Versatile Uses of Graphene in Electrochemical Energy Storage Systems

Siqi Liang

doi:10.47297/wspbtsWSP2755-952101.20260501

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Versatile Uses of Graphene in Electrochemical Energy Storage Systems

Volume 5, Issue 1

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Versatile Uses of Graphene in Electrochemical Energy Storage Systems
Versatile Uses of Graphene in Electrochemical Energy Storage Systems
College of Food Engineering, Harbin University, Harbin, Heilongjiang, 150086, China
Vol. 5, Issue 1, Pages: 5-7(2026)
Online First：12 August 2026，

Published：30 March 2026
DOI：10.47297/wspbtsWSP2755-952101.20260501
Accepted：

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Liang Siqi.Versatile Uses of Graphene in Electrochemical Energy Storage Systems[J].Biomedical Testing & Sensing,2026,05(01):5-7.
DOI：

Liang Siqi.Versatile Uses of Graphene in Electrochemical Energy Storage Systems[J].Biomedical Testing & Sensing,2026,05(01):5-7. DOI： 10.47297/wspbtsWSP2755-952101.20260501.

摘要

Abstract

This article provides an extensive survey of the diverse roles of graphene in electrochemical energy storage systems

such as lithium-ion batteries

supercapacitors

and flow batteries. It methodically assesses graphene's effectiveness as an electroactive component

conductive enhancer

structural framework

and functional coating by employing literature analysis and data-mining approaches. The analysis indicates that although graphene exhibits an extremely large theoretical specific surface area (2630 m²/g) and remarkable electrical conductivity (with electron mobility up to 200

000 cm²/V·s)

its elevated cost for mass production

structural instability caused by the restacking of layers

and inadequate interfacial compatibility still limit its practical utilization.To address these issues

this study investigates three primary development strategies: constructing three-dimensional hierarchical structures

coupling heteroatom co-doping with defect modulation

and creating heterostructured interfaces between graphene and other two-dimensional materials

such as MXenes and MOFs. Furthermore

the prospect of artificial intelligence-assisted material screening is analyzed.This study determines that graphene holds considerable promise for next-generation

high-efficiency energy storage systems

yet obstacles in device engineering and practical integration still need to be overcome. Subsequent investigations ought to emphasize multifunctional

synergistic design strategies and the creation of smart materials to further promote the advancement of cost-effective

high-performance energy storage technologies.

关键词

Keywords

references

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