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Mirko SalewskiView profile

Professor

• Plasma Physics
• Fusion Energy
• Energetic Particle Physics
• +16 more

Mirko Salewski is a Professor in the Department of Physics at the Technical University of Denmark (DTU), specializing in Plasma Physics and Fusion Energy. He is actively involved in international fusion research, working with major tokamaks and stellarators such as JET, ASDEX Upgrade, DIII-D, EAST, MAST, TCV, Wendelstein 7-X, and LHD. He serves as an ITER Scientist Fellow and chairs the ITPA Topical Group on Energetic Particle Physics, coordinating global research efforts to support ITER. Education: Dr. techn. in Plasma Physics, Technical University of Denmark (2020) PhD in Fluid Mechanics, Lund University (2007) MSc in Aerospace Engineering, Technical University of Berlin (2002) BSc in Mechanical Engineering, RWTH Aachen University (1998) Additional studies at University of Washington (2000–2001) and Moscow Aviation Institute (2000) His research focuses on developing advanced diagnostics for energetic particles in fusion plasmas using tomography in velocity- and phase-space. He integrates physics-informed models and neural networks to improve reconstruction accuracy. His work spans experimental diagnostics including fast-ion D-alpha spectroscopy, collective Thomson scattering, neutron and gamma-ray spectroscopy, neutral particle analyzers, fast-ion loss detectors, and ion cyclotron emission. Recent publications emphasize synthetic diagnostics, phase-space tomography, and AI-enhanced modeling, reflecting a strong trend toward data-driven and physics-integrated approaches in fusion research. His work is central to understanding fast-ion behavior in burning plasmas. Scientific Awards: ITER Scientist Fellow Professor Salewski supervises multiple PhD students and leads significant research projects funded by EU and national programs. His projects include fast-ion phase-space tomography in D-T plasmas at JET, AI applications in fusion tomography, and orbit-space sensitivity studies. He teaches courses in Electromagnetism, Plasma Physics, and the Physics of Sports at BSc, MSc, and PhD levels. He is affiliated with key fusion research networks and collaborates extensively with institutions across Europe, the US, and Asia, contributing to the global effort to realize fusion energy.

Xavier PonsView profile

Professor

• Sociology of Education
• Public Policy
• Educational Governance
• +5 more

Xavier Pons is a Professor of Education at the University Claude Bernard Lyon 1, where he conducts research at the Education, Cultures and Policies Laboratory (ECP, EA 4571) and serves as an associate researcher at the Center for Research on Social Inequalities (CRIS-Sciences Po, UMR 7049). He is also co-editor-in-chief of the Revue française de pédagogie , a prominent French journal in educational research. Dr. Pons's research expertise lies at the intersection of educational sciences and sociology, with a particular focus on the sociology of public action and education policies. His work examines: Transformations of the State and modes of governance in education Reforms of school administrations Media coverage of educational issues Structuring of public debate in education Professional groups and new instruments of public action His recent research has centered on the decentralization and territorialization of the state in education, contractualization between the state and academic authorities, and the increasing use of contract teachers in the national education system. He leads two ongoing research projects: one on transformations in the regulation of primary schools (launched in 2023) and another on sexuality education policies. Dr. Pons has established himself as a leading scholar in comparative education policy analysis, particularly examining the trajectories of education accountability systems in France and Quebec. His publications reveal a consistent focus on how global educational trends are adapted to local contexts through what he terms 'vernacular globalizations,' with particular attention to PISA effects and policy transfer mechanisms. Dr. Pons has been recognized for his contributions to educational research with the 2011 Jean-Claude Eicher Prize for the Development of Research in Education. His scholarly impact extends beyond publications through his editorial leadership of the Revue française de pédagogie , where he helps shape the direction of educational research discourse in France. As an active researcher, Dr. Pons participates in multiple comparative research projects examining education policy across national contexts. His work often bridges theoretical frameworks from sociology, political science, and education studies to provide nuanced analyses of educational governance. His recent focus on the institutionalization of contract teaching represents an important contribution to understanding transformations in the educational workforce and public sector employment more broadly.

