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Nicholas P. Bigelow is the Lee A. DuBridge Professor of Physics and Professor of Optics at the University of Rochester . He leads the Cat Group , oversees the Integrated Nanosystems Center (URNano) , and is affiliated with the Rochester Quantum Information Center, the Materials Science Program, and the Rochester Theory Center for Optical Science and Engineering. Education: B.S. in Engineering Physics and Electrical Engineering (1981) from Lehigh University, M.S. and Ph.D. in Physics (1989) from Cornell University. His research spans quantum optics , quantum physics , and experimental atomic/molecular physics . Key projects include: Creation and manipulation of ultracold atomic vapors (e.g., two-species Bose-Einstein condensates). Quantum control of ultracold molecules and their cooperative behavior. Quantum noise in atomic measurements. Theoretical studies on spinor condensates, multi-component Bose-Einstein condensates, and cold atom-atom interactions. He has served as Chair of the Physics & Astronomy Department (2007–2013), Chair of the NASA Microgravity Physics Program's Fundamental Physics Discipline Working Group, and Director of Undergraduate Studies (1998–2004). Scientific Awards Sloan Foundation Fellowship David and Lucile Packard Foundation Fellowship National Science Foundation Young Investigator Award University Dean's Award for Meritorious Service in Ph.D. Defenses (2003) Fellow of the American Physical Society (2004) Fellow of the Optical Society of America (2007) Award for Excellence in Undergraduate Teaching (1998, 2006) As a Topical Editor for Optics Letters (2004) and organizer of research meetings, he contributes to advancing quantum control , laser cooling , and ultra-fast spectroscopy . His work bridges experimental and theoretical research in quantum atom-photon interactions .

• Quantum Physics
• Quantum Optics
• Experimental Atomic Physics
• +5 more

Jianing Han is a Professor in the Department of Physics at the University of South Alabama, affiliated with the College of Arts and Sciences. His research focuses on quantum phenomena in cold atoms, van der Waals interactions, and few-body systems. He obtained his Ph.D. from the University of Virginia and B.S./M.S. degrees from Hebei University. Education: Ph.D., University of Virginia M.S. & B.S., Hebei University Research Interests: Investigating microscopic phase transitions through Rydberg atoms at ultra-low temperatures (~0.3 mK). Key areas include repulsive van der Waals interactions, creation of van der Waals molecules (dimers, trimers), and light-atom interactions. Techniques involve laser cooling, magneto-optical trapping, and Rydberg state excitations. Lab & Opportunities: The Han Research Lab explores van der Waals interactions and cold atom physics. A postdoc position is currently available. Research is supported by experimental setups using diode lasers and ring cavities. Advising: Open to mentoring curiosity-driven students interested in atomic/molecular physics and quantum systems.

• Atomic Physics
• Quantum Physics
• Van der Waals Interactions
• +4 more

Qi-Yu (Grace) Liang is an Assistant Professor in the Department of Physics and Astronomy at Purdue University. Her research focuses on quantum information transfer, quantum optics, and sensing using Rydberg atoms. She holds a Ph.D. from MIT (2017) and a B.S. from Peking University (2009). Her group explores programmable quantum transport in Rydberg atom arrays, electric field control for precision experiments, and applications of Rydberg interactions in quantum sensing. Education: Ph.D. in Physics, Massachusetts Institute of Technology, 2017 B.S. in Physics, Peking University, 2009 Research Interests: Quantum hardware development for scalable information processing Rydberg atom arrays for entanglement distribution and sensing Electric field control techniques for sub-wavelength atomic systems Topological features in spin-orbit coupled quantum gases Quantum nonlinear optics at the single-photon level Lab Activities: The Liang group operates in PHYS B76 laboratory, focusing on experiments involving cold atoms and Rydberg physics. They collaborate on initiatives like the Midwest Cold Atom Workshop and organize annual Quantum Open Houses. Recent projects include developing ultra-low noise current sources for precision measurements and exploring antiblockade effects in Rydberg excitations. Advising & Collaboration: Supervises graduate and undergraduate researchers including Yupeng Wang, Junjie Wang, and Aishik Panja. Engages in outreach activities such as hosting high school students and organizing seminars. Active in Purdue's AMO-QIS (Atomic, Molecular, and Optical - Quantum Information Science) community.

