Françoise Combes is a Professor at the Collège de France since 2014, holding the Galaxies and Cosmology chair. She serves as President of the French Academy of Sciences (2025), following roles as President of the Space Research Committee and editor of Astronomy & Astrophysics since 2003. Her research spans galaxy formation, dark matter dynamics, and cosmological evolution. Education : PhD in Astrophysics (1980) at École normale supérieure Research Interests : Combes pioneers galaxy secular evolution through 3D N-body simulations, discovering bar-induced bulge formation via Lindblad resonances . She leads studies on high-redshift molecular gas , gravitational lensing effects, and dark matter as cold molecular hydrogen . Her work connects galaxy morphology to cosmological parameters and star formation laws. Publication Trends : Recent articles focus on ALMA nuclear ring observations , cosmological reionization simulations , and fractal interstellar medium models . Keywords reflect astrophysics, cosmology, and computational physics. Awards : - 2020 CNRS Gold Medal - 2021 L'Oréal-Unesco International Prize Advising Legacy : Supervised 19 PhD students over her career, including notable works on galactic shells , polar rings , and high-redshift galaxy surveys .
Orhan Sisman is a Researcher in the Department of Functional Materials at Alexander Dubček University of Trenčín, Slovakia. He contributes to the Centre for Functional and Surface-Functionalized Glass (FunGlass), a Horizon 2020 project focused on advanced glass materials. His work bridges materials science and sensor technology, with particular emphasis on developing next-generation gas detection systems using nanomaterials. Education: 2020: Ph.D. in Information Engineering-Physics Curriculum, University of Brescia, Italy (Thesis: Strategies to Enhance the Performances of Metal Oxide Gas Sensors) 2016: M.S. in Physics, Gebze Technical University, Turkey (Thesis: Fabrication of Organic/p-type Semiconducting Metal Oxide Hybrid Structures for Gas Sensing Applications) 2013: B.S. in Physics Education, Middle East Technical University, Turkey Dr. Sisman specializes in semiconductor nanomaterials for sensing applications. His research spans metal oxide nanomaterials, organic-inorganic hybrids, and glass/ceramic systems with focus on hydrogen, NO 2 , and humidity detection. He investigates structural, electrical, and surface properties of nanostructured materials to develop sensors with improved selectivity and sensitivity. His work integrates materials synthesis, surface engineering, and device fabrication for environmental monitoring and safety applications. His publication record shows consistent advancement in sensor technology, evolving from fundamental material characterization to sophisticated device engineering. Recent work emphasizes hybrid and core-shell nanostructures, UV-enhanced sensing, and ion beam surface modification techniques to optimize sensor performance. The publications demonstrate strong international collaboration across European research institutions. Research Projects: HORIZON 2020 FunGlass Project (2021-2023) - Researcher CERIC-ERIC Project (2018) - Research Fellow COST ACTION TD1105 EuNetAir (2016-2018) - Research Fellow COST ACTION MP1202 HINT (2016-2018) - Research Fellow VEGA Project No: 1/0844/21 - Researcher TUBITAK Project No: 113F403 (2016-2018) - Research Assistant Dr. Sisman maintains active collaborations with institutions across Europe including Friedrich Schiller University Jena, University of Brescia, Vinca Nuclear Institute, and multiple COST Action networks. He has participated in numerous research training programs and short-term scientific missions, contributing to his expertise in advanced materials characterization and sensor development. His work within the FunGlass center positions him at the forefront of functional glass research in Europe.
Lew Riley is a Professor of Physics and Pre-engineering Program Coordinator at Ursinus College. He joined the faculty in 2002 and holds a B.S. from Guilford College and M.S./Ph.D. in Nuclear Physics from Florida State University. His research integrates experimental nuclear structure studies with detector simulations, focusing on neutron transfer reactions, gamma-ray spectroscopy, and collective nuclear behavior. Riley leads the Ursinus College Nuclear Structure Group, collaborating with national laboratories like FRIB (Facility for Rare Isotope Beams) and FSU. Key projects include developing the UCGretina simulation for gamma-ray tracking and investigating neutron shell structures. His work consistently receives NSF grant support (since 2000), enabling undergraduate research participation in accelerator experiments. His publications emphasize nuclear spectroscopy, detector technology, and exotic nuclei, reflecting trends in experimental validation of nuclear models and computational simulations. Recent articles explore neutron transfer dynamics, octupole states, and inverse-kinematics proton scattering. Riley mentors undergraduate researchers in projects ranging from detector simulations (GEANT4) to experiments at FSU and MSU. His NSF grants include a Major Research Instrumentation award for nuclear research infrastructure. He also coordinates Ursinus' pre-engineering program and teaches advanced courses like Quantum Mechanics and Modern Physics.
