Richard Hugtenburg is an Associate Professor of Medical Physics at Swansea University and a clinical scientist at Singleton Hospital, Swansea Bay University Health Board. He specializes in radiotherapy physics, radiation dosimetry, and Monte Carlo modelling. Since 2008, he has coordinated the MSc program in Medical Physics. His career began in Christchurch, New Zealand, where he worked as a medical physicist while completing a PhD on Monte Carlo applications in radiotherapy design. He moved to the UK in 1997, practicing radiotherapy physics at Queen Elizabeth Medical Center (Birmingham) and Singleton Hospital (Swansea). Research Interests: Dr. Hugtenburg's research focuses on high-resolution solid-state dosimetry systems for emerging radiotherapy techniques (e.g., IMRT, proton therapy) and Monte Carlo modelling of radiation processes at micron/cellular scales. He also explores MRI-based tissue analysis at sub-mm resolutions. His work bridges computational physics with clinical applications. Articles: His recent publications highlight advancements in dosimetry verification, Monte Carlo simulations for photon and proton therapy, and radiation protection strategies. Key areas include detector technology (MAPS, diamond sensors), beam collimation analysis, and global healthcare access to radiotherapy resources. Labs/Teams: He contributes to the Medical Physics research group at Swansea University Medical School, collaborating on projects involving radiation safety, detector systems, and clinical implementation of new technologies. His work often involves interdisciplinary teams from physics, engineering, and clinical medicine.
Dr. Elisa Garcia-Tabares Valdivieso is an Assistant Professor in the Department of Physics at Carlos III University of Madrid. Her research focuses on advanced materials for solar energy applications, semiconductor growth techniques (e.g., MOVPE), and surface engineering for electron emission control. Key areas include GaAs/Si integration for multijunction solar cells, structural color generation via plasmonics, and cryogenic material behavior for accelerator technologies. Research Groups: Advanced materials for solar energy applications Teaching Subjects: Chemistry, Electronics, Materials Science, Renewable Energies Her work addresses challenges in semiconductor epitaxy, defect analysis, and functional coatings. Notable projects include 'Caracterización Avanzada de Espejos para Aplicaciones en Energía Solar' (2022–2025) and 'Nanostructured sputtered coatings for solar particle receivers' (2022–2023). Publications span 2016–2025, with recent emphasis on ultra-flexible silicon foils, bismuth-based metasurfaces, and GaInAs solar cell optimization. Her research combines experimental methods (e.g., TEM, MOVPE) with computational modeling for device performance enhancement. Funding: Principal investigator on energy storage projects and collaborator on EU-funded initiatives Lab Affiliations: Physics Department laboratories at UC3M
Nenad Bundaleski is an Assistant Professor at the NOVA School of Science and Technology, Nova University Lisbon. His research focuses on advanced materials for energy storage, semiconductor characterization, catalytic systems, and vacuum technology. He leads studies on nanomaterials for supercapacitors, plasma-synthesized carbon nanostructures, and environmental sensors. His work integrates experimental and computational approaches to optimize material properties for real-world applications. Recent projects include the LHCspin polarized gas target for the Large Hadron Collider (LHC), plasma-enabled graphene production, and hydrogen leak detection systems. His studies on cobalt-carbon-smectite catalysts and geopolymer gels highlight contributions to sustainable materials science. Key technical contributions involve novel ionization vacuum gauges and cylindrical hot cathode designs, emphasizing precision metrology. His research also addresses environmental challenges like trichloroanisole contamination in cork stoppers and antibiotic degradation via catalytic systems.
