Find Academic Supervisors

Isobel OjalvoView profile

Assistant Professor

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

Isobel Ojalvo is an Assistant Professor of Physics at Princeton University, specializing in experimental particle physics. Her research focuses on tau lepton physics using data from the CMS Experiment at CERN's Large Hadron Collider (LHC). She holds a Ph.D. in Physics from the University of Wisconsin-Madison (2014) and was a Dicke Fellow (2016). Her work includes Higgs boson decay studies, Beyond Standard Model (BSM) physics exploration, and advanced detector systems development for the CMS Level 1 Trigger System. She has authored over 1000 peer-reviewed publications and secured grants from the Department of Energy, National Science Foundation, and Eric and Wendy Schmidt Foundation. Education: Ph.D., University of Wisconsin-Madison (2014); Dicke Fellowship (2016) Research interests span tau lepton decay dynamics, Higgs boson interactions, LHC collision analyses, and real-time data filtering systems using FPGA algorithms. Her contributions to the CMS Trigger System have enhanced data selection efficiency for rare physics events. Awards include the Simons Foundation Grant for advancing AI-driven particle physics research. Advises three graduate students and collaborates on projects funded through transformative tech grants. Active in CMS collaboration teams, focusing on detector optimization and algorithm innovation for high-energy physics experiments.

Tom KnightView profile

Lecturer

• Planetary Physics
• Computational Physics
• Radiation Analysis
• +3 more

Tom Knight is a Lecturer in Planetary Physics at the Department of Physics, Aberystwyth University. He holds an MPhys and PhD from Aberystwyth University, with his doctoral work focusing on Smoothed Particle Magnetohydrodynamics for the Solar Corona under supervisors B. Pinter and M. Grande. His research bridges computational physics and applied instrumentation, particularly in space environments. Current roles include contributions to the European Space Agency's Jupiter Icy Moon Explorer (JUICE) mission via the Particle Environment Package (PEP) and participation in the ISSI Research Team on Radiation Interactions at Planetary Bodies. Education: MPhys in Physics, University of Wales, Aberystwyth (2008) PhD in Solar System Physics, Aberystwyth University (2012) Research interests center on radiation analysis for space instrumentation, computational modeling of planetary environments, and detector optimization. His work involves collaboration with global institutions including IRF Sweden, University of Bern, and Johns Hopkins University. Recent publications address solar corona observations, detector calibration for spacecraft, and planetary surface imaging technologies. He has contributed to multiple international research teams and led design workshops on spacecraft radiation safety. Currently oversees detector shielding strategies for JUICE mission instruments and co-develops hyperspectral imaging tools for planetary missions. Labs/Teams: Active member of the Solar System Physics Research Group, IMPACS, and the ISSI Radiation Interactions Team.

Gábor ErdeiView profile

Associate Professor

• Optical Design
• Medical Imaging Systems
• Holographic Storage
• +3 more

Gábor Erdei is an Associate Professor at the Department of Atomic Physics, Budapest University of Technology and Economics (BME). He specializes in optical design, materials science, and advanced imaging systems. His work focuses on scintillator arrays for PET detectors, holographic storage technologies, and biomedical optics applications. Dr. Erdei has contributed to projects involving photon pair sources, quantum interference, and ophthalmic lens design. Research Interests: Optical system design and optimization Scintillator material characterization Quantum photonics and entanglement Holographic data storage systems Medical imaging technologies Key Research Trends: His recent work explores advancements in quantum optics for secure communication, novel materials for improved PET detector performance, and personalized optics for enhanced visual acuity. He has also contributed to interdisciplinary projects combining machine learning with particle analysis in fluidization processes. Scientific Awards: None explicitly listed in available materials. Advising & Grants: No formal advisee records found. Involved in SPADnet project collaborations and holographic storage system developments. Labs/Teams: Active in BME's Optics and Photonics Research Group, contributing to projects on diffractive optics and biomedical imaging systems.

