Find Academic Supervisors

Seth AubinView profile

Professor

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

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.

Brian J. SmithView profile

Professor

• Quantum Optics
• Quantum Information Science and Technology
• Optical Physics
• +1 more

Brian J. Smith is a Professor in the Department of Physics at the University of Oregon. His research focuses on quantum optics, quantum information science and technology, optical physics, and nonlinear optics. He serves as Director of the Optical Molecular & Quantum Science research group, which develops advanced quantum-optical tools for probing fundamental quantum physics and enabling quantum-enhanced applications. Smith's recent work emphasizes harnessing the temporal-spectral mode structure of light to construct larger quantum systems. His team has made strides in quantum-enhanced sensing and networking, leveraging non-classical states of light for applications like microarcsecond astronomy and attosecond-synchronized photonic entanglement networks. He was elected Fellow of Optica in 2023, recognizing his contributions to quantum optics. His research group includes graduate students Sarah Ashby, Matthew Brown, Clark Embleton, Amy Soudachanh, and Jack Lichtman. He has contributed to the NSF National Quantum Virtual Laboratory through the ASPEN-Net pilot project, which explores precision synchronization in quantum networks. Fellow of Optica (formerly Optical Society of America), 2023

Iris NiehuesView profile

Assistant Professor

• Nanophotonics
• Quantum Technology
• 2D Materials
• +3 more

Dr. Iris Niehues is an Assistant Professor leading the Quantum Nanophotonics Group at the Department of Physics, University of Münster. Her research, funded by the NRW Rückkehrprogramm Quantentechnologie, focuses on nanoscale optical properties of 2D materials and single-photon emitters for quantum technology applications. She utilizes advanced near-field microscopy techniques (s-SNOM, nano-FTIR) to achieve sub-diffraction-limit resolution. Research Focus Her group investigates: Nanoscale exciton and color center behavior in 2D materials Strain engineering of quantum emitters Development of near-field microscopy methodologies Quantum light-matter interactions Publication Trends Her recent work emphasizes nanoscale optical characterization, with publications covering: Tip-enhanced spectroscopy of 2D heterostructures (2023-2025) Strain manipulation of quantum materials (2019-2024) Advanced near-field imaging techniques (2020-2025) Excitonic phenomena in atomically thin semiconductors (2019-2025) Academic Activities She supervises PhD candidates (Johannes Holters, Dennis Mors, Maximilian Scharpey) and Bachelor students (Niklas Ohler, Simone Wessel). Her laboratory features a state-of-the-art neascope setup for nanoscale optical investigations. She teaches graduate courses on nanophotonics and near-field optics, and actively engages in science outreach through initiatives like the Kids University Münster.

David W SnokeView profile

Professor

• Quantum Mechanics
• Condensed Matter Physics
• Bose-Einstein Condensation
• +6 more

David W. Snoke is a Distinguished Professor in the Department of Physics & Astronomy at the University of Pittsburgh’s Dietrich School of Arts and Sciences. His research focuses on quantum phenomena in semiconductor systems, particularly Bose-Einstein condensation of exciton-polaritons, nonlinear optics, and the interplay between quantum coherence and thermodynamics. He leads an experimental group employing ultrafast spectroscopy, interferometry, and advanced imaging techniques to study polariton condensates and novel material systems. He has contributed to foundational studies of polariton superfluidity, coherence dynamics, and light-induced superconductivity. His work bridges quantum mechanics and thermodynamics, addressing questions like the arrow of time and nonequilibrium phase transitions. Snoke is also an accomplished author and editor of textbooks and monographs on solid-state physics and quantum mechanics. Research Interests: Polariton condensates, quantum coherence, semiconductor optoelectronics, superconductivity, thermodynamic irreversibility Key Projects: Room-temperature polariton condensation, light-induced superconductivity, coherence in nonequilibrium systems His group’s experimental tools include femtosecond lasers, cryogenics, and advanced optical setups to probe nanoscale quantum systems. Snoke has advised graduate students like Jonathan Beaumariage and Qi Yao, and his work is supported by grants exploring fundamental physics and applied optoelectronics.

