Exploring the interplay between topological band structures and tunable nonlinearities has
become possible with the development of synthetic lattice systems. In this emerging field of …

Recent experimental breakthroughs in non-Hermitian ultracold atomic lattices have dangled
tantalizing prospects in realizing exotic, hitherto unreported, many-body non-Hermitian …

The exchange of collective modes has been demonstrated to be a powerful tool for inducing
superconductivity and superfluidity in various condensed matter and atomic systems. In this …

We study the properties of a single impurity in a dilute Bose gas, a Bose polaron, using the
functional renormalization group. We use an ansatz for the effective action motivated by a …

We present impelling evidence of topological phase transitions induced by electron-phonon
(e-ph) coupling in an α-T 3 Haldane-Holstein model that facilitates smooth tunability …

Single-and two-particle spectra of a single immobile impurity immersed in a fermionic bath
can be computed exactly and are characterized by divergent power laws (edge …

Lattice polarons, quasiparticles arising from the interaction between an impurity and its
surrounding bosonic environment confined to a lattice system, have emerged as a platform …

The use of atomically sized quantum systems as highly sensitive measuring devices
represents an exciting and quickly growing research field. Here we explore the properties of …

Immersing a mobile impurity in a quantum many-body environment can reveal fundamental
properties of the background medium, hence providing a powerful probe of quantum matter …

We theoretically propose the occurrence of a quantum spin Hall (QSH) and a second order
topological phase transition (TPT) driven by electron-phonon (ep) coupling in a pseudospin …