Kevin Fossez is an Assistant Professor in the Department of Physics at Florida State University, maintaining his office in Keen 206 with contact email kfossez@fsu.edu. His academic position and research output confirm active faculty status within the university's physics department. His research centers on nuclear theory with specialized focus on exotic nuclei near drip lines, few-body quantum systems, and continuum effects in nuclear structure. Employing advanced methodologies including the Gamow shell model, density matrix renormalization group (DMRG), and eigenvector continuation, he investigates proton halos, neutron configurations, and resonance states in unstable isotopes. His work bridges theoretical frameworks with experimental implications for facilities like FRIB. Analysis of his 2020-2025 publications reveals consistent emphasis on precision mass measurements of proton-dripline nuclei (notably 22Al), evolution of neutron configurations in lithium isotopes, and island of inversion phenomena in fluorine systems. His research trajectory demonstrates increasing integration of computational extrapolation techniques for continuum states, with direct relevance to rare isotope beam facilities and nuclear astrophysics.
Fritz Buchinger is a Faculty Lecturer in the Department of Physics at McGill University. He holds a Ph.D. from Johannes-Gutenberg-Universität Mainz (1981) and specializes in experimental nuclear physics. His research focuses on fundamental nuclear properties, particularly nuclear masses and charge radii, using techniques including laser spectroscopy and Penning trap mass spectrometry. Dr. Buchinger leads experiments at major facilities including the Canadian Penning Trap at Argonne National Laboratory, TITAN Penning Trap at TRIUMF, and Collinear Laser Spectroscopy Experiment at TRIUMF. His work provides critical data on nuclei far from stability, contributing to our understanding of stellar nucleosynthesis processes and refinement of nuclear models. Research interests span nuclear structure physics, experimental techniques development, and applied physics applications. Current investigations include: Precision mass measurements of neutron-rich nuclides Nuclear charge radii determination via laser spectroscopy Development of advanced ion trap instrumentation Applications in nuclear astrophysics and fundamental symmetries Recent publications demonstrate a consistent focus on advancing mass spectrometry techniques (MR-ToF, PI-ICR) and their application to nuclear structure questions, particularly in the rare-earth region relevant to r-process nucleosynthesis. His work shows growing emphasis on precision measurements for fundamental physics tests.
Dr Courtney Crawford is an academic staff member at the Department of Physics, University of Sydney, specializing in astrophysics with a focus on stellar evolution and nucleosynthesis. Her research involves analyzing peculiar stars like R Coronae Borealis stars, hydrogen-deficient carbon stars (HdC), and white dwarfs using advanced observational data from missions like Gaia and TESS. Her work bridges theoretical models with observational data, particularly exploring merger scenarios of stars, nucleosynthesis processes, and the application of cutting-edge astrophysical datasets. Key contributions include developing spectral classification systems for hydrogen-deficient stars and investigating the implications of stellar mergers on stellar populations. Publications from 2019–2024 reflect her expertise in stellar atmospheres, dust formation mechanisms, and Galactic structure analysis through white dwarf studies. She collaborates extensively with international teams across multiple institutions, contributing to both observational and computational astrophysics. No formal academic awards or student advisement records are explicitly listed in the available profile content.
Dr. Tao Li is a Lecturer (Level B) in the School of Physics, Chemistry and Earth Sciences at the University of Adelaide. He holds a B.S. in Chemistry from Fudan University (2008), a Ph.D. from the University of Pittsburgh (2013), and completed postdoctoral research at UC Berkeley. Prior to his current role, he served as an Assistant Professor (2015–2022) and later Tenured Associate Professor (2022) at ShanghaiTech University. His research focuses on designing porous composite materials to address energy and environmental challenges. Key contributions include MOF@polymer core-shell composites, interfacial engineering in gas separation membranes, and hierarchical MOF structures (e.g., core-shell, hollow, yolk-shell). He has published over 60 articles in top journals like Nature Materials and Science Advances. Recent work emphasizes gas separation membranes (e.g., CO₂/CH₄, ethylene/ethane) and MOF-based porous liquids. His lab explores MOF-polymer interfaces, structural hierarchies, and mechanical metamaterials. He supervises Masters/PhD students in materials chemistry and nanotechnology.
