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Table 1 Summary of LIB anode materials (non-carbon) containing graphene

From: The application of graphene in lithium ion battery electrode materials

Anode materials Structure Synthesis method Capacity and cycle performance Reference
SnO2/graphene orthorhombic Hydrothermal First discharge capacity 1588 mAhg-1, after 40 cycles remain 730 mAh/g (Zhu et al.2011)
Si/graphene Cubic diamond type Hydrazine reduction First discharge capacity 2753 mAhg-1, after 50 cycles remain 590 mAh/g (Liu et al.2012; Wang et al.2010a)
Co3O4/graphene spinel Solvothermal First discharge capacity 1826 mAhg-1, after 40 cycles maintain 1310 mAh/g (Lian et al.2010a)
Mn3O4/graphene spinel Hydrothermal First discharge capacity 900 mAhg-1, after 100 cycles maintain 390 mAh/g (Tao et al.2012)
CuO/graphene sphalerite N-methyl-2-p yrrolidone solvent First discharge capacity 640 mAhg-1, after 50 cycles maintain 583.5 mAh/g. (Wang et al.2010b)
Fe3O4/graphene Trans spinel Reduction First discharge capacity 1426 mAhg-1, after 100 cycles maintain 580 mAh/g (Kim et al.2012)
TiO2/graphene Rutile type Gas/liquid interface reaction First discharge capacity 499 mAhg-1, after 10 cycles maintain 150 mAh/g (Tung et al.2009)
CeO2/graphene Face-centered cubic Hydrothermal First discharge capacity 1469 mAhg-1, after 100 cycles maintain 605 mAh/g (Cai et al.2012a)
SnS2/graphene Hexagonal crystal structure Solution phase method First discharge capacity 1664 mAhg-1, after 500 cycles maintain 600 mAh/g (Wang et al.2011a)
Fe3O4-SnO2-gra-phene —————— Gas–liquid interfacial reaction First discharge capacity 1740 mAhg-1, after 115 cycles maintain 1198 mAh/g (Chang et al.2012)
Li4Ti5O12/graphe-ne Spinel Sol–gel method First discharge capacity 430 mAhg-1, after 35cycles maintain 150 mAh/g (Lian et al.2011; Choucair et al.2009a)