• Laser Physics
• Optics and Laser Technology
• Scintillator Materials
• +4 more

Emőke Lőrincz is an Honorary Professor in the Department of Atomic Physics at Budapest University of Technology and Economics (BME). Her research focuses on advanced optical and nuclear technologies, including scintillator materials for medical imaging (PET), laser physics, and holographic data storage. She has contributed to the development of high-resolution PET detectors, digital photon counter systems (SPADnet), and novel optical memory technologies using azobenzene polymers. Her work bridges fundamental material science with applied engineering solutions for biomedical and data storage applications. Key research areas include optimizing light-sharing modules for PET detectors, measuring optical properties of scintillator crystals, and advancing polarization-based holographic storage systems. Her interdisciplinary approach combines experimental validation with computational modeling to enhance detector performance and data density in optical systems. Publications span from 1985 to 2017, reflecting her long-term contributions to optics, nuclear instrumentation, and materials science. Notable collaborations include studies on LYSO:Ce scintillators, SiPM arrays, and phase-modulation techniques for holography. While no specific awards are listed, her extensive publication record underscores her influence in these fields. Her work often addresses practical challenges such as improving detector spatial resolution, optimizing light collection efficiency, and ensuring material durability in extreme conditions. This research has direct applications in medical imaging systems and next-generation optical storage technologies.

Shi ZhishengView profile

Professor

• Thin Film Semiconductors
• Mid-Wave Infrared (MWIR) Detectors and Lasers
• Nanophotonics
• +3 more

Dr. Shi Zhisheng is a Professor in the Department of Electrical and Computer Engineering at the University of Oklahoma's Gallogly College of Engineering. He holds the Gerald Tuma Presidential Professorship (2007). His academic journey includes a PhD in Physics from the University of Freiburg (1995) and postdoctoral research at ETH Zurich (1995-1997). He has been a faculty member at OU since 1997. Research Interests: Dr. Shi leads the Opto-Electronic Research Group, focusing on thin film semiconductors, mid-wave infrared (MWIR) lasers and detectors, nanophotonics, and quantum dot solar cells. His lab pioneered IV-VI lead salt vertical-cavity surface-emitting lasers and room-temperature photonic crystal lasers. Notable achievements include resolving a century-old ambiguity in PbSe photoconductors and achieving record high specific detectivity (D*) in MWIR detectors. Lab Infrastructure: The lab houses three molecular-beam-epitaxy (MBE) chambers, wet-chemical synthesis tools, and advanced nanophotonic device fabrication capabilities. Scientific Awards: Dr. Shi was honored with the Gerald Tuma Presidential Professorship in 2007, recognizing his contributions to optoelectronics and semiconductor research. Grants & Collaborations: His work has been supported by grants focusing on semiconductor materials, thermoelectrics, and optoelectronic device development. Key collaborations include institutions like the Fraunhofer Institute and the Swiss Federal Institute of Technology.

• High Energy Particle Physics
• Dark Matter
• Hierarchy Problem
• +3 more

John Stupak III is an Associate Professor in the Homer L. Dodge Department of Physics and Astronomy at the University of Oklahoma, specializing in High Energy Particle Physics. His research focuses on searches for new physics phenomena at the Large Hadron Collider (LHC) using the ATLAS detector, particularly addressing the hierarchy problem and dark matter's nature. Education: B.S. from Fairfield University (2007); Ph.D. from Stony Brook University (2012). His work includes studies of displaced vertices from long-lived particles, Higgs boson exotic decays, and monojet signatures for dark matter. He has contributed to ATLAS detector optimization and holds the 2022 ATLAS Outstanding Achievement Award for advancing tracking algorithms. Research Group: Includes postdoc Elena Pompa Pacchi and graduate students Connor Waits, Achmad Gerwin, and Sidney Johnson. Key Areas: Supersymmetry, extra dimensions, dark matter detection, and LHC experimental techniques. Recent Work: Published 15+ articles in 2024-2025 on topics like vector-like quark searches, Higgs boson off-shell dynamics, and photonuclear jet production in heavy-ion collisions. Labs/Teams: Active member of the ATLAS Collaboration, contributing to detector software and analysis strategies for beyond Standard Model physics.

