Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Yu. V. Bludov; D. A. Bahamon; N. M. R. Peres; C. J. S. de Matos

doi:10.54499/PTDC/FIS-MAC/2045/2021

Paper details

Research paper

TheoreticalComputed Phonon

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Yu. V. Bludov, D. A. Bahamon, N. M. R. Peres, C. J. S. de Matos

arXiv preprint·2024·10.54499/PTDC/FIS-MAC/2045/2021·arXiv:2403.00722

Samples

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

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

No measurements recorded

SimulatedCStudied MaterialhBNStudied Materialanalyte dielectric layerSubstrate / Dielectricvacuum/airSubstrate / Dielectric

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

No measurements recorded

SimulatedCStudied MaterialhBNStudied Materialvacuum/airSubstrate / Dielectric

Materials

graphene

Studied Material

Also known as

graphene monolayergraphene nanostripsgraphene nanoribbons

Variables

dimensionality= 2D

studied material

Why these are connected

Related documents with shared materials, methods, properties, or citations.

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure | Matter42 Literature

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Hyperbolic phonon-plasmon polaritons in an hBN-graphene van der Waals structure

Samples

Periodic array of graphene nanostrips cladded by top and bottom hBN layers and covered by a finite-thickness analyte dielectric layer, truncated by vacuum/air on both sides.

Uniform graphene monolayer cladded between two hBN layers, used as a reference structure in the paper.

Materials

Why these are connected

Simulations

Simulations

Simulations

Simulations