4.8 Article

Stabilized Zn Anode Based on SO42- Trapping Ability and High Hydrogen Evolution Barrier

Journal

ADVANCED FUNCTIONAL MATERIALS
Volume 32, Issue 32, Pages -

Publisher

WILEY-V C H VERLAG GMBH
DOI: 10.1002/adfm.202203595

Keywords

molecular designs; parasitic reactions; rapid and large-capacity cycles; SO; (4); (2-) receptors; zinc ion batteries

Funding

  1. National Natural Science Foundation of China [22078078]
  2. Natural Science Foundation of Heilongjiang Province [LH2020B008]
  3. State Key Laboratory of Urban Water Resource and Environment, Harbin Institute of Technology [2019DX13]

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A membrane system that captures sulfate ions and forms a negatively charged coating on the zinc anode is introduced to address issues faced by aqueous zinc ion batteries. This system effectively disperses zinc ions, promotes uniform deposition, enhances ion mobility, and suppresses parasitic reactions. Experimental results demonstrate that this design improves the cycling stability and efficiency of the batteries.
Metallic zinc as a promising anode material of aqueous zinc ion batteries is always impeded by some irreversible issues, such as dendrite growth, hydrogen evolution, and parasitic reaction, which severely affect the cycling stability and coulombic efficiency. Herein, the membrane of SO42- receptors is constructed on the Zn anode (denoted SO42- receptors as SR). The SR acts as a sulfate ion receptor to capture SO42-, the resulting negatively charged coating can effectively disperses Zn2+ to promote uniform deposition and enhance Zn2+ mobility to stabilize high-current cycling, while the repulsion of free SO42- coupled with high Gibbs free energy for hydrogen evolution reaction (Delta GH*) of SR and SR-SO42- can effectively suppress the formation of parasitic (ZnSO4)center dot(Zn(OH)(2))(3)center dot xH(2)O. Benefiting from this versatility, Zn anode can achieve an average coulombic efficiency of over 99% and superior cycling performance (10 000 cycles for 10mA cm(-2) and 450 cycles for 5 mAh cm(-2)). Meanwhile, Zn@SR/alpha-MnO2 full battery can maintain 91.7% residual capacity after 900 cycles under 1.0 A g(-1).

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