Roman Schnabel is a Professor of Experimental Physics at the University of Hamburg , affiliated with the Institute for Laser Physics under the Faculty of Mathematics, Informatics and Natural Sciences. He leads cutting-edge research in quantum optics, gravitational wave detection, and quantum technologies. Education : PhD in Physics (1999, Leibniz Universität Hannover); Physics degree (1988–1994, Leibniz Universität Hannover) Awards : QCMC 2018 Award, Gruber Cosmology Prize 2016 (LIGO team), Special Breakthrough Prize in Fundamental Physics 2016 (LIGO team), Joseph F. Keithley Award 2012 His recent work explores high-frequency gravitational wave observatories , entanglement generation , and quantum-enhanced sensing . He holds patents for gas sensors and optical surface imaging technologies. Schnabel co-founded the start-up Noisy Labs in 2023 and served as Director of Outreach & Transfer for the Cluster of Excellence 'Quantum Universe' (2019–2022).
Benedikt Günther is a research scientist at the Technical University of Munich (TUM) working within the Chair of Biomedical Physics led by Prof. Dr. Franz Pfeiffer. His research focuses on the Munich Compact Light Source (MuCLS), a laboratory-scale inverse Compton X-ray source that provides synchrotron-like radiation for biomedical applications. Günther plays a key role in developing, optimizing, and characterizing this innovative technology, contributing to both its fundamental physics and practical medical applications. His primary research interests center around X-ray physics and imaging techniques, particularly laser enhancement cavities for inverse Compton X-ray sources, X-ray microscopy, dynamic phase-contrast imaging, and X-ray spectroscopy. Günther's work bridges fundamental physics with practical medical applications, developing instrumentation that brings synchrotron-quality imaging to conventional laboratory settings. His research has significant implications for improving medical diagnostics while making advanced imaging techniques more accessible. Analysis of Günther's publication record reveals a consistent focus on advancing compact X-ray source technology and its applications. His work demonstrates expertise in both theoretical modeling and experimental implementation, with publications spanning instrument development, imaging techniques, and specific medical applications. The research shows progression from fundamental source characterization to increasingly sophisticated biomedical applications, particularly in breast imaging, dental diagnostics, and materials science. 2019 Best Poster Award at the combined meeting of the 68th Denver X-ray Conference (DXC) & 25th International Congress on X-ray Optics and Microanalysis (ICXOM) for 'Full-Field Structured Illumination Super-Resolution X-ray Transmission Microscopy' Günther regularly presents his work at major international conferences including the International Particle Accelerator Conference, High-Brightness Sources and Light-driven Interactions Congress, and specialized X-ray imaging meetings. His research is conducted within the Munich Compact Light Source facility, a collaborative project involving physicists, engineers, and medical researchers working to develop laboratory-scale synchrotron technology for widespread biomedical use.
Harald Pfeiffer is a Professor at the University of Potsdam and Group Leader in the Astrophysical and Cosmological Relativity department at the Max Planck Institute for Gravitational Physics (Albert Einstein Institute) in Potsdam. His research focuses on numerical relativity and gravitational wave astrophysics, particularly simulations of black hole and neutron star mergers to interpret observations from detectors like LIGO and Virgo. He holds a PhD from Cornell University and has held academic roles at the Canadian Institute for Theoretical Astrophysics (2009–2017). Notably, he was elected a Fellow of the American Physical Society in 2023 for his contributions to numerical relativity. His expertise includes developing computational tools to solve Einstein’s equations on supercomputers and analyzing gravitational wave data. Key interests include understanding spacetime behavior during mergers, improving waveform models, and preparing for future detectors like LISA. He collaborates extensively with international initiatives such as the LIGO Scientific Collaboration. Selected Awards: Fellow of the American Physical Society (2023) Research and Grants: His work bridges theoretical advances and observational data, contributing to waveform catalogs and detector sensitivity improvements. He leads a team advancing numerical relativity techniques for next-generation gravitational wave astronomy. Labs/Teams: Leads the Astrophysical and Cosmological Relativity group at the Max Planck Institute, fostering interdisciplinary research in gravitational wave science.
