Prof. Rob Timmermans is a Professor of Theoretical Physics and Vice-Dean for Education at the University of Groningen (UG). He is affiliated with the Faculty of Science and Engineering and the Precision Frontier — Van Swinderen Institute for Particle Physics and Gravity. His research focuses on theoretical particle physics, quantum mechanics, and precision measurements, particularly in electric dipole moment (EDM) searches using molecules like BaF. His work includes developing methods for molecular beam manipulation, phase-space analysis, and symmetry violation studies. He has contributed to collaborations such as NL-eEDM, advancing techniques for EDM detection and precision physics. Prof. Timmermans has received nominations for teaching awards, reflecting his commitment to education. Research highlights include studies on nucleon decay, antinucleon-nucleon interactions, and chiral effective field theory. His lab activities involve collaborations on laser-cooled molecules and trapping techniques. Prof. Timmermans’ articles often address fundamental physics questions, such as Lorentz violation in beta decay and parity violation in molecular systems. Awards: Nominated for Faculty Teaching Award 2014, Teacher of the Year 2014-15. Grants/Advising: Leads projects on EDM searches and particle physics, with active roles in international collaborations. Labs/Teams: Van Swinderen Institute, Precision Frontier group.
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.
Prof. dr. Steven Hoekstra is an Associate Professor of Atomic and Molecular Physics at the University of Groningen's Faculty of Science and Engineering, within the Van Swinderen Institute. His research focuses on precision measurements using cold molecules to explore fundamental physics, including Stark deceleration, laser cooling, and searches for physics beyond the Standard Model. He leads the NL-eEDM program at Nikhef, investigating the electron's electric dipole moment. Hoekstra is also involved in educational innovation, having received the Teacher of the Year award (2020) and a Senior Teacher Qualification (2023). He has supervised over 11 PhD theses and currently mentors 5 students. His work combines experimental techniques with theoretical insights, addressing questions like symmetry violations and quantum dynamics. Key projects include manipulating BaF molecules with electrostatic fields and exploring levitated nanoparticles as sensors. Hoekstra has secured major grants, including NWO VICI (2022) and VIDI (2013), and collaborates internationally on projects like the European Strategy for particle physics. Recent articles highlight advancements in molecular beam control, spin-precession methods for EDM searches, and opportunities in radioactive molecules. He actively participates in the Physics Olympiad Netherlands as chair, contributing to science outreach and education.
Dr. Anna Baldycheva is a Senior Lecturer in Electronic Engineering at the University of Exeter, within the College of Engineering, Mathematics and Physical Sciences. She leads the interdisciplinary STEMM Laboratory, focusing on applied R&D in smart materials, photonics, AI, and IoT. With prior research experience at MIT, Trinity College Dublin, and Tyndall National Institute, she has established herself as an internationally recognized innovator and entrepreneur in emerging technologies. PhD in Electronic and Electrical Engineering, Trinity College Dublin (2008–2012) BSc (Hons) in Physics, St. Petersburg State University (2003–2008) Postgraduate Certificate in Academic Practice, University of Exeter (2016–2017) Postgraduate Certificate in Technology Management, Smurfit Business School (2009–2010) Her research spans Nano-Engineering, Opto-Electronics, Photonics, AI, and IoT , with a strong emphasis on real-world applications. She pioneers work in fluid opto-electronics , graphene nanocoatings , and AI-driven emotion recognition and early cancer detection . Her lab develops smart composite materials for flexible electronics, e-textiles, and structural applications, integrating machine learning into healthcare, education, and communications systems. The recent publications highlight a strong trend toward applied interdisciplinary innovation , combining materials science with AI and photonics for healthcare diagnostics, energy-efficient computing, and educational technology. Her work frequently bridges fundamental physics with commercialization potential, as seen in spin-out technologies like GSurf and the Electronic-Nose for lung cancer detection. Fellow, Royal Microscopical Society (RMS) Fellow, Higher Education Academy (FHEA) Expert, Future and Emerging Technologies, European Commission Featured in Forbes and Forbes Tech Council Editor-in-Chief, InSTEMM Journal Associate Editor, Nature Scientific Reports and Discover Nano Trustee, Royal Microscopical Society Founder, STEMM Global Scientific Society Founder, It’s Her! Women in STEMM Initiative Dr. Baldycheva actively supervises PhD students and has secured industrial collaborations with organizations such as Qinetiq and Lumentum. She leads multiple outreach initiatives, including STEMM Junior for underprivileged children, and serves on the committee for the Jocelyn Bell Brunel PhD Scholarship. She has raised significant research funding through national and international grants, though specific grant names are not listed. She leads the STEMM Laboratory , a multidisciplinary research group with divisions in Smart Composite Materials, Machine Learning & AI, and Opto-Electronics & Photonics. The lab emphasizes industry collaboration and technology transfer, having produced a university spin-out (GSurf) and multiple media-highlighted innovations.
