Find Academic Supervisors

Sergei V. ChekanovView profile

Researcher

• Quantum Chromodynamics
• Beyond Standard Model Physics
• High-Energy Particle Physics
• +3 more

Dr. Sergei V. Chekanov is a Researcher at Argonne National Laboratory specializing in high-energy particle physics. He actively contributes to the ATLAS experiment at the Large Hadron Collider (LHC) at CERN, having previously participated in the ZEUS experiment at DESY (1998-2009) and the L3 experiment at CERN (1995-1998). His work bridges experimental particle physics and advanced computational methodologies. His research centers on Quantum Chromodynamics data analysis, searches for physics beyond the Standard Model, and optimizing physics performance for future high-energy experiments. He pioneered the application of artificial intelligence and deep neural networks in LHC particle searches, led measurements of photons at record-breaking accelerator energies, and developed critical software frameworks for experimental analysis. His expertise spans jet physics, calorimeter operations, and event display systems. Dr. Chekanov has held key roles including QCD Group Convener for ZEUS/HERA (2001-2008), HEP Computing Group Leader (2008-2014), and ATLAS Event Display Coordinator. He maintains active collaborations with CERN and DESY while managing U.S. Midwest analysis support centers. His community initiatives include jWork.ORG, HepSim, and HandWiki, fostering open science in computational physics.

• Social Sciences
• Case Study
• Upper Secondary Education
• +3 more

Markus Norrby is a Lecturer at the Faculty of Education and Welfare Studies , Åbo Akademi University. His research focuses on Upper Secondary Education and Higher Education , particularly in the context of programming education in Finland and the integration of scientific concepts into teaching practices. Active in Social Sciences and Informal Influence research Collaborates with researchers like Palmberg, Pörn, Peltoniemi, and Slotte His work includes empirical case studies and experimental physics research, with a strong emphasis on pedagogical innovation. Publications span disciplines from Computer Science and Physics Education to Nuclear Physics , reflecting interdisciplinary engagement. Markus contributes to scientific discourse through peer-reviewed articles and conference abstracts, addressing topics such as teaching methodologies and nuclear structure analysis. His research has been cited 15 times across Scopus metrics.

Arris TijsselingView profile

Associate Professor

• Fluid Dynamics
• Computational Fluid Dynamics
• Pipeline Systems
• +3 more

Arris Tijsseling is an Associate Professor at Eindhoven University of Technology (TU/e), affiliated with the Department of Mathematics and Computer Science. His research focuses on fluid transients, computational fluid dynamics, and multiphase flow modeling with applications in pipeline systems. He has contributed to advanced numerical methods like smoothed particle hydrodynamics (SPH) and fluid-structure interaction (FSI) analysis. Notable work includes Lagrangian particle models for transient pipe flows and studies on manhole cover dynamics. His teaching responsibilities include courses on computational science and calculus. Key research themes involve transient flow analysis in pipelines with moving boundaries, cavitation effects in pumps, and structural responses under fluid-induced loads. His work bridges theoretical fluid dynamics with experimental validation, as seen in large-scale pipeline filling/emptying experiments. Collaborative efforts span international teams, addressing challenges in pipeline safety and computational efficiency. Publications highlight innovations in SPH for multiphase flows, hybrid numerical schemes for transient flows, and historical contributions to fluid mechanics. His research often emphasizes practical engineering applications, such as improving pump models and understanding wavefront behavior in fluid systems.

• High-energy astrophysics
• Machine learning
• Statistical methods
• +7 more

Dr. Sabrina Einecke is a Grant-Funded Researcher (B) at the School of Physics, Chemistry and Earth Sciences , University of Adelaide , with over a decade of experience in high-energy astroparticle physics, machine learning applications, and statistical methods. Leading research in Cherenkov Telescope Array (CTA) science and commissioning Developing software for gamma-ray emission modeling of supernova remnants Advancing machine learning techniques for astrophysical data analysis Her work spans active galactic nuclei , transients , cosmic-ray acceleration , and telescope site quantification in Australia. She serves as a Chief Investigator on ARC LIEF and DVCR-funded projects. The 9 most recent publications highlight her expertise in gamma-ray astronomy, statistical inference, and interdisciplinary collaborations, with significant impact on CTA design and PeVatron identification.