Jakub NedbalView profile

Researcher

• Fluorescence lifetime imaging
• Microscope development
• SPAD Arrays
• +3 more

Jakub Nedbal is a Researcher at King’s College London’s Department of Physics within the Faculty of Natural, Mathematical & Engineering Sciences. He holds a Master’s in Physics from Masaryk University (Czech Republic) and a Master’s in Immunology from King’s College London, alongside a PhD focused on imaging techniques in B cell biology. His research specializes in developing advanced fluorescence-based imaging technologies, particularly leveraging SPAD arrays and time-correlated single-photon counting (TCSPC) techniques. Notable contributions include creating the first fluorescence lifetime flow cytometer using TCSPC and co-developing a fast TCSPC microscope with parallelized SPAD array detectors. Current work focuses on spatially resolved TCSPC detectors for thick-sample imaging and low-phototoxicity techniques. Outside academia, Jakub served as Product Development Lead for a startup commercializing TCSPC array cameras until 2018. His innovations have been applied to art conservation via fluorescence lifetime imaging (FLIM) for varnish analysis and have advanced microalgae cultivation bioreactor designs. His research interests span fluorescence lifetime imaging, microscope development, SPAD arrays, and photosynthesis studies. Recent work highlights include a novel dual-excitation fluorometer for photosynthesis research and a SPAD array camera for lightsheet FLIM. His techniques address challenges in live-cell imaging phototoxicity and high-throughput FRET screening.

• Neuromorphic Computing
• Photonics
• Nanoelectronics
• +3 more

Dr. Qusay Al-taai is a Research Associate in the Department of Electronic & Nanoscale Engineering at the University of Glasgow. His work focuses on neuromorphic computing, photonics, and optoelectronics. Key research interests include resonant tunneling diodes (RTDs), photonic-electronic spiking neurons, and nanophotonic systems for high-speed computing. He has contributed to advancing neuromorphic hardware through studies on spiking circuits, optical synaptic linking, and material optimization. Dr. Al-taai collaborates extensively with researchers in photonics and semiconductor engineering. His recent work emphasizes multi-modal neuromorphic systems and ultrafast temporal integration. Publications span journals like Neuromorphic Computing and Engineering and conference proceedings including IEEE Photonics Conference. Research highlights include developing photonic-electronic spiking neurons with multi-wavelength operation and investigating speed limitations in RTD-based photodetectors. He also explores applications of metasurface antennas and nanoscale device fabrication techniques. Dr. Al-taai’s contributions bridge fundamental physics and applied engineering, targeting next-generation computing architectures.

Jens FörstnerView profile

Professor

• Theoretical Electrical Engineering
• Nanophotonics
• Quantum Optics
• +5 more

Jens Förstner is a Full Professor (W3) for Theoretical Electrical Engineering at Paderborn University since 2013. He currently serves as Director of the Department of Electrical Engineering and Information Technology (since October 2023) and Vice Dean of the Faculty of Computer Science, Electrical Engineering and Mathematics. His roles include coordinating the MSc Optoelectronics & Photonics program and leading the Institute for Photonic Quantum Systems (PhoQS). Education & Career: PhD in Physics (2004), Technical University Berlin Postdoctoral research at TU Berlin, University of Arizona (Tucson), and Technical University Berlin Head of DFG Emmy Noether junior research group on Computational Nanophotonics (2007–2013) Research Focus: His work spans theoretical and computational nanophotonics, quantum optics, plasmonics, and integrated photonics. Key projects include the Transregional Collaborative Research Centre 142 (photonic quantum systems) and PhoQC (photonic quantum computing). He explores topics like optical antennas, nonlinear optics, and quantum communication infrastructure. Teaching: Offers courses on electromagnetic field simulation, quantum systems, and scientific computing. Current courses include Fields & Waves and Electromagnetic Waves and Waveguides . Awards: Goldene Kreide for teaching excellence (2011) Paderborn University Research Award (2009) Carl-Ramsauer-Preis (2005) for PhD thesis Engagement: Serves as a funding reviewer for DFG, DAAD, and other foundations. Organized workshops like International Workshop on Theoretical and Computational Nano-Photonics (2008–2013). Active in the HighPerMeshes framework for numerical algorithms and FPGA-based photonic simulations.

