Sophie Ayscough is affiliated with Lund University as a Postdoctoral Fellow in Physical Chemistry and a Visiting Research Fellow in Molecular Biosciences. She holds dual roles within these research areas. Her research focuses on surface active agents, bio-based polymers, and surfactant systems, particularly in the context of natural care products and material science applications. Key topics include polymer-surfactant interactions, micelle formation, and surface deposition mechanisms. Her 2024 publication in Colloids and Surfaces A explores structural and deposition studies of bio-based polymer-surfactant mixtures, reflecting her expertise in green chemistry and material characterization. As Principal Investigator (PI), she leads the project Utilising surface techniques and neutron scattering with deuteration to investigate mitochondrial cell death (2023–2025), funded by The Royal Physiographic Society in Lund. This work integrates advanced spectroscopic methods to study cellular processes. Her research network spans international collaborations, with recent projects involving institutions across Europe. She actively contributes to interdisciplinary studies at the interface of chemistry and biosciences.
Univ.-Prof. Dr. Oskar Paris is a Full Professor of Physics and Head of the Chair of Physics at Montanuniversität Leoben. He leads the Department of Physics, Mechanics and Electrical Engineering and has held academic leadership roles including Dean of Studies (2017–2022) and Vice Dean (2011–2017). His research focuses on nanomaterials, energy storage, and in-situ scattering techniques using synchrotron radiation and neutrons. He has over 170 peer-reviewed publications (H-index 50) and pioneered studies on nanoporous materials for hydrogen storage and supercapacitors. Education: PhD in Solid State Physics (University of Vienna, 1996), Habilitation in Materials Physics (Montanuniversität Leoben, 2003). Career highlights include research at ETH Zurich (1996–1998), Max-Planck-Institute (2003–2009), and leadership of the SyNergy_Mat Lab since 2009. Awards include the FWF Wittgenstein Award nomination (2018) and COPP-Preis (1997). Research interests span fluid-solid interactions in nanoporous systems, biomimetic materials, and synchrotron/neutron scattering method development. He supervises PhD students (e.g., Sebastian Stock, Max Rauscher) and organizes international schools like the NESY Winterschool. His work bridges fundamental physics with applied energy storage solutions. Key projects include hydrogen storage in nanoporous carbons (funded by Montanuniversität and ILL-CENI), capacitive deionization studies, and collaborations with institutions like the Institut Laue-Langevin (ILL).
Dr. Gerhard Popovski serves as Senior Lecturer at the Institute of Physics, University of Leoben, specializing in advanced scattering methodologies for soft matter characterization. His expertise bridges physical chemistry and materials science with extensive instrumentation experience at international facilities including ILL, NIST, and HASYLAB. Education: Chemistry studies at Karl-Franzens University Graz (1991-1997), Diploma thesis on fluid system characterization via scattering techniques PhD in Chemistry (1997-2000) evaluating scattering data of interacting systems Habilitation in Physical Chemistry (2009) titled "Characterization of Liquids and Polymers by Scattering" Research Focus: Pioneering work in small-angle scattering (SAXS/SANS) for colloidal systems, polymer physics, and soft matter. Developed generalized indirect Fourier transformation (GIFT) methods for analyzing charged particle interactions and dense colloidal systems. Investigates micelle formation, vesicle structures, emulsion dynamics, and rheological properties of complex fluids through combined scattering and rheological techniques. Publication Trends: Recent work (2006-2009) demonstrates methodological innovation in scattering data interpretation for block copolymers, colloidal interactions, and organic liquid structures. Key contributions include computational frameworks for Monte Carlo scattering simulations, determination of pair correlation functions, and stimuli-responsive polymer micelle characterization using advanced scattering techniques. Research Infrastructure: Extensive utilization of neutron (ILL, PSI) and synchrotron (HASYLAB) facilities for SANS, GISAXS, and rheo-SANS experiments. Collaborative networks span BASF AG, University of Delaware, CNRS Bordeaux, and University of Ljubljana for interdisciplinary soft matter research.