James K. ThompsonView profile

Adjunct Professor

• Quantum Optics
• Quantum Information
• Atomic Physics
• +3 more

James K. Thompson is an Adjoint Professor at the University of Colorado Boulder and a Fellow at JILA, a joint institute of the University of Colorado and NIST. His research focuses on quantum simulation and quantum sensing, leveraging ultracold atoms and cavity quantum electrodynamics (QED). Key projects include exploring dynamical phase transitions, entangled matterwave interferometers, and superradiant lasers using strontium and rubidium atoms. His work integrates unitary dynamics, quantum measurements, and dissipation to achieve precision measurements and quantum-enhanced technologies. Research interests span precision measurement, quantum many-body systems, and cavity-mediated interactions. Thompson’s lab employs high-finesse optical cavities to study collective atom-light interactions, aiming to advance applications like atomic clocks and dark matter searches. Notable achievements include realizing the first entangled matterwave interferometer surpassing the Standard Quantum Limit and developing ultra-stable superradiant lasers with millihertz linewidths. His team’s efforts also involve quantum state engineering, spin squeezing, and novel laser cooling techniques. Collaborations with theorists and experimentalists at JILA and NIST drive innovations in quantum technologies. Thompson’s contributions to precision metrology and quantum simulation position his work at the forefront of modern atomic physics.

Andrew WadeView profile

Researcher

• Gravitational Wave Detection
• Quantum Optics
• Precision Metrology
• +3 more

Dr. Andrew Wade is a Postdoctoral Fellow at the Centre for Gravitational Astrophysics, The Australian National University (ANU). His research focuses on gravitational wave detection, quantum optics, precision metrology, and weak light interferometry. He has contributed to projects like the Laser Interferometer Space Antenna (LISA), developing critical technologies such as arm- and cavity-locking systems for gravitational wave detectors. His work emphasizes improving interferometric sensitivity through innovations like subfemtowatt laser phase tracking and thermal noise mitigation in mirror coatings. Wade has collaborated across international detector networks including LIGO, Virgo, and KAGRA, publishing over 178 peer-reviewed articles. His research spans topics from binary black hole mergers (e.g., GW150914, GW170817) to cosmic string constraints and Hubble constant measurements using gravitational wave standard sirens. Notably, his team's work on LISA's locking systems addresses challenges for future space-based gravitational wave observatories. His technical expertise includes cavity frequency stabilization for geodesy applications and optimizing laser interferometers for low-noise operation. While no specific student names are listed, he is registered to supervise research students at ANU. His publications highlight interdisciplinary strengths in both experimental and theoretical gravitational wave physics, with implications for multi-messenger astronomy and fundamental physics tests.

Rémi CARMINATIView profile

Professor

• Wave Theory
• Scattering and Transport of Light in Complex Media
• Nano-optics

Rémi CARMINATI is a Professor at ESPCI Paris, affiliated with the Institut Langevin. His research focuses on wave propagation in complex media, light scattering dynamics, and nano-optics. He has contributed to understanding time-varying disorder, polarization depolarization mechanisms, and thermal radiation at micro/nanoscales. Key Research Themes : Wave Theory, Light Scattering in Correlated Media, Nano-optics, Anderson Localization, and Photonic Hyperuniformity. The 15 most recent articles demonstrate expertise in wave dynamics across temporal/spatial disorder, nonlinear photon diffusion, polarization statistics, and applications in thermal imaging, sensing, and metamaterial design. His work bridges theoretical optics with experimental validation using digital holography, photon Doppler velocimetry, and near-field microscopy. Rémi CARMINATI is actively involved in Institut Langevin research, collaborating on projects spanning electromagnetic field correlations, plasmonic nanostructures, and coherence-based imaging through scattering media. His methodological innovations include dwell-time operators for energy storage, reciprocity-based LDOS mapping, and diagrammatic approaches for photon echo analysis.

