If the sun were to suddenly disappear (explode) would the gravitational effects of that be experienced here on earth instantaneously or eight minutes. I guess I am asking if information can travel faster than the speed of light?
Professor Brian DeMarco received his B.A. in physics, with a mathematics minor, from the State University of New York at Geneseo in 1996, graduating summa cum laude. As an undergraduate researcher, he worked on calibrating and developing neutron detectors for laser driven inertial confinement fusion experiments at the Lab for Laser Energetics.
He earned a Ph.D. in physics from the University of Colorado at Boulder (2001), where he extended magnetic trapping and evaporative cooling techniques to create the first quantum degenerate Fermi gas of atoms. This achievement merited Science magazine's imprimatur as one of the top ten scientific discoveries of 1999 and earned DeMarco the first JILA Scientific Achievement Award. In 2002, he received the American Physical Society's Division of Atomic, Molecular, and Optical Physics Thesis Award.
From 2001-2003, he was a National Research Council postdoctoral research fellow, working with David Wineland at the National Institute of Standards and Technology (Boulder) on quantum computing experiments with trapped atomic ions. DeMarco's work with the Ion Storage Group focused on developing improved quantum logic elements and "scaling-up" the complexity of quantum information processing tasks with trapped ions.
Professor DeMarco joined the Department of Physics at Illinois in August 2003. In October 2005, he was among 18 young physics researchers selected as finalists in a global competition to participate in Amazing Light: Visions for Discovery, an international symposium focused on exploring and advancing innovative research in physics and astronomy inspired by, and honoring the leadership and vision of, Charles Townes, winner of the 1964 Nobel Prize in physics. The symposium brought together renowned scholars and researchers, including 20 Nobel laureates, to explore the extraordinary challenges of 21st Century physics and cosmology. DeMarco won first place in the Quantum Physics category for his research aimed at realizing quantum simulation using atoms trapped in an optical lattice.
Prof. DeMarco is the recipient of an NSF CAREER award, ONR Young Investigator award, and a Sloan Foundation Fellowship.
Prof. DeMarco has served on the DAMOP Executive Committee, the review panel for NRC postdoctoral fellowships, the APS March Meeting and DAMOP program committee, and the APS DAMOP Thesis Prize committee. He currently serves on the APS Davisson-Germer Prize Committee, the National Academy of Science's Committee on Atomic, Molecular, and Optical Physics (CAMOS), and the NASA Fundamental Science Standing Review Board. Prof. DeMarco is also in the 2016-2018 class of the Defense Sciences Study Group.
Prof. DeMarco's research program at the University of Illinois focuses on solving outstanding problems in condensed matter physics using ultra-cold atoms trapped in an optical lattice. This approach, of using one quantum system to emaluate another, is known as quantum simulation and was first proposed as a potentially revolutionary technique by Richard Feynmann. Current research problems being tackled by his team include the properties of the disordered Bose- and Fermi-Hubbard models, thermometry and cooling in strongly correlated lattice systems, and unique states of matter in spin-dependent optical lattices. DeMarco's group was the first identify the cross-over between quantum tunneling and thermal activation of phase slips in an optical lattice (published in Nature), the first to realize 3D Anderson localization of matter (published in Science), and the first to observe many-body localization. His group was also the first to trap atoms in a disordered optical lattice in a regime described by the disordered Bose-Hubbard and disordered Fermi-Hubabrd model.
329 Loomis Laboratory
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