• Quantum Information
• Quantum Computing
• Quantum Optics
• +4 more

W. Vincent Liu is a Professor of Physics & Astronomy at the University of Pittsburgh, affiliated with the Dietrich School of Arts and Sciences. His research focuses on quantum many-body systems, ultra-cold atomic gases, and topological phases of matter. He explores emergent phenomena such as superfluidity, topological insulators, and time crystals, leveraging quantum field theory to model interacting quantum matter. Key research areas include orbital physics, strongly correlated electron systems, and applications to dense light and high-density QCD matter. His work bridges theoretical physics with experimental platforms like optical lattices and cold atoms. Awards: American Physical Society Fellowship (2017), Outstanding Young Researcher Award (2007) Advising: Current advisees include Malcolm Jardine, Zehan Li, and Jingchen Zhang. Labs/Teams: Active in theoretical condensed matter physics and quantum information collaborations. Publications highlight pioneering studies on chiral superfluids, Floquet topological insulators, and time crystals, often published in Nature , Science Bulletin , and Phys. Rev. Lett.

• Quantum Many-Body Systems
• Ultra-cold Atomic Gases
• Topological Phases of Matter
• +5 more

Robert Lewis-Swan is the Tedd S. Webb Presidential Professor in the Homer L. Dodge Department of Physics and Astronomy at the University of Oklahoma. His research focuses on non-equilibrium many-body physics in atomic, molecular, and optical (AMO) systems, with applications to quantum technologies. He explores quantum phenomena like entanglement and coherence in diverse systems including neutral atoms, polar molecules, and trapped-ion crystals. His work combines analytical and numerical methods to study complex interactions and quantum control. Education: B.Sc., University of Queensland, 2011 Ph.D., University of Queensland, 2015 Research interests include quantum simulation, cavity QED, spinor Bose-Einstein condensates, and quantum-enhanced sensing. Recent work highlights include studies on dynamical phase transitions, quantum chaos, and precision metrology using trapped ions and Rydberg systems. Selected Awards: Tedd S. Webb Presidential Professorship (2025) His lab develops tools for quantum state preparation, noise mitigation, and quantum control, with applications in next-generation quantum devices. Collaborative efforts span theoretical modeling and experimental implementations in AMO systems.

• Atomic, Molecular, and Optical Physics
• Quantum Many-Body Systems
• Quantum Information Science
• +3 more

Timothy Roach is a Professor of Physics at the College of the Holy Cross, specializing in experimental atomic physics with a focus on laser manipulation of ultracold atoms and high-precision atomic spectroscopy. His research involves creating optical lattices to study atomic behavior under controlled conditions, including density patterns and interactions with magnetic fields. He holds a Ph.D. from Yale University and teaches courses such as Introductory Physics, Modern Physics Lab, and Experimental Optics. His research methodologies include constructing precision spectrometers to analyze laser properties and investigate chaotic behavior in laser systems. Key contributions include studies on optical lattice structures, cold atom alignment, and the development of experimental apparatus for observing atomic density variations in optical molasses. Roach’s work bridges atomic physics and laser technology, with applications in quantum optics and condensed matter physics. His publications span over two decades, reflecting sustained engagement with the dynamics of cold atoms, magnetic reflectors, and ECDL systems.