Bernard Doudin is a Professor at the University of Strasbourg, working with the Magnetic Objects on the NanoScale (DMONS) group at the Institute of Physics and Chemistry of Materials of Strasbourg (IPCMS). He holds office 1014 and can be contacted at bernard.doudin@ipcms.unistra.fr. Doudin has been actively coordinating several major research initiatives including STnano Coordinator for Innovative Training Networks, Coordinator of the Graduate School Quantum Science and Nanomaterials QMat, and Coordinator of the Interdisciplinary Thematic Institute Quantum Science and Nanomaterials. Doudin's research focuses on nanoscale devices that leverage the spin degree of freedom, with expertise spanning spintronics, 2D electronic detectors, multi-stimuli devices, and magnetic forces at the nanoscale. His work bridges physics, materials science, and chemistry, exploring applications in molecular electronics, nanofluidics, and electrochemistry. He has pioneered original systems and concepts in spintronics, evolving toward multifunctional devices that take advantage of quantum properties at the nanoscale. Analysis of his recent publications (2022-2025) reveals a strong focus on van der Waals heterostructures, magnetic microhydrodynamics, and graphene-based spintronic devices. His research shows a clear trend toward integrating multiple physical phenomena (magnetic, electrical, optical) in single devices, with particular emphasis on neuromorphic computing applications, magnetically controlled fluid dynamics, and photoferroelectric effects. The publications demonstrate interdisciplinary collaboration across physics, materials science, and engineering disciplines. PhD prize of the University of Lausanne (top 2%) NSF Career grant (1998) Adjunct Director of the NSF MRSEC Center (2000) Chaired Professor of the French Ministry (2005) Fellow of the University of Strasbourg International Studies (2014) Fellow of the Institut Universitaire de France (Senior, 2021) Professor Doudin has secured significant research funding and coordinates multiple large-scale projects including the Innovative Training Networks Marie Skodowska-Curie actions and the Graduate School Quantum Science and Nanomaterials. His leadership extends to scientific direction of cleanroom facilities and interdisciplinary research initiatives that bring together approximately 50 principal investigators across various quantum science and nanomaterials projects. Doudin leads research activities at IPCMS, particularly within the DMONS group focusing on magnetic phenomena at the nanoscale. His work integrates experimental approaches across spintronics, nanofabrication, and materials characterization, with strong connections to both fundamental physics and potential applications in next-generation electronic devices.
Lena Funcke is an Assistant Professor of Theoretical Physics at Bonn University. Her research focuses on quantum computing, lattice field theory, and machine learning applications in physics. She explores topics such as topological phases, gauge theories, and quantum simulations. Her work bridges high-energy physics and computational methods, with a particular emphasis on overcoming noise challenges in quantum algorithms and leveraging machine learning for optimization tasks. Funcke’s research projects include C01 and C03, focusing on Hamiltonian lattice formulations and quantum computing methods for gauge theories. She investigates hybrid approaches combining Monte Carlo simulations with quantum computing to study quantum electrodynamics and topological systems. Her contributions highlight the interplay between theoretical physics and cutting-edge computational tools. Her publications span quantum algorithms for particle physics experiments, error mitigation strategies, and the application of normalizing flows to complex systems like the Hubbard model. She actively contributes to advancing the theoretical foundations of quantum computing and its practical implementation in solving fundamental physics problems.
Prof. Dr. Franz Pfeiffer is a full professor at the Chair of Biomedical Physics within the Department of Physics at the Technical University of Munich (TUM) . He has served as director of the Munich School of BioEngineering since 2016. His research focuses on translating advanced X-ray physics concepts to biomedical imaging and clinical applications, particularly for early cancer and osteoporosis diagnostics. Research Interests: X-ray phase-contrast and dark-field imaging, synchrotron instrumentation, CT reconstruction algorithms, and medical imaging technology. Awards: Alfred Breit Prize (2017) ERC Advanced Grant (2016) Leibniz Prize (2011) National Latsis Prize (2010) ERC Starting Grant (2009) His work bridges fundamental X-ray physics with clinical translation, involving collaborations with radiologists, engineers, and medical researchers. Recent publications emphasize AI integration in CT, dark-field chest radiography, and spectral imaging applications.
