Experimental methods of molecular matter-wave optics

Author(s)
Thomas Juffmann, Hendrik Ulbricht, Markus Arndt
Abstract

We describe the state of the art in preparing, manipulating and detecting coherent molecular matter. We focus on experimental methods for handling the quantum motion of compound systems from diatomic molecules to clusters or biomolecules.

Molecular quantum optics offers many challenges and innovative prospects: already the combination of two atoms into one molecule takes several well-established methods from atomic physics, such as for instance laser cooling, to their limits. The enormous internal complexity that arises when hundreds or thousands of atoms are bound in a single organic molecule, cluster or nanocrystal provides a richness that can only be tackled by combining methods from atomic physics, chemistry, cluster physics, nanotechnology and the life sciences.

We review various molecular beam sources and their suitability for matter-wave experiments. We discuss numerous molecular detection schemes and give an overview over diffraction and interference experiments that have already been performed with molecules or clusters.

Applications of de Broglie studies with composite systems range from fundamental tests of physics up to quantum-enhanced metrology in physical chemistry, biophysics and the surface sciences.

Nanoparticle quantum optics is a growing field, which will intrigue researchers still for many years to come. This review can, therefore, only be a snapshot of a very dynamical process.

Organisation(s)
Quantum Optics, Quantum Nanophysics and Quantum Information
External organisation(s)
University of Southampton, Stanford University
Journal
Reports on Progress in Physics
Volume
76
No. of pages
28
ISSN
0034-4885
DOI
https://doi.org/10.1088/0034-4885/76/8/086402
Publication date
08-2013
Peer reviewed
Yes
Austrian Fields of Science 2012
1030 Physics, Astronomy, 103026 Quantum optics, 103008 Experimental physics
Keywords
Portal url
https://ucrisportal.univie.ac.at/en/publications/experimental-methods-of-molecular-matterwave-optics(75a4fab1-4e92-46fb-8d1a-0fc2a40aca94).html