Jose D'Incao is an Associate Research Professor at the University of Colorado Boulder and an Associate Fellow at JILA, a joint institute of the National Institute of Standards and Technology (NIST) and the University of Colorado. His research focuses on ultracold atomic systems, particularly the study of few-body correlations in atomic systems at ultracold temperatures, including Efimov physics and quantum dynamics in Bose-Einstein condensates. His work addresses fundamental challenges in atomic, molecular, and nuclear physics, with applications to quantum control and novel phases of matter. His research interests include the theoretical analysis of three-body recombination processes, universal few-body physics in spinor condensates, and the interplay between coherence and dissipation in ultracold gases. He has contributed to understanding the generalized Efimov effect in one and two dimensions and explored dynamics in systems such as hybrid ion-atom mixtures and optical lattices. Key projects include studies of Efimov states via Feshbach resonances, light-assisted collisions in optical tweezers, and precision measurements of many-body interactions in microgravity. His work often involves collaboration with experimental groups to bridge theoretical predictions with advancements in cold atom technologies. Jose D'Incao has received funding from the National Science Foundation (NSF) and the Binational Science Foundation (BSF) for projects exploring universality in few-body systems and coherent control of Efimov physics. His research has implications for precision metrology, quantum simulation, and the development of novel quantum technologies.
Prof. Will Raven is a Professor of Physics at Smith College, where he joined the Department of Physics in 2013. He has mentored over 70 undergraduate researchers, published 8 peer-reviewed articles since 2020, and secured five NSF grants, including the NSF CAREER award. His research focuses on high-precision spectroscopy of neutral light atoms to test quantum electrodynamics (QED) and contribute to nuclear structure theory. Ph.D., University of Wisconsin–Madison B.S., Clarkson University Prof. Raven’s research group explores fundamental atomic physics, testing the Standard Model by measuring properties of beryllium, boron, nitrogen, and oxygen atoms. He designed a course, PHY242 Research in High Precision Spectroscopy, accessible to first-year students without calculus or physics prerequisites. His work combines experimental techniques with educational innovation, emphasizing accessible research opportunities. His recent publications (2025–2020) span precision spectroscopy of light atoms, hyperfine structure analysis, and laser stabilization methods. These articles represent fields such as Atomic Physics, Quantum Mechanics, and Optical Physics. American Physical Society 2025 Prize for a Faculty Member for Research in an Undergraduate Institution NSF CAREER award Smith College Student Government Association’s teaching award (twice) Prof. Raven has secured NSF grants for his research, including RUI grants for experimental projects and MRI grants for instrumentation. He leads the Raven Lab, an experimental group dedicated to undergraduate research training and fundamental atomic physics studies.