• Nuclear Physics
• Particle Physics
• Hadron Physics
• +6 more

Prof. Giuseppe Mandaglio is an Associate Professor in the Department of Physics and Earth Sciences at the University of Messina, where he has served since December 2018. He currently coordinates the Degree Courses in Physics at the University of Messina, a position he has held since October 2021. His academic career at the University of Messina spans over two decades, beginning with his Physics degree in 2003 followed by a PhD in Physics in 2007. His educational background includes: Degree in Physics (four-year course) from the Faculty of Mathematical, Physical and Natural Sciences of the University of Messina (2003) PhD in Physics (XIX cycle) from the University of Messina (2003-2006) Saber Operator Training from the ERSF Research Institute in Grenoble, France (2006) Prof. Mandaglio's research focuses on experimental nuclear and particle physics, with particular emphasis on hadronic physics, baryonic resonances, and dark matter searches. His work spans multiple experimental collaborations including ALICE@CERN, KLOE-2 at DAFNE, EEE for cosmic ray studies, and BGO-OD at ELSA. He has made significant contributions to the measurement of hadronic cross sections, photonuclear reactions, and the search for dark force mediators. His research often bridges theoretical frameworks with experimental data, particularly in understanding the dynamics of heavy-ion collisions and resonance production. His recent publication record shows a strong focus on heavy-ion collision physics at the LHC, particularly through the ALICE experiment, with numerous papers on resonance production, particle correlations, and quark-gluon plasma characterization. He also maintains active involvement in cosmic ray research through the EEE project and continues work on dark sector searches through precision measurements at electron-positron colliders. Among his recognitions are: Bonus compensation from the University of Messina for the years 2017/2018 FFABR 2017 funding for researchers Prof. Mandaglio has supervised numerous PhD, Master's, and Bachelor's students, with current PhD candidates including Andrea Sofia Triolo, Antonino Fulci, Stefano Grazzi, and Letterio Biondo. His supervision spans topics from ALICE detector commissioning to cosmic ray monitoring and dark force searches. He has secured research funding through various mechanisms including the FFABR 2017 program and has held multiple research contracts throughout his career. He has served on committees including the Committee for the teaching of the Master's Degree in Physics and the Committee for the review of the Bachelor's Degree in Physics. He is actively involved in major international collaborations, serving as Deputy-team leader of the UniMe cluster of the ALICE@CERN experiment and as a member of the international KLOE-2 Collaboration. His work with the EEE collaboration focuses on cosmic ray studies using MRPC muon telescopes, where he is locally responsible for simulation of the single-telescope system response. He has organized numerous international conferences including the International Workshop Detection Systems and Techniques in Nuclear and Particle Physics (2019) and the 2nd International Workshop Nuclear Reactions on Nucleons and Nuclei (2017).

Jean-Paul KneibView profile

Professor

• Cosmology
• Gravitational Lensing
• Redshift Surveys
• +5 more

Jean-Paul Kneib is a Full Professor at the Laboratory of Astrophysics (LASTRO) within the School of Basic Sciences (SB) at École Polytechnique Fédérale de Lausanne (EPFL), Switzerland. He is also involved in the Space Sustainability initiative at EPFL and has held visiting positions at Caltech and CNRS institutions. His research focuses on cosmology, gravitational lensing, and next-generation spectroscopic surveys like DESI and Euclid. Education : PhD in Astrophysics (1993), Master in Astrophysics, Geophysics & Space Technics (1990), Engineer degree in Aerodynamics & Space Technics (1990), all from Toulouse University and École Nationale Supérieure de l'Aéronautique et de l'Espace. Research Interests : Kneib specializes in cosmology, using galaxy surveys and gravitational lensing to study dark matter and dark energy. His work includes strong lensing in galaxy clusters, redshift surveys for cosmic expansion analysis, and robotic fiber-positioner systems for spectroscopic instruments. He also contributes to space sustainability initiatives addressing orbital debris. Recent Publications emphasize deep learning for radio interferometry, Euclid mission early data, DESI BAO analysis, and novel methods for asteroid detection. Collaborative projects involve JWST observations of high-redshift galaxies and digital twins for CubeSats. Scientific Awards : ERC Advanced Laureate (for project "Light on the Dark") Marie Curie Fellowship Leadership Roles : Co-Lead of ESA Euclid "Strong Lensing" Working Group Co-Principal Investigator for CFHT-Stripe 82 project Developer of Fiber-Robot Positioner System for DESI collaboration

Guido MuellerView profile

Professor

• Gravitational Wave Detection
• LISA Interferometry
• Axion Particle Search
• +3 more

