The emergence of quasiparticles in quantum many-body systems underlies the rich
phenomenology in many strongly interacting materials. In the context of doped Mott …

Quantum interference can deeply alter the nature of many-body phases of matter. In the
case of the Hubbard model, Nagaoka proved that introducing a single itinerant charge can …

The electron's kinetic energy plays a pivotal role in magnetism. While virtual electron
hopping promotes antiferromagnetism in an insulator, real hopping processes usually favour …

We study kinetic magnetism for the Fermi-Hubbard model in triangular lattices. We focus on
the regime of strong interactions, U≫ t, and filling factors around one electron per site. For …

We introduce density imbalanced electron-hole bilayers at a commensurate 2: 1 density
ratio as a platform for realizing novel phases of electrons, excitons, and trions. Through the …

Spin-ordered states close to metal-insulator transitions are poorly understood theoretically
and challenging to probe in experiments. Here, we propose that the quantum twisting …

A mobile impurity immersed in a noninteracting Fermi sea is dressed by the gapless particle-
hole excitations of the fermionic medium. This conventional Fermi-polaron setting is well …

We propose multilayer moiré structures in strong external magnetic fields as a novel platform
for realizing highly tunable, frustrated Hubbard physics with topological order. Identifying the …

Artificial two-dimensional (2D) moiré superlattices provide a platform for generating exotic
quantum matter or phenomena. Here, an epitaxial heterostructure composed of bilayer Bi …

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 …