Carl E. Carlson is the Class of 1962 Professor of Physics at the College of William & Mary in Virginia. He holds a B.A. and Ph.D. from Columbia University (1965 and 1968, respectively). His research focuses on theoretical particle and nuclear physics, including the proton radius problem, low-energy tests of new physics, hadronic effects in atomic physics, and two-photon physics. Recent courses include Quantum Field Theory II, Classical Electricity and Magnetism II, and General Physics. He has been recognized with the Thomas Ashley Graves Award for Sustained Excellence in Teaching (1994) and the Alumni Fellows Award (1978). His recent work explores topics like twisted photon interactions, lattice QCD corrections, and proton structure corrections to atomic spectroscopy. He has held sabbaticals at institutions like the Helsinki Institute for Physics and the Helmholtz Institute Mainz.
Dr. Vineet Bharti is a Senior Research Associate at the School of Physics, University of Bristol, with a focus on quantum engineering and ultrafast dynamics. He holds a BSc, MSc, and PhD, and is affiliated with the Quantum Engineering Technologies research group. Education: BSc, MSc, PhD Current Role: Senior Research Associate Research Focus: Quantum physics, ultrafast atomic interactions His work explores Rydberg atoms, electromagnetically induced transparency (EIT), coherent population trapping (CPT), and quantum many-body systems. Recent research includes ultrafast dynamics in optical lattices and polarization-dependent spectroscopy. Dr. Bharti’s publications highlight advancements in quantum optics and atomic physics. For detailed information on his projects, grants, and future research, refer to his full description below. He can be contacted via vineet.bharti@bristol.ac.uk or viewed on ORCID .
Frank Neese is the Director and Managing Director (since 2024) of the Max-Planck-Institut für Kohlenforschung in Mülheim an der Ruhr, Germany, where he leads the Department of Molecular Theory and Spectroscopy. He holds honorary professorships at the University of Bonn (since 2013) and the University of Duisburg-Essen (since 2020), reflecting his strong academic affiliations. His research program bridges theoretical chemistry, quantum mechanics, and spectroscopy with applications in bioinorganic and materials chemistry. Education: Diploma in Biology, University of Konstanz (1993) Ph.D. (Dr. rer. nat.), University of Konstanz (1997) Postdoctoral Research, Stanford University (1997–1999) Habilitation, Universität Konstanz (2001) Frank Neese's research focuses on the development and application of advanced quantum chemical methods for understanding molecular electronic structures, particularly in transition metal complexes and metalloenzymes. His work emphasizes spectroscopic simulations (EPR, XAS, MCD, etc.) and reaction mechanisms in catalysis. He is renowned as the lead developer of the ORCA quantum chemistry software, a widely used tool in computational chemistry. His theoretical frameworks integrate density functional theory, wavefunction-based methods, and multiscale modeling to achieve high accuracy in predicting chemical properties. The 15 most recent publications highlight a consistent trajectory in electronic structure theory, with strong emphasis on spectroscopy, transition metal chemistry, and method development. Key themes include double-hybrid functionals, spin-state energetics, spin-orbit coupling, and QM/MM modeling of biological systems. The interdisciplinary nature of his work spans chemistry, biochemistry, and materials science, often targeting challenges in catalysis and energy conversion. Scientific Awards: Gottfried Wilhelm Leibniz Prize (2023) Humboldt Research Award ISACS Award Fellow of the Royal Society of Chemistry Member of the North Rhine-Westphalian Academy of Sciences Member of the Leopoldina Neese has secured extensive third-party funding for his research, enabling a large, interdisciplinary team of scientists and students. He actively mentors PhD and postdoctoral researchers, fostering the next generation of theoretical chemists. His leadership extends to official functions in scientific societies and editorial roles in major chemistry journals. The ORCA development team, which he heads, is a central hub for innovation in computational chemistry software. He leads a vibrant research group focused on method development and applications in molecular spectroscopy and reactivity. The team collaborates internationally and organizes the ORCA User Meeting, fostering a global community of users and developers in quantum chemistry.
