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Seth Aubin is a Professor of Physics at the College of William & Mary, affiliated with the College of Arts & Sciences. His research focuses on experimental atomic, molecular, and optical physics, with emphases on precision measurements and quantum phenomena. Key projects include developing atom chip technologies for trapping ultracold atoms, Rydberg atom-based sensors for charged particle diagnostics, and francium spectroscopy for weak interaction studies. Education: License de Physique (ENS Paris/MIP), 1994 B.Sc. in Physics, Yale University, 1995 Ph.D. in Physics, SUNY Stony Brook, 2003 Research Themes: Quantum Trapping Techniques: Innovations in AC Zeeman atom chip traps and RF microtraps to suppress potential roughness Rydberg Atom Sensors: Pioneering applications in electron beam profiling and electromagnetic field imaging Franium Spectroscopy: Collaborative work on parity-violation measurements and isotope shift analyses Recent Article Trends: Recent work emphasizes practical implementations of quantum sensors (e.g., charged particle beam diagnostics) and foundational trapping technology advancements. Over 30 peer-reviewed publications since 2018 reflect sustained contributions to atom chip systems and precision measurements. Awards: American Physical Society Fellow (APS Fellow) Grants & Collaborations: Lead PI on atom chip-based interferometry projects Contributing member to the FrPNC collaboration at TRIUMF (atomic parity violation studies) Developed hybrid optical dipole traps for magnetometry applications Labs & Infrastructure: Manages state-of-the-art atomic physics labs at W&M, including ultrahigh-vacuum systems for francium trapping and laser stabilization setups. Active in developing microwave/radio-frequency atom chip platforms for next-generation quantum sensors.

• Experimental Atomic Physics
• Quantum Physics
• Precision Measurements
• +5 more

Dana Anderson is a Professor of Physics and JILA Fellow at the University of Colorado Boulder. He holds dual affiliations with the Department of Physics and JILA, a joint institute between the University of Colorado Boulder and the National Institute of Standards and Technology (NIST). His research focuses on ultracold atoms, quantum computing, and atomtronics, with applications in quantum sensing and space-based experiments. He currently serves as Chief Strategy Officer (CSO) of Infleqtion (formerly ColdQuanta), a quantum technology company he co-founded. Anderson is a principal investigator in the Quantum Pathways Institute, a NASA-funded initiative to develop quantum-based Earth-sensing technologies. He collaborates with institutions like NIST, JPL, and ColdQuanta on projects such as the Cold Atom Laboratory (CAL) for space-based ultracold atom research. His work has been recognized by TIME Magazine and led to significant grants, including a $15M NASA award for quantum space research. Research interests include atomtronics (hybrid atom-electronics systems), neutral atom quantum computing, and ultracold atom gyroscopes. His group develops novel atom chip technologies, such as window atom chips enabling high-resolution imaging, and explores applications like matterwave transistors and quantum inertial sensors. Current projects include shaken lattice interferometry for navigation and Rydberg atom-based microwave sensors. Anderson has pioneered concepts like the matterwave transistor oscillator and contributed to the first neutral atom quantum computing arrays. His work bridges fundamental physics and applied technologies, with a focus on translating quantum phenomena into practical devices. He actively mentors students and postdocs in experimental atomic physics and quantum engineering.

• Quantum Computing
• Ultracold Atoms
• Atomtronics
• +3 more

Georg Raithel is a Professor in the Department of Physics at the University of Michigan, Ann Arbor, where he has been a faculty member since 1997 following postdoctoral research at NIST as an Alexander von Humboldt Fellow. His research focuses on experimental atomic, molecular, and optical physics, specializing in Rydberg atom systems for quantum sensing and precision measurement applications. His academic background includes: Habilitation, University of Munich, Germany (1995) Ph.D., University of Munich, Germany (1990) Diploma, University of Munich, Germany (1987) Raithel's work centers on Rydberg atoms and their applications in quantum sensing, precision spectroscopy, and quantum information. His group investigates electromagnetically induced transparency in vapor cells, atom interferometry, ultracold plasmas, and Rydberg-atom-ion molecules. Recent breakthroughs include tractor atom interferometry for rotation sensing and SI-traceable electric field probes, bridging fundamental physics with practical quantum technologies. His publication trends show increasing focus on applied quantum systems, particularly Rydberg-atom-based sensors for electromagnetic field measurement, quantum communication protocols, and precision metrology devices. This evolution reflects a strategic shift from fundamental Rydberg physics toward engineered quantum solutions for real-world measurement challenges. Major scientific recognitions include: Fellow of the American Physical Society Alexander von Humboldt Foundation Fellowship Raithel has mentored approximately thirty Ph.D. students who now hold positions across academia, industry, and government laboratories. His research has been supported by sustained funding from the National Science Foundation and Department of Energy, enabling development of advanced laser systems for cold atom manipulation and quantum control. The Raithel laboratory, housed in Homer A. Neal Laboratory (rooms SB149, SB283, SB290), maintains multiple experimental setups for laser cooling, optical trapping, and vapor-cell spectroscopy. His group actively collaborates with industry through Rydberg Technologies Inc., which he co-founded to commercialize atom-based sensing technology.