Richard B. Stephens is an Adjunct Professor in the Department of Physics and Astronomy at the University of Pennsylvania's School of Arts & Sciences. His research focuses on disordered solids, low-energy excitations in amorphous materials, and plasma physics applications in inertial confinement fusion. He has contributed to experimental and theoretical studies of laser-generated hot electrons, cone-guided fast ignition systems, and x-ray diagnostic techniques. Education: PhD in Solid State Physics from Cornell University (1974), M.S. in Physics (1968), and A.B. in Physics (Magna Cum Laude, Honors) from the University of Pennsylvania (both 1968). Research interests include simulating zero-energy states in disordered materials, studying a-Se glass dynamics, and advancing experimental setups for mapping state densities. His theoretical work bridges packed sphere simulations with physical systems. He collaborates with institutions like the Naval Research Laboratory and has served as Chair of the DOE HEDLP RENEW program. Publications span plasma physics, condensed matter, and optics, with recent work addressing hot electron divergence in cone geometries and fusion target implosion dynamics. His earlier research includes surface plasmon phenomena and stress effects on amorphous materials.
Thomas N. Massey is a Research Professor in the Department of Physics and Astronomy within the College of Arts and Sciences at Ohio University. He is a member of the Institute of Nuclear and Particle Physics (INPP) and conducts his research at the Edwards Accelerator Lab on the Athens campus. His work is centered on experimental nuclear physics, with significant contributions to nuclear structure, neutron interactions, and reaction modeling. Dr. Massey earned his Ph.D. from the University of California in 1988, following an M.S. and B.S. from the same institution. His academic career at Ohio University has spanned from Research Scientist (1989–1994), to Research Assistant Professor (1994–2007), and currently Research Associate Professor (2007–present), reflecting a long-standing and active role in the department. His research interests are focused on Experimental Nuclear Physics , particularly Nuclear Structure Studies using gamma-ray spectroscopy, Measurement of (z,n) Reactions , and Neutron Elastic and Inelastic Cross Sections via time-of-flight techniques. He has pioneered methods for calculating reaction cross sections using a combined shell-model and R-matrix approach and has developed advanced techniques for calculating nuclear level densities. His work has direct applications in nuclear data, medical physics (e.g., BNCT), and reactor shielding. The 15 most recent publications reflect a consistent research trajectory in nuclear data and structure. His work spans from fundamental studies of exotic nuclei like 8 He and 11 Li to practical applications such as neutron source characterization for detector calibration and cancer therapy. A strong theme is the precise measurement and theoretical modeling of neutron interactions, with a focus on light nuclei and practical nuclear data needs. Research Professor, Ohio University (2007–present) Research Assistant Professor, Ohio University (1994–2007) Research Scientist, Ohio University (1989–1994) Dr. Massey has been involved in significant projects, including the NERI Iron Sphere Experiments for neutron transport validation and detector calibration work at Lawrence Livermore National Laboratory. He has also developed a suite of data analysis programs for nuclear experiments, including codes for Rutherford backscattering, kinematics, and time-of-flight data replay. His extensive publication record and ongoing research activities indicate a sustained and impactful career in nuclear physics.
Andrea Richard serves as Assistant Professor in the Department of Physics and Astronomy at Ohio University's College of Arts and Sciences, based at the Edwards Accelerator Laboratory on the Athens Campus. Her experimental research focuses on low-energy nuclear physics phenomena critical to understanding cosmic element formation and medical applications. Her academic credentials include: Ph.D. in Physics from Ohio University (2018) M.Sc. in Physics from Ohio University (2014) B.Sc. in Physics and Mathematics from Muskingum University (2011) Dr. Richard's research program investigates statistical nuclear properties, nuclear astrophysics processes including heavy-element synthesis, and applied medical physics. She conducts neutron-capture cross-section measurements for unstable nuclei using advanced accelerator facilities, with particular emphasis on how nuclear structure influences nucleosynthesis in stellar environments and neutron star mergers. Her experimental approach bridges theoretical models with empirical data from rare-isotope beam facilities. Analysis of her recent publications reveals three interconnected research thrusts: fundamental nuclear structure studies of exotic nuclei (particularly level densities and rotational bands), nuclear astrophysics applications for cosmic element production, and translational medical physics work in particle therapy. The 2022-2023 publications demonstrate increasing interdisciplinary collaboration, with medical physics applications emerging as a significant new direction alongside her core nuclear structure research. Her scientific recognition includes: Diversity, Equity, and Inclusion Directorate Award from Lawrence Livermore National Laboratory (2023) American Physical Society Five Sigma Physicist Award (2021) Nuclear Science and Security Consortium Postdoctoral Fellowship (2018-2021) DOE SCGSR Fellowship (2016) While current documentation does not specify doctoral advisees or active grant funding, Dr. Richard maintains significant research leadership through her Facility for Rare Isotope Beams User Executive Committee membership and Nuclear Science and Security Consortium fellowship legacy. She operates within Ohio University's Edwards Accelerator Laboratory ecosystem while maintaining active research partnerships with Michigan State University's Facility for Rare Isotope Beams and Lawrence Livermore National Laboratory. Her collaborative networks include the GeMSS (Gender Minorities in Science Social) initiative and the American Physical Society's Forum on Diversity and Inclusion, reflecting her commitment to inclusive scientific communities.
