Superior role of MXene nanosheet as hybridization matrix over graphene in enhancing interfacial electronic coupling and functionalities of metal oxide

X, Jin; Shin, Seung Jae; Kim, Najin; Kang, Bohyun; Piao, Huiyan; Choy, Jin Ho; Hwang, Seong Ju

doi:10.1016/j.nanoen.2018.09.055

Cited by 41 publications

(13 citation statements)

References 40 publications

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“…Fig.1Water contact angles of reported MXene films from literature. Wang N, et al,15 Yang W, et al,25 Liu J, et al,26 Liu J, et al,27 Ding L, et al,28 Ling Z, et al,29 Fan Z, et al,30 Ghidiu M, et al,31 Jin X, et al,32 Zhang T, et al,33 Zhou H, et al,21 Du F, et al,34 Zhao M, et al,35 Lorencova L, et al,17 Kang K. M, et al,36 Luo J, et al,37 Shen J, et al,14 Chen S, et al,38 Wei S, et al,39 Bian R, et al,40 Liu G, et al41 …”

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confidence: 99%

Study on contact angles and surface energy of MXene films

Zhou

Wang

et al. 2021

RSC Adv.

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mentioning

confidence: 99%

Study on contact angles and surface energy of MXene films

Zhou

Wang

et al. 2021

RSC Adv.

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“…[19] The selective Al layer etching from bulk layered MAX materials results in the formation of exfoliated MXene nanosheets under ultrasonication in water. [20] With the loading of ultrasonication force, monolayered LDH nanosheet can be synthesized by dispersing bulk LDH crystal with monovalent interlayer anions in a polar solvent like formamide, i.e., liquid exfoliation process. [2,4] Alternatively, the exfoliated LDH nanosheet can be obtained by the anion exchange of the pristine LDH with organic sulfonates.…”

Section: Inorganic 2d Nanosheetsmentioning

confidence: 99%

Synergetic Advantages of Atomically Coupled 2D Inorganic and Graphene Nanosheets as Versatile Building Blocks for Diverse Functional Nanohybrids

Kwon

et al. 2021

Advanced Materials

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Figure 8. a) Schematic illustration of the formation of heterolayered superlattice structure. b) XRD patterns of GO/LDH superlattice (black) and rGO/ LDH superlattice (red) and c) cross-sectional HR-TEM images of sandwiched LDH and graphene nanosheets. b, c) Reproduced with permission. [118] Copyright 2014, Wiley-VCH. d) Atomic force microscopy images and height profile for PDDA modified graphene nanosheet, e) XRD patterns and f) cross-sectional HR-TEM image of MoS 2 /PDDA-rGO superlattice. d-f) Reproduced with permission. [122]

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“…[60][61][62] However, if one of them be hydrophobic such as reduced graphene oxides (rGO), then physisorption will occur with vdW interactions between adjacent layers of 2DMs. [63] Importantly, the stacking order in vertical heterostructures may vary with respect to the number of layers. However, it directly influences the properties of heterostructures and hence requires careful consideration of the number and order of layers to achieve the desired properties.…”

Section: Geometric Configurations Of 2d Heterostructuresmentioning

confidence: 99%

Atomically Thin Nanosheets Confined in 2D Heterostructures: Metal‐Ion Batteries Prospective

Khan

Azadmanjiri

et al. 2021

Advanced Energy Materials

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Owing to the surge of energy storage devices, lithium and beyond‐lithium metal ion batteries (MIBs) have gained considerable research attention. The large size and multivalent ions drastically deteriorate the performance of conventional battery electrode materials which demands unique types of structures in order to fulfill the electrode requirements of next‐generation MIBs. Developing atomically thin nanosheets confined in 2D heterostructures is a favorable choice to synergistically handle the deficiencies of individual 2D materials and achieve distinct physical and electrochemical properties, retaining their 2D features. This article sheds light on the significance and characteristics of graphene‐based and beyond‐graphene 2D heterostructures as electrode materials in lithium‐ion, sodium‐ion, potassium‐ion, magnesium‐ion, and aluminum‐ion batteries. In this regard, the pathways for the selection of 2D heterostructures electrode materials and their possible geometric configurations are first recognized. Second, the fundamental science, underlying charge storage mechanisms, and robust interfacial charge transfer processes in 2D heterostructures are discussed comprehensively in the context of recent computational studies. Third, the recent state‐of‐the‐art experimental approaches for the fabrication of novel 2D heterostructures and their performance as anode and cathode materials for MIBs are discussed systematically. Finally, the current challenges facing 2D heterostructures and potential future research directions in the context of advanced MIBs are highlighted.

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Superior role of MXene nanosheet as hybridization matrix over graphene in enhancing interfacial electronic coupling and functionalities of metal oxide

Cited by 41 publications

References 40 publications

Study on contact angles and surface energy of MXene films

Study on contact angles and surface energy of MXene films

Synergetic Advantages of Atomically Coupled 2D Inorganic and Graphene Nanosheets as Versatile Building Blocks for Diverse Functional Nanohybrids

Atomically Thin Nanosheets Confined in 2D Heterostructures: Metal‐Ion Batteries Prospective

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