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 …

Femtochemistry techniques have been instrumental in accessing the short time scales
necessary to probe transient intermediates in chemical reactions. In this study, we took the …

The interplay of quantum statistics and interactions in atomic Bose–Fermi mixtures leads to a
phase diagram markedly different from pure fermionic or bosonic systems. However …

The control of molecules is key to the investigation of quantum phases, in which rich
degrees of freedom can be used to encode information and strong interactions can be …

Full control of molecular interactions, including reactive losses, would open new frontiers in
quantum science. We demonstrate extreme tunability of ultracold chemical reaction rates by …

In many chemical reactions, the transformation from reactants to products is mediated by
transient intermediate complexes. For gas-phase reactions involving molecules with a few …

The prospect of cooling matter down to temperatures that are close to absolute zero raises
intriguing questions about how chemical reactivity changes under these extreme conditions …

The control of physical systems and their dynamics on the level of individual quanta
underpins both fundamental science and quantum technologies. Trapped atomic and …

Chemical reactions represent a class of quantum problems that challenge both the current
theoretical understanding and computational capabilities. Reactions that occur at ultralow …