Jens Dittmer is a Professor at Le Mans University, affiliated with the Institute of Molecules and Materials of Le Mans (IMMM). His research focuses on advanced solid-state NMR techniques for studying paramagnetic systems, ion conductors, hybrid perovskites, and polymer degradation. Key projects include developing NMR methods for paramagnetic materials, analyzing lithium garnets for battery applications, and collaborating with Pratt Institute on art conservation using NMR. Primary Affiliation: Institute of Molecules and Materials of Le Mans (IMMM), Le Mans University Research Highlights: Paramagnetic Solid-State NMR, Ion Mobility in Garnets, Hybrid Perovskite Photovoltaics, Polymer Degradation in Art Conservation His work bridges fundamental NMR physics with applied material science, particularly in energy and cultural heritage sectors. Collaborations span international institutions including University of Rennes, ParisTech, and Pratt Institute. Current projects emphasize sustainable material design and non-invasive analytical techniques.
Professor Cindy Regal holds the Baur-SPIE Endowed Chair in Optical Physics and Photonics at the University of Colorado Boulder, affiliated with JILA, a joint institute of the university and NIST. Her research focuses on engineering isolated quantum systems for quantum information and optics, particularly manipulating single/few neutral atoms and controlling phonons in mesoscopic oscillators using optical interfaces and laser cooling. She has pioneered optomechanical systems, including laser-cooled membranes and microwave-to-optical transducers. Regal’s work bridges atomic physics and quantum engineering, with applications in quantum sensors and quantum networks. Education/Background : Ph.D. in Physics, notable contributions in ultracold atoms and optomechanics. Her research interests emphasize quantum optomechanics, cryogenic Rydberg atom arrays, and electro-optic quantum converters. Collaborations include projects like the National Quantum Nanofab (NQN), funded by NSF, and the Quantum Systems Accelerator. Recent publications (2025) highlight advancements in Rydberg atom trapping, optomechanical cooling, and quantum magnetometry. Awards include the Brown Investigator (2025) and Baur-SPIE Chair (2020). Teaching : Courses include Physics 2010 (Classical Mechanics), 3330 (Electronics for Physical Sciences), and advanced quantum mechanics. Funding sources include NSF, Brown Institute, AFOSR, and ONR. Her lab (Regal Lab) collaborates with groups like JILA’s Kaufman and Lehnert teams. Future work includes scaling quantum systems and developing quantum technologies.
Dr. Laura Galazzo is a Lecturer at the Department of Chemistry and Applied Biosciences, ETH Zurich, affiliated with the Institute of Molecular Physical Sciences (IMPS). Her research focuses on biophysical chemistry and molecular dynamics, employing advanced spectroscopic techniques like Electron Paramagnetic Resonance (EPR) to study protein structure, phase transitions, and membrane transport mechanisms. She investigates topics such as liquid-liquid phase separation in proteins, ABC transporter function, and nitroxide radical dynamics in aqueous environments. Dr. Galazzo also contributes to methodological advancements in pulsed dipolar spectroscopy and neural network applications in spectroscopic data analysis. Her work bridges theoretical and experimental approaches, combining computational methods (e.g., ab initio molecular dynamics) with experimental techniques to address complex biological systems. Key areas of study include protein aggregation, conformational changes in large complexes, and the interplay between solvent effects and biomolecular behavior. Recent research highlights include studies on mycobacterial iron uptake mechanisms and the structural dynamics of pro-apoptotic peptides. Dr. Galazzo’s publications reflect a strong emphasis on interdisciplinary approaches, integrating spectroscopy, computational modeling, and structural biology. Her contributions have advanced methodologies for distance measurements in biomolecules and provided insights into fundamental biological processes such as phase separation and membrane-mediated transport. She is actively engaged in promoting sustainable education through initiatives like the EquipSent project, aiming to enhance global access to scientific resources.