Prof. Dieter H.H. Hoffmann is a distinguished academic in the Department of Physics , specializing in high-energy physics, dark matter detection, and plasma-based fusion research. His work focuses on particle astrophysics, including axion searches via helioscopes like CAST, nuclear fusion mechanisms (particularly proton-boron reactions), and plasma dynamics in extreme conditions. He collaborates on major projects such as the Cherenkov Telescope Array (CTA) for gamma-ray astronomy and heavy-ion beam experiments at facilities like FAIR. Research interests include: Dark matter axion detection and theoretical modeling Proton-boron fusion as an alternative energy pathway Plasma interactions in high-intensity laser and beam experiments Stopping power and beam transport in dense matter High-energy-density physics for inertial confinement fusion Recent work highlights advancements in: CAST experiment sensitivity improvements for solar axions Experimental validation of proton-boron fusion yields in dense plasmas Development of NectarCAM cameras for CTA's gamma-ray detection Simulation of proton beam dynamics in solid-state materials His contributions bridge fundamental physics with applied research in energy and detector technology, with active involvement in international collaborations like CTA and FAIR experiments.
Dr. Andreas Kopmann serves as Deputy Director of the Institute for Process Data Processing and Electronics (IPE) at Karlsruhe Institute of Technology (KIT) and leads the Process Data Processing group. With over two decades of experience in experimental physics and data systems, he plays a pivotal role in major international research collaborations including the KATRIN neutrino experiment and PANDA detector project. PhD in Electrical Engineering, University of Hannover (2000) Diploma in Electrical Engineering, University of Hannover (1994) Dr. Kopmann's research focuses on data acquisition systems, trigger systems, real-time monitoring, GPU computing, and data management for large-scale physics experiments. His work bridges experimental physics requirements with advanced computing technologies, particularly in high-data-rate applications for particle physics and synchrotron radiation facilities. He has pioneered novel detector technologies and data processing frameworks that enable cutting-edge scientific discoveries in neutrino physics and accelerator science. Analysis of Dr. Kopmann's recent publications reveals a strong trajectory toward higher data rates, sophisticated real-time processing, and integration of machine learning techniques. His work spans neutrino physics through KATRIN, detector development for PANDA and other experiments, and innovative data acquisition systems like KALYPSO and UFO. The interdisciplinary nature of his research combines particle physics, computing science, and electronics engineering to solve complex experimental challenges. KIT Program Lead for "Matter and Technologies" (2021-present) Coordinator of Helmholtz Program Topic "Detector Technologies and Systems" Principal Investigator in Karlsruhe School for Elementary Particle Physics (KSETA) Project Leader for Data Acquisition in KATRIN experiment As Deputy Director of IPE, Dr. Kopmann oversees research groups developing critical technologies for experiments at KIT, DESY, CERN, and other international facilities. His team's work on high-speed data acquisition, detector electronics, and computing infrastructure supports groundbreaking research in particle physics, neutrino physics, and materials science.
Prof. Dr. Wolfgang Hillert is a leading physicist at the University of Hamburg , serving as the Bjørn-Wiik Professor for Accelerator Physics since 2016. Affiliated with the Institute of Experimental Physics under the Faculty of Mathematics, Informatics and Natural Sciences, he specializes in Accelerator Physics , Superconducting Accelerator Technology , and Free-Electron Lasers (FEL) . His work focuses on polarized electron beams, SRF cavity optimization, and gravitational wave detection methods. Education: Physics degree from University of Bonn (1987), Promotion in Atmospheric Physics (1992), Habilitation in Physics (2001) Leadership Roles: Head of Accelerator Physics Group (2016–present), Managing Director of Institute of Experimental Physics (2019–2021) Research Trends: His recent work spans superconducting RF cavities for gravitational wave detectors ( 2025 ), resonant slow extraction in electron boosters, and atomic layer deposition of superconducting thin films. Publications highlight advancements in beam dynamics , cryogenic systems , and terahertz generation . Teaching & Outreach: He has lectured on Accelerator Physics since 2002 and engaged in public science communication, including talks on Physics of Music (2005–2021) and teacher training programs at DESY. Labs & Collaborations: Leads the Accelerator Physics Group at DESY, collaborates on projects like XFELO and BGO-OD beamline , and contributes to international schools (CAS) and symposia.
