Cooling and manipulation of nanoparticles in high vacuum

Authors/others:Millen, J.; Kuhn, S.; Patolsky, F. (Tel Aviv University); Kosloff, A. (Tel Aviv University); Arndt, M.
Abstract:Optomechanical systems, where the mechanical motion of objects is measured and controlled using light, have a huge range of applications, from the metre-scale mirrors of LIGO which detect gravitational waves, to micron scale superconducting systems that can transduce quantum signals. A fascinating addition to this field are free or levitated optomechanical systems, where the oscillator is not physically tethered. We study a variety of nanoparticles which are launched through vacuum (10(-8) mbar) and interact with an optical cavity. The centre of mass motion of a nanoparticle can be cooled by the optical cavity field. It is predicted that the quantum ground state of motion can be reached, leaving the particle free to evolve after release from the light field, thus preparing nanoscale matter for quantum interference experiments.
Number of pages:8
Date of publication:2016
Publication Series:Proceedings of SPIE, SPIE-INT SOC OPTICAL ENGINEERING, vol. 9922, 0277-786X,
Digital Object Identifier (DOI):
Publication Type:Contribution to proceedings
Host publication's title:Optical Trapping and Optical Micromanipulation XIII
Host publication's editors:Dholakia, KSpalding, GC