, 2008, : 21 - +
  • [38] Modeling the overcharge process of VRLA batteries
    Gu, WB
    Wang, GQ
    Wang, CY
    SIXTEENTH ANNUAL BATTERY CONFERENCE ON APPLICATIONS AND ADVANCES, 2001, : 181 - 186
  • [39] Phenomenon and mechanism of NGBC of VRLA batteries
    Zhang, Hua
    Zhao, Jin-Zhu
    Tong, Yi-Bo
    Dianchi/Battery, 2001, 31 (06):
  • [40] Equalization requirements for series VRLA batteries
    Krein, PT
    West, S
    Papenfuss, C
    SIXTEENTH ANNUAL BATTERY CONFERENCE ON APPLICATIONS AND ADVANCES, 2001, : 125 - 130