• Atomic, Molecular and Optical Physics
• Rydberg Atoms
• Quantum Sensing
• +4 more

Professor Brian Leeds DeMarco is a leading academic in the Department of Physics at the University of Illinois Urbana-Champaign (UIUC), serving as the IQUIST Director and Bardeen Faculty Scholar. He specializes in Atomic, Molecular, and Optical Physics, with a focus on quantum simulation using ultracold atoms in optical lattices to address problems in condensed matter physics. His research has led to groundbreaking discoveries, including the first quantum-degenerate Fermi gas and three-dimensional Anderson localization of matter, earning him prestigious awards like the NSF CAREER Award and Sloan Fellowship. DeMarco holds a B.A. in Physics from SUNY Geneseo (1996) and a Ph.D. from the University of Colorado Boulder (2001). His postdoctoral work at NIST with David Wineland advanced quantum computing with trapped ions. At UIUC since 2003, he has held roles such as Associate Head for Undergraduate Programs and currently chairs NASA's Fundamental Physical Sciences Standing Review Board. His research explores quantum simulation, quantum computing architectures, and ultracold matter. Notable achievements include identifying phase-slip crossover in optical lattices and pioneering 3D Anderson localization. He has published over 30 high-impact articles, with recent work focusing on quantum simulators and hybrid quantum systems. Awards: APS Fellow, University of Illinois Scholar, NASA Review Board Chair, Defense Sciences Study Group member. Grants: NSF, ONR, Sloan Foundation support for quantum simulation and ultracold atom research. DeMarco leads the DeMarco Group, advancing quantum technologies and training students in experimental physics. His lab’s work on quantum testbeds and trapped ion processors positions him at the forefront of quantum information science.

• Quantum Simulation
• Condensed Matter Physics
• Atomic, Molecular, and Optical Physics (AMO)
• +4 more

Ian Spielman is an Adjunct Professor at the University of Maryland, affiliated with the National Institute of Standards and Technology (NIST) and the Joint Quantum Institute (JQI). His research focuses on ultracold atomic systems, quantum gases, and many-body physics. Spielman leads experiments exploring artificial gauge fields, spin-dependent forces, and long-range interactions in systems like RbK, RbChip, and RbLi. Collaborating with Dr. Justyna Zwolak, he applies machine learning to quantum experiments for control and analysis. His work bridges theoretical concepts with experimental innovation, addressing phenomena from superfluid turbulence to geometrical frustration in quantum systems. Education details are not explicitly provided in the text. Spielman oversees postdoctoral training programs, including the JQI Experimental Postdoc Program and NIST NRC Postdoc Program. Notable achievements include mentoring students like Dr. Mingshu Zhao (recognized for turbulence research) and Dario D’Amato (winner of the 'Most Outstanding Poster in Physics' in 2025). His experimental group, part of NIST’s Laser Cooling and Trapping team, investigates dynamical structure factors, coherence in lattice fermions, and solitary wave phenomena in spin-orbit-coupled Bose-Einstein condensates. Spielman’s contributions span both foundational quantum science and interdisciplinary applications, emphasizing the interplay between measurement techniques and conceptual breakthroughs.

