fig12

MXenes and their composites for advanced cathodes in multivalent ion batteries

Figure 12. (A) Schematic of the preparation process of MVO + V2C heterostructures. (B) Cycle performance of MVO + V2C cathode at -20 °C (0.5 A g-1). This figure is quoted with permission from Zhang et al. Copyright (2024) John Wiley and Sons[98]. (C) Schematic of the preparation of H2V3O8 and H2V3O8/MXene. This figure is quoted with permission from Liang et al. Copyright (2022) Elsevier[100]. (D) Preparation process of HVO@Ti3C2 2D heterostructure material. (E) Schematic representation of the insertion of Zn2+ into the HVO-Ti3C2 (left) and HVO@Ti3C2 (right) cathodes. This figure is quoted with permission from Xiao et al. Copyright (2023) John Wiley and Sons[101]. (F) Schematic of the assembly process of V2O5 nanoplates and Ti3C2Tx MXene. (G) Schematic diagram of the dissolution of V in V2O5 nanoplates cathode and the inhibition of V dissolution in V2O5 nanoplates/MXene hybrid cathode in aqueous electrolyte. This figure is quoted with permission from Liu et al. Copyright (2022) American Chemical Society[102]. (H) Schematic representation for the synthetic process of VOPO4·nH2O@MXene composite. (I) The XRD patterns of VOPO4·nH2O@MXene composites with different MXene content. This figure is quoted with permission from Zheng et al. Copyright (2023) John Wiley and Sons[103].

Energy Materials
ISSN 2770-5900 (Online)
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