Engineering frictional characteristics of MoS2 structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Jatin Kashyap; Joseph Torsiello; Yoshiki Kakehi; Dibakar Datta

doi:10.48550/arxiv.2206.09317

Paper details

Research paper

Computational MDComputational DFTComputational Aimd

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Jatin Kashyap, Joseph Torsiello, Yoshiki Kakehi, Dibakar Datta

2022·10.48550/arxiv.2206.09317·arXiv:2206.09317

Samples

Each sample groups how it was prepared, characterized, and measured. Click a card to expand.

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

No measurements recorded

MoS₂Studied Material

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

No measurements recorded

MoS₂Studied MaterialIndenter tipReference Material

Materials

MoS₂

Studied Material

Also known as

molybdenum disulfide

studied material

Indenter tip

Reference Material

Also known as

Why these are connected

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Engineering frictional characteristics of MoS2 structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis | Matter42 Literature

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

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Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

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Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

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Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Engineering frictional characteristics of MoS₂ structure by tuning thickness and morphology- An atomic, electronic structure, and exciton analysis

Samples

Simulated MoS₂ multilayer system used to study frictional response under varying thickness and morphology; the paper considers 1-4 layers and multiple indent configurations.

Simulated MoS₂ system contacted by an indenter tip for molecular-dynamics and electronic-structure analysis; used to represent the tip-surface interlocking and exciton formation discussed in the paper.

Materials

Why these are connected

Simulations

Simulations

Simulations

Simulations