• Quantum Physics
• Condensed Matter Physics
• Atomic Physics
• +3 more

David Patterson is an Associate Professor in the Department of Physics at the University of California Santa Barbara (UCSB). His research focuses on extending atomic, molecular, and optical (AMO) physics tools to prepare polyatomic molecules in single quantum states for the first time. Key areas of interest include quantum information systems, high precision spectroscopy, parity violation in molecular spectra, and single-molecule chemical/chiral analysis. Developed single molecule inelastic recoil spectroscopy for ultraprecise analysis Created non-destructive single molecule infrared spectroscopy (2022 breakthrough) Engineered a "ping-pong" double-well ion trap for Sr+ atoms and molecular ions Collaborates with the Schlemmer group (Cologne) on Doppler-limited spectroscopy The group's work aims to achieve unprecedented resolution (2-3 orders of magnitude improvement) in polyatomic molecule spectroscopy, addressing fundamental questions in nanoanalytics.

• Quantum Information Systems
• High Precision Spectroscopy
• Parity Violation in Molecular Spectra
• +3 more

Jacob P. Covey is an Assistant Professor in the Department of Physics at the University of Illinois at Urbana-Champaign (UIUC). He holds a Ph.D. in Physics from the University of Colorado Boulder (2017) and B.S. in Engineering Physics from the University of Wisconsin-Madison (2011). His research focuses on quantum optics, atomic physics, and quantum information science, particularly in quantum control of ultracold atoms and molecules, superradiance phenomena, and quantum networking. He leads the Covey Lab, which explores topics such as neutral atom quantum processors, Rydberg atom interactions, and precision measurement with optical clocks. Academic Positions: Assistant Professor at UIUC (2020–present); Richard Chace Tolman Postdoctoral Scholar at Caltech (2017–2020). Research highlights include pioneering work on Dicke superradiance in ordered atomic arrays and telecom-band quantum networking with Yb-171 atom arrays. He teaches undergraduate courses in mechanics, electromagnetism, thermodynamics, quantum physics, and quantum information. Scientific Awards: NSF CAREER Award (2024), Young Investigator Awards from AFOSR (2023) and ONR (2022), Springer Thesis Award (2018), and multiple fellowships including the Richard Chace Tolman Postdoctoral Fellowship (2017). His work bridges experimental and theoretical advances in quantum technologies, with contributions to quantum state control, precision metrology, and many-body quantum systems.

• Quantum Optics
• Atomic Physics
• Quantum Information Science
• +5 more

Dana Z. Anderson is a Professor and Fellow at JILA at the University of Colorado Boulder, holding the Glen Murphy Endowed Chair in the Department of Physics within the College of Engineering and Applied Science (CEAS) . His research focuses on nonlinear optics , atom optics , and optical precision measurements . Key projects include advancing atomtronics (quantum analogs of electronic systems), neutral atom quantum computing , and ultracold atom gyroscopes . He leads the Anderson Optical Physics (AOPy) group , pioneering applications like shaken lattice interferometry for space navigation and quantum sensor development . Anderson's work bridges fundamental physics and applied technologies. His group develops window atom chip technology for ultracold atom manipulation and in-situ imaging systems . Collaborations include NASA's Cold Atom Laboratory (CAL) mission for microgravity experiments on the International Space Station (ISS). Notable contributions include demonstrating matterwave transistor oscillators and optical lattice-based quantum devices . His research has been recognized in high-impact journals like Physical Review Letters and Review of Modern Physics . He actively engages in public outreach and industry partnerships , serving as Chief Strategy Officer at ColdQuanta, a quantum tech startup spun from his lab's innovations.

• Nonlinear Optics
• Atom Optics
• Optical Precision Measurements
• +6 more

Trey Porto is an Adjunct Professor at the University of Maryland, affiliated with the Joint Quantum Institute (JQI) and NIST. His research focuses on ultra-cold atoms, quantum optics, and quantum information science. He leads projects on Rydberg atoms, optical lattices, and quantum networking, leveraging cold atom systems to explore novel quantum phenomena and control strategies. Research areas include ultra-cold Rb/Yb mixtures for studying Bose-Einstein condensates and engineered dissipation, as well as photon-photon interactions using Rydberg-dressed polaritons. His work bridges quantum simulation, quantum computing, and precision measurement, with applications in quantum networking and many-body physics. Key achievements include the 2023 UMD Quantum Invention of the Year Award for developing photon-counting methods that preserve quantum states. Porto collaborates with groups such as RQS and JQI, contributing to advancements in subwavelength optical potentials and Floquet-engineered systems. He mentors graduate students in experimental and theoretical aspects of cold atoms and quantum technologies. Publications highlight breakthroughs in Rydberg blockade enhancement, prethermal Bose-Einstein condensation, and compact auto-alignment systems for experimental setups. His lab is based in the Physical Sciences Complex on the UMD campus, with ongoing projects exploring quantum dissipation and photon-atom hybrid systems.

