Modelling Condensed Matter Systems with Quantum Gases in Optical Cavities
Lead Research Organisation:
University of Leeds
Department Name: Physics and Astronomy
Abstract
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Organisations
People |
ORCID iD |
| Almut Beige (Principal Investigator) |
Publications
Blake T
(2011)
Laser cooling of a trapped particle with increased Rabi frequencies
in Physical Review A
Busch J
(2011)
Cooling atom-cavity systems into entangled states
in Physical Review A
Blake T
(2012)
Rate-equation approach to cavity-mediated laser cooling
in Physical Review A
Kyoseva E
(2012)
Coherent cavity networks with complete connectivity
in New Journal of Physics
Stokes A
(2012)
Extending the validity range of quantum optical master equations
in Physical Review A
Beige A
(2013)
Announcing the JMO Series on Quantum Memories
in Journal of Modern Optics
Kim O
(2013)
Mollow triplet for cavity-mediated laser cooling
in Physical Review A
Stokes A
(2015)
An alternative electric-field spectrum for laser-driven atomic systems
in The European Physical Journal D
Beige A
(2015)
A cavity-mediated collective quantum effect in sonoluminescing bubbles
in Journal of Physics: Conference Series
Bennett R
(2016)
A physically motivated quantization of the electromagnetic field
in European Journal of Physics
Stokes A
(2017)
Using thermodynamics to identify quantum subsystems
in Journal of Modern Optics
Kim O
(2018)
Cavity-mediated collective laser-cooling of a non-interacting atomic gas inside an asymmetric trap to very low temperatures
in Journal of Modern Optics
| Description | We found additional resonances for cavity-mediated laser cooling which have not yet been considered in the literature and which might help to cool especially many particles to very low temperatures. We now try to extend the proposed cooling scheme to the case of many particles and to point out interesting effects. As a result we found a scheme for the collective cooling of an atomic gas inside an asymmetric trap. Our work shows that coherences can significantly enhance the cooling process. Many new ideas for more powerful cooling schemes arose from our work. |
| Exploitation Route | Further studies of cavity-mediated laser cooling. Development of analogous entangling schemes in a variety of open quantum systems. Development of cavity interfaces for Quantum information Processing. |
| Sectors | Digital/Communication/Information Technologies (including Software) Energy |
| URL | https://www.tandfonline.com/doi/full/10.1080/09500340.2018.1444800 |