The high-order harmonic generation in finite topological nanoribbons is investigated using a tight-binding approximation. The narrow, two-dimensional ribbons consist of hexagonal structures. A topological phase transition is defined by a sudden change of the topological invariant. In the bulk, this kind of phase transition might occur if an existing band gap closes and reopens again. Through the bulk-boundary correspondence, this is related to the emergence of topologically protected edge states in the respective finite systems. For the finite ribbons studied in this work, the variation of the tight-binding parameters leads to the emergence of two edge states after the closing of the band gap. The energies of those edge states as functions ...
The study of high-harmonic generation in confined quantum systems is vital to establishing a complet...
An intense laser field in the high-frequency regime drives carriers in graphene nanoribbons (GNRs) o...
We outline here how strong light-matter interaction can be used to induce quantum phase transition b...
The generation of high-order harmonics in finite, hexagonal nanoribbons is simulated. Ribbons with a...
In a blueprint for topological electronics, edge state transport in a topological insulator material...
The search of new means of generating and controlling topological states of matter is at the front o...
We prove that curvature effects in low-dimensional nanomaterials can promote the generation of topol...
In this paper, we study zigzag graphene nanoribbons with edges reconstructed with Stone-Wales defect...
In this Letter, it is shown that interactions can facilitate the emergence of topological edge state...
Recently introduced field of topological photonics aims to explore the concepts of topological insul...
Electromagnetic driving in a honeycomb lattice can induce gaps and topological edge states with a st...
We show that curvature-induced inhomogeneous strain distributions in nanoscale buckled semiconductin...
Non-Hermitian lattices under semi-infinite boundary conditions sustain an extensive number of expone...
We study the interplay between the edge states and a single impurity in a zigzag graphene nanoribbon...
Abstract We study the nonlinear optical properties of heterojunctions made of graphene nanoribbons (...
The study of high-harmonic generation in confined quantum systems is vital to establishing a complet...
An intense laser field in the high-frequency regime drives carriers in graphene nanoribbons (GNRs) o...
We outline here how strong light-matter interaction can be used to induce quantum phase transition b...
The generation of high-order harmonics in finite, hexagonal nanoribbons is simulated. Ribbons with a...
In a blueprint for topological electronics, edge state transport in a topological insulator material...
The search of new means of generating and controlling topological states of matter is at the front o...
We prove that curvature effects in low-dimensional nanomaterials can promote the generation of topol...
In this paper, we study zigzag graphene nanoribbons with edges reconstructed with Stone-Wales defect...
In this Letter, it is shown that interactions can facilitate the emergence of topological edge state...
Recently introduced field of topological photonics aims to explore the concepts of topological insul...
Electromagnetic driving in a honeycomb lattice can induce gaps and topological edge states with a st...
We show that curvature-induced inhomogeneous strain distributions in nanoscale buckled semiconductin...
Non-Hermitian lattices under semi-infinite boundary conditions sustain an extensive number of expone...
We study the interplay between the edge states and a single impurity in a zigzag graphene nanoribbon...
Abstract We study the nonlinear optical properties of heterojunctions made of graphene nanoribbons (...
The study of high-harmonic generation in confined quantum systems is vital to establishing a complet...
An intense laser field in the high-frequency regime drives carriers in graphene nanoribbons (GNRs) o...
We outline here how strong light-matter interaction can be used to induce quantum phase transition b...