Cesium Chemistry Enables Microporous Carbon Nanofibers with Biomimetic Ion Transport Channels for Zinc-ion Capacitors

Zhen Yin; Xuan Luo; Qian Zhang; Guangjie Yang; Chunmei Zhang; Zhenlu Liu; Amit Kumar; Jian Song; Haoqi Yang; Shuijian He

doi:10.1039/d5gc02376a

January 1, 2025Green Chemistry

Cesium Chemistry Enables Microporous Carbon Nanofibers with Biomimetic Ion Transport Channels for Zinc-ion Capacitors

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Key Points

Enhanced ion transport in zinc-ion capacitors shows a significant improvement over conventional materials.
Key metric reveals optimized ion-accessible sites and pore structure for efficient energy storage.
Assessment of cesium chemistry in developing microporous carbon nanofibers demonstrates effective design features.
Indicates potential for high-performance devices, suggesting a need for more research on materials optimization.

Implication

Research demonstrates improved ion transport and storage in zinc-ion capacitors using biomimetic channels.

Abstract

Efficient ion transport and storage are critical for high-performance zinc-ion capacitors (ZICs). However, conventional carbon materials face challenges in optimizing ion storage due to limited ion-accessible sites and mismatched pore...

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Cite This Study

Yin et al. (2025) studied this question.

synapsesocial.com/papers/68c19f9154b1d3bfb60dae8b https://doi.org/10.1039/d5gc02376a

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Cesium Chemistry Enables Microporous Carbon Nanofibers with Biomimetic Ion Transport Channels for Zinc-ion Capacitors

Key Points

Implication

Abstract

Discussion

Cite This Study

Cesium Chemistry Enables Microporous Carbon Nanofibers with Biomimetic Ion Transport Channels for Zinc-ion Capacitors

Key Points

Implication

Abstract

Discussion

Cite This Study

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