Sjors Jacco HeeferView profile

Lecturer

• Differential Geometry
• Relativity Theory
• Finsler Geometry
• +3 more

Sjors Heefer is a lecturer at the Department of Mathematics and Computer Science at Eindhoven University of Technology. His research focuses on differential geometry and relativity theory, particularly pseudo-Finsler geometry and its applications to quantum gravity and modified theories of gravity. He is a member of the COST Action on quantum gravity phenomenology in the multi-messenger approach. He holds a PhD from Eindhoven University of Technology (2018–2022), a Master’s from Radboud University Nijmegen (2015–2018), and a Bachelor’s from Radboud University Nijmegen (2012–2015). His work bridges mathematical rigor and physical applications, contributing to exact solutions in Finsler gravity and quantum gravity phenomenology. Recent research trends include cosmological solutions in Finsler spacetimes, gravitational wave signatures in non-Riemannian geometries, and multi-messenger approaches to quantum gravity. He collaborates widely, contributing to white papers and reviews on quantum gravity phenomenology.

Jon Petter OmtvedtView profile

Professor

• Super-heavy Element Chemistry
• Hydrometallurgy
• Nuclear Chemistry
• +3 more

Jon Petter Omtvedt is a Professor at the Department of Chemistry, University of Oslo, specializing in nuclear chemistry and hydrometallurgy. He leads the Nuclear Chemistry Research Group and is engaged in teaching courses such as KJM 3900 Radioactivity and KJM 5912 Radiochemistry. His research focuses on chemical studies of super-heavy elements (SHEs), hydrometallurgical innovations, and detector technology development. He collaborates internationally with institutions like RIKEN (Japan), GSI (Germany), and SINTEF (Norway). Education: PhD in Nuclear Chemistry from the University of Oslo (1995). Active in advancing remote laboratory education through projects like RoboLab. Research Interests: Super-heavy element synthesis and chemical characterization, hydrometallurgical recovery of metals from waste, nuclear detector systems, and innovation in teaching methodologies. Specializes in liquid-liquid extraction techniques (e.g., SISAK system) for studying SHEs like flerovium (Fl) and hassium (Hs). Grants & Advising: Leads major projects on SHE chemical investigations and hydrometallurgy. Advises industry partners including Boliden and Glencore on metal recovery technologies. No explicit grant details provided in texts. Labs & Teams: Head of the Nuclear Chemistry Teaching Section at UiO. Key contributor to the ModulAr Robotic Gas-jet target (MARGE) system and Vacuum to Liquid Transfer Chamber (VLTC) for SHE research.

Stefan ZellmannView profile

Associate Professor

• Scientific Visualization
• Computer Graphics
• High-Performance Computing
• +4 more

Stefan Zellmann is an Associate Professor and Principal Investigator of the DFG Project 'VTV-AMR' at the Institute of Computer Science , University of Cologne. His research focuses on the intersection of large-scale scientific visualization and high-performance computing, particularly in developing real-time rendering algorithms for adaptive mesh refinement (AMR) data. He leads projects such as ExaBrick (AMR rendering framework) and Visionaray (cross-platform ray tracing library). Education & Roles: Completed his PhD in 2014 on 'Interactive High-Performance Volume Rendering'. Currently teaches courses on graphics processor architectures and programming, including Practical Computer Science: Architecture and Programming of Graphics and Coprocessors . Research Interests: Direct volume rendering, physically based rendering, AMR visualization, GPGPU computing, and FPGA programming. His work emphasizes low-latency interaction and efficient algorithms for supercomputers/multi-GPU systems. Awards: Honorable Mention @EGPGV 2020, Best Paper Awards @EGPGV 2018 (for Rapid k-d Tree Construction ), @VDA 2017 (for Ray Clipping ), and @PDCS 2012 (for Distributed Volume Rendering Architecture ). Key Projects: ExaBrick (AMR rendering), Visionaray (ray tracing), Virvo (volume rendering library), and HPSC TerrSys (high-performance computing in terrestrial systems). Grants & Services: Co-Chair of IEEE LDAV 2022 Posters, Program Committee member for IEEE VIS and EGPGV. Regular reviewer for journals/conferences like TVCG and IEEE VR. Labs/Teams: Part of the Center for Data and Simulation Science (CDS), focusing on visualization algorithms for exascale computing and large-scale scientific data.