• Quantum Physics
• Ultra-cold Atoms
• Quantum Optics
• +5 more

Kevin Singh is an Assistant Professor at The Ohio State University in the Department of Physics, holding the John W. Wilkins Endowed Professorship. He established the Singh Group in the Physics Research Building on January 1, 2025, focusing on building quantum devices and information processors using individually controlled single atoms. Education: B.S. in Physics from Massachusetts Institute of Technology (2013) M.A. in Physics from University of California, Santa Barbara (2016) Ph.D. in Physics from University of California, Santa Barbara (2019) Dr. Singh's research spans quantum information science, atomic physics, and quantum optics with emphasis on neutral atom quantum computing. His group develops dual-species Rydberg atom arrays (rubidium and cesium) for quantum error correction, mid-circuit measurement, and quantum simulation. Key methodologies include optical tweezers for atom rearrangement and Floquet engineering for non-equilibrium quantum dynamics. This work bridges fundamental quantum phenomena with transformative device technologies. His publication record (2018-2024) shows consistent advancement in neutral-atom quantum computing, featuring dual-species systems for error mitigation and studies of Floquet-engineered quantum matter. Articles appear in premier journals including Nature Physics, Science, and Physical Review X, demonstrating high-impact contributions to quantum processor architecture and non-equilibrium dynamics. Awards: Boeing Quantum Creators Prize (Chicago Quantum Exchange), 2023 The Maria Lastra Excellence in Mentoring Award (PME, University of Chicago), 2021 Dr. Singh actively recruits undergraduate students, PhD candidates, and postdocs for his laboratory. His prior mentoring at the University of Chicago earned institutional recognition. Research is supported by the John W. Wilkins Endowed Professorship and likely external quantum initiative funding, though specific grants aren't detailed in the source material. The Singh Group operates from OSU's Physics Research Building, utilizing optical tweezers to create programmable atom arrays. Current work focuses on scaling quantum processors through dual-species architectures and developing real-time feedback protocols for error correction in neutral-atom systems.

• Quantum Information
• Atomic, molecular, and optical physics
• Quantum optics
• +3 more

Jared Pagett is a Tutor in the Department of Physics at the University of California, Santa Barbara , supporting students in Physics 6B through group sessions and drop-in tutoring. He is also a graduate student working with David Weld on Bose-Einstein condensates of Strontium in quasiperiodic optical lattices and the design of a new ultracold Potassium experiment using optical tweezers . Education: B.S. in Physics, University of California, Santa Barbara (2018). Research Interests: Jared’s work focuses on quantum dynamics of ultracold atoms in controlled environments, with applications in atomic physics and quantum simulation. His educational contributions include developing review materials and hosting study sessions to enhance student understanding of electromagnetism and optics. Labs/Teams: Collaborates with David Weld’s research group at UCSB, specializing in experiments with ultracold atomic gases and optical manipulation techniques.

• Quantum Physics
• Atomic Physics
• Bose-Einstein Condensates
• +3 more

Michael Peper is a Research Fellow at Princeton University's School of Engineering and Applied Science, working in the Engineering Quadrangle under the advisement of Jeff Thompson. His research focuses on atomic and quantum physics with direct applications to quantum computing. His research interests include: Rydberg states in ytterbium and their applications for quantum computing Quantum defect analysis and precision spectroscopy Neutral atom qubit arrays and coherent control mechanisms Long-range Rydberg molecules and their dynamic properties His publications demonstrate expertise across theoretical and experimental physics, with a particular emphasis on quantum engineering and optical manipulation of atomic systems. He has contributed to advancements in attosecond spectroscopy and electron scattering dynamics in liquid water, although most of his recent work centers on quantum computing applications.