• Experimental Atomic Physics
• Laser Manipulation of Ultracold Atoms
• High-Precision Atomic Spectroscopy
• +3 more

Gretchen Campbell is an Adjunct Professor at the University of Maryland and Co-Director of the Joint Quantum Institute (JQI). Her research focuses on ultracold atomic gases, particularly Bose-Einstein condensates (BECs) and their applications in studying quantum fluids and superfluidity. She leads experiments on atom circuits and ultracold strontium systems, exploring analogs of superconducting electronics and cosmological phenomena. Key projects include persistent currents in superfluid rings, Rayleigh-Taylor instabilities in quantum fluids, and grating magneto-optical trapping techniques. Her work bridges quantum simulation, condensed matter physics, and precision measurement. Recent advancements include the creation of sodium BECs in hybrid traps and strontium BECs for quantum simulation. She has pioneered atomtronic devices, such as superfluid SQUID analogs, and used expanding BECs to model cosmic phenomena like Hubble friction. Campbell also holds an appointment as Associate Vice President overseeing UMD’s quantum initiatives, reflecting her leadership in quantum science education and research. Research Groups: JQI, RQS (Quantum Simulation Group) Labs: Sodium Atom Circuits Lab, Ultracold Strontium Experiment Her team includes graduate students and postdocs working on topics like quantum control systems, narrow-line spectroscopy, and experimental instrumentation. Notable contributions include the development of programmable systems for atomic physics and ultra-low noise drivers for precision experiments.

• Ultracold Atomic Gases
• Quantum Fluids
• Bose-Einstein Condensates
• +5 more

Jacek Klos is a Research Professor at the Department of Chemistry, University of Maryland. His work focuses on quantum scattering theory, molecular dynamics, and ultracold collisions, with applications in astrophysical and condensed matter systems. He has developed computational tools like the Hibridon program for non-reactive quantum scattering calculations. His research spans chemical bonding in lanthanide compounds, interstellar medium chemistry, and precision measurements in ultra-cold atomic systems. Key contributions include studies on silver dimer formation, C60-noble gas interactions, and resonance effects in C+H2 collisions using Zeeman decelerators. Publications highlight advancements in understanding glancing collisions in vacuum standards, diffusion coefficients in rubidium-inert gas mixtures, and photo-driven radical formation. His work bridges theoretical models with experimental validation, emphasizing computational methods and molecular spectroscopy.

• Quantum Chemistry
• Physical Chemistry
• Atomic and Molecular Physics
• +3 more

Professor Ehud Altman is a faculty member in the Physics Department at the University of California, Berkeley, where he joined as a full professor in summer 2016 after serving as a Miller visiting professor during 2012-2013. Previously, he was an Associate Professor at the Weizmann Institute of Science (2005-2016), starting as a Yigal Alon fellow in 2005. His educational background includes: Ph.D. from Technion, Haifa (2002) Postdoctoral fellowship at Harvard University (2002-2005) Altman's research centers on quantum matter where interactions and entanglement produce emergent properties, with particular focus on non-equilibrium systems. His group employs field theory, strong disorder renormalization group, tensor networks, and quantum Monte Carlo simulations to investigate many-body localization, thermalization, driven quantum systems, and topological states in ultra-cold atomic matter. He maintains close collaborations with experimental groups studying quantum phenomena in cold atom platforms. His publication record reveals consistent contributions to many-body localization theory, topological quantum phases, and non-equilibrium dynamics, with significant work concentrated between 2004-2016. Key themes include disorder-driven quantum phase transitions, hidden order in low-dimensional systems, and emergent behavior in driven-dissipative condensates. Scientific recognition includes: Yigal Alon fellow (2005) Miller visiting professorship at UC Berkeley (2012-2013) Young investigator prize from Israel Physical Society (2010) Krill prize of Wolf foundation (2010) As leader of Ehud Altman's Group at Berkeley, he directs theoretical research supported by collaborations with experimental teams investigating quantum many-body phenomena. His work bridges condensed matter theory, quantum information, and atomic physics through development of novel analytical and numerical approaches to non-equilibrium quantum systems. The research laboratory focuses on fundamental questions in quantum statistical mechanics, with current projects examining thermalization boundaries in isolated systems, topological order in driven settings, and emergent properties of strongly correlated quantum matter using both analytical techniques and computational simulations.

