We explore how disorder and interactions conspire in lattice models with sequentially
activated hopping to produce K-body (or many-body) localized phases. Specifically, we …

We theoretically predict a working principle for optical amplification, based on Weyl
semimetals: When a Weyl semimetal is suitably irradiated at two frequencies, electrons …

Many-body localization (MBL) lends remarkable robustness to nonequilibrium phases of
matter. Such phases can show topological and symmetry breaking order in their ground and …

We derive a complete classification of Floquet phases of interacting bosons and fermions
with U (1) symmetry in two spatial dimensions. According to our classification, there is a one …

A general expression for the orbital magnetization of a Floquet system is derived. The
expression holds for a clean system and is valid for any driving protocol and arbitrary …

Repeated quantum measurements can generate effective new nonequilibrium dynamics in
matter. Here we combine such a measurement driven system with disorder. In particular, we …

We present an effective field theory approach to the topological response of Floquet systems
with symmetry group G. This is achieved by introducing a background G gauge field in the …

This work introduces a general theoretical framework, which expresses the topological
invariants of two-dimensional Floquet systems in terms of tractable response functions …

Chiral Spin Liquids (CSL) are quantum spin analogs of electronic Fractional Chern
Insulators. Their realizations on ultracold-atom or Rydberg-atom platforms remain very …

Time-periodic (Floquet) drive is a powerful method to engineer quantum phases of matter,
including fundamentally nonequilibrium states that are impossible in static Hamiltonian …