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Re-building Daniell cell with a Li-ion exchange film.

ABSTRACT: Daniell cell (i.e. Zn-Cu battery) is widely used in chemistry curricula to illustrate how batteries work, although it has been supplanted in the late 19th century by more modern battery designs because of Cu(2+)-crossover-induced self-discharge and un-rechargeable characteristic. Herein, it is re-built by using a ceramic Li-ion exchange film to separate Cu and Zn electrodes for preventing Cu(2+)-crossover between two electrodes. The re-built Zn-Cu battery can be cycled for 150 times without capacity attenuation and self-discharge, and displays a theoretical energy density of 68.3 Wh kg(-1). It is more important that both electrodes of the battery are renewable, reusable, low toxicity and environmentally friendly. Owing to these advantages mentioned above, the re-built Daniell cell can be considered as a promising and green stationary power source for large-scale energy storage.

SUBMITTER: Dong X

PROVIDER: S-EPMC4220274 | biostudies-literature | 2014 Nov

REPOSITORIES: biostudies-literature

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Re-building Daniell cell with a Li-ion exchange film.

Dong Xiaoli X Wang Yonggang Y Xia Yongyao Y

Scientific reports 20141105

Daniell cell (i.e. Zn-Cu battery) is widely used in chemistry curricula to illustrate how batteries work, although it has been supplanted in the late 19th century by more modern battery designs because of Cu(2+)-crossover-induced self-discharge and un-rechargeable characteristic. Herein, it is re-built by using a ceramic Li-ion exchange film to separate Cu and Zn electrodes for preventing Cu(2+)-crossover between two electrodes. The re-built Zn-Cu battery can be cycled for 150 times without capa ...[more]

PMID: 25369833

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