Prof. Tomasz Zagrajek is a faculty member at Warsaw University of Technology's Faculty of Power and Aeronautical Engineering, Department of Strength of Materials and Structures, holding the rank of Professor in mechanical engineering. Active since 1978, he specializes in structural mechanics and numerical methods with extensive teaching experience. His academic credentials include: PhD in Engineering (1982), technical sciences, mechanics discipline DSc in Engineering (1991), technical sciences, mechanics discipline Professor title (2006), technical sciences, mechanics discipline Professor Zagrajek's research centers on structural mechanics and the finite element method, with significant contributions to shell structures, composite materials, and biomechanics. His work bridges theoretical mechanics with practical applications in aerospace, nuclear engineering, and medical devices, resulting in over 80 publications and co-authored textbooks on computational methods. Analysis of his 2014-2020 publications reveals consistent application of computational mechanics to diverse challenges: fusion reactor component design (cryostats), composite material failure analysis (delamination, impact damage), and biomechanical modeling (spinal implants, bone remodeling). Scientific awards: No scientific awards are documented in the provided text Professor Zagrajek has supervised 4 doctoral students and reviewed 14 doctoral theses plus 3 habilitation theses. His research projects include: BAKOMET: Numerical modeling of non-adhesive metal-carbon-epoxy composite connections Elastic materials for intervertebral disc implant structures Monitoring of operational wear and optimization of steam turbine rotor repair He co-authored two major textbooks and a prescript on structural mechanics, cementing his pedagogical impact in the field.
Alfonso Pedone is an Associate Professor at the Department of Chemical and Geological Sciences , University of Modena and Reggio Emilia. His research focuses on computational chemistry approaches to understanding oxide glasses, including silicates, borosilicates, and nuclear waste materials, through molecular dynamics simulations and machine learning potentials. Research Interests : Computational materials science, spectroscopy, glass structure-property relationships, quantum chemistry of minerals, and machine learning applications in material modeling. Teaching : Offers advanced courses in Physical Chemistry I , Energetics and Chemical Equilibrium , and Molecular Spectroscopy for chemistry and sustainable chemistry degree programs. Technical Expertise : Specializes in Density Functional Theory (DFT) calculations, metadynamics, and reactive molecular dynamics for surface interactions and crystallization studies. Collaborative Work : Co-author on studies involving ceria polishing mechanisms, iron toxicity modeling, and machine learning potential benchmarking for industrial applications. Publications : Recent work examines pressure-induced glass densification, dispersion interactions in machine learning potentials, and predictive modeling of glass crystallization pathways.
Filomena Nunes is a Professor in the Department of Physics & Astronomy at Michigan State University's College of Natural Science, with primary affiliations at the National Superconducting Cyclotron Laboratory (NSCL) and Facility for Rare Isotope Beams (FRIB). Her research centers on theoretical nuclear physics, specifically developing reaction models for exotic unstable nuclei that decay within seconds. Education: Ph.D., University of Surrey (1995) Nunes specializes in direct nuclear reactions including inelastic excitation, breakup, and transfer processes to extract nuclear structure information from experimental data. Her work bridges nuclear theory with three critical applications: deriving astrophysical capture rates for stellar simulations (novae/supernovae), addressing nuclear waste management challenges, and probing the fundamental nuclear force governing exotic systems. She develops computationally intensive few-body structure models that retain essential nuclear features while incorporating continuum states, leveraging Michigan State University's high-performance computing resources. Analysis of her 2008-2014 publications reveals a cohesive research trajectory focused on nuclear reaction theory's intersection with astrophysics and exotic nuclei. Key themes include Coulomb dissociation methods for neutron capture rates, triple-alpha processes in stellar environments, halo nucleus characterization, and magic number evolution in neutron-rich systems. Her work consistently employs advanced computational frameworks to solve few-body problems while connecting to experimental facilities like FRIB. Scientific Awards: No scientific awards mentioned in source materials Nunes actively contributes to major nuclear physics initiatives including the TORUS Collaboration and Nuclear Theory Alliance, with documented involvement in the Long Range Plan for Nuclear Science. While specific grant details and student supervision records are absent from provided materials, her research demonstrates sustained collaboration with national laboratories and integration of Bayesian statistics for uncertainty quantification in nuclear dynamics. Her laboratory affiliations include the National Superconducting Cyclotron Laboratory (NSCL) and Facility for Rare Isotope Beams (FRIB) at Michigan State University, where she utilizes cutting-edge computational infrastructure for reaction theory simulations. Current research directions emphasize uncertainty quantification and experimental design optimization in nuclear reaction studies.
