Dan Stamper-Kurn in laboratory

Research Expertise and Interest

atomic physics, the use of ultra-cold neutral atoms, studies of microscopic and macroscopic quantum phenomena, cavity quantum electrodynamics, Bose-Einstein condensation, precision and quantum measurement

Research Description

The developing field of ultracold atomic physics provides tantalizing opportunities for exploring physical phenomena in a regime that has heretofore been inaccessible: material systems with temperatures in the nanokelvin range (and below), with broadly and instantly tunable interactions, residing in dynamically adaptable containers, and amenable to the precise manipulation and detection tools of atomic physics. Dan Stamper-Kurn's research has focused on developing further capabilities in this field, and utilizing these advances to study many-body quantum physics, to explore the "coherent optics" and "quantum optics" of matter waves, to realize novel consequences of light-atom interactions, and to perform precision measurements of scientific and technological importance.

His research agenda continues to evolve and to involve new students, postdocs, and visitors. Please contact dmsk@berkeley.edu for more information.  

In the News

UC Berkeley to lead $25 million quantum computing center

As part of the federal government’s effort to speed the development of quantum computers, the National Science Foundation (NSF) has awarded the University of California, Berkeley, $25 million over five years to establish a multi-university institute focused on advancing quantum science and engineering and training a future workforce to build and use quantum computers.

Berkeley Lab and UC Berkeley Researchers Record First Direct Observations of Quantum Effects in an Optomechanical System

Scientists with the U.S. Department of Energy’s Lawrence Berkeley National Laboratory (Berkeley Lab) and the University of California (UC) Berkeley, using a unique optical trapping system that provides ensembles of ultracold atoms, have recorded the first direct observations of distinctly quantum optical effects – amplification and squeezing – in an optomechanical system.

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