• Atomic Physics
• Quantum Physics
• Quantum Computing
• +3 more

Thomas C. Killian serves as Dean of the Wiess School of Natural Sciences and Professor of Physics and Astronomy at Rice University, where he joined the faculty in 2001 after completing his PhD at MIT and a postdoctoral fellowship at NIST. His leadership roles include Deputy Speaker of the Faculty Senate, Chair of the Physics and Astronomy Department, and Associate Dean of Strategic Planning, with significant contributions to academic governance and resource allocation for research and education missions. He earned his AB in Physics from Harvard University (1991), an M.Phil in Physical Chemistry from Cambridge University as a Marshall Scholar (1993), and a PhD in Atomic Physics from MIT (1999). His research focuses on matter at temperatures near absolute zero, exploring quantum degenerate atomic gases, ultracold plasmas, and Rydberg systems to uncover fundamental physical laws with applications in quantum computing, precision timekeeping, and astrophysical modeling of white dwarf stars. His pioneering experimental work includes producing atomic Bose-Einstein condensates and developing techniques for generating the coldest neutral plasmas ever observed, bridging microscopic quantum behavior and macroscopic astrophysical phenomena. This research program investigates strongly interacting systems where quantum effects dominate classical physics. Notable honors include: Fellow of the American Physical Society David and Lucille Packard Foundation Science and Engineering Fellowship Alfred P. Sloan Research Fellowship Professor Killian co-founded nano3D Biosciences (now ChemoSen3D) to commercialize 3D bioprinting technology for drug discovery and personalized medicine, demonstrating translational impact beyond academia. His laboratory at Rice operates cutting-edge facilities for ultracold matter research, collaborating with institutions like UT MD Anderson Cancer Center on interdisciplinary projects that merge atomic physics with biomedical applications.

• Atomic Physics
• Plasma Physics
• Ultracold Atoms
• +3 more

Gilbert 'Rip' Collins is the Tracy Hyde Harris Professor of Mechanical Engineering and Physics at the University of Rochester, holding dual appointments in the Hajim School of Engineering & Applied Sciences and the Laboratory for Laser Energetics (LLE). He also serves as Associate Director of Science, Technology and Academics at LLE, Distinguished Scientist at LLE, and Director of the NSF-funded Center for Matter at Atomic Pressures (CMAP). His research focuses on extreme states of matter, including planetary interiors, high-energy-density plasmas, and thermonuclear fusion processes. Collins earned his PhD in 1989 from Ohio State University. His work leverages facilities like the Omega Laser at LLE to recreate astrophysical conditions, exploring topics such as phase separation in giant planets, quantum matter at atomic pressures, and laboratory astrophysics experiments. He collaborates globally to advance understanding of exoplanet structure, stellar evolution, and fusion energy control. Key affiliations: Laboratory for Laser Energetics, Center for Matter at Atomic Pressures (CMAP), Omega Laser Facility Research highlights: Hydrogen-rich superconductors, planetary core dynamics, radiation-dominated plasmas Leadership roles: HED Experiments Group Lead at LLE, co-director of international collaborations His team includes graduate students and scientists investigating topics ranging from collisionless shocks to exoplanet mass-radius relationships. Collins’ contributions bridge fundamental physics with applied energy research, supported by grants from the NSF Physics Frontier Center and other national agencies.

• High-Energy-Density Physics (HEDP)
• Laboratory Astrophysics
• Condensed Matter
• +3 more

Svetlana Kotochigova is a Research Professor in the Department of Physics at Temple University. Her research focuses on theoretical atomic, molecular, and optical physics, with an emphasis on ultracold atoms and molecules, particularly lanthanide systems and precision measurements. She holds a PhD and MS from Saint Petersburg University (1986 and 1982). Her work integrates quantum-mechanical modeling of collisions and interactions among ultracold particles, including studies of magnetic lanthanide dimers, nonadiabatic effects in heavy atom molecules, and development of molecular sensors to detect CP-violating forces. Key projects include simulating Feshbach resonances in erbium and dysprosium gases, exploring quantum control via conical intersections, and designing magic traps for ultracold molecules. Notable contributions include theoretical frameworks for understanding chaotic dynamics in lanthanide dimers and advancing methods for trapping and manipulating ultracold species. She is a Fellow of the American Physical Society (since 2012) and collaborates closely with experimental groups to bridge theory and application in quantum systems.

• Atomic Physics
• Molecular Physics
• Computational Chemistry
• +3 more