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

Today we are witnessing the electric–dipole revolution in chiral measurements. Here we
reflect on its lessons and outcomes, such as the perspective on chiral measurements using …

We here report on a quantitative study of enantiomer-specific state transfer, performed in a
pulsed, supersonic molecular beam. The chiral molecule 1-indanol is cooled to low …

In the last decade, experiment and theory have expanded our vision of non‐covalent
interactions (NCIs), shifting the focus from the conventional hydrogen bond to new bridging …

Chiral discrimination that is efficient at detecting tiny amounts of chiral substances,
especially at the single-molecule level, is in great demand. Here, we propose a single-shot …

A highly efficient method for optical or microwave detection and separation of left-and right-
handed chiral molecules is proposed. The method utilizes a closed-loop three-state system …

Three-wave mixing spectroscopy of chiral molecules, which exist in left-handed and right-
handed conformations, allows for enantioselective population transfer despite random …

Chiral discrimination, a problem of vital importance, has recently become an emerging
frontier in ultrafast physics, with remarkable progress achieved in multiphoton and strong …

Enantiodiscrimination with single-molecule and single-shot resolution is fundamental for the
understanding of the fate and behavior of two enantiomers in chemical reactions, biological …

The capabilities of rotational spectroscopy-based methods as tools to deliver accurate and
precise chirality-sensitive information are still breaking ground, but their applicability in the …