Juan RojoView profile

Professor

• Particle Physics
• Nuclear Physics
• Astroparticle Physics
• +3 more

Juan Rojo is a Full Professor at the VU Amsterdam , Faculty of Science, Department of Physics and Astronomy. His research focuses on particle physics , nuclear physics , and astroparticle physics phenomenology , particularly the quark and gluon substructure of protons using machine learning, model-independent searches for New Physics via Effective Theory frameworks, and the interplay between high-energy collider and astroparticle processes. Marie Curie Intra-European Fellowship @ CERN (2010, EUR200k) ERC Starting Grant @ University of Oxford (2013, EUR1.5M) STFC Rutherford Fellowship @ University of Oxford (2013, EUR1M) NWO Physics Projectruimte @ VU Amsterdam (2016, EUR460K) NWO ENW-KLEIN-2 @ VU Amsterdam (2019, EUR730K) Netherlands eScience Center grant @ VU Amsterdam (2021, EUR490K) Rojo contributes to high-energy physics through software development and experimental collaborations. His recent publications emphasize parton distribution functions , LHC data analysis , and deep learning applications in proton structure studies. He coordinates courses like Quantum Mechanics 2 and From Quantum tot Molecuul , holding Senior and Basic Teaching Qualifications (2019, 2017).

Benjamin HoobermanView profile

Associate Professor

• High Energy Physics
• Supersymmetry
• Dark Matter
• +4 more

Benjamin Hooberman is an Associate Professor at the University of Illinois Urbana-Champaign Department of Physics and an Affiliate Professor at the Illinois Center for Advanced Studies of the Universe (ICASU). As an experimental high energy particle physicist, he focuses on dark matter, supersymmetry, and machine learning applications in collider physics, with a 14-year leadership role in the ATLAS collaboration. His work includes pioneering cosmic ray muon imaging techniques for battery metal detection and leading international teams in Higgs boson discovery (2013 Nobel Prize-related) and ATLAS trigger system upgrades. He received the DOE Early Career Research Award (2017) and CMS Fellowship (2013). Research Interests High energy particle physics at the Large Hadron Collider Supersymmetry and dark matter exploration Machine learning for particle identification Cosmic ray muon imaging (muography) for resource detection Phase 2 ATLAS trigger system development Scientific Awards DOE Early Career Research Award (2017) CMS Fellowship Award (2013) University of Illinois Center for Advanced Study Associate (2022) Advising : Accepting PhD students for ATLAS research and muon imaging projects through Illinois' centralized physics PhD program. Application deadline: January 15, 2025 .

Daniel Snowden-IfftView profile

Professor

• Dark Matter
• Particle Physics
• Astroparticle Physics
• +3 more

Daniel Snowden-Ifft is a Professor of Physics at Occidental College, where he has served on the faculty since 1997. His office is located in the Hameetman Science Center 115, and he maintains regular office hours on Mondays and Wednesdays from 3:00 PM to 5:00 PM. Education: B.A., Swarthmore College M.A., UC Berkeley Ph.D., UC Berkeley With over two decades of dedicated research in dark matter physics, Professor Snowden-Ifft pioneered the ancient mica detection technique before shifting focus to directional detection methods. His current experimental work centers on producing dark matter in electron accelerator beam dumps (including potential use of SLAC's facilities) and detecting it using a novel negative ion time projection chamber he developed. This research bridges particle physics, nuclear astrophysics, and advanced detector instrumentation, with significant emphasis on WIMP (Weakly Interacting Massive Particle) identification through directional signatures. Analysis of his recent publications (2014-2018) reveals a concentrated research trajectory in directional dark matter detection through the DRIFT collaboration. Key themes include precision measurement of nuclear recoil head-tail signatures, background suppression techniques (particularly for radon and neutrons), fiducialization methods, and innovative beam-dump experimental designs. His work demonstrates consistent advancement in lowering detection thresholds while improving directional sensitivity, establishing critical methodological frameworks for next-generation dark matter searches. Professor Snowden-Ifft leads the DRIFT detector development program at Occidental College, maintaining active collaborations with SLAC National Accelerator Laboratory and Jefferson Lab. His research group focuses on both detector hardware innovation and data analysis techniques for directional dark matter signatures, contributing significantly to the international effort in direct dark matter detection.