Professor Jan Verlet is a leading researcher in the Department of Chemistry at Durham University, specializing in the quantum dynamics of isolated anions , photon and electron-driven chemistry , and photochemistry at aqueous interfaces . He has pioneered novel methods for studying electron-molecule interactions, including real-time measurements of electron reactions and 2D photoelectron spectroscopy . Current affiliations: Durham University, J. Heyrovsky Institute of Physical Chemistry (Prague) Academic leadership: Head of Department, Royal Society of Chemistry Fellow Research Interests focus on elucidating the electronic and nuclear dynamics governing photo- and electron-induced chemical changes. His group explores phenomena such as electron capture in molecular clouds , non-valence states in anions , and electron transport in biological systems , with applications spanning atmospheric science, interstellar chemistry, and biophysics. Scientific Contributions include groundbreaking studies on Hydrated electrons at water/air interfaces Ultrafast dynamics of correlation-bound states Photodetachment of biologically relevant anions Excited-state relaxation in polyanions Scientific Awards include the RSC Bourke-Liversidge Prize (2023) RSC Corday Morgan Prize (2021) European Research Council Starting Grant (2012-2017) EPSRC Advanced Research Fellow (2006-2011) JILA Visiting Fellow (2019) Education & Grants feature a PhD from King’s College London (2003) and postdoctoral work at UC Berkeley (2003). He leads research funded by the ERC and EPSRC, focusing on electron-driven chemical processes and interfacial reactions. Labs & Collaborations include the Verlet Research Group at Durham University and a senior scientist role at the J. Heyrovsky Institute of Physical Chemistry (2024-29). His work bridges experimental and computational approaches to molecular dynamics.
Davide Bucci is a Senior Lecturer at Grenoble INP - Phelma, where he serves as Head of the final year of the Biomedical Engineering program and Head of the Master 2 Nanomedicine and Structural Biology program. He is affiliated with the Institute of Microelectronics, Electromagnetism and Photonics (IMEP-LAHC) at Minatec and the Center for Radiofrequencies, Optics and Micro-nanoelectronics of the Alps (CROMA) at Univ. Grenoble Alpes. Dr. Bucci obtained his "diploma di laurea" in electronic engineering from the Politecnico di Torino in Italy in 2003, alongside an engineering degree from the Ecole Nationale Supérieure d'Electricité et Radioélectricité de Grenoble (ENSERG) through a double degree program. He completed his PhD in 2006 at IMEP, focusing on integrated optics on glass. His research focuses on integrated photonics on glass, ion-exchange techniques, and optofluidic sensors for biological applications and harsh environments. He leads the PHOTO team, which specializes in integrated optics on glass, integrated optical sensors, modeling of optical devices, and biophotonics. His recent publications demonstrate consistent contributions to photonic integrated circuits, optofluidic sensors for nuclear environments, and nanowire-based solar cell technologies. Dr. Bucci has published a book titled "Analog Electronics for Measuring Systems" (ISTE/Wiley, 2017) and has been leading the open-source FidoCadJ project since 2007. His research shows a clear progression from fundamental integrated optics to applied optofluidic sensors for biomedical and nuclear applications. He teaches numerous courses including Analog Electronics, Electronics of Measurement Systems, Microelectronics, Technology for Integrated Devices, and Guided Optics. He regularly mentors 3-5 student projects and final projects annually and participates in lifelong training activities organized by Grenoble INP. Dr. Bucci is also the correspondent for Grenoble INP of the AMI CMA program PFDS (Digital Health) and has established himself as a key researcher in glass-based photonic technologies with applications spanning biomedical engineering to nuclear safety monitoring.
