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Raju Venugopalan Awarded Prestigious Humboldt Research Award  

Raju Venugopalan, an adjunct professor at Stony Brook University and a senior physicist at the U.S. Department of Energy’s Brookhaven National Laboratory, has been awarded a Humboldt Research Award for his remarkable achievements in theoretical nuclear physics. This prestigious international award — issued by the Alexander von Humboldt Foundation in Bonn, Germany — comes with a prize of €60,000 (nearly $70,000 U.S.) and the opportunity to collaborate with German researchers at Heidelberg University and elsewhere. Venugopalan joins 13 other Brookhaven National Laboratory physicists who have received this award since 1974.

“This is a great honor and I’m delighted to be in the company of other Humboldt winners over the past years,” Venugopalan said. “This award gives me a wonderful opportunity to build on and establish new collaborations with my colleagues in Germany, where I’ve been on sabbatical at the Institute for Theoretical Physics at Heidelberg University for the past year. I look forward to widening and deepening these connections.”

Venugopalan’s work is focused on developing theories to explain and predict the behavior of extreme forms of nuclear matter-including the several-trillion-degree soup of quarks and gluons, known as quark-gluon plasma (QGP), generated in energetic particle collisions at colliders like Brookhaven Lab’s Relativistic Heavy Ion Collider and Europe’s Large Hadron Collider He’s also explored the behavior of matter at the opposite temperature extreme, namely in ultra-cold atomic gases.

See more here and the complete BNL press release here.

Scientific Reports Publication  

Chemistry and Physics Prof. Jin Wang and Physics Graduate Student Zhedong Zhang published "Origin of long-lived quantum coherence and excitation dynamics in pigment-protein complexes" in the Scientific Reports.

Nonequilibrium quantum statistical dynamics is of fundamental importance and critical for understanding of the energy and charge transports. The recent development of renewable energy demands the improvement of efficiency of energy and charge transports in materials. The widespread interests in exploring the quantum nature in solar cells and the antenna systems have been triggered by the experimental investigations of excitonic dynamics in a wide variety of systems, e.g., semiconductors, organic molecules, light harvesting complexes, natural and synthetic photosynthetic complexes. Even with the current knowledge of electronic structure in antenna and the advances in spectroscopy that uncovered the long-lived quantum coherence in fluctuating environment, the full understanding of the role of coherence and the mechanism of excitation energy transfer has still remained elusive.

In this study, a mechanism for a long standing issue of the origin of long-survived quantum coherence (e.g., light-harvesting complexes) for efficient energy transfer was uncovered in a general scenario. The bare electrons are surrounded by nuclear vibrational modes, which leads to the strong exciton-vibron coupling. The new composite called polaron gives rise to the screening and leads to much weaker interactions with the environments. The decoherence will then be significantly suppressed and the long-lived quantum coherence emerges. The nonequilibriumness from detailed balance breaking and coherence can funnel the downhill migration of excitons. The survival of quantum coherence is long enough to significantly improve the energy transfer efficiency under the breakdown of time-reversal symmetry. This result suggesting a mechanism of slowing down the dephasing is of importance for energy/charge transports and quantum information/computing.

See more info here and the full paper here.

Researchers Receive INCITE Award to Study Stellar Explosions  

A project led by SBU Department of Physics and Astronomy professors Michael Zingale and Alan Calder has been awarded 45 million “processor hours” on the Titan Cray XK7, billed by host Oak Ridge National Laboratory as “the nation’s most powerful supercomputer for open science” (theoretical peak performance: 27,000 trillion calculations per second, or 27 petaflops).

Zingale and Calder – along with two SBU graduate students Donald Willcox and Maria Barrios as well as co-investigators from Oak Ridge, Lawrence Berkeley National Laboratory, the University of California, Los Alamo National Laboratory and the University of Tennessee – will spend their petaflops recreating complex astronomical events like X-ray bursts and white-dwarf explosions.

