We review recent work on low-frequency Floquet engineering and its application to quantum
materials driven by light, focusing on van der Waals systems hosting Moiré superlattices …

Dynamical phases with novel topological properties are known to arise in driven systems of
free fermions. In this paper, we obtain a 'periodic table'to describe the phases of such time …

Recent works have demonstrated that the Floquet–Bloch bands of periodically-driven
systems feature a richer topological structure than their non-driven counterparts. The …

Electronic states in quantum materials can be engineered by light irradiation, which is
greatly advanced by ab-initio computational predictions in realistic light-matter coupled …

Periodically driven (Floquet) systems have been under active theoretical and experimental
investigations. This paper aims at a systematic study in the following aspects of Floquet …

The Su–Schrieffer–Heeger model of polyacetylene is a paradigmatic Hamiltonian exhibiting
nontrivial edge states. By using Floquet theory we study how the spectrum of this one …

In this work, we theoretically investigate the light-induced topological phases and finite-size
crossovers in a paradigmatic quantum spin Hall (QSH) system with high-frequency pumping …

We demonstrate theoretically that the interaction of electrons in gapped Dirac materials
(gapped graphene and transition-metal dichalchogenide monolayers) with a strong off …

We develop a theory to derive effective Floquet Hamiltonians in the weak-drive and low-
frequency regime. We construct the theory in analogy with band theory for electrons in a …

Electromagnetic driving in a honeycomb lattice can induce gaps and topological edge states
with a structure of increasing complexity as the frequency of the driving lowers. While the …