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

Generally, the linear motion between the source of a wave and an observer leads to a linear
Doppler effect. It is associated with the linear momentum of the wave. For electromagnetic …

We demonstrate an angular high-harmonic spectroscopy method to probe the spinning
dynamics of a molecular rotation wave packet in real time. With the excitation of two time …

Control of the orientation of the angular momentum of linear molecules is demonstrated by
means of laser polarization shaping. For this purpose, we combine two orthogonally …

A gas-phase molecular ensemble coherently excited to have an oriented rotational angular
momentum has recently emerged as an appropriate microscopic system to illustrate …

We directly visualize the spatiotemporal evolution of a unidirectional rotating molecular
rotational wave packet. Excited by two time-delayed polarization-skewed ultrashort laser …

We investigate experimentally and numerically the field-free orientation of the symmetric-top
molecule of methyl iodide at high temperatures using a terahertz radiation generated by a …

We present a detailed theoretical and experimental study of the rotation of the plane of
polarization of light traveling through a gas of fast-spinning molecules. This effect is similar …

A polarization-resolved beam deflection technique is used to separate the bound-electronic
and molecular rotational components of nonlinear refractive transients of molecular gases …

We present an observation of the rotational Doppler shift in the frequency of optical
harmonic generated in fast rotating molecules. Conservation of energy and angular …