Martin FrankView profile

Associate Professor

• Experimental High Energy Particle Physics
• Exotic Particles Detection
• Neutrino Physics
• +2 more

Martin Frank is an Associate Professor in the Department of Physics at the University of South Alabama, located in Mobile, AL. He holds a Ph.D. from Baylor University and a B.S. from Emory University. His research focuses on experimental high-energy particle physics, particularly in searches for exotic particles and phenomena using the NOvA and Mu2e experiments at Fermilab. Key areas of investigation include magnetic monopole detection, neutrino oscillations, and advanced detector technologies. Education: Ph.D., Baylor University B.S., Emory University Frank's work with the NOvA collaboration has produced significant results in neutrino physics, including groundbreaking studies on three-flavor oscillation parameters and magnetic monopole constraints. His technical expertise spans detector design optimization, data analysis methodologies, and cosmic ray monitoring systems. Recent publications highlight innovations in photoelectron yield measurements and seasonal variations in atmospheric muon events. Labs/Teams: Active member of the NOvA and Mu2e collaborations at Fermilab.

• Nuclear Instrumentation
• Radiation-Hard Sensors
• Monolithic Active Pixel Sensors
• +7 more

Vicente González Millán is a full Professor in the Department of Electronic Engineering at the School of Engineering, University of Valencia. His work bridges electronics technology and nuclear physics, with strong involvement in international collaborations such as CERN, AGATA, and NEDA. His research focuses on the development of advanced radiation-hard semiconductor sensors, particularly the MALTA series of monolithic active pixel sensors, for applications in high-energy and nuclear physics experiments. He is actively involved in detector design, signal processing, FPGA-based data acquisition systems, and real-time data analysis techniques. His work supports cutting-edge experiments in nuclear structure, particle detection, and medical physics instrumentation. The recent publications show a consistent focus on detector development, sensor characterization, and data acquisition systems. Key themes include radiation hardness, timing performance, charge calibration, and the use of machine learning for event reconstruction in neutron detection arrays. The work is highly experimental and closely tied to large-scale facilities like CERN and GANIL. He leads or is a core member of two research groups: i2N (Electronic Instrumentation in Medical and Nuclear Physics) and IRIMED (Research in Radiophysics and Nuclear Instrumentation in Medicine), highlighting the dual application of his work in both fundamental physics and medical technology. While no specific awards are listed, his sustained publication record and leadership in major detector projects indicate significant recognition in the field. He also contributes to the development of real-time trigger systems, digital front-end electronics, and FPGA-based solutions for gamma and neutron spectroscopy.

Bent LauritzenView profile

Researcher

• Spallation Physics
• Thomson Scattering Physics
• Molten Salt Reactor Engineering
• +5 more

Bent Lauritzen serves as a Senior Researcher and center leader at the Center for Nuclear Energy Technology within the Department of Physics at the Technical University of Denmark (DTU). His research spans multiple critical areas in nuclear physics and engineering, with particular expertise in spallation physics, molten salt reactor technology, neutronics, and cold neutron sources. His work significantly contributes to UN Sustainable Development Goals related to clean energy and climate action. Senior Researcher and Center Leader at DTU Physics Specializes in nuclear energy technology and neutron science Active contributor to European Spallation Source research Supervises multiple PhD projects in nuclear engineering Lauritzen's research interests focus on advanced nuclear technologies with practical applications. His work in molten salt reactor engineering addresses next-generation nuclear power solutions, while his expertise in cold neutron physics supports fundamental research at major facilities like the European Spallation Source. His research in neutronics engineering and dose rate calculations has important implications for nuclear safety and radiation protection. The integration of computational methods with experimental physics is a recurring theme across his diverse research portfolio. Analysis of Lauritzen's recent publications reveals a strong trend toward practical applications of nuclear physics. His work spans from fundamental neutron science (cold neutron sources, spectrometer design) to applied nuclear engineering (molten salt reactors, radiation detection systems). The European Spallation Source appears as a major collaborative focus, with multiple publications related to instrument development and neutron source optimization. There's also a clear emphasis on computational methods, with Monte Carlo modeling and simulation frameworks playing key roles in his research. Lauritzen actively mentors the next generation of nuclear scientists as main supervisor for multiple PhD students working on cutting-edge nuclear technologies. His projects cover thermophysical properties of fluoride fuel salts, transient neutronic behavior in molten salt reactors, and advanced cold neutron source designs. These projects represent significant contributions to nuclear energy research with potential applications in sustainable energy production. His professional activities include organizing the Nuclear Engineering Educational Workshop and serving as Chairman at the Ministry of Education, Youth and Sports during two separate periods (2014-2017 and 2021). Lauritzen has also contributed to public understanding of nuclear technology through media appearances, particularly during the Fukushima nuclear incident in 2011 when he provided expert commentary on reactor risks.

