Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Eduardo B. Molinero; Bruno Amorim; Mikhail Malakhov; Giovanni Cistaro; Álvaro Jiménez-Galán; Misha Ivanov; Antonio Picón; Pablo San-José; Rui E. F. Silva

doi:10.1038/s41535-021-00377-8

Paper details

Research paper

TheoreticalComputed PL

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Eduardo B. Molinero, Bruno Amorim, Mikhail Malakhov, Giovanni Cistaro et al.

arXiv·2023·10.1038/s41535-021-00377-8·arXiv:2307.16647

Samples

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

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

1 characterization4 properties2 figures

Simulated Supercell DfthBNStudied Material

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

1 characterization2 figures

Simulated Supercell DfthBNStudied MaterialSiO₂Substrate / Dielectric

Materials

hexagonal boron nitride

hBN

Studied Material

Also known as

hBN

studied material

silica

SiO₂

Substrate / Dielectric

Also known as

Why these are connected

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

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials | Matter42 Literature

Properties

Type	Label	Value	Material	Sample	Source
Optical Band Gap	single-particle band gap	4.52eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Binding Energy	exciton binding energy	2eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	5th harmonic energy	2.1eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	7th harmonic energy	2.9eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—

Properties

Type	Label	Value	Material	Sample	Source
Optical Band Gap	single-particle band gap	4.52eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Binding Energy	exciton binding energy	2eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	5th harmonic energy	2.1eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	7th harmonic energy	2.9eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—

Properties

Type	Label	Value	Material	Sample	Source
Optical Band Gap	single-particle band gap	4.52eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Binding Energy	exciton binding energy	2eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	5th harmonic energy	2.1eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	7th harmonic energy	2.9eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—

Properties

Type	Label	Value	Material	Sample	Source
Optical Band Gap	single-particle band gap	4.52eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Binding Energy	exciton binding energy	2eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	5th harmonic energy	2.1eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—
Photon Energy	7th harmonic energy	2.9eV	hBN	Monolayer hBN used for strong-field HHG simulations with exc	—

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Formation, stability, and highly nonlinear optical response of excitons to intense light fields interacting with two-dimensional materials

Samples

Monolayer hBN used for strong-field HHG simulations with excitonic interactions included or excluded.

Monolayer hBN encapsulated in SiO₂ to emulate dielectric screening in the optical simulations.

Materials

Why these are connected

Characterization

Properties

Simulations

Characterization

Properties

Simulations

Characterization

Properties

Simulations

Characterization

Properties

Simulations