• Condensed Matter Physics
• Quantum Information Theory
• Atomic Molecular and Optical Physics
• +3 more

Mark Edwards serves as the Fuller E. Callaway Professor of Physics within the Department of Biochemistry, Chemistry, and Physics at Georgia Southern University's College of Science and Mathematics. His research program focuses on theoretical ultra-cold quantum atomic gases through active collaborations with the University of Maryland, NIST, and the University of Sheffield. His academic credentials include: B.S. in Physics from Georgia Southern University (1977) M.A. in Physics from Johns Hopkins University (1980) Ph.D. in Physics from Johns Hopkins University (1984) Dr. Edwards' research centers on quantum computing implementations using laser-manipulated ultra-cold atoms, Bose-Einstein condensate dynamics during cooling processes, and advanced atom interferometer design for precision navigation and metrology applications. His theoretical work explores quantum simulation frameworks and atomtronic circuit behavior, specifically examining superfluid transport phenomena and quantum fluid dynamics in ring-shaped condensates. Analysis of his 2013-2016 publications reveals concentrated research on atomtronic SQUIDs (Superconducting Quantum Interference Device analogs), with recurring themes of hysteresis effects, shock wave propagation, and phase detection in superfluid circuits. These investigations consistently target enhanced robustness and sensitivity for quantum sensor development. Collaborative research activities form the cornerstone of his work, with sustained partnerships at the University of Maryland at College Park, the National Institute of Standards and Technology, and the University of Sheffield enabling experimental validation of theoretical models in ultra-cold atom systems.

• Quantum Computing
• Ultra-cold Atomic Gases
• Bose-Einstein Condensates
• +3 more

F. Barry Dunning is the Sam and Helen Worden Professor of Physics and Astronomy at Rice University. His research focuses on experimental atomic, molecular, and optical physics, with emphasis on Rydberg atoms and their applications in quantum systems. He explores atomic wavefunction control, classical-quantum correspondence, and novel molecular structures using ultra-cold gases. Education: Bachelor of Science, University College London (1966) Doctor of Philosophy, University College London (1969) Research Interests: His work examines Rydberg atoms' properties, including planetary atom formation, Rydberg molecule creation, and many-body effects like Rydberg polarons. He also investigates ultra-low energy electron-molecule collisions and heavy-Rydberg ion-pair states. Advising & Grants: No advisees or grant details listed. His research is conducted through his experimental group at Rice University. Awards: None explicitly mentioned in the profile.

• Experimental Atomic, Molecular, and Optical Physics
• Nonlinear Dynamics
• Chemical Physics
• +3 more

Kai Sun is a Professor in the Physics Department at the University of Michigan. His work bridges theoretical physics and condensed matter systems, focusing on exotic quantum states and strongly correlated systems. Education : BS in Physics from Peking University (2002), PhD in Physics from the University of Illinois at Urbana-Champaign (2009). His research explores topological states of matter , including fractional topological states, interaction-induced topological insulators, and topological Kondo insulators. He also investigates quantum liquid crystal phases, frustrated magnetism, and non-Fermi liquids in strongly correlated fermionic systems. Recent work, such as studies on twisted Kagome lattices and topological flatbands, highlights his focus on theoretical modeling to uncover novel quantum phases and their properties. These publications span disciplines like condensed matter physics, quantum mechanics, and materials science, with recurring themes in topological materials and quantum simulation. Scientific Awards : APS Fellow (2023), Alfred P. Sloan Research Fellow (2015). Professor Sun's career at the University of Michigan progressed from Assistant Professor (2012–2017) to Associate Professor (2017–2022), culminating in his current role as Professor since 2022. His affiliations include the Randall Lab and Homer A. Neal Lab.

