In the last decade, quantum simulators, and in particular cold atoms in optical lattices, have
emerged as a valuable tool to study strongly correlated quantum matter. These experiments …

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 …

When a mobile hole is moving in an antiferromagnet it distorts the surrounding Néel order
and forms a magnetic polaron. Such interplay between hole motion and antiferromagnetism …

Understanding the interplay between charge and spin and its effects on transport is a
ubiquitous challenge in quantum many-body systems. In the Fermi-Hubbard model, this …

We develop a nonperturbative theory for hole dynamics in antiferromagnetic spin lattices, as
described by the tJ model. This is achieved by generalizing the self-consistent Born …

The dynamical response of a quantum spin liquid upon injecting a hole is a pertinent open
question. In experiments, the hole spectral function, measured momentum-resolved in angle …

Tremendous recent progress in the quantum simulation of the Hubbard model paves the
way to controllably study doped antiferromagnetic Mott insulators. Motivated by these …

We investigate a rare instance of an exactly solvable nonequilibrium many-body problem. In
particular, we derive an exact solution for the nonequilibrium dynamics of an initially …

I unveil an emergent localization phenomenon pertaining to the motion of a dopant in a
thermal spin lattice. This is rendered localized by thermal spin fluctuations, whereby it is in …

Do quantum correlations play a role in high-temperature dynamics of many-body systems?
A common expectation is that thermal fluctuations lead to fast decoherence and make …