Manoel Couder is an Associate Professor in the Department of Physics & Astronomy at the University of Notre Dame. He holds an office in Nieuwland Science Hall and conducts research focused on nuclear reactions of astrophysical and medical importance. His work includes developing techniques to measure low-cross-section reactions using recoil separators (e.g., St. George and SECAR) and underground facilities like CASPAR. He also investigates accelerator-based production of medical isotopes, such as 99m Tc. Education: B.Sc., M.Sc., and Ph.D. in Physics from Université Catholique de Louvain (1998–2004). Research Interests: Radiative capture processes in nucleosynthesis, low-energy nuclear astrophysics, and isotope production for medical applications. Techniques include recoil mass separation, underground experiments, and indirect reaction measurements. Collaborations involve Michigan State University, Texas A&M University, and the CASPAR underground laboratory. Notable Projects: SECAR separator development, CASPAR facility operations, and studies of neutron-rich nuclei for the r-process. His work addresses challenges in measuring reactions critical to stellar explosions and medical isotope availability.
Anna Simon-Robertson is an Associate Professor and Associate Chair in the Department of Physics & Astronomy at the University of Notre Dame, where she also serves as Director of Graduate Studies. Her primary research focuses on nuclear astrophysics, specifically studying neutron and proton capture reactions relevant to astrophysical processes like the p-process, γ-process, and stockpile stewardship. She leads the development of advanced detectors such as HECTOR (High Efficiency TOtal absorption spectrometeR) and collaborates with institutions like Texas A&M and Lawrence Livermore National Laboratory. Education : M.Sc. and Ph.D. in Physics from Jagiellonian University, Krakow, Poland. Her research group investigates reactions critical to understanding nucleosynthesis in supernovae and stellar explosions, with a focus on experimental techniques like the surrogate method and Oslo method. They also explore the behavior of materials under extreme conditions for national security applications. Key projects include measuring cross sections for heavy nuclei using the Hyperion array and analyzing γ-ray strength functions to refine astrophysical models. Recent Highlights : Published results on Zn, Sn, and Kr isotopes for γ-process modeling; contributions to neutron capture measurements via HECTOR; leadership in training >20 graduate and undergraduate students. Collaborative efforts include the CENTAUR Center for Excellence under NNSA funding. Awards : Group members have received accolades like the Browne Award, though no specific awards for Dr. Simon-Robertson are explicitly listed. Grants : Supported by NNSA via the CENTAUR Center and other initiatives. Her lab’s infrastructure includes the NSL (Nuclear Science Lab) and access to cutting-edge facilities like DANCE (Differential Die-away Detector for Neutron Capture Experiments).
Eundeok Mun is an Associate Professor and Canada Research Chair Tier 2 in the Department of Physics at Simon Fraser University (SFU). Their research focuses on novel materials with unconventional magnetic and electronic properties, including magnetism, superconductivity, and quantum criticality. They lead the Emerging Materials Lab, which synthesizes and characterizes materials to explore phenomena like spin dynamics and topological defects. Education: Ph.D. in Physics from Iowa State University; M.Sc. and B.Sc. from Sungkyunkwan University. Current course instruction includes PHYS 421 (Electromagnetic Waves). Research interests emphasize quantum materials, frustrated magnetism, and topological phases. Recent work includes studies on spin dynamics in Heisenberg chains, frustrated triangular lattice antiferromagnets, and superconducting high-entropy alloys. Notable achievements include the Canada Research Chair award. Key contributions involve magnetic field effects in Kondo lattice systems, pressure-induced transitions in superconductors, and resistivity minima in gadolinium-based compounds. The lab collaborates on crystal growth, neutron scattering, and advanced characterization techniques. Students advised: David Evans (M.Sc. candidate), Jeonghun Lee (Ph.D. candidate). Research group members actively engage in synthesizing novel compounds and exploring their electronic/magnetic properties. Labs/Teams: Emerging Materials Lab (EMLab) focuses on experimental condensed matter physics with state-of-the-art facilities for material synthesis and characterization.