• Condensed Matter Physics
• Theoretical Physics
• Quantum Physics
• +6 more

Kurt Gibble is a Professor of Physics at the Department of Physics, Pennsylvania State University. His research focuses on atomic clocks, precision measurements, and ultracold atom scattering. He leads the Gibble Research Group and collaborates internationally on projects like the PHARAO space clock and cadmium optical lattice clocks. Education: B.S. (Highest Honors), Engineering Physics, Lehigh University (1986) Ph.D. in Physics, JILA, University of Colorado, Boulder (1990) Post-doctoral researcher, Stanford University (1991-1993) Research Interests: Optical and microwave atomic clocks Spatial applications of atomic clocks Ultracold atom collisions and Feshbach resonances Precision metrology and fundamental constant studies Awards: European Frequency and Time Award (2013) APS Fellow (2005), AAAS Fellow (2019), IEEE Fellow (2020) Recipient of the National Science Foundation Young Investigator Award (1994) Key Contributions: Advancements in cadmium optical lattice clocks Accuracy evaluations of global primary atomic clocks Developed microwave lensing frequency shift corrections Contributions to the ACES/PHARAO space clock mission

• Atomic Physics
• Optical Lattice Clocks
• Precision Measurements
• +4 more

John Thomas is the John S. Risley Distinguished Professor of Physics at North Carolina State University (NC State), part of the College of Sciences. He holds a B.S. (1973) and Ph.D. (1979) in Physics from MIT, where he was a Hertz Foundation Fellow and later received the C.S. Draper Chair. Before joining NC State in 2011, he was at Duke University as the Fritz London Professor. His research focuses on ultra-cold atomic gases, particularly strongly interacting Fermi gases and their hydrodynamic properties. Key contributions include developing optical trapping techniques and pioneering studies of unitary Fermi gases, which model systems like neutron stars and quark-gluon plasmas. His JETlab group explores quantum hydrodynamics, spin-energy correlations, and optical control of interactions. Notable awards include the NIST Precision Measurements Grant (1990–1993) and the Davisson-Germer Prize in Atomic Physics (2018). Recent work emphasizes universal hydrodynamic transport, spin dynamics in Fermi gases, and energy-resolved correlation measurements. His publications span quantum viscosity, shock wave dynamics, and energy-space lattice simulations. Thomas collaborates on optical control of Feshbach resonances and has advised numerous graduate students through his NC State lab.

• Ultra-cold Atomic Gases
• Quantum Hydrodynamics
• Fermi Gases
• +4 more

Thomas Bilitewski is an Assistant Professor in the Department of Physics at Oklahoma State University, leading a research group focused on theoretical quantum science. He holds a PhD in Physics from the University of Cambridge and previously held postdoctoral positions at the Joint Institute for Laboratory Astrophysics (JILA) in Boulder, USA, and the Max Planck Institute for the Physics of Complex Systems in Dresden, Germany. His research interests span AMO physics and condensed matter theory, with a focus on quantum many-body systems, quantum simulation, and quantum metrology. Key areas include spin dynamics in classical and quantum systems, synthetic dimensions, SU(N) Fermi gases, and the interplay between theory and experimental platforms like cold atoms and molecules. Dr. Bilitewski’s work emphasizes collaborative experimental guidance, aiming to advance quantum technologies through practical proposals rooted in fundamental physics. His group currently includes PhD student Arman Duha and Post-Doc Sam Begg, and he welcomes applications for Fall 2025 PhD positions. Education: PhD in Physics, University of Cambridge (2013–2016) MSc in Physics, Ludwig-Maximilians-Universität München (2011–2013) BSc in Physics, Ludwig-Maximilians-Universität München (2008–2011) His recent work explores quantum many-body scars, spin squeezing dynamics, and topological phenomena in lattice systems. Collaborative projects include experimental groups at OSU and beyond, with a focus on ultra-cold atomic/molecular setups.

• Quantum Many-Body Physics
• Quantum Simulation
• Atomic, Molecular and Optical (AMO) Physics
• +4 more