Cosolvent electrolyte chemistries for high-voltage potassium-ion battery

The poor oxidation resistance of traditional electrolytes has hampered the development of high-voltage potassium-ion battery technology. Here, we present a cosolvent electrolyte design strategy to overcome the high-voltage limitations of potassium-ion electrolyte chemistries. The cosolvent electroly...

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Veröffentlicht in:National science review 2024-11, Vol.11 (11), p.nwae359
Hauptverfasser: Shen, Mengkang, Dai, Zhongqin, Fan, Ling, Fu, Hongwei, Geng, Yuanhui, Guan, Jie, Sun, Fanfei, Rao, Apparao M, Zhou, Jiang, Lu, Bingan
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container_issue 11
container_start_page nwae359
container_title National science review
container_volume 11
creator Shen, Mengkang
Dai, Zhongqin
Fan, Ling
Fu, Hongwei
Geng, Yuanhui
Guan, Jie
Sun, Fanfei
Rao, Apparao M
Zhou, Jiang
Lu, Bingan
description The poor oxidation resistance of traditional electrolytes has hampered the development of high-voltage potassium-ion battery technology. Here, we present a cosolvent electrolyte design strategy to overcome the high-voltage limitations of potassium-ion electrolyte chemistries. The cosolvent electrolyte breaks the dissolution limitation of the salt through ion-dipole interactions, significantly enlarging the anion-rich solvation clusters, as verified by the synchrotron-based wide-angle X-ray scattering experiments. Furthermore, the large anion-rich solvation clusters also facilitate the formation of an effective electrode-electrolyte interphase, thereby enhancing compatibility with high-voltage electrodes. The cosolvent electrolyte enables K||Prussian blue cells (2-4.5 V) to operate for >700 cycles with a capacity retention of 91.9%. Our cosolvent electrolyte design strategy paves new avenues for the development of high-voltage potassium-ion batteries and beyond.
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title Cosolvent electrolyte chemistries for high-voltage potassium-ion battery
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