Natalie Beams is a Research Assistant Professor at the Innovative Computing Laboratory (ICL) within the University of Tennessee's Department of Electrical Engineering and Computer Science (EECS). She holds a PhD in Theoretical and Applied Mechanics from the University of Illinois at Urbana-Champaign (UIUC), an MS from UIUC, and a BS in Mechanical Engineering (summa cum laude) from the University of Oklahoma. Her research focuses on numerical methods for PDEs, high-performance computing (HPC), and GPU-accelerated algorithms, with contributions to projects like the Exascale Computing Project's CEED and CLOVER initiatives. Key research areas include finite element methods , integral equation solvers , and mixed-precision algebraic multigrid techniques . She has developed software tools such as the libCEED library for high-order discretizations and contributed to the Ginkgo and MAGMA libraries. Her work emphasizes exascale computing, GPU optimization, and parallel algorithm design. Education: PhD in Theoretical & Applied Mechanics, UIUC (2017) MS in Theoretical & Applied Mechanics, UIUC (2014) BS in Mechanical Engineering, University of Oklahoma (2010) Awards & Honors: Best Workshops Paper Award, PPAM Conference (2022) 2011/2012 Computational Science & Engineering Fellow 2010 College of Engineering Carver Fellow List of Teachers Ranked as Excellent by Students (UIUC, 2014) Grants & Projects: Active contributor to the Exascale Computing Project (ECP), leading efforts in CEED (libCEED library) and CLOVER (MFEM-Ginkgo interoperability). Collaborates with Rice University and other institutions on HPC and numerical algorithms. Labs & Teams: Core member of the Innovative Computing Laboratory (ICL) at UTK, specializing in exascale software and GPU-accelerated computing.
Susan R. Atlas is an Associate Professor in the Department of Chemistry at the University of New Mexico. Her research focuses on atomic and molecular physics, materials theory, and computational physics, with applications to quantum systems, molecular dynamics, and interfacial phenomena. She holds a PhD in Chemical Physics from Harvard University (1988) and an MA in Physics from Harvard (1981). Her work integrates theoretical and computational approaches to study energy transfer in complex systems, including metallic alloys, biomolecular motors, and synthetic cells. Recent projects emphasize atomistic modeling of defects in materials, quantum-classical hybrid simulations, and high-performance computing for astrophysical and medical applications. Dr. Atlas has contributed to advancements in density functional theory, charge transfer potentials, and drug discovery for pediatric leukemias. Publications span over three decades, addressing topics from kinesin mechanochemistry to GPU-accelerated supercomputing. She remains active in developing community frameworks for bottom-up synthetic biology and interdisciplinary computational methodologies.
Silvia Öttl is a Senior Lecturer at MCI Management Center Innsbruck in the Smart Building Technologies department. Previously, she held a PostDoc position at the University of Innsbruck’s Institute for Construction and Material Science and worked at Bartenbach GmbH in R&D, focusing on energy-efficient building technologies. Her academic career includes a PhD in Astrophysics (2014) and prior roles in astrophysical research at the University of Innsbruck’s Institute for Astro- and Particle Physics. Education: PhD in Astrophysics (University of Innsbruck, 2014), MSc/BSc in Physics (University of Innsbruck, 2011), and Matura from Naturwissenschaftliches Bundesrealgymnasium Wörgl (2001). Research interests span smart building systems, energy-efficient ventilation, fire safety in HVAC systems, and sustainable construction. Her astrophysical work focused on planetary nebulae ionization, gamma-ray sources via H.E.S.S. collaboration, and astrochemistry of interstellar molecules. Publications include peer-reviewed studies in astrophysics and building technology, including contributions to the H.E.S.S. collaboration’s gamma-ray observations and recent work on indoor air quality optimization in educational facilities. She has received the MCI Teaching Award (2022). Teaching roles include courses on energy-efficient lighting, building physics, and astrophysics at the University of Innsbruck. She advises Bachelor’s theses on energy communities, renewable energy integration, and indoor environment monitoring. Professional training includes project management for Horizon 2020, didactic qualifications, and mediation in academic environments.
Steven Anlage is a Professor in the Department of Physics at the University of Maryland, College Park, and a member of the Quantum Materials Center (QMC). His research focuses on experimental studies of superconductivity, quantum chaos, metamaterials, and high-resolution microwave microscopy. He leads the Anlage Research Group, which explores topics like superconducting metamaterials, nonlinear dynamics in GHz circuits, and the electrodynamics of nanostructured materials like carbon nanotubes and graphene. His work includes developing applications for time-reversed wave propagation and wireless power transfer. Anlage holds the UMD Distinguished Scholar-Teacher award and has advised PhD students including Chung-Yang Wang and Jingnan Cai. His affiliations include the MRSEC (Materials Research Science and Engineering Center), MURI projects, and initiatives like Chaos@UMD and the Institute for Research in Electronics and Applied Physics (IREAP). Recent research highlights include the experimental realization of photonic topological insulator graphs, studies of UTe2 superconductivity, and investigations into exceptional points in non-Hermitian systems. He collaborates with institutions such as UCLA and CNAM/UMD on nanophysics projects. Anlage's experimental facilities support advanced microscopy and scattering studies, with grants funding work on complex wave systems and metamaterials. His lab's innovations include a world-record superconducting single-photon camera and contributions to understanding electromagnetic field imaging in chaotic systems.
