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Influence of Graphene-modified Graphite Anode on the Fast Charging Performance of Lithium Batteries

Guotao Li
pp.21-27 DOI: 10.62051/2yt4rh08 June 16, 2026
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Abstract: With the exploding demands of high power output and fast charging capability on electric vehicles, in consumer electronics, power tools, aerospace, grid scale, etc., high-rate capability LIBs are highly desired for their wide range of applications. The graphite—anode with the highest commercial success so far—has fundamental limitations for the high-rate chargeability of LIBs because it has a small layer-to-layer distance andprolonged lithiation/delithiation diffusion paths, and an elevated likelihood of lithium plating under fast charging. Graphene – a nano-material with ultra-high electric conductivity, superior mechanical strength, and a unique two-dimensional structure – offers a versatile platform to modify the graphite anode. This review describes in detail how the modification of graphite with graphene improves the rate capability for LIBs: especially those focusing on progress made to enhance Li+ transport kinetics and structural stability by means such as fabrication of three-dimensional hierarchically porous structures, interlayer expansion, and SEI film formation and stability. A review of the state-of-the-art literature shows a clear enhancement in electronic conductivities upon incorporating graphene, lithium-ion diffusivity, and mechanical stability of composites anodes which can offer great promise to improve the rate capacity, cycle life, and safety.
Keywords: Graphene; Graphite anode; Fast charging performance.
APA Citation: Guotao Li (2026). Influence of Graphene-modified Graphite Anode on the Fast Charging Performance of Lithium Batteries. Transactions on Engineering and Technology Research, 6(1), 21-27. https://doi.org/10.62051/2yt4rh08

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