Petros Rakitzis is a Professor in the Department of Physics at the University of Crete and affiliated with the Foundation for Research and Technology - Hellas (FORTH) at the Institute of Electronic Structure and Laser (IESL). He received his B.A. in Physics and Chemistry from Cornell University (1992) and his Ph.D. in Physics from Stanford University (1997), focusing on atomic and molecular angular momentum in chemical reactions. Since 2001, he has progressed from Lecturer to Professor, securing the prestigious ERC Starting Grant in 2008. His research spans quantum angular momentum, spin polarization, photodissociation dynamics, and cavity-enhanced spectroscopy. Education: B.A. in Physics and Chemistry, Cornell University (1992); Ph.D. in Physics, Stanford University (1997) Rakitzis's work explores spin manipulation in particle beams, polarization phenomena in spectroscopy, and chirality sensing using parity-time-symmetric systems. His research has applications in nuclear fusion, laser-plasma acceleration, and quantum metrology. He leads the PREFER collaboration, focusing on polarization research for fusion experiments and reactors, and has developed techniques like signal-reversing cavity ring-down polarimetry for precision measurements. His recent publications highlight trends in spin-polarized hydrogen production, cavity-based chiral sensing, and parity nonconservation studies. These works intersect atomic physics, quantum optics, and nuclear fusion, with methodologies involving laser excitation, relativistic plasmas, and advanced spectroscopic techniques. Scientific Awards: ERC Starting Grant (2008) Rakitzis has contributed to experimental techniques and theoretical frameworks in spin polarization and photodissociation, securing grants and advancing polarized beam applications. His research impacts fusion energy, quantum sensing, and fundamental symmetry studies.
Professor Anna Krylov is a leading theoretical chemist at the University of Southern California’s Department of Chemistry. Her research focuses on computational spectroscopy, quantum chemistry, and molecular dynamics simulations, with particular expertise in excited-state dynamics, X-ray spectroscopy, and coupled-cluster methods. She has made significant contributions to understanding molecular electronic structure, including studies on electron-attached states, pressure effects on radicals, and photocatalytic systems. Her work bridges computational theory with experimental validation, as seen in collaborations analyzing pyrazine, benzene, and ozone spectra. Recognized with USC Dornsife’s 2021 Communicator of the Year Award, she advocates for scientific integrity and merit-based research, addressing societal challenges like politicization of science funding. Krylov’s research also explores quantum computing applications for molecular simulations and contributes to software development tools like libwfa and ezSpectra. Her interdisciplinary approach spans from fundamental chemistry to biomedical imaging and materials science.
Kim Dunbar is a Senior Professor in the Department of Chemistry at Texas A&M University. Her research focuses on molecular magnets, conducting metal-organic solids, spin-crossover compounds, and metals in medicinal applications. She explores anion-pi interactions and cyanide chemistry to design novel materials with tailored electronic and magnetic properties. Dunbar has pioneered studies on single-molecule magnets (SMMs) and their integration into metal-organic frameworks for nanostructuring. Her work bridges inorganic, bioinorganic, and materials chemistry, with applications in photodynamic therapy and energy conversion. Education: B.S., 1980, Westminster College Ph.D., 1984, Purdue University Research Interests: Her group investigates hybrid materials combining magnetic and conductive properties, including molecular squares/cubes with single-molecule magnetism, dirhodium anticancer agents, and photoactive ruthenium complexes. They employ X-ray crystallography, magnetometry, and spectroscopy to study structure-property relationships in transition metal systems. Awards: Dunbar has received numerous honors, including the ACS Distinguished Service Award (2015), Eminent Scholar Award (2012), and AAAS Fellowship (2004). She is a frequent plenary speaker at international conferences and has been recognized for her mentoring and teaching excellence. Labs/Teams: The Dunbar Research Group collaborates across disciplines, leveraging computational and synthetic chemistry to design functional materials. Their work has led to breakthroughs in SMM design, cyanide-based magnetism, and photodynamic therapy drug development.