• Space Instrumentation
• Radiation Detection
• On-Board Data Management Systems
• +5 more

Sebastián Sánchez Prieto is a Professor at the Department of Automatic Control, Universidad de Alcalá, Spain, affiliated with the Space Research Group (SRG-UAH). He holds a Doctorate from the same institution (1998) with a thesis on cosmic ion telescope control systems. His research focuses on space instrumentation, radiation detection systems, on-board data management, and embedded systems for space applications. He has contributed extensively to the Solar Orbiter mission, working on the Energetic Particle Detector (EPD) instrumentation and software validation. His technical expertise spans FPGA-based signal processing, RISC-V processor architectures, and model-driven engineering for space systems. Notable work includes advancing virtualization techniques for mixed-criticality space systems, digital beamforming architectures, and neural network applications in particle trajectory analysis. Publications emphasize cutting-edge topics like fault-tolerant computing in space environments, adaptive signal processing for space communications, and low-power positioning systems. He actively develops educational frameworks integrating on-board data management concepts across interdisciplinary university curricula. His contributions include over 50 peer-reviewed articles addressing hardware-software co-design, space software verification, and radiation effects mitigation. Current research explores AI-driven approaches for space instrumentation data analysis and next-generation on-board computing solutions.

Glenn Horton-SmithView profile

Professor

• Experimental Particle Physics
• Neutrino Physics
• Liquid Argon Time Projection Chambers (LArTPC)
• +3 more

Glenn Horton-Smith is the Chapin Professor of Physics at Kansas State University , leading research in experimental particle physics with a focus on neutrinos. His work involves neutrino oscillation studies and detector development for experiments such as MicroBooNE, DUNE, and Mu2e. He holds a Ph.D. from Stanford University (1998) and a B.S. from the California Institute of Technology (1989). Research interests include neutrino properties, neutrino interactions with matter, and the application of LArTPC technology. He has advised graduate students Lauren Carroll and Jennifer Tyler, and collaborates on projects like the Deep Underground Neutrino Experiment (DUNE) to study neutrino oscillations and nucleon stability. His contributions span detector calibration, cross-section measurements, and background mitigation in neutrino experiments. Teaching includes courses such as Computational Physics, Programming in C++ with ROOT, and General Physics. He has delivered seminars on neutrino properties and neutrino oscillation experiments, contributing to both academic and public understanding of particle physics.

James SturmView profile

Professor

• Microelectronics
• Macroelectronics
• VLSI Technology
• +5 more

James C. Sturm is the Stephen R. Forrest Professor of Electrical Engineering and Associated Faculty at the Princeton Materials Institute. He leads the Sturm Lab, focusing on materials, processing, and devices for microelectronics and macroelectronics. His work spans silicon-based heterojunctions, three-dimensional integration, and large-area electronics for flexible displays and biomedical applications. He holds a B.S.E. from Princeton University and a Ph.D. from Stanford University. His research bridges nanoscale device scaling and low-cost, large-area manufacturing technologies for organic semiconductors and TFTs. Key research areas include VLSI scaling, optoelectronics, and applications of zinc-oxide thin-film transistors (ZnO TFTs) for GHz circuits. He has pioneered methods for microfluidic cell processing and structural health monitoring using sensing sheets. His lab develops soft robotics and hybrid LAE-CMOS systems for tactile sensing skins. Education: Ph.D., Stanford University, 1985 M.S.E.E., Stanford University, 1981 B.S.E., Electrical Engineering (Engineering Physics), Princeton University, 1979 His publications highlight breakthroughs in GHz-frequency electronics, piezoelectric robotics, and large-area RFID systems. Awards include the IEEE Fellowship and Princeton’s President’s Distinguished Teaching Award. He advises students in microelectronics, macroelectronics, and biomedical engineering. Recent work integrates AI with large-area electronics for smart spaces and explores drug gradient effects on cancer cell evolution. The Sturm Lab collaborates on projects like the 'evolution accelerator' for real-time cancer cell observation and 3D semiconductor integration with industrial FDSOI platforms.

• Stochastic Processes
• Nonequilibrium Statistical Physics
• Gravitational Waves
• +4 more

Fabio Marchesoni is a Professor of Physics at the University of Camerino, affiliated with INFN Perugia Section and Tongji University Shanghai. His research focuses on stochastic processes, nonequilibrium statistical physics, and gravitational wave physics. He has contributed to major collaborations like LIGO/Virgo, publishing over 246 articles with 148,100 citations. Research Interests: Active matter systems, artificial Brownian motors, nanoscale transport phenomena, and gravitational wave detection. His work bridges fundamental physics with applications in neuromorphic computing and materials science. Key Contributions: Pioneered stochastic resonance theory, developed models for nanoscale motor systems, and co-authored landmark papers on GW170817 (neutron star merger) and the first direct detection of gravitational waves (GW150914). Collaborations: Works with institutions worldwide including University of Augsburg, RIKEN, and Loughborough University. Active in interdisciplinary projects combining physics with engineering and biology.

Chaden DjalaliView profile

Professor

• Experimental Nuclear Physics
• Experimental Particle Physics
• Accelerator Physics
• +2 more

Chaden Djalali is a Professor in the Department of Physics and Astronomy at