The angular momentum of molecules, or, equivalently, their rotation in three-dimensional
space, is ideally suited for quantum control. Molecular angular momentum is naturally …

Ultracold molecules confined in optical lattices or tweezer traps can be used to process
quantum information and simulate the behaviour of many-body quantum systems. Molecules …

Synthetic dimensions alter one of the most fundamental properties in nature, the dimension
of space. They allow, for example, a real three-dimensional system to act as effectively four …

Recent pump-probe experiments on underdoped cuprates and similar systems suggest the
existence of a transient superconducting state above T c. This poses the question of how to …

We consider ultracold polar molecules trapped in a unit-filled one-dimensional chain in real
space created with an optical lattice or a tweezer array and illuminated by microwaves that …

Obtaining quantitative ground-state behavior for geometrically-frustrated quantum magnets
with long-range interactions is challenging for numerical methods. Here, we demonstrate …

We study the zero-temperature quantum phase diagram for a two-component Bose-Einstein
condensate in an optical cavity. The two atomic spin states are Raman coupled by two …

We show that the interplay between antiferromagnetic interaction and hole motion gives rise
to a topological superconducting phase. This is captured by the one dimensional anisotropic …

We investigate the effect of two-body loss due to chemical reactions on quantum magnetism
of fermionic polar molecules in an optical lattice. We show that an interplay between …

We use a combination of numerical matrix product states (MPS) and analytical approaches
to investigate the phase diagram of the two-leg tJ ladder in the region of low to intermediate …