Professor Christian Weinheimer is a leading experimental physicist at the University of Münster's Institute of Nuclear Physics, where he holds a full professorship and serves as the Managing Director of the Institute. His research focuses on fundamental questions in particle and astroparticle physics, particularly neutrino mass measurements and the search for dark matter. He plays key roles in major international collaborations including KATRIN (neutrino mass experiment at Karlsruhe Institute of Technology) and XENONnT (dark matter search experiment at the Italian LNGS underground laboratory). Weinheimer's research interests span neutrino physics , dark matter detection , precision measurement techniques , and detector development . His group develops cutting-edge technologies for the KATRIN experiment's precision high-voltage system and electrode components, while also pioneering cryogenic distillation techniques for the XENON experiments to remove radioactive contaminants. His work extends to medical applications through the BOLD-PET project, developing novel detectors using trimethylbismuth for positron emission tomography. Analysis of his recent publications reveals a strong focus on pushing the boundaries of neutrino mass measurements, developing next-generation dark matter detectors capable of reaching the 'neutrino fog' sensitivity limit, and exploring innovative detector technologies. His work consistently combines theoretical insight with experimental ingenuity to address fundamental questions about the universe's composition and fundamental particles. Scientific awards: ERC Advanced Grant (2022) Helmholtz-Preis (2001) Dissertationspreis from Vereinigung der Freunde der Universität Mainz (1993) CERN Fellowship (1995-1996) Weinheimer actively mentors PhD students working on KATRIN background reduction, dark matter searches with XENON, precision energy measurements, and novel PET detector development. His research is supported by major grants including the ERC Advanced Grant LowRad project (2022-2027), multiple DFG-funded Collaborative Research Centers, and international collaborations with CERN, DESY, and research institutions worldwide. He also leads the development of technologies for the future DARWIN/XLZD observatory, which aims to be the most sensitive dark matter detector ever built. His laboratory operates specialized facilities including a large xenon purification system, detector development labs for the BOLD-PET project, and precision measurement equipment for high-voltage and low-background applications. Weinheimer's group collaborates extensively with other research teams at Münster University, particularly with the Cells in Motion initiative and the European Institute for Molecular Imaging.
Professor J. Debus is a distinguished academic in Radiation Oncology at Heidelberg University's Medical Faculty, with extensive research focused on particle therapy, medical physics, and cancer treatment optimization. His work spans clinical trials, radiobiology, and technical innovations in radiation delivery systems. Primary Affiliation: German Cancer Research Center (DKFZ), Heidelberg Research Focus: Particle therapy, radiation oncology, medical physics Key Collaborations: Mein S., Liew H., Tessonnier T., and other leading researchers in radiation oncology Professor Debus' research interests center on advancing particle therapy techniques including proton, carbon ion, and emerging modalities like helium and oxygen ion therapy. His work addresses critical challenges in radiation oncology such as normal tissue sparing, hypoxia-induced radioresistance, and precision treatment delivery. He has made significant contributions to understanding the biological effects of different radiation types and optimizing treatment protocols for various cancer types including head and neck cancers, brain metastases, and prostate cancer. His recent publications demonstrate leadership in clinical trials (GUARD, ESTRON, PROBASE) and technical innovations in radiation delivery systems, particularly in the emerging field of FLASH radiotherapy and ultra-high dose rate treatments. Professor Debus has published extensively on treatment planning optimization, radiation-induced biological effects, and imaging techniques for precise radiation delivery. Leading clinical trials in particle therapy Developing novel techniques for normal tissue protection Advancing understanding of radiation biology across different modalities Professor Debus has secured significant research funding for his work in radiation oncology and particle therapy. His research has contributed to clinical implementation of advanced treatment techniques at the Heidelberg Ion-Beam Therapy Center (HIT), one of the world's leading facilities for particle therapy. He supervises numerous doctoral students and postdoctoral researchers in the radiation oncology field. His laboratory and research team focus on translational research bridging basic radiobiology with clinical applications, with particular emphasis on optimizing treatment protocols for challenging tumor types and improving patient outcomes through precision radiation therapy.