Patrick G. O'Shea is a Professor and Vice President for Research at the University of Maryland, holding joint appointments in Electrical and Computer Engineering, Physics, and the Institute for Research in Electronics & Applied Physics (IREAP). He previously served as Chair of the Department of Electrical & Computer Engineering at the A. James Clark School of Engineering and Director of IREAP. His research focuses on charged particle beam dynamics, free-electron lasers (FELs), and high-power radiation sources. He leads the Bright Beams Collective Research Group, advancing compact THz FELs and terawatt X-ray sources. O'Shea has held leadership roles including President of University College Cork (Ireland) and Vice President for Research at UMD. His honors include Fellowships from AAAS, APS, IEEE, and the Royal Society of Arts. Recent work emphasizes ultra-high-power XFEL harmonics, beam emittance control, and applications in cancer therapy and quantum technologies. Education: BSc in Physics (National University of Ireland, Cork), M.S. and Ph.D. in Physics (University of Maryland). Key contributions include record-breaking H⁻ beam brightness on the BEAR rocket test stand, discovery of solitary waves in electron beams, and theoretical work on emittance compensation. He chairs UMD's Research Conflict of Interest Committee and has advised students like Liam Pocher (recipient of the NAPAC22 best student paper award). O'Shea collaborates on projects such as the DarkLight experiment at Jefferson Lab and scalable accelerator technologies for future particle physics facilities. Research highlights include developing laser-controlled ion accelerators, achieving 30 MV/m proton gradients, and pioneering THz FEL design. His group explores medical isotope production via electron beams and ultra-fast radiotherapy. Ongoing projects aim to revolutionize XFEL efficiency through novel beam sources and tapered undulators. Awards include the UMD Distinguished Scholar-Teacher Award and multiple professional society recognitions.
Liu Ningyu is a Professor in the Department of Physics and Astronomy at the University of New Hampshire (UNH), with a joint appointment in the Space Science Center of the Institute for the Study of Earth, Oceans, and Space (EOS). His research spans plasma physics, ionospheric physics, radio science, remote sensing, and computational electrodynamics, with a focus on atmospheric electrical discharges such as lightning, jets, and sprites. His research interests include plasma discharge physics, ionospheric coupling, radio interferometry, optical imaging, and numerical modeling of transient luminous events. He develops simulation tools, builds radio and optical instruments, and analyzes observational data to understand the physics of high-energy atmospheric phenomena. His work has been published in top journals including Nature Communications , Physical Review Letters , and Geophysical Research Letters . His recent publications show a strong focus on 3D radio and optical mapping of gigantic jets, LOFAR-based interferometric imaging of lightning leaders, streamer dynamics, and electric field quantification during lightning initiation. His research increasingly integrates high-resolution observational data with advanced numerical models to unravel the mechanisms of fast breakdown and discharge propagation in thunderstorms. National Science Foundation (NSF) U.S. Department of Defense (Air Force) Embry-Riddle Aeronautical University He has led multiple grants including projects on Understanding VHF Emissions from Lightning , Three-Dimensional Numerical Modeling of Streamer Discharges , and A Spectroscopic Study of Starters, Jets, and Gigantic Jets . His students have won awards at scientific meetings and received university honors. Liu Ningyu teaches core physics courses such as Electricity and Magnetism, Thermodynamics & Statistical Mechanics, Electromagnetic Theory, and Senior Design. He advises both undergraduate and graduate students in experimental and computational aspects of atmospheric and space physics.
