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Construction of Sn–P–graphene microstructure with Sn–C and P–C co-bonding as anodes for lithium-ion batteries

Yuanxing Zhang, Li Sun, Xiaoxue Zhao, Lin Wu, Ke Wang, Haochen Si, Jialin Gu, Chao Sun, Yan Shi, Yihe Zhang

2020Chemical Communications17 citationsDOI

Abstract

In this work, a P-Sn@G composite is synthesized using a direct high-energy ball milling (HEBM) method with P, Sn, and expanded graphite (EG). The in situ formed few layered graphene (FLG) prevents the formation of Sn4P3 and establishes strong Sn-C and P-C co-bonding in the resultant P-Sn@G composite. Excellent lithium storage is also revealed due to the key effect of FLG to benefit the electronic transfer and buffer expansion stress of the electrode from Sn and P.

Topics & Concepts

GrapheneMicrostructureLithium (medication)AnodeIonMaterials scienceChemical engineeringNanotechnologyChemistryMetallurgyElectrodePhysical chemistryOrganic chemistryMedicineEngineeringEndocrinologyAdvancements in Battery MaterialsGraphene research and applicationsAdvanced Battery Materials and Technologies
Construction of Sn–P–graphene microstructure with Sn–C and P–C co-bonding as anodes for lithium-ion batteries | Litcius