Prof. Dr. Andre Schöning is a Full Professor (W3) at the Physics Institute of Heidelberg University since 2009, specializing in experimental particle physics. He serves as Co-Spokesperson of the Mu3e Collaboration and leads research in detector development and high-energy physics experiments. Research Interests: Search for the decay μ→eee with the Mu3e Experiment at PSI Development of High-Voltage Monolithic Active Pixel Sensors (HV-MAPS) Track trigger systems for ATLAS and future colliders Physics analysis with ATLAS and historical H1 experiment data Wireless data transmission technologies for particle detectors His recent publications demonstrate strong focus on detector technology development, particularly for muon experiments and high-rate tracking systems, alongside significant contributions to Standard Model physics measurements at the LHC. The research spans both hardware development and sophisticated data analysis techniques. Scientific Recognition: CERN Fellowship (1997-1999) University of Hamburg dissertation award (1997) Association of the Friends and Sponsors of DESY dissertation award (1997) Prof. Schöning has secured substantial research funding from DFG and BMBF from 2009-2025, including leadership of the DFG Research Unit on Lepton Flavor Violation with Mu3e. He maintains active collaborations including WADAPT, Mu3e, ATLAS, and the long-standing H1 collaboration. His research group operates within the High-Energy Physics division of Heidelberg's Physics Institute, working on cutting-edge detector systems for current and future particle physics experiments, with particular emphasis on precision measurements requiring novel detector technologies.
Sir Tejinder Singh Virdee FRS is a Kenyan-born British experimental particle physicist and Professor of Physics at Imperial College London. He is renowned as one of the founding fathers of the Compact Muon Solenoid (CMS) experiment at CERN's Large Hadron Collider, having originated its concept in 1990 and serving as its project leader (Spokesperson) from 2007-2010. Education: B.Sc. in Physics, Queen Mary College, University of London (1974) Ph.D. in Physics, Imperial College London (1979) Research Interests: Sir Tejinder's research spans experimental high energy physics, with particular focus on particle detector development, calorimetry techniques, and the search for new physics at the TeV scale. His work has been instrumental in the discovery of the Higgs boson through the CMS experiment at the LHC. His research contributions include pioneering work on lead tungstate scintillating crystals for the CMS electromagnetic calorimeter, innovative light collection techniques for hadron calorimetry, and leadership in the design and construction of one of the most complex scientific instruments ever built. Scientific Awards: Royal Medal (2024) - Royal Society Panofsky Prize (2017) - American Physical Society Glazebrook Medal and Prize (2015) - Institute of Physics Special Breakthrough Prize in Fundamental Physics (2013) European Physical Society High Energy Physics Prize (2013) Chadwick Medal and Prize (2009) - Institute of Physics Knight Bachelor (2014) - Queen's Birthday Honours Leadership and Outreach: Beyond his scientific achievements, Sir Tejinder has served on numerous international scientific advisory committees and is actively involved in promoting science education, particularly in Africa and India. He has delivered numerous keynote lectures and public talks worldwide, including the Schrödinger Lecture and Peter Lindsay Lectures at Imperial College. He currently leads efforts to upgrade the CMS detector for the High-Luminosity LHC era, focusing on novel silicon-based calorimeter technologies to achieve unprecedented precision in particle measurements.