Nils-Erik Anders Bomark is an Associate Professor at the University of Agder's Department of Natural Sciences. Originally trained as a Civil Engineer in Space Engineering at Luleå University of Technology, he pursued theoretical physics research with a PhD at the University of Bergen focused on particle physics. His current work bridges theoretical physics with physics didactics, particularly examining quantum physics communication and historical perspectives in science education. Education: Civil Engineer in Space Engineering (Luleå University of Technology), PhD in Particle Physics (University of Bergen) Research Interests: Bomark specializes in theoretical physics didactics, focusing on quantum mechanics misconceptions in popular literature, history of physics as educational tools, and effective communication of complex physics concepts to teachers and students. His research addresses oversimplifications in physics education while maintaining connections to particle physics through his earlier work on supersymmetry and dark matter. Publication Trends: His 2024-2023 works emphasize fundamental physics concepts, quantum objects, and historical epistemology. Earlier research (2017-2008) focused on LHC phenomenology, R-parity violation, and NMSSM Higgs studies. Teaching: He instructs physics in teacher education programs and science foundation courses, developing pedagogical approaches for advanced topics like gauge theory and Higgs mechanisms.
Daniele Davino is a full Professor in the Department of Engineering at the University of Sannio, specializing in Electrical Engineering with a focus on magnetostrictive materials and energy harvesting systems. His research spans nonlinear electromagnetism, smart materials, and sensor development. His primary research interests include: Magnetostriction and hysteresis modeling for nonlinear electromagnetism applications Development of smart sensors and actuators using magnetostrictive materials Energy harvesting devices, particularly for structural health monitoring Design and implementation of open hardware solutions for scientific applications Davino's publication record demonstrates consistent contributions to the field of magnetostrictive energy harvesting, with a particular focus on modeling hysteresis effects and developing practical implementations. His recent work shows a trend toward real-world applications, including bridge structural monitoring systems and automotive comfort enhancement through energy harvesting. His research often combines theoretical modeling with experimental validation, emphasizing thermodynamic compatibility in material models. His collaborative work spans multiple institutions and disciplines, with frequent co-authorship with researchers in materials science, electrical engineering, and physics. His research has practical applications in structural health monitoring, automotive systems, and power electronics for energy harvesting. Davino actively contributes to the development of open hardware implementations, notably using Arduino platforms for energy harvesting interfaces, demonstrating his commitment to accessible and replicable research methodologies.
Professor Martin Schmücker serves as the Institute Director for Mechanical Engineering and Vice Dean of Department 3 at Hochschule Ruhr-West (HRW) in Mülheim/Ruhr since 2024. He has been a Professor of Materials Science at HRW since 2020. Previously, he held research and leadership positions at the German Aerospace Center (DLR) in Cologne, where he worked for many years on high-performance materials for aerospace and energy applications. His academic journey includes habilitation at TU Clausthal and professorial appointments at Clausthal University of Technology and the University of Applied Sciences in Koblenz. His educational background includes: Diploma in Mineralogy/Crystallography, Materials Science, and Physical Chemistry from Ruhr University Bochum (1988), with distinction Ph.D. in Materials Science from University of Dortmund (1992) on "Precipitation behavior of rapidly solidified alloys," rated "very good" Habilitation at TU Clausthal (2003) on "Synthetic mullite precursors: preparation, structure and transformation behaviour" Professor Schmücker's research focuses on non-metallic materials, particularly ceramic materials for high-temperature applications. His expertise spans mullite ceramics, oxide fiber reinforced composites, and materials for solar thermal energy systems. He has made significant contributions to understanding material degradation mechanisms in extreme environments, particularly the effects of water vapor on ceramic materials. His work bridges fundamental materials science with practical applications in aerospace and renewable energy technologies, with particular emphasis on thermochemical energy storage systems that can convert solar energy into chemical fuels. His recent publications demonstrate a strong focus on ceria-based redox materials for solar thermochemical fuel production, 3D printing of porous ceramic structures for solar reactors, and thermochemical energy storage systems. These works reveal a consistent research trajectory toward developing advanced ceramic materials that can withstand extreme temperatures while efficiently storing and converting solar energy. His publications frequently address the challenges of material stability, degradation mechanisms, and performance optimization in solar thermal applications. Professor Schmücker has successfully secured numerous research grants throughout his career, including projects funded by German federal ministries (BMWi, BMU), the Helmholtz Association (HGF), and European Union programs. These projects have focused on developing ceramic components for solar power plants, thermochemical energy storage materials, and high-temperature resistant materials for aerospace applications. His collaborative work spans international institutions in Japan, France, and New Zealand, reflecting the global significance of his research in materials for sustainable energy. Professor Schmücker leads research teams working on ceramic matrix composites (WHIPOX), thermochemical energy storage materials, and degradation mechanisms of ceramics in extreme environments. His laboratory facilities include advanced characterization equipment for high-temperature materials testing and solar simulation capabilities for evaluating materials under concentrated solar radiation. His WHIPOX (Woven High Performance Oxide) all-oxide ceramic matrix composites represent a significant innovation in lightweight, high-temperature resistant materials with applications in gas turbine technology and solar thermal systems.
