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Assembling a Magneto-Optical Trap for Undergraduate Physics Laboratories

Julia Raible

Published Jan 1, 2018• 0 citations
OpenAlex

Related papers

Design and construction of a pyramidal Magneto-Optical Trap for laser cooling of rubidium atoms

Stefan Mangnusson

In this Master's thesis a pyramidal Magneto-Optical trap (MOT) for rubidium has been designed and constructed.This will be used in the Atomic physics cources for undergraduate students at Lund Technical University.The theory for Laser Cooling and Trapping is covered.A detailed instruction of how to design and build a low-cost MOT is presented.All necessary components are now in the picosecond laboratory of Lund High Power Laser Facility.This report is a continuation of another Master's thesis, Lund Reports on Atomic Physics (LRAP) 325. 1 8. Chu, C. Cohen-Tannoudji and W.D. Phillips [22].

Lund reports on atomic physics•Jan 1, 2005•1 citation

Achieving a Stable Magneto-Optical Trap

Chasen S Himeda

•Jan 1, 2018•0 citations

Parameters involved in a magneto-optical trap

Alex Krüger, R. Zanon, Vanderlei Salvador Bagnato +1 more

Livro de Resumos•Jan 1, 2012•0 citations

Measurement of sub-natural linewidth AC Stark shifts in cold atoms: An experiment for an advanced undergraduate laboratory

J. Kleykamp, Andrew J. Hachtel, D. G. Kane +4 more

We measure sub-MHz AC Stark shifts, also known as light shifts, in an undergraduate laboratory setting using Raman pump-probe spectroscopy to observe sub-natural linewidth spectral features in the transmission spectrum of a weak probe beam passing through a sample of cold 85Rb atoms confined in a magneto-optical trap. To make this observation a pair of inexpensive fast photodiodes and acousto-optic modulators is needed, in addition to equipment commonly found in advanced undergraduate optics labs with laser cooling and atom trapping setups. A theoretical description of light shifts accessible to junior and senior-level physics majors is provided.

American Journal of Physics•Nov 29, 2011•4 citations

Introduction of advanced photonics research at the undergraduate level: an example from the Philippines

J. W. F. Liwag, Kees Karremans

Laser cooling experiments are a good example of how the interaction between light and matter can be applied to manipulate neutral atoms. At the University of San Carlos we have constructed a magneto-optical trap (MOT) for rubidium (Rb) atoms. The setup is based on the design of the MOT Wieman et al used in their efforts to reach Bose-Einstein condensation. The use of diode lasers enables the introduction of these advanced experiments at undergraduate level. Since 1998, when the MOT became operational at USC, a great number of undergraduate students have done the experiment. Not only did they learn the basics of cooling and trapping, they also gained experience in operating lasers properly, vacuum technology, and techniques for frequency stabilization. In some cases students opted to perform spectroscopy experiments on Rb atoms, which could easily be done using this setup. Of course, the presence of the MOT also gave a great boost to the research in optoelectronics, a new research direction in our department. Characterizing the MOT has resulted in several scientific papers in local physics journals as well as presentations to the annual Philippine Physics Congress. The next step is towards the realization of Bose-Einstein condensation of Rb in our Optoelectronics Laboratory.

Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE•May 28, 2002•0 citations

Constructing a Magneto-Optical Trap for an Atomic Interferometer

Dallas Akins, Dennis Ugolini

Bulletin of the American Physical Society•Oct 11, 2013•0 citations
In this Master's thesis a pyramidal Magneto-Optical trap (MOT) for rubidium has been designed and constructed.This will be used in the Atomic physics cources for undergraduate students at Lund Technical University.The theory for Laser Cooling and Trapping is covered.A detailed instruction of how to design and build a low-cost MOT is presented.All necessary components are now in the picosecond laboratory of Lund High Power Laser Facility.This report is a continuation of another Master's thesis, Lund Reports on Atomic Physics (LRAP) 325. 1 8. Chu, C. Cohen-Tannoudji and W.D. Phillips [22].
We measure sub-MHz AC Stark shifts, also known as light shifts, in an undergraduate laboratory setting using Raman pump-probe spectroscopy to observe sub-natural linewidth spectral features in the transmission spectrum of a weak probe beam passing through a sample of cold 85Rb atoms confined in a magneto-optical trap. To make this observation a pair of inexpensive fast photodiodes and acousto-optic modulators is needed, in addition to equipment commonly found in advanced undergraduate optics labs with laser cooling and atom trapping setups. A theoretical description of light shifts accessible to junior and senior-level physics majors is provided.
Laser cooling experiments are a good example of how the interaction between light and matter can be applied to manipulate neutral atoms. At the University of San Carlos we have constructed a magneto-optical trap (MOT) for rubidium (Rb) atoms. The setup is based on the design of the MOT Wieman et al used in their efforts to reach Bose-Einstein condensation. The use of diode lasers enables the introduction of these advanced experiments at undergraduate level. Since 1998, when the MOT became operational at USC, a great number of undergraduate students have done the experiment. Not only did they learn the basics of cooling and trapping, they also gained experience in operating lasers properly, vacuum technology, and techniques for frequency stabilization. In some cases students opted to perform spectroscopy experiments on Rb atoms, which could easily be done using this setup. Of course, the presence of the MOT also gave a great boost to the research in optoelectronics, a new research direction in our department. Characterizing the MOT has resulted in several scientific papers in local physics journals as well as presentations to the annual Philippine Physics Congress. The next step is towards the realization of Bose-Einstein condensation of Rb in our Optoelectronics Laboratory.