The Joint Quantum Institute (JQI) is a publicly funded research organization dedicated to basic and applied research in quantum physics, with particular emphasis on quantum information science. Located on the campus of the University of Maryland (UMD) at College Park, Maryland, Joint Quantum Institute was created on September 11, 2006 by a joint memorandum of understanding among University of Maryland, the National Institute of Standards and Technology (NIST) and the Laboratory for Physical Sciences. It has a base annual budget of approximately $6 million, which supports both theory and experimental research by Joint Quantum Institute’s 27 Fellows, associated graduate students and postdoctoral scientists. Joint Quantum Institute’s co-directors are Steve Rolston, Professor of Physics at University of Maryland, and Charles W. Clark, Adjunct Professor of Physics at University of Maryland. Approximately half the Joint Quantum Institute fellows are from University of Maryland and half from NIST. One is from the Laboratory for Physical Sciences, a university-government facility adjacent to the UMD College Park campus.

Website
http://jqi.umd.edu/
Wikipedia
http://en.wikipedia.org/wiki/Joint_Quantum_Institute

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Electrons take new shape inside unconventional metal

One of the biggest achievements of quantum physics was recasting our vision of the atom. Out was the early 1900s model of a solar system in miniature, in which electrons looped around a solid nucleus. Instead, quantum physics ...

Bilayer graphene inspires two-universe cosmological model

Physicists sometimes come up with crazy stories that sound like science fiction. Some turn out to be true, like how the curvature of space and time described by Einstein was eventually borne out by astronomical measurements. ...

Novel design may boost efficiency of on-chip frequency combs

On the cover of the Pink Floyd album Dark Side of the Moon, a prism splits a ray of light into all the colors of the rainbow. This multicolored medley, which owes its emergence to the fact that light travels as a wave, is ...

New approach to information transfer reaches quantum speed limit

Even though quantum computers are a young technology and aren't yet ready for routine practical use, researchers have already been investigating the theoretical constraints that will bound quantum technologies. One of the ...

Quantum gases won't take the heat

The quantum world blatantly defies intuitions that we've developed while living among relatively large things, like cars, pennies and dust motes. In the quantum world, tiny particles can maintain a special connection over ...

Stretched photons recover lost interference

The smallest pieces of nature—individual particles like electrons, for instance—are pretty much interchangeable. An electron is an electron is an electron, regardless of whether it's stuck in a lab on Earth, bound to ...

Corkscrew photons may leave behind a spontaneous twist

Everything radiates. Whether it's a car door, a pair of shoes or the cover of a book, anything hotter than absolute zero (i.e., pretty much everything) is constantly shedding radiation in the form of photons, the quantum ...

Ring resonators corner light

Researchers at the Joint Quantum Institute (JQI) have created the first silicon chip that can reliably constrain light to its four corners. The effect, which arises from interfering optical pathways, isn't altered by small ...

Cold atoms offer a glimpse of flat physics

These days, movies and video games render increasingly realistic 3-D images on 2-D screens, giving viewers the illusion of gazing into another world. For many physicists, though, keeping things flat is far more interesting.

Pristine quantum light source created at the edge of silicon chip

The smallest amount of light you can have is one photon, so dim that it's pretty much invisible to humans. While imperceptible, these tiny blips of energy are useful for carrying quantum information around. Ideally, every ...

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