• Electromagnetics
• Optics
• Gravitational Wave Detection
• +3 more

Francesco Chiadini is an Associate Professor in the Department of Industrial Engineering at the University of Salerno, where he conducts research at the intersection of electromagnetics, optics, and gravitational wave physics. His work spans theoretical electromagnetic theory, optical materials, and participation in major international collaborations including LIGO-Virgo-KAGRA for gravitational wave detection. Professor Chiadini's research focuses on advanced electromagnetic theory, particularly wave propagation in complex media including chiral structures and nanolayered materials. His work examines diffraction phenomena, scattering theory, and the development of novel optical structures with applications in both fundamental physics and practical optical devices. His theoretical work on tightly interlaced matched ambidextrous bilayers has opened new pathways for polarization-universal optical devices. His recent publication record shows a strong focus on gravitational wave astronomy, with numerous contributions to the LIGO-Virgo-KAGRA collaborations. His work spans both theoretical electromagnetic aspects of detector technology and direct participation in gravitational wave data analysis across multiple observing runs (O3, O4). His publications demonstrate expertise bridging fundamental electromagnetic theory with cutting-edge observational astrophysics. Professor Chiadini maintains active collaborations with researchers across Italy and internationally, including with the Pennsylvania State University group, INFN (Italian National Institute for Nuclear Physics), and various European gravitational wave research centers. His work on optical coatings and nanolayered structures for gravitational wave detectors demonstrates his ability to connect fundamental materials science with precision measurement applications.

• Nuclear Physics
• High-Energy Physics
• Particle Physics
• +5 more

Xiaoxuan Chu is an Associate Scientist (Researcher) in the Physics Department at Brookhaven National Laboratory (BNL), conducting experimental research in high-energy and nuclear physics. She actively contributes to the STAR experiment at RHIC and the ePIC experiment at the Electron-Ion Collider (EIC), focusing on nucleon structure, proton spin, and 3D proton imaging to unravel fundamental matter properties. Her educational background includes: Ph.D. from Central China Normal University & BNL (2018) Dr. Chu's research centers on gluon saturation , 3D proton tomography , EIC detector development , and p-Carbon polarimetry . Her work bridges theoretical QCD predictions with experimental validation through heavy-ion collisions and polarized proton studies. She investigates how gluons govern proton spin and structure, leveraging cutting-edge collider data to create multidimensional proton maps. Analysis of her publications reveals dominant themes in Electron-Ion Collider physics and RHIC spin studies. Key trends include advancing gluon saturation signatures, developing polarized beam techniques, and simulating next-generation detectors for 3D nucleon imaging. Her work increasingly integrates machine learning for collision data analysis and emphasizes mass-number dependence in nuclear QCD effects. Her scientific recognition includes: BNL LDRD Award (2024-2026): $500,000 BNL LDRD Award (2023-2024): $110,000 DOE Highlight: Signs of gluon saturation in particle collisions Dr. Chu mentors DOE SULI program students and serves the community as referee for Phys. Rev. Lett. , Phys. Rev. D , and JINST , plus NSF Mid-Scale RI-1 reviewer. She leads the STAR Collaboration's Spin/Cold QCD working group (2022-2025) and contributes to polarimetry R&D for the EIC's precision measurements. She operates within BNL's Cold QCD group, collaborating with STAR and ePIC teams on detector calibration, data analysis, and physics working groups. Current efforts focus on p-Carbon polarimeter development and EIC detector simulations for the upcoming collider era.

• Neutrino Physics
• Particle Physics
• Detector R&D
• +3 more

Chao Zhang is a tenured Researcher at the Physics Department of Brookhaven National Laboratory , specializing in neutrino oscillation experiments. His work spans reactor and accelerator-based neutrino studies, focusing on fundamental parameters like mass ordering and CP-violation. Education: Ph.D. from California Institute of Technology (2010), B.S. from University of Science and Technology of China (2002). Research Interests include neutrino physics, detector R&D (liquid argon time projection chambers, water-based liquid scintillators), and statistical methods for oscillation analysis. He leads efforts in the DUNE , MicroBooNE , SBND , Daya Bay , and PROSPECT projects. Scientific Awards DOE Office of Science Early Career Research Program Award (2017) Breakthrough Prize in Fundamental Physics (2015, Daya Bay collaboration) Email: czhang@bnl.gov

• Accelerator Mass Spectrometry
• Radiocarbon Dating
• Environmental Radioactivity
• +3 more

