In recent years, an increasingly large variety of molecular species have been successfully
cooled to low energies, and innovative techniques continue to emerge to reach ever more …

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 …

Stable ultracold ensembles of dipolar molecules hold great promise for studies of many-
body quantum physics, but high inelastic loss rates have been a long-standing challenge …

Recent years have witnessed tremendous progress in creating and manipulating ground-
state ultracold polar molecules. However, the two-body loss regardless of the chemical …

Ensembles of particles governed by quantum mechanical laws exhibit intriguing emergent
behaviour. Atomic quantum gases,, liquid helium, and electrons in quantum materials,–all …

Collisional complexes, which are formed as intermediate states in molecular collisions, are
typically short-lived and decay within picoseconds. However, in ultracold collisions involving …

In recent years, there has been notable progress in the preparation and control of ultracold
gases of diatomic molecules. The next experimental challenge is the production of ultracold …

Many experimental platforms for quantum science depend on state control via laser fields.
Frequently, however, the control fidelity is limited by optical phase noise. This is exacerbated …

The presence of electric or microwave fields can modify the long-range forces between
ultracold dipolar molecules in such a way as to engineer weakly bound states of molecule …

We analytically show that the effective interaction potential between microwave-shielded
polar molecules consists of an anisotropic van der Waals–like shielding core and a modified …