The separator-divided soluble lead flow battery

被引:0
|
作者
机构
[1] Krishna, M.
[2] Wills, R.G.A.
[3] Shah, A.A.
[4] Hall, D.
[5] Collins, J.
来源
Wills, R.G.A. (rgaw@soton.ac.uk) | 1600年 / Springer Science and Business Media B.V.卷 / 48期
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Abstract: The soluble lead flow battery (SLFB) is conventionally configured with an undivided cell chamber. This is possible, unlike other flow batteries, because both electrode active materials are electroplated as solids from a common species, Pb2+, on the electrode surfaces during charging. Physically separating the active materials has the advantage that a single electrolyte and pump circuit can be used; however, failure mechanisms such as electrical shorting may be observed. In addition, a common electrolyte requires that any electrolyte additives are compatible with both half-cell reactions. This paper introduces two new configurations; semi- and fully divided for the SLFB. Cationic, anionic, and microporous separators are assessed for ionic conductivity in SLFB electrolytes, showing that their incorporation adds as little as a 20 mV to the cell voltage. Voltammetry shows the effect of additives on the equilibrium potential and stripping overpotential of PbO2. It is then demonstrated that the incorporation of a separator into the SLFB can reduce failure due to electrical shorting and permit electrode-specific additives to be used. A unit flow cell with electrode area of 100 cm2 is shown to operate for over 300 Ah in the semi-divided configuration, more than doubling the previously reported cycle life for cells of similar size. © 2018, The Author(s).
引用
收藏
相关论文
共 50 条
  • [41] Investigations on a Mesoporous Glass Membrane as Ion Separator for a Redox Flow Battery
    Michos, Ioannis
    Cao, Zishu
    Xu, Zhi
    Jing, Wenheng
    Dong, Junhang
    BATTERIES-BASEL, 2019, 5 (01):
  • [42] SPPEK/TPA composite membrane as a separator of vanadium redox flow battery
    Wang, Nanfang
    Yu, Jingang
    Zhou, Zhi
    Fang, Dong
    Liu, Suqin
    Liu, Younian
    JOURNAL OF MEMBRANE SCIENCE, 2013, 437 : 114 - 121
  • [43] Comparison of mercury porosimetry and flow porometry for the testing of battery separator materials
    Jena, A
    Sanders, H
    Miller, J
    Wimberly, R
    SIXTEENTH ANNUAL BATTERY CONFERENCE ON APPLICATIONS AND ADVANCES, 2001, : 71 - 75
  • [44] Highly Economical and Efficient Polyethylene Separator for Vanadium Redox Flow Battery
    Dalal, Utsav
    Verma, Anil
    ENERGY & FUELS, 2024, 38 (13) : 12182 - 12191
  • [45] Membrane resistance of different separator materials in a vanadium redox flow battery
    Schafner, Katharina
    Becker, Maik
    Turek, Thomas
    JOURNAL OF MEMBRANE SCIENCE, 2019, 586 : 106 - 114
  • [46] 'Density/solidity' of recombinant battery separator material-its - influence on both separator and battery performance in valve-regulated lead-acid systems
    Zguris, GC
    JOURNAL OF POWER SOURCES, 2004, 133 (01) : 67 - 78
  • [47] Temperature adaptability of the lead methanesulfonate flow battery
    Ji, Dongdong
    Liu, Zheng
    Jiang, Bailing
    Luo, Xiaofei
    JOURNAL OF ENERGY STORAGE, 2020, 28
  • [48] RELATING RECOMBINATION MAT SEPARATOR PROPERTIES TO SEALED LEAD-ACID-BATTERY PERFORMANCE
    CROUCH, DA
    REITZ, JW
    JOURNAL OF POWER SOURCES, 1990, 31 (1-4) : 125 - 133
  • [49] Analysis of the selected heavy metals content in the lead-acid battery polymeric separator
    Kolasa, Dorota
    Lukomska, Aneta
    Soltysiak, Joanna
    Soszko, Michal
    Ciezarek, Olga
    Lach, Jakub
    Wrobel, Kamil
    Czerwinski, Andrzej
    POLIMERY, 2019, 64 (06) : 442 - 451
  • [50] Lead acid battery recycling and material flow analysis of lead in Korea
    Jeong, Kwang-Pil
    Kim, Jeong Gon
    JOURNAL OF MATERIAL CYCLES AND WASTE MANAGEMENT, 2018, 20 (02) : 1348 - 1354