Ivan Kontuľ is a Researcher at Comenius University's Faculty of Mathematics, Physics and Informatics, Department of Nuclear Physics and Biophysics in Bratislava, Slovakia. His work focuses on accelerator mass spectrometry applications in environmental and archaeological contexts. His educational background includes a B.Sc. in Physics (2010-2013), Mgr. in Nuclear and Subnuclear Physics (2013-2015) with thesis on radiocarbon tree ring analysis, and a PhD in Environmental Physics (2015-2019) on accelerator mass spectrometry development for environmental radionuclides. Kontuľ's research centers on accelerator mass spectrometry with specialization in radiocarbon dating of archaeological and geological samples, environmental radiocarbon activity studies, and development of sample preparation methodologies. His work bridges nuclear physics with environmental monitoring through innovative measurement techniques. Current projects involve environmental radionuclide monitoring in Slovakia with the IAEA, lunar meteorite investigations, and international collaborations like LEGEND and SuperNEMO for fundamental physics research. His publication trends show consistent focus on radiocarbon applications across environmental science, archaeology, and nuclear physics, with significant contributions to understanding atmospheric carbon dynamics, nuclear power plant impacts, and wine authentication through isotopic analysis. He participates in major international collaborations including LEGEND (neutrinoless double beta decay research) and SuperNEMO, with visiting research experience at the University of Arizona's AMS Laboratory and Hungary's HEKAL Laboratory. Kontuľ teaches undergraduate and graduate courses including Nuclear and Subnuclear Physics, Practical Exercises in Environmental Radioactivity Monitoring, and Renewable Energy Sources. His field research involves extensive radiocarbon monitoring across Slovakia, including tree ring analysis in clean air regions and urban aerosol studies in Bratislava.

Ryszard StroynowskiView profile

Professor

• Experimental High-Energy Particle Physics
• Quantum Chromodynamics (QCD)
• Particle Detector Development
• +2 more

Ryszard Stroynowski is a Professor of Physics at Southern Methodist University (SMU), with a career spanning prestigious institutions such as CERN, the Stanford Linear Accelerator Center (SLAC), and Caltech. He joined SMU in 1991 and has been instrumental in experimental high-energy particle physics research. Ph.D. in Physics, University of Geneva (1973) Staff Scientist at SLAC (6 years) Senior Research Associate and Lecturer at Caltech (11 years) His research focuses on the structure of matter, quantum chromodynamics, and the discovery of new physics phenomena through the ATLAS experiment at CERN's Large Hadron Collider. He contributed to the 2012 discovery of the Higgs boson, which underpinned the Nobel Prize awarded to Englert and Higgs. Currently, he explores Higgs boson properties and ultra-fast optoelectronics for advanced data transfer in particle experiments.

• Physics
• Particle Physics
• Accelerator Science
• +3 more

James Yeck is the Associate Laboratory Director and Project Director for the Electron-Ion Collider at Brookhaven National Laboratory. He has over 30 years of experience in leading large-scale scientific projects, including roles such as Interim Project Director for DOE and NSF projects, Director General of the European Spallation Source, and Deputy Project Manager for NSLS-II. He served as DOE Project Manager for RHIC (Relativistic Heavy Ion Collider) and the US Large Hadron Collider. He directed the IceCube Neutrino Detector project and has chaired numerous advisory committees for major DOE/NSF initiatives. As the lead lecturer for the DOE Project Leadership program since 2017, he contributes to training future scientific leaders. His work spans Accelerator Science , Particle Physics , and Project Management , focusing on advancing cutting-edge facilities like the Electron-Ion Collider. James Yeck's expertise in Nuclear Physics and Scientific Leadership has positioned him as a key figure in international collaborations and facility development.

• Particle Physics
• Accelerator Physics
• High Energy Physics
• +3 more

John Dainton is a Professor in the Department of Physics at the University of Liverpool, specializing in high-energy particle physics and accelerator science. His affiliations include the Cockcroft Institute for Accelerator Science and Technology, which he co-founded in 2004, and leadership roles in major international collaborations including the H1 experiment at DESY and CERN's NA62 experiment. His research focuses on high energy electron-proton interactions , rare hadron decays , and accelerator physics , with significant contributions to diffractive deep-inelastic scattering studies at HERA. Current projects include semiconductor detector development and lepton flavor universality tests through kaon decays. Recent publications demonstrate sustained leadership in HERA data analysis and NA62 instrumentation, spanning quantum chromodynamics, diffractive processes, and detector technology. Key trends show deep integration of theoretical frameworks with experimental validation in collider physics. Fellow of the Royal Society (2002) Max Born Medal and Prize (1999) Fellow of the Royal Society for Arts, Manufactures and Commerce (2003) Chartered Physicist (1985) Liveryman of the Goldsmiths' Company (1983) Dainton has secured continuous research funding since 2000, primarily through the Science and Technology Facilities Council, including the Particle Physics Consolidated Award (2015-2019) and ALICE Upgrade project (2017-2020). His administrative leadership includes chairing international review committees for CERN, STFC, and the European Physical Society, alongside governance roles at Stockport Grammar School. He co-founded and directed the Cockcroft Institute—an international accelerator research hub—and led the University of Liverpool's Particle Physics Group (2001-2004) and the H1 collaboration at DESY (1997-2000), establishing critical infrastructure for accelerator science in the UK.