Dr. Guido Mueller is Professor of Physics at the University of Florida, affiliated with the Institute for High Energy Physics and holding a PhD from Universität Hannover. His research focuses on gravitational wave detection (LIGO/LISA) and particle physics (ALPS collaboration), with major contributions to Advanced LIGO's input optics subsystem enabling the first gravitational wave detection. Professor Mueller serves as Co-Spokesperson for the ALPS collaboration and holds leadership positions in the LISA Consortium. Research spans terrestrial/space gravitational wave observatories and detectors for axions/axion-like particles. Current projects investigate charge management systems for space inertial sensors, dimensional stability testing for space telescopes, and heterodyne detection techniques for ultra-weak electromagnetic fields. Publications demonstrate pioneering work in precision interferometry, quantum noise reduction, and space instrumentation. Recent articles focus on LISA pathfinder technology validation, UV-LED charge management systems, and axion detection methodologies using optical resonators. Scientific Awards: Gruber Cosmology Prize (2016) Breakthrough Prize in Fundamental Physics (2016) APS Fellow (2014) International Educator of the Year (2006) Secured over $20M in research funding from NSF, NASA, and private foundations. Supervised 16 PhD students and 11 postdoctoral scholars. Organized NSF-funded international research experience for undergraduate students in gravitational physics. Directs the Fields-CQAM Laboratory for Inference & Prediction, developing instrumentation for gravitational wave observatories and dark matter searches through collaborations with international partners.

Brynle BarrettView profile

Associate Professor

• Quantum Sensors
• Ultra-Cold Matter
• Atomic and Optical Physics
• +3 more

Brynle Barrett is an Associate Professor in the Department of Physics at the University of New Brunswick. His research focuses on experimental atomic and optical physics, particularly the development of high-accuracy quantum sensors using ultra-cold matter. He designs quantum accelerometers and gyroscopes leveraging the wave nature of atoms, with applications in Earth observation, navigation, and fundamental physics testing. Key research areas include light-matter interactions, laser cooling/trapping of neutral atoms, ultra-stable lasers, and precision measurements of fundamental constants. His work addresses gravitational and electromagnetic field sensitivity through matter-wave interferometry, enabling instruments like atomic clocks and gravimeters. Applications span geodesy, volcanic monitoring, and GPS-free navigation systems. Recent publications emphasize hybrid quantum accelerometers, multi-axis interferometer systems, and microgravity experiments. His teaching contributions include laboratory courses on laser spectroscopy and atom trapping, designed to train students in cutting-edge quantum technologies. Barrett leads projects on inertial sensors for mobile platforms, Sagnac effect studies, and tests of the weak equivalence principle using dual-species atom interferometers. His work bridges fundamental physics with practical sensor development, positioning quantum technologies for real-world deployment.

• Experimental Quantum Optics
• Quantum Photonics Engineering
• Quantum Communications
• +3 more

Dr Adetunmise Dada is a Lecturer in Optics and Quantum Technology at the University of Glasgow's School of Physics and Astronomy. He organizes the School's colloquium and has held prior roles including Research Fellow at the University of Glasgow (2019-2021), Senior Research Associate at the University of Bristol's Quantum Engineering Technology Labs (2016-2019), and Research Associate at Heriot-Watt University's Quantum Photonics Laboratory (2013-2016). His research focuses on experimental quantum optics, quantum photonics engineering, and quantum communication systems, particularly developing quantum-dot-based photon sources and daylight quantum communication technologies. His academic qualifications include a PhD in experimental quantum optics and over a decade of postdoctoral experience. Research interests include high-dimensional quantum information systems, integrated photonic devices, and quantum dots for computing/communication platforms. He actively engages in public science outreach and has received multiple awards including EPSRC Impact Acceleration grants and IOP public engagement funding. Recent work highlights include advancements in weak-value amplification for interferometry (2025), quantum-enhanced spectroscopy techniques (2025), and polarization-pure fiber designs for quantum networks (2024). His contributions span 28+ peer-reviewed publications in top journals like Physical Review Letters and Science Advances . Grants & Awards : Over 10 competitive grants including EPSRC Impact Awards (2024, 2022, 2019) and multiple academic excellence prizes Professional Activities : Editorial board member of Photonics , member of Institute of Physics and Quantum Information Scotland Teaching : Leads Quantum Optics and Quantum Information modules, supervises PhD students in quantum photonics Labs/Teams : Leads quantum communication research group focusing on 2.1 μm photonics and integrated quantum systems