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.

Morten Lunn HaubroView profile

Researcher

• X-ray Free Electron Laser Physics
• Solvation Dynamics
• Ultrafast X-ray Scattering
• +4 more

Morten Lunn Haubro is a Postdoc researcher in the Department of Physics at the Technical University of Denmark (DTU), working within the Materials Physics in Time and Space research group. His research focuses on advanced X-ray techniques, particularly utilizing free electron lasers for studying dynamic processes in materials and molecular systems at ultrafast timescales. Haubro's research interests span X-ray Free Electron Laser Physics, Solvation Dynamics, and Ultrafast X-ray Scattering. His work involves developing and applying cutting-edge X-ray methodologies to investigate structural dynamics in materials and chemical systems. His research has particular emphasis on time-resolved techniques that capture molecular and material transformations as they occur. Analyzing his recent publications reveals a strong focus on pushing the boundaries of X-ray imaging and scattering techniques. His work spans multiple applications from materials science to chemical dynamics, with a consistent thread of developing and applying advanced X-ray methodologies to capture ultrafast processes. The research demonstrates significant technical innovation in instrumentation and methodology development. Haubro successfully completed his PhD project titled 'X-ray studies of solvation dynamics' which ran from March 2021 to July 2024. His research has gained visibility in the scientific community, with his work being picked up by multiple news outlets and shared across various social media platforms. His collaborative network extends across multiple institutions, as evidenced by his co-authorship on papers with researchers from various international institutions. His research group at DTU appears to be well-connected within the global X-ray science community, particularly in the specialized field of free electron laser applications.

Daniel R. BednarekView profile

Professor

• Radiological Physics
• Medical Imaging Physics
• Radiation Safety
• +7 more

Daniel R. Bednarek is a Professor in the Department of Radiology at the University at Buffalo's Jacobs School of Medicine & Biomedical Sciences, with additional appointments in Neurosurgery, Biomedical Engineering, and Biophysical Sciences. He is a key research faculty member at the Canon Stroke and Vascular Research Center and serves as Radiation Equipment Safety Officer at Erie County Medical Center. His career spans over four decades in radiological physics, medical imaging, and radiation safety. PhD, Medical Physics, University of Chicago (1978) MS, Radiological Physics, University of Chicago (1973) BS, Physics, Canisius College (1969) Dr. Bednarek specializes in radiological imaging physics, with research focused on region-of-interest (ROI) imaging, high-resolution real-time detectors, and real-time dose tracking systems for neurointerventional and cardiovascular procedures. His work aims to improve image quality while minimizing radiation exposure to patients and staff. He has pioneered the development of the Micro-Angiographic Fluoroscope (MAF) and related dose-reduction technologies. His research integrates engineering, physics, and clinical applications to advance interventional radiology. The most recent publications reflect a strong trend in high-speed angiography, real-time dose mapping, scatter reduction, and advanced detector systems. These works emphasize innovation in imaging technology, patient and staff safety, and preclinical validation of neurovascular devices. Themes include high-resolution imaging, dose optimization, and hemodynamic analysis. Dr. Bednarek has received numerous honors: ACR Fellow (2024) SPIE Fellow (2019) AAPM Fellow (1999) ABR Lifetime Service Award Multiple Cum Laude and Merit Awards for Scientific Excellence He has been a principal or co-principal investigator on multiple NIH and industry-funded grants, including projects with Canon Medical Systems on high-speed angiography and dose management. He has also advised on accreditation and examination standards through AAPM and ABR. Dr. Bednarek founded and curates the UB Museum of Radiology and Medical Physics, contributing to the education and preservation of medical physics history. His work is closely tied to the Canon Stroke and Vascular Research Center, where he leads research in imaging innovation and radiation safety. He collaborates extensively with Dr. Stephen Rudin and other experts in neurointerventional radiology and biomedical engineering.