2022
DOI: 10.1016/j.apsusc.2021.151880
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A First-Principles study of monolayer and heterostructure antimonene as potential anode materials for Magnesium-ion batteries

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Cited by 20 publications
(10 citation statements)
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“…Our aim is to overcome the drawbacks of Li-ion batteries and develop alternative forms of metal-ion batteries. As a substitute for bulk materials, two-dimensional (2D) materials are potential candidates for rechargeable batteries due to their distinct properties and high specific surface areas. For this, some 2D materials were already studied at both experimental and theoretical levels and demonstrated probable applications as anodes for metal-ion batteries. , Liang et al recently reported that antimonenes in the form of monolayers and heterostructures are potential anode materials for Mg-ion batteries with the lowest diffusion energy of 45 meV and capacities of about 735 and 615 mAh/g for the Sb monolayer and the Sb/C2 heterostructure, respectively . Using first-principles calculations, Singh et al studied lithium polysulfides on antimonene phases, i.e., α-Sb and β-Sb, as promising anchoring materials for Li–S batteries.…”
Section: Introductionmentioning
confidence: 99%
See 1 more Smart Citation
“…Our aim is to overcome the drawbacks of Li-ion batteries and develop alternative forms of metal-ion batteries. As a substitute for bulk materials, two-dimensional (2D) materials are potential candidates for rechargeable batteries due to their distinct properties and high specific surface areas. For this, some 2D materials were already studied at both experimental and theoretical levels and demonstrated probable applications as anodes for metal-ion batteries. , Liang et al recently reported that antimonenes in the form of monolayers and heterostructures are potential anode materials for Mg-ion batteries with the lowest diffusion energy of 45 meV and capacities of about 735 and 615 mAh/g for the Sb monolayer and the Sb/C2 heterostructure, respectively . Using first-principles calculations, Singh et al studied lithium polysulfides on antimonene phases, i.e., α-Sb and β-Sb, as promising anchoring materials for Li–S batteries.…”
Section: Introductionmentioning
confidence: 99%
“…11,12 Liang et al recently reported that antimonenes in the form of monolayers and heterostructures are potential anode materials for Mg-ion batteries with the lowest diffusion energy of 45 meV and capacities of about 735 and 615 mAh/g for the Sb monolayer and the Sb/C2 heterostructure, respectively. 13 Using firstprinciples calculations, Singh et al studied lithium polysulfides on antimonene phases, i.e., α-Sb and β-Sb, as promising anchoring materials for Li−S batteries. Their findings strongly propose that pristine and defected β-Sb monolayers are admirable anchoring material for Li−S batteries.…”
Section: Introductionmentioning
confidence: 99%
“…47 Like other graphene analogues, single crystalline 2D antimonene has been studied for Mg-ion batteries with the charging capacity of 735 mAh/g and diffusion barrier of 0.45 eV. 48 From the groups of monochalcogenides and dichalcogenides, several materials have been studied for electrode applications. For example, study of V 2 C as anode material concluded a charging capacity of 945 mAh/g with a diffusion barrier of 0.045 eV for Li-ion battery systems.…”
Section: Limitations Of the Conventional Battery Materialsmentioning
confidence: 99%
“…41,53,69,70 For MIBs, the changes in the lattice constant of the SnB monolayer are 4-5 times lower than those of GeP 3 (3.0%) and antimonene (4%), which is also much lower than that of commercial graphite (12% for LIBs). 37,71 The volume expansion values DV of Na 3 SnB, K 2.5 SnB and Mg 1.5 SnB are shown in Fig. S1 (ESI †), which are 2.41, 7.14 and 0.83%, respectively.…”
Section: Open-circuit Voltage and Cycle Performance Of Na- K- And Mg-...mentioning
confidence: 99%