James Rondinelli serves as the Walter Dill Scott Professor of Materials Science and Engineering and Associate Chair of the Department of Materials Science and Engineering at Northwestern University. His research group pioneers structure-driven property design to overcome materials limitations in electronic, magnetic, and optical systems for next-generation technologies. Education: Ph.D. in Materials Science and Engineering, University of California, Santa Barbara B.S. in Materials Science and Engineering, Northwestern University Research Focus: Rondinelli develops computational frameworks for electronic structure theory and design of functional transition metal compounds. His work harmonizes contraindicated properties (electron/spin/inversion symmetry), controls complex correlations, designs matter for energy-efficient technologies, intersects ultrafast light sciences with materials, interfaces data science for accelerated discovery, models aqueous corrosion electrochemistry, and realizes advanced optical sources. His group maintains strong experimental collaborations for validation. Publication Trends: Recent work (2024-2025) reveals intense focus on multiferroics in halide perovskites, polar metals, heteroanionic stabilization, and computational design for quantum technologies. Emerging themes include AI-accelerated discovery, corrosion modeling for superconducting qubits, and negative thermal expansion materials, demonstrating convergence of theory, computation, and experimental validation. Awards: Outstanding Young Investigator Award (2017) NSF CAREER Award (2015) American Ceramic Society Ross Coffin Purdy Award (2014) DARPA Young Faculty Award (2012-2013) Army Research Office YIP Award (2012-2014) Joseph Katz Postdoctoral Fellowship, Argonne National Laboratory (2010-2011) Mentorship and Funding: Rondinelli leads a 22-member research group (14 PhD students, 1 MS student, postdocs, and researchers) supported by major grants from NSF (including CAREER), DARPA, Army Research Office, and Department of Energy. His funding portfolio emphasizes high-risk/high-reward projects in predictive materials design and quantum materials. Research Infrastructure: The Materials Theory and Design Group employs advanced computational methods for predictive materials discovery, focusing on picoscale structure-property relationships. The group maintains close ties with experimental facilities at Argonne National Laboratory and collaborates extensively on synthesizing and characterizing novel transition metal compounds.
Stephen Wilson is a Professor and currently serving as the Interim Department Chair in the Materials Department at the University of California, Santa Barbara (UCSB), within the College of Engineering. His research focuses on quantum materials, particularly exploring new states and phase behaviors across a broad array of correlated electron systems. Dr. Wilson received his Ph.D. in Physics and B.S. in Physics from the University of Tennessee, Knoxville. His educational background provided the foundation for his current research in condensed matter physics and quantum materials. Professor Wilson's research interests center on strongly correlated electron materials, with particular emphasis on quantum phenomena emerging from the interplay of spin, orbital, and lattice degrees of freedom. His group investigates relativistic correlated electron materials, orbitally active and highly correlated spin systems, topologically nontrivial spin textures, new methods in high purity crystal growth, and emergent behavior in thin film heterostructures. The Wilson group employs neutron and synchrotron x-ray scattering techniques alongside bulk electronic properties characterization to study quantum magnetism, lattice dynamics, and electronic phase behaviors in materials such as spin-orbit driven phases of matter, unconventional superconductors, and correlated electron materials. Analysis of Professor Wilson's recent publications reveals a strong focus on kagome superconductors and quantum materials. His work frequently examines charge density waves, unconventional superconductivity, quantum criticality, and topological states in materials with complex lattice geometries. There is a clear trend toward studying symmetry-breaking phenomena, quantum fluctuations, and the interplay between different electronic orders in quantum materials, particularly those with kagome lattice structures. Professor Wilson has received notable recognition for his research, including: Hellman Fellowship NSF CAREER Award His research is supported by multiple prestigious funding sources including the National Science Foundation, Department of Energy Office of Science, Army Research Office, and W. M. Keck Foundation. These grants support his work on quantum materials synthesis, neutron and x-ray scattering studies, and the exploration of novel electronic states in correlated systems. While specific student names aren't detailed in the provided information, the Wilson group appears active with group members receiving various awards and fellowships. The Wilson research group maintains specialized laboratory facilities including crystal growth capabilities, particularly focusing on high-pressure floating zone techniques for synthesizing high-purity quantum materials. The group collaborates with other researchers at UCSB and utilizes national facilities for neutron and synchrotron x-ray scattering experiments. Their research spans both fundamental investigations of quantum phenomena and potential applications in quantum information science and advanced electronic materials.
