Deflection of Rotating Symmetric Molecules by Inhomogeneous Fields
arXiv:1105.3071 · doi:10.1063/1.3626873
Abstract
We consider deflection of rotating symmetric molecules by inhomogeneous optical and static electric fields, compare results with the case of linear molecules, and find new singularities in the distribution of the scattering angle. Scattering of the prolate/oblate molecules is analyzed in detail, and it is shown that the process can be efficiently controlled by means of short and strong femtosecond laser pulses. In particular, the angular dispersion of the deflected molecules may be dramatically reduced by laser-induced molecular pre-alignment. We first study the problem by using a simple classical model, and then find similar results by means of more sophisticated methods, including the formalism of adiabatic invariants and direct numerical simulation of the Euler-Lagrange equations of motion. The suggested control scheme opens new ways for many applications involving molecular focusing, guiding, and trapping by optical and static fields.
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Cited by in corpus (10)
- Manipulation of Molecules with Electromagnetic Fields
- Observation of persistent orientation of chiral molecules by laser field with twisted polarization
- Enantioselective Orientation of Chiral Molecules Induced by Terahertz Pulses with Twisted Polarization
- Laser induced persistent orientation of chiral molecules
- Molecular Rotations in Matter-Wave Interferometry
- Improved spatial separation of neutral molecules
- Orientation and Alignment Dynamics of Polar Molecule Driven by Shaped Laser Pulses
- Long-Lasting Orientation of Symmetric-top Molecules Excited by Two-Color Femtosecond Pulses
- Beam broadening of polar molecules and clusters in deflection experiments
- Ionization-induced Long-lasting Orientation of Symmetric-top Molecules