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Petal-Graphyne: A Novel 2D Carbon Allotrope for High-Performance Li and Na Ion Storage
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Using density functional theory simulations, this study introduces Petal-Graphyne (PLG), a novel multi-ring metallic structure composed of 4-, 8-, 10-, and 16-membered rings. Its structural, electronic, and lithium/sodium storage properties were comprehensively investigated. PLG exhibits a high theoretical capacity of 1004 mAh/g for Li, Na, and mixed Li/Na ions, surpassing conventional graphite anodes. The material remains metallic, with multiple band crossings at the Fermi level. The optimal energy barriers for Li (0.28 eV) and Na (0.25 eV) on PLG and favorable diffusion coefficients in both monolayer and multilayer configurations are unveiled. The open circuit voltages are 0.47 V for Li, 0.51 V for Na, and 0.54 V for mixed-ion storage, suggesting stable electrochemical performance. These results highlight PLG as a promising candidate for next-generation lithium and sodium-ion batteries, combining high storage capacity and efficient ion transport.
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Cited by 2 Pith papers
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Athos-Graphene: Computational Discovery of an Art-Inspired 2D Carbon Anode for Lithium-Ion Batteries
Athos-Graphene, a proposed metallic 2D carbon allotrope, is predicted to be a stable, high-capacity (836.78 mAh/g) lithium-ion battery anode with low diffusion barriers.
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HOP-graphene: A high-capacity anode for Li/Na-ion batteries unveiled by first-principles calculations
HOP-graphene is predicted by DFT to be a high-capacity anode for Li/Na-ion batteries, with capacities of 1338 and 1227 mAh/g and diffusion barriers of 0.70 and 0.39 eV.
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