The idea is to gather clues needed to solve a host of astrophysics problems, with a particular focus on stellar explosions powered by fusion reactions.

See more here.

Sally Dawson received J.J. Sakurai Prize  

Brookhaven Lab particle physics theorist and Stony Brook University Adjunct Professor Sally Dawson has been named a recipient of the 2017 J.J. Sakurai Prize for Theoretical Particle Physics. Dawson and her co-recipients-Gordon L. Kane of the University of Michigan, Howard E. Haber of the University of California, Santa Cruz, and John F. Gunion of the University of California, Davis-are long-term and ongoing colleagues. They were cited for their "instrumental contributions to the theory of the properties, reactions, and signatures of the Higgs boson." They will receive the award, which consists of $10,000 to be shared and certificates citing their achievements, at a ceremony during an APS meeting themed "Quarks 2 Cosmos" on Sunday, January 29, 2017, in Washington, D.C.

Dawson is best known for developing mathematical models to explain and predict the processes by which Higgs particles are produced.

"You never would have found the Higgs if you didn't know what you were looking for," Dawson explained to further highlight the importance of the theory work. "The searches were based on years of calculations and the detectors were designed to find this thing based on that theoretical work, which is still ongoing," Dawson said. Today, Dawson and her colleagues are collaborating to more accurately predict the production and decay processes for Higgs particles at the LHC.

See more here.

Credit: Brookhaven National Laboratory

Paul Grannis elected as a Foreign Member of the Russian Academy of Sciences  

Paul Grannis was elected as a foreign member of Russian Academy of Sciences "for outstanding achievements in high energy physics including the top quark discovery and very important contributions to the scientific cooperation between our countries".

Paul Grannis joined the Stony Brook faculty in September 1966. He is currently Research Professor and Distinguished Professor Emeritus.He served as chair of the Physics and Astronomy Department from 2002 to 2005. He has been associated with the D0 experiment at Fermi National Accelerator Laboratory since its birth in 1983 to the present, serving as spokesman or co-spokesman from 1983 to 1996 and 2014 to the present. The D0 collaboration brought together scientists from 19 nations and has published almost 500 papers.

APS Fellows 2016  

American Physical Society (APS) has elected Fellows for the year of 2016. APS Fellowship is a distinct honor for APS members and is a prestigious recognition by their peers.

Physics & Astronomy would like to congratulate:

Abanov, Alexander G. - Condensed Matter Physics
For pioneering contributions to electronic condensed matter physics using topological and hydrodynamic methods.

Drees, Axel - Nuclear Physics
For having a leading role in the discovery of the suppression of high momentum hadrons and jet quenching in heavy ion collisions at the Relativistic Heavy Ion Collider, and his key contributions to the discovery that hadron properties are modified near the transition to the quark-gluon plasma through the measurement of electron-positron pairs.

See more here and here.

2016 Nobel Prize in Physics  

The 2016 Nobel Prize in Physics "for theoretical discoveries of topological phase transitions and topological phases of matter" was awarded to David J. Thouless (University of Washington), F. Duncan M. Haldane (Princeton University), and J. Michael Kosterlitz (Brown University).

The use of topology in condensed matter physics goes back to studies of topological defects (vortices) in superfluid helium and solitons in polyacetylene in the seventies. The field boomed in the eighties after the discovery of Quantum Hall Effect by von Klitzing in 1980. By now the field of topological phases of matter is well established and is developing very quickly. This year's Nobel Prize recognizes major achievements and the importance of this field in modern physics.

