TY - JOUR
T1 - Redox Flow Battery for Energy Storage
AU - Chakrabarti, Mohammed Harun
AU - Hajimolana, S. A.
AU - Mjalli, Farouq S.
AU - Saleem, M.
AU - Mustafa, I.
PY - 2013
Y1 - 2013
N2 - The redox flow battery has undergone widespread research since the early 1970s. Several different redox couples have been investigated and reported in the literature. Only three systems as such have seen some commercial development, namely the all-vanadium (by VRB-ESS), the bromine-polysulfide (RGN-ESS) and the zinc-bromine (Powercell) systems. The vanadium-bromine system may be an attractive replacement for the all-vanadium system due to its higher energy density with possible applications as energy storage systems for electric vehicles. Other redox flow battery systems have faced problems due to slow electrochemical kinetics of redox couples, membrane fouling, cross-contamination, high costs (mainly due to the membrane as well as inefficient cell stack design), poor sealing, shunt current losses and low energy capacity (due to the use of aqueous electrolytes). One of the main factors limiting further development of the redox flow battery so far is the high costs associated with the ion-exchange membrane. Focussed research in this as well as areas such as reactor characterization and electrode design is necessary to ensure the widespread commercialization of the technology. In this paper, various redox flow systems are discussed historically and technically and the latest developments are compared.
AB - The redox flow battery has undergone widespread research since the early 1970s. Several different redox couples have been investigated and reported in the literature. Only three systems as such have seen some commercial development, namely the all-vanadium (by VRB-ESS), the bromine-polysulfide (RGN-ESS) and the zinc-bromine (Powercell) systems. The vanadium-bromine system may be an attractive replacement for the all-vanadium system due to its higher energy density with possible applications as energy storage systems for electric vehicles. Other redox flow battery systems have faced problems due to slow electrochemical kinetics of redox couples, membrane fouling, cross-contamination, high costs (mainly due to the membrane as well as inefficient cell stack design), poor sealing, shunt current losses and low energy capacity (due to the use of aqueous electrolytes). One of the main factors limiting further development of the redox flow battery so far is the high costs associated with the ion-exchange membrane. Focussed research in this as well as areas such as reactor characterization and electrode design is necessary to ensure the widespread commercialization of the technology. In this paper, various redox flow systems are discussed historically and technically and the latest developments are compared.
KW - All-vanadium
KW - Bromine-polysulphide
KW - Redox couples
KW - Redox flow battery
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U2 - 10.1007/s13369-012-0356-5
DO - 10.1007/s13369-012-0356-5
M3 - Article
AN - SCOPUS:84875021480
SN - 1319-8025
VL - 38
SP - 723
EP - 739
JO - Arabian Journal for Science and Engineering
JF - Arabian Journal for Science and Engineering
IS - 4
ER -