Susanne Mertens is a Professor and Director at the Technical University of Munich and the Max Planck Institute for Physics (MPIK), where she leads research in experimental astroparticle physics. Her work focuses on neutrino properties, dark matter, and the development of advanced detector technologies for large-scale experiments. She holds a part-time directorship at MPIK, transitioning to full-time in March 2025, and leads key international projects including KATRIN, TRISTAN, and ComPol. Her research interests lie at the intersection of particle physics and cosmology, addressing fundamental questions such as the neutrino mass, matter-antimatter asymmetry, and the nature of dark matter. She is actively involved in data analysis and instrumentation for next-generation experiments, contributing to both ground-based and space-based observatories. Her work bridges theoretical inquiry with cutting-edge experimental design. The trends in her research, though specific publications are not listed, emphasize precision measurement, low-background detection, and novel spectroscopic techniques. She plays leading roles in major collaborations, often as spokesperson or principal investigator, indicating strong leadership in the global astroparticle physics community. Scientific Awards: No awards mentioned in the provided text. Prof. Mertens advises research teams and leads major grant-funded projects such as TRISTAN and ComPol. As Principal Investigator (PI) of these initiatives, she oversees significant funding and international collaboration. Her leadership roles in KATRIN and satellite-based X-ray missions demonstrate sustained success in securing and managing large-scale research grants. She is affiliated with the Professorship for Dark Matter at TUM and works within the MPIK’s experimental astroparticle physics division. Her research group likely involves a multidisciplinary team of physicists, engineers, and data scientists focused on detector development and data analysis for fundamental physics experiments.
Johann Isaak is a leading experimental nuclear physicist serving as Head of Research Data Management and Principal Investigator (PI) of the IRTG 2891 program at the Institute for Nuclear Physics (IKP) , TU Darmstadt , Germany. His research focuses on advancing our understanding of nuclear structure through precision photonuclear experiments, particularly in the areas of the Pygmy Dipole Resonance, nuclear resonance fluorescence, and gamma-ray spectroscopy. He actively teaches specialized courses such as "Photonuclear Reactions" and contributes to interdisciplinary nuclear physics education. Research Interests: Experimental Nuclear Physics: Design and implementation of advanced detection systems like DAGOBERT for electron-gamma coincidence spectroscopy. Photonuclear Reactions: Investigating nuclear responses to real photons via quasimonoenergetic and polarized beams, focusing on dipole excitations in medium-mass nuclei. Pygmy Dipole Resonance (PDR): Pioneering studies on low-lying dipole strength, its systematic behavior across isotopic chains (e.g., Sn, Ce, Te), and implications for nuclear astrophysics. Nuclear Structure: Precision measurements of transition strengths, level densities, and gamma-ray strength functions to test theoretical models and the Brink-Axel hypothesis. Advanced Detectors and Techniques: Development of high-efficiency spectroscopy setups like y³ at HIγS and AGATA for high-resolution gamma-ray detection. Publication Trends: Isaak's recent publications (2020-2025) demonstrate a strong focus on collective nuclear excitations , evidenced by studies on giant dipole resonances, two-phonon states in Sr-88, and quadrupole excitations in tin isotopes. His collaborative work spans international facilities, including HIγS, GRAF, and Legnaro National Laboratories, highlighting his role in large-scale experimental campaigns. Scientific Contributions: Methodological Advances: Introduced model-independent approaches for determining dipole responses via (γ, γ′γ″) reactions, enhancing precision in photon strength function measurements. Experimental Leadership: Coordinated multi-institutional projects like the AGATA collaboration and NUMEN project, driving advancements in gamma-ray spectroscopy. Educational Outreach: Mentors young researchers through IRTG 2891 and contributes to foundational texts, such as chapters in the Handbook of Nuclear Physics . Collaborations and Infrastructure: Isaak leverages world-class facilities, including the S-DALINAC accelerator at TU Darmstadt and international gamma-ray sources, to probe nuclear phenomena. His leadership in research data management ensures FAIR principles are integrated into nuclear physics workflows, enhancing reproducibility and data sharing.