Research on topological phases of matter is represented in the Department by Lukasz Fidkowski, Tzu-Chieh Wei and Alexander Abanov. One of the distinguishing features of studies in topological phases of matter is the constant collaboration of physicists representing very different disciplines such as condensed matter proper, nuclear theory, string theory, quantum information research, and mathematical physics. All these directions are well represented in the Department of Physics and Astronomy at Stony Brook University. The active research inspired by 2016 Nobel Prize winners at the Department is being done on geometry of Quantum Hall states, classification of topological phases of matter, transport in Weyl semimetals, entanglement and quantum computation, matrix product states, topological effects in QCD, and holographic approach to condensed matter physics as well as experimental studies of graphene and cold atoms.

See more about Nobel Prize here.

YITP 50th Anniversary Symposium, Simons Center for Geometry and Physics, Oct. 9 and 10th  

The foundation of the Institute for Theoretical Physics in 1966 under the guidance of Chen Ning Yang brought Stony Brook University to the world stage in science. In the succeeding decades, the Institute, in collaboration with the Department of Physics and Astronomy, and now with the Simons Center for Geometry and Physics has provided the opportunity for hundreds of researchers, students, postdocs, visitors and faculty to develop their knowledge and to create new ideas in a vibrant atmosphere of research and instruction.

The Institute is marking the anniversary with a symposium, Oct. 9 and 10 at the Simons Center for Geometry and Physics, bringing together its alumni and friends. As it enters its sixth decade, the C. N. Yang Institute for Theoretical Physics continues the historic tradition of frontier science at Stony Brook University.

The program can be found here.

The scientific program will conclude with a Sir Run Run Shaw Distinguished Lecture: What is String Theory? by Ashoke Sen.
This talk is intended for the general university community. Ashoke Sen (Ph.D. Stony Brook, 1983) was an inaugural recipient of the Breakthrough Prize in Fundamental Physics in 2012, and was awarded the Dirac Medal in 2014, for pioneering work in string theory. He is visiting Stony Brook as part of the YITP's 50th anniversary. The Run Run Shaw Lecture series was established by C.N. Yang in 1985.

Monday, October 10, 2016 5:30 pm
   Simons Center for Geometry and Physics, Lecture Hall

$10M Simons Collaboration on the Non-Perturbative Bootstrap  

Leonardo Rastelli of the YITP and the Department of Physics and Astronomy will lead a groundbreaking "Collaboration on the Non-Perturbative Bootstrap" as Director for a new grant that includes fourteen other principal investigators at institutions in the United States, Canada and Europe.

On August 25th, the Simons Foundation announced the establishment of the "Simons Collaboration on the Non-perturbative Bootstrap", with total funding of $10M over four years. Quantum Field Theory (QFT) is the language of modern theoretical physics. Quantum fields describe our knowledge of nature at the shortest distances, accessible by high energy accelerators, and also in phenomena like superconductivity, states of matter that can be created in the laboratory. A critical challenge for theoretical physics is to chart and understand the “space” of all possible QFTs, including strongly interacting models that are difficult to study by conventional methods. The Collaboration will bring to bear new theoretical tools, some developed here at the YITP, to address this question. The starting point is the astonishing discovery that the space of QFTs can be determined by using only general principles: symmetries and quantum mechanics. By analyzing the full implications of these general principles, one can make sharp predictions for physical observables without resorting to approximations. This strategy is called the bootstrap. New developments within the past few years suggest that the time is right for a concerted effort to open a new window on nature at its most fundamental. The Foundation considers the Collaboration as "the beginning of a much larger enterprise, crossing the traditional boundaries" in physics, mathematics and computer science.

Department of Physics and Astronomy Welcomes New Faculty  

Luis Alvarez-Gaume, Professor of Physics and Astronomy and the Yang Institute for Theoretical Physics, will direct the Simons Center. He received his Ph.D. from Stony Brook in 1981. After positions at Harvard and Boston University he joined the Theory Division at CERN. He studies string theory, quantum field theory, black holes, and cosmology. He has written introductory lectures on Quantum Field Theory and reviewed many aspects of string theory and field theory. Since 2003 he has been a corresponding member of the Spanish Royal Academy of Sciences.