Lukáš Félix PaštekaView profile

Researcher

• Relativistic and QED effects in chemistry
• Properties of heavy and superheavy elements
• Computational protocols for theoretical uncertainty
• +4 more

Lukáš Félix Pašteka is a researcher at the Department of Physical and Theoretical Chemistry, Comenius University in Bratislava. He holds roles such as co-investigator and principal investigator in multiple grants, including the Horizon-MSCA Doctoral Networks project on negative ions and Slovak VEGA projects focusing on molecular interactions. His research spans relativistic quantum chemistry, heavy element properties, and molecular photoswitches. Currently on sabbatical at the University of Groningen, he leads theoretical efforts in radioactive molecule applications, parity violation studies, and computational protocols for theoretical uncertainty. Teaching roles include advanced courses in theoretical and computational chemistry, as well as contributing to international conferences and Olympiad problem design. Research interests include relativistic effects in chemistry, superheavy elements, and experimental-theoretical collaborations (e.g., with CERN ISOLDE). Key projects include designing molecular photoswitches, exploring electron correlation in RaF, and investigating fundamental constant variations. He has published in top journals like Nature Communications and Physical Review Letters , with a focus on enhancing molecular properties for physics discovery. Active in department administration and public outreach, he also evaluates proposals for the Slovak National Supercomputing Centre. Recent articles emphasize parity violation in chiral molecules, photoswitching mechanisms, and relativistic effects in radium monofluoride. His work bridges computational chemistry with experimental validation, aiming to advance fundamental physics through molecular systems.

Guy MatmonView profile

Researcher

• Quantum Technologies
• Terahertz (THz) Technology
• Semiconductor Physics
• +3 more

Dr. Guy Matmon Dr. Guy Matmon is a tenure-track scientist in the Quantum Technologies Group at the Paul Scherrer Institute (PSI) , Switzerland, within the PSI Center for Photon Science . He holds a BSc and MSc in Physics/Mathematics from the Hebrew University of Jerusalem, and a PhD in Physics from the Cavendish Laboratory at Cambridge University. Research Focus: Quantum coherent control of single donors in silicon, THz quantum cascade lasers, Si/SiGe heterostructures, and optical metamaterials. His work bridges semiconductor physics, quantum optics, and terahertz technology with applications in quantum computing and biomedical sensing. Key Contributions: Pioneered THz-driven quantum control of donor states in silicon, developed broadband terahertz metamaterial absorbers, and advanced metrology techniques for high-index solids. Supervises PhD students in quantum technologies and manages the IR beam line (X01DC) at the Swiss Light Source SLS. Patents: Co-inventor of 28 patents on optical communication systems and integrated optics beam deflection technologies, including methods for precise optical element alignment and cylindrical lens configurations. Lab Affiliations: Leads the Laboratory for X-ray Nanoscience and Technologies optical laboratory and contributes to the Quantum Technologies Group at PSI.

• Particle Physics
• Cosmology
• Quantum Gravity
• +6 more

Professor Savas Dimopoulos is a renowned theoretical physicist at Stanford University, specializing in particle physics, cosmology, and quantum gravity. His research explores phenomena such as dark matter, axions, gravitational waves, and extra dimensions, with notable contributions to theories like split supersymmetry and N-flation. He is a member of the U.S. National Academy of Sciences (elected 2006). His work bridges fundamental physics with cutting-edge technologies, such as the MAGIS-100 atom interferometer for gravitational wave detection. Key themes include probing the early universe through cosmic neutrino backgrounds, testing particle physics beyond the Standard Model, and exploring the implications of extra-dimensional theories on collider and astrophysical observations. Dimopoulos’s publications span over three decades, addressing topics like black hole mergers, dark QED, and the interplay between supersymmetry and cosmological constants. His research frequently intersects interdisciplinary fields, combining theoretical frameworks with experimental feasibility. Awards : Member of the National Academy of Sciences (2006) Labs/Teams : MAGIS Collaboration (atomic gravitational wave sensor development) Advising/Grants : No specific grants or advisees listed, but extensive collaborations in particle physics and cosmology communities.