Dan Baker is a Distinguished Professor at the University of Colorado Boulder, holding joint appointments in the Department of Astrophysical and Planetary Sciences, the Department of Physics, and the Department of Aerospace Engineering Sciences. He is a leading figure in space and planetary physics, with a career centered on understanding plasma and energetic particle phenomena in planetary magnetospheres, particularly Earth's. His research focuses on space instrument design, space physics data analysis, and magnetospheric modeling. As a principal investigator on multiple high-profile NASA missions—including the Geospace Dynamics Constellation, Magnetospheric MultiScale (MMS), Interstellar Mapping and Acceleration Probe (IMAP), and the Van Allen Probes—he plays a central role in advancing our understanding of space weather and geospace environments. Dan Baker has published over 900 refereed papers and edited nine books in the field of space physics, demonstrating sustained scholarly impact across decades. His work bridges theoretical modeling, observational data, and instrumentation, contributing broadly to astrophysics, aerospace engineering, and planetary science. He has received numerous honors and recognitions, including: Fellow of the American Geophysical Union (AGU) Fellow of the American Institute of Aeronautics and Astronautics (AIAA) Fellow of the American Association for the Advancement of Science (AAAS) Member of the International Academy of Astronautics (IAA) Member of the U.S. National Academy of Engineering Dan Baker has served as an investigator on multiple NASA space missions, contributing significantly to mission science and data interpretation. His leadership in large-scale collaborative projects underscores his role in mentoring students and early-career scientists, managing research teams, and securing competitive research funding. His work continues to shape the future of space exploration and space environment modeling. He is affiliated with the Laboratory for Atmospheric and Space Physics (LASP) at CU Boulder, a premier research center for space science and engineering, where he contributes to instrument development, mission operations, and data systems. His interdisciplinary work integrates efforts across physics, planetary science, and aerospace engineering, fostering innovation in space-based observation and analysis.
Robert Kieffer is a researcher affiliated with the University of Oxford 's Department of Physics and the John Adams Institute for Accelerator Science . His work focuses on advanced beam instrumentation for particle accelerators, particularly leveraging Cherenkov and optical diffraction radiation for noninvasive diagnostics. He contributes to the development of measurement techniques for high-energy physics experiments, including applications in the High-Luminosity LHC (HL-LHC) project. Research Interests His research spans Accelerator Physics , Beam Instrumentation , and Radiation Detection . Key subfields include simulation-driven design optimisation, noninvasive particle-beam diagnostics, and theoretical modeling of radiation properties for precision measurements in high-energy environments. Recent Publications Kieffer's recent work explores innovative applications of Cherenkov diffraction radiation and optical diffraction radiation in beam diagnostics, with a focus on achieving micrometer-scale resolution and bunch length measurements for particle accelerators like the HL-LHC.
Wei-Hsung Wang is an Adjunct Professor of Physics at Louisiana State University (LSU), serving as Director of the Radiation Safety Office and a faculty member in the Center for Energy Studies. He holds a Ph.D. from Purdue University (2000). His research focuses on applied health physics, operational radiation safety, and radiation detection instrumentation. He develops gamma spectrometry methods for air monitoring and radioactive waste management strategies. Education: Ph.D., Physics, Purdue University, 2000 His work integrates geophysical techniques like magnetostratigraphy and gamma ray spectroscopy to analyze geological formations, as demonstrated in studies of Cretaceous and Cambrian strata. He also contributes to laser safety protocols through textbook chapters and audit methodologies. His recent publications address accelerator beam loss detection using photographic film and low-level radioactive waste facility assessments. Wang has no listed scientific awards but maintains active research in nuclear safety, medical physics, and interdisciplinary applications such as neurobiology studies involving cytokine receptors. His professional roles include overseeing LSU’s Radiation Safety Office and contributing to the Center for Energy Studies, though no specific grants or advising details are provided in the text.