Department of Physics and Astronomy Welcomes New Faculty  

Alexander Zamolodchikov, the C.N. Yang / Wei Deng Endowed Chair, joins the Department of Physics and Astronomy and the C.N. Yang Institute for Theoretical Physics. He received his PhD in 1978 from the Institute of Theoretical and Mathematical Physics in Moscow. He was a senior researcher at the Landau Institute, and later a Board of Governors Professor of Physics at Rutgers University. His published work has been cited over 18,000 times, including three papers each with more than 1,000 citations. He was awarded a Guggenheim Fellowship, was elected in to the American Academy of Arts and Sciences, received the Dirac Medal for Theoretical Physics, the Pomeranchuk Prize from the ITEP, Moscow, and the American Physical Society’s Lars Onsager Prize. In 2016 he was inducted in to the National Academy of Sciences.

Department of Physics and Astronomy Welcomes New Faculty  

Nicola Giacinto Piacquadio, Assistant Professor, is an experimental particle physicist. He completed his Ph.D. at the University of Freiburg (Germany), and from there held a prestigious CERN Fellowship, a Marie Curie Award, and the W. Panofsky Fellowship at SLAC. His research is on physics of the Standard Model and beyond using the massive ATLAS detector at CERN, which recently announced the discovery of the Higgs Boson.

Sergey Syritsyn, Assistant Professor, is a theoretical nuclear physicist. He completed his Ph.D. at MIT under the supervision of John Negele in the Center for Theoretical Physics. He then held a Postdoctoral Fellowship in the Nuclear Science Division, at the Lawrence Berkeley National Laboratory, a RIKEN Foreign Postdoctoral Researcher Fellowship at the Brookhaven National Laboratory, and the Nathan Isgur Fellowship at Theory Center, Thomas Jefferson National Laboratory.

Navid Vafaei-Najafabadi, Assistant Professor, studies the physics of high energy charged particle accelerators. He received his Ph.D. in Electrical Engineering (from the University of California, Los Angeles on beam driven plasma wakefield accelerators,” which seeks to use novel techniques involving high-power lasers to drive charged particles to very high energies.

2016 Ettore Majorana Gold Medal for the Discovery of Supergravity  

Distinguished Professor Peter van Nieuwenhuizen of Stony Brook's C.N. Yang Institute for Theoretical Physics and the Department of Physics and Astronomy received the 2016 Ettore Majorana Gold Medal along with co-recipients Daniel Z. Freedman of Stanford and Sergio Ferrara of CERN for their role in the discovery of supergravity 40 years ago.

Supergravity is one of Stony Brook's greatest contributions to science. It generalized Einstein's theory of gravity by incorporating the then-novel idea of supersymmetry. The combination of these powerful ideas by Ferrara, Freedman and van Nieuwenhuizen showed that gravity may be unified with other forces in nature, and that in fact, this unification will predict as-yet unseen particles and forces between them.

From left: Prof. Zichichi (Director of the Ettore Majorana summerschool in subnuclear physics), Sergio Ferrara (CERN), Daniel Freedman (former SBU, currently Stanford), Peter van Nieuwenhuizen (SBU).

New T2K Findings Provide Insight to Our Matter-Dominant Universe and Why We Exist  

At the 38th International Conference on High Energy Physics, Stony Brook University Physicist Chang Kee Jung presented new findings on behalf of the international T2K Collaboration that reveal why the universe is dominated by matter and why we exist.

Professor Jung, a leading member of the T2K Collaboration, explained how they can now demonstrate why matter and antimatter are different. He also presented the latest results of the T2K findings and explained why they are significant to theories of particle physics and Bing Bang Cosmology.

Also Nature, the International Weekly Journal of Science, reports on the T2K's recent results on the Charge-Parity (CP) violation in neutrinos that is believed to hold a key to our understanding of the matter dominant universe, presented at the ICHEP 2016 conference.

To see more click here.


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