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Perforation-driven micropore engineering for high-rate and stable SiOx anodes

11.26.25 | Shanghai Jiao Tong University Journal Center

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As demand rises for fast-charging and high-energy lithium-ion batteries, thick SiO x -based anodes still face slow ion transport and mechanical degradation. Researchers led by Prof. Hongkyung Lee and Prof. Yong Min Lee now report a scalable solution based on a perforated Cu (pCu) current collector, which induces a regularly arranged micropore (RAM) structure. This simple yet powerful design enhances ion diffusion, mechanical stability, and overall electrochemical performance in SiO x /artificial graphite (AG) electrodes.

Why Micropore Regulation Matters

Design Concept: Perforated Cu Induces RAM

Transport Dynamics & Electrochemical Advantages

Performance Highlights

Practical Benefits & Outlook

This simple, low-cost modification of the current collector provides a practical route to fast-charging, long-life SiO x anodes and advances scalable battery electrode engineering.

Nano-Micro Letters

10.1007/s40820-025-01929-4

Experimental study

Regularly Arranged Micropore Architecture Enables Efficient Lithium-Ion Transport in SiOx/Artificial Graphite Composite Electrode

9-Oct-2025

Keywords

Article Information

Contact Information

Bowen Li
Shanghai Jiao Tong University Journal Center
qkzx@sjtu.edu.cn

Source

How to Cite This Article

APA:
Shanghai Jiao Tong University Journal Center. (2025, November 26). Perforation-driven micropore engineering for high-rate and stable SiOx anodes. Brightsurf News. https://www.brightsurf.com/news/1EOWXV3L/perforation-driven-micropore-engineering-for-high-rate-and-stable-siox-anodes.html
MLA:
"Perforation-driven micropore engineering for high-rate and stable SiOx anodes." Brightsurf News, Nov. 26 2025, https://www.brightsurf.com/news/1EOWXV3L/perforation-driven-micropore-engineering-for-high-rate-and-stable-siox-anodes.html.