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Recently, the Dalian Chemical Institute of the Chinese Academy of Sciences has made new progress
in the research of non-fluorinated porous ion conduction membranes for flow batteries.
This study greatly improves the selectivity and stability of non-fluorinated porous ion conduction membrane in the operating environment of flow batteries, and the developed membrane materials operate continuously for more than 6000 cycles in the flow battery environment with stable
performance.
In order to solve the contradiction between selectivity and conductivity of non-fluorinated porous ion conduction membranes and further improve the performance of non-fluorinated porous ion conduction membranes, the team also successfully developed non-fluorinated porous ion conduction membranes
with high selectivity, high conductivity and low cost through structural design.
This is pioneering work and has long-term significance
for the development of all-vanadium redox flow batteries.
Recently, the Dalian Chemical Institute of the Chinese Academy of Sciences has made new progress
in the research of non-fluorinated porous ion conduction membranes for flow batteries.
This study greatly improves the selectivity and stability of non-fluorinated porous ion conduction membrane in the operating environment of flow batteries, and the developed membrane materials operate continuously for more than 6000 cycles in the flow battery environment with stable
performance.
In order to solve the contradiction between selectivity and conductivity of non-fluorinated porous ion conduction membranes and further improve the performance of non-fluorinated porous ion conduction membranes, the team also successfully developed non-fluorinated porous ion conduction membranes
with high selectivity, high conductivity and low cost through structural design.
This is pioneering work and has long-term significance
for the development of all-vanadium redox flow batteries.