• Hadron Spectroscopy
• Exotic Particles
• Charmonium Physics
• +13 more

Alfons Khoukaz is an Associate Professor in the Department of Physics at the University of Münster, within the Faculty of Mathematics and Natural Sciences. He leads a research group focused on experimental hadron and nuclear physics, with active involvement in major international collaborations including BESIII (Beijing), PANDA (FAIR, Darmstadt), MAGIX (MESA, Mainz), and past experiments at COSY-11, ANKE, and WASA-at-COSY in Jülich. His research interests span a wide range of topics in particle and nuclear physics, with a strong emphasis on hadron spectroscopy , the search for exotic particles such as tetraquarks and glueballs, and the study of charmonium states like the Y(4260) and X(1835). A significant part of his work involves the development and optimization of advanced internal targets, including cluster-jet, gas-jet, and droplet targets , which are critical for high-luminosity fixed-target experiments. His group has designed and built the cluster-jet target used at COSY and the gas-jet target for the MAGIX experiment. He also collaborates on laser-cluster interaction studies via the CryoFlash project with Heinrich-Heine University Düsseldorf, using the ARCTURUS laser system. The 15 most recent articles reflect a consistent focus on exotic hadrons, precision measurements (e.g., proton radius, rare decays), and target technology innovation. These works are primarily based on data from BESIII, ANKE, WASA, and MAGIX, and explore fundamental questions in quantum chromodynamics and potential physics beyond the Standard Model. Scientific contributions include: Leading role in cluster-jet and gas-jet target development for PANDA and MAGIX Key analyses in η and η' meson physics, including rare decays and final-state interactions Search for dibaryons and exotic multiquark states Probing dark photons and fundamental constants via precision electron scattering Prof. Khoukaz advises a team of researchers and students working on data analysis, target instrumentation, and detector development. His group participates in large-scale projects funded by national and international agencies, contributing to both experimental infrastructure and theoretical understanding in hadron physics. The group maintains strong collaborations with institutions in Germany, China, Sweden, and the Netherlands. While no formal PhD students are listed in the provided text, the team includes multiple early-career researchers engaged in thesis work. The group also operates advanced laboratory setups for target testing and characterization at the University of Münster.

• Dark Matter Research
• Particle Physics
• Scintillation Detectors
• +3 more

J.J. Choi is a researcher at Seoul National University's Department of Physics and Astronomy and the Institute for Basic Science (IBS), Center for Underground Physics (CUP) in Daejeon, South Korea. They specialize in dark matter research and particle physics, with a focus on scintillation detector technology using NaI(Tl) crystals. Dr. Choi's research interests encompass Dark Matter Research, Particle Physics, Scintillation Detectors, Nuclear Physics, and Astroparticle Physics. Their work primarily involves developing and improving detector technologies for dark matter experiments, with particular emphasis on NaI(Tl) crystal-based detection systems, including crystal encapsulation, waveform analysis, and background reduction techniques. Analysis of Dr. Choi's recent publications reveals a strong focus on advancing NaI(Tl) detector technology for dark matter searches. Their research spans detector development, signal processing, and background modeling essential for sensitive dark matter detection at low energy thresholds. Key contributions include lowering the detection threshold to 0.7 keV and improving background modeling for the COSINE-100 experiment. Major publications focus on NaI(Tl) crystal properties Key contributor to COSINE-100 and NEON collaborations Research addresses critical challenges in dark matter detection Dr. Choi is actively involved in the COSINE-100 collaboration, designed to verify the DAMA/LIBRA annual modulation signal using the same NaI(Tl) target material, and the NEON experiment, representing Korea's next-generation dark matter detector program. They also contribute to Yemilab, Korea's new underground laboratory facility for particle astrophysics research.

Emilie Haugland SolheimView profile

Research Fellow

• Particle Physics
• High-Energy Physics
• Detector Physics
• +3 more

Emilie Haugland Solheim is a Doctoral Research Fellow at the University of Oslo , affiliated with the Faculty of Mathematics and Natural Sciences and the Electronics department. Her research focuses on advanced detector technologies for high-energy and nuclear physics applications. Role: Doctoral Research Fellow Institution: University of Oslo Department: Electronics Research Interests: Emilie's work centers on calorimeter design and optimization, particularly in high-granularity electromagnetic and hadronic detectors. She contributes to experiments like ALICE and proton CT, addressing challenges in radiation detection and particle tracking. Scientific Contributions: Recent publications highlight her involvement in testing prototypes for the ALICE Forward Calorimeter and EPICAL-2 calorimeter, advancing technologies for particle physics and medical imaging applications.