Skip To Content

Build Optical Atomic Clocks for Fundamental Physics


This webinar is hosted By: Technical Group

29 October 2024 15:00 - 16:00

Eastern Daylight/Summer Time (US & Canada) (UTC -04:00)

Register Now

Share:

Join the NonImaging Optical Design Technical Group and the Optical Cooling and Trapping Technical Group for this exciting webinar featuring Jun Ye from JILA and the University of Colorado at Boulder.

Optical technologies such as frequency-stabilized lasers and laser cooling and trapping of atoms have revolutionized atomic physics and metrology. Scaling up the size of coherent quantum systems advances the frontier of precision measurement, and quantum entanglement is poised to make major impact in the near term. The new generation of optical atomic clocks enabled by modern laser technology and quantum science provide new opportunities to probe fundamental physics and explore emerging quantum phenomena. Recent advances include determination of the gravitational time dilation across a few hundred micrometers and employment of spin entanglement for optical clock comparison.

Subject Matter Level: Intermediate - Assumes basic knowledge of the topic

What You Will Learn:
• The working principles of optical atomic clocks, the most accurate man-made timekeepers ever built, and how they can be used to probe changes in local gravity over millimeter-scale distances.
• The experimental techniques for cooling, trapping and how they can be used to measure time with extremely high accuracy.

Who Should Attend:
• Physicists and engineers interested in how to measure gravity and even test general relativity with benchtop cold atom experiments.
• Scientists interested in the design of the optical setups required to build and control quantum systems with long coherence times.

About the Presenter: Jun Ye from JILA, The University of Colorado at Boulder

Jun Ye is a Fellow of JILA, a Fellow of NIST, and a member of the National Academy of Sciences. His research focuses on the development of new tools for light-matter interactions and their applications in precision measurement, quantum science, and frequency metrology. He has co-authored over 400 scientific papers and delivered 600 invited talks. Among his many awards and honors are N.F. Ramsey Prize (APS), I.I. Rabi Award (IEEE), I.I. Rabi Prize (APS), and W.F. Meggers Award (OSA). His recent 2022 honors include Breakthrough Prize in Fundamental Physics, Niels Bohr Institute Medal of Honour, Herbert Walther Award, and Vannevar Bush Fellowship. 

Image for keeping the session alive