Juan Chamorro is an Assistant Professor in the Department of Materials Science and Engineering at Carnegie Mellon University. He holds a Ph.D. in Chemistry from Johns Hopkins University (2021) and was an NSF MPS-Ascend Postdoctoral Fellow at the University of California, Santa Barbara (2021–2024). His research focuses on quantum materials synthesis, crystal growth, and characterization using advanced techniques like X-ray and neutron scattering. His work bridges materials science, inorganic chemistry, and condensed matter physics, emphasizing interdisciplinary approaches to explore quantum phenomena in novel materials. Education: Ph.D. in Chemistry, Johns Hopkins University, 2021 Research Interests: Dr. Chamorro's lab investigates quantum materials, including Dirac semimetals, topological insulators, and frustrated magnets. Key areas include superconductivity mechanisms, electronic phase transitions, and synthesis-structure-property relationships. His group employs cutting-edge characterization methods to study emergent quantum behaviors in materials under extreme conditions (e.g., magnetic/electric fields). Advising & Grants: He mentors graduate students (Julian Marmo, Nicholas Shkolnikov, Tong Wang) and undergraduates (Daniel Yin, Stanley Holewa, Cassius Nelson). His research is supported by NSF MPS-Ascend and institutional grants. Labs/Teams: The Chamorro Research Group at CMU develops novel quantum materials and explores their applications in spintronics, quantum computing, and energy systems. Their lab specializes in chemical synthesis and in-situ measurements to study dynamic material properties.
Stefanos Paschalis is a Senior Lecturer in the School of Physics, Engineering and Technology at the University of York, UK. He holds a Ph.D. from the University of Liverpool. His research focuses on ionizing radiation detection technology and the study of exotic nuclei to explore nuclear structure and the strong nuclear force. Key projects include detector development for societal applications and fundamental physics experiments. He has led initiatives such as Position reconstruction in scintillators (STFC-funded, 2017–2019) Neutron/gamma discrimination for nuclear security (2017–2020) Digital SPAD arrays for radiation detectors (EPSRC-funded, 2017) Research interests include quasifree scattering reactions, neutron-rich nuclei, and radiation detector innovation. His work bridges fundamental physics (nuclear structure) and applied fields (medical imaging, security systems). He has advised six PhD students and contributed to over 130 publications. Teaching responsibilities include Year 3 Frontiers of Research, Year 2 Nuclear Physics, and Year 1 Professional Skills modules. He also serves as a Year 1 Tutor and Graduate Admissions Tutor. Grants and collaborations span international institutions like Lawrence Berkeley National Lab and CERN, focusing on FAIR R3B experiments and exotic nuclei studies. His lab work emphasizes precision measurements and detector technology advancements.
Dr. Andrew Grosvenor is a Professor in the Department of Chemistry at the University of Saskatchewan. His research focuses on understanding how structural and compositional changes affect the electronic structure of rare-earth and transition-metal oxides, silicates, and pnictides using X-ray spectroscopy. He specializes in developing materials for nuclear waste sequestration, examining pyrochlore, zirconolite, and monazite structures. Education: B.Sc. (2003), M.Sc. (2005) from University of Western Ontario, Ph.D. (2008) from University of Alberta Research Facilities: Utilizes Canadian Light Source (CLS) and Advanced Photon Source (APS) for synchrotron-based X-ray spectroscopy His group synthesizes and characterizes materials for actinide immobilization, employing techniques like X-ray diffraction and photoelectron spectroscopy. Recent work includes nuclear wasteform corrosion studies , luminescent rare-earth compounds , and radiation damage effects on phosphate ceramics. Collaborations span Advanced Photon Source and Canadian Light Source . Teaching roles include undergraduate courses in General Chemistry (Chem 112) and graduate-level Materials Chemistry Research (Chem 801). Supervision of both undergraduate and graduate students is a core aspect of his academic contributions.
Dr. Zewu Yan is a Professor affiliated with the Solid State Physics Laboratory at ETH Zürich. His current role involves advancing crystal growth techniques for correlated-electron materials used in neutron scattering experiments. He has held significant research roles including Project Scientist/Engineer at Lawrence Berkeley National Laboratory and Research Scientist at the Research Institute of Synthetic Crystals (Beijing, China). His work spans defense-related crystal growth, quantum materials, and scintillator development across multiple institutions. Education: He earned a PhD in Science from the University of Western Australia (2007), a Master of Engineering in Materials Engineering from Wuhan University of Technology (2002), and a Bachelor of Science in Materials Physics from the University of Science and Technology Beijing (1989). He completed specialized training in microscopy techniques and laboratory safety at UWA. Research Interests: Yan specializes in crystal growth methodologies (Czochralski, Bridgman, floating zone), neutron scattering studies, ferroelectric domain walls, and scintillator material synthesis. His work emphasizes high-quality single-crystal production for applications in quantum materials, detector systems, and multi-spectral guidance technologies. He has pioneered defect-detection systems using Rayleigh scattering and automated mapping. Major Projects: He contributed to DOE-funded Quantum Materials research, DHS/DNDO's high-throughput scintillator discovery, and detector materials projects under DOE/NNSA. His collaborations include UC Berkeley, NTNU, and JCAP, focusing on materials like ErMnO₃, BiVO₄, and Ba-based halides. Scientific Achievements: Yan holds 4 patents and has been honored with multiple awards from his undergraduate years at BUST. His research has led to breakthroughs in crystal growth reliability, domain wall conductivity, and scintillator performance optimization.
Maria Vanessa de Castro Bernal is an Associate Professor in the Physics Department at University Carlos III of Madrid (UC3M), where she serves as Deputy Director of Laboratories. She is affiliated with the Álvaro Alonso Barba Institute of Chemistry and Materials Technology and leads the Nanostructured And Multifunctional Materials research group. Her academic career spans over 15 years with consistent research output in advanced materials for nuclear applications. Dr. de Castro Bernal specializes in oxide dispersion strengthened (ODS) ferritic steels for nuclear fusion applications. Her research focuses on microstructural characterization, radiation damage effects, thermal stability of secondary phases, and advanced processing techniques for nuclear materials. She employs a comprehensive suite of analytical methods including transmission electron microscopy (TEM), small angle neutron scattering (SANS), X-ray absorption spectroscopy (XAS), and positron annihilation spectroscopy to investigate materials at the nanoscale level. Her publication record demonstrates consistent research output with over 50 publications in high-impact journals, with recent work focusing on Zr-based ODS steels, thermal aging effects, and multi-technique characterization under ion irradiation. The research shows a clear progression from fundamental microstructural studies to application-focused investigations for fusion reactor components. Dr. de Castro Bernal has secured significant research funding as Principal Investigator on multiple EUROFUSION projects from 2015-2025, totaling millions of euros. She has supervised multiple graduate theses on ion irradiation effects and microstructure-property relationships in nuclear materials. Her research portfolio includes numerous national and international collaborations with institutions working on fusion energy materials. As Deputy Director of Laboratories, she oversees critical research infrastructure for materials characterization. She leads the Nanostructured And Multifunctional Materials research group within the Álvaro Alonso Barba Institute, contributing to the TechnoFusión program - a multidisciplinary initiative focused on fusion technologies development in Spain.
Michael Nguyen is a Researcher at the University of Windsor, affiliated with the Department of Chemistry in the Faculty of Science. His research focuses on neutron scattering techniques and materials science, particularly leveraging advanced instrumentation such as the Very Small Angle Neutron Scattering instrument and neutron diffraction systems. He has collaborated internationally with facilities like the NIST Center for Neutron Research in Gaithersburg, Maryland. Michael Nguyen is pursuing graduate studies in Chemistry at the University of Windsor, contributing to interdisciplinary projects that enhance scientific infrastructure. His work aligns with national efforts to develop neutron beam capabilities, including a $14.25 million federal grant supporting Canadian-U.S. facility access. His research interests emphasize the structural analysis of materials through cutting-edge neutron beam technologies. Nguyen’s publications reflect a dedication to advancing instrumentation and methodologies in neutron scattering, with notable contributions to the early utilization of new scientific tools. No scientific awards are explicitly mentioned in the provided texts. His involvement in grants includes a major federal initiative enabling neutron beam equipment development and international collaboration. While no formal advising roles are detailed, his research collaborations suggest active participation in academic projects. Nguyen’s work is associated with research teams at the NIST Center for Neutron Research and the Canadian Institute for Neutron Scattering, though specific lab affiliations at the University of Windsor are not documented.
Prof. Alexandr Talyzin is a Full Professor at the Department of Physics, Umeå University, specializing in graphene-related materials for energy storage and environmental applications. His research focuses on 2D materials (graphene oxide, MXenes, Covalent Organic Frameworks), high-surface-area carbons, and hydrogen storage. He leads the EU Graphene Flagship project and collaborates with institutions worldwide using advanced techniques like synchrotron radiation and neutron scattering. Education: PhD from Uppsala University (2001), postdoc at Umeå University (2004–present). Key Projects: EU Graphene Flagship (2012–2023), Swedish Energy Agency-funded studies on supercapacitor materials. Research Highlights: Novel graphene oxide synthesis methods, super-oxidized carbons for radionuclide removal, and high-temperature microsupercapacitors. His work bridges fundamental material science with applied technologies, emphasizing sustainability and industrial scalability. Recent innovations include non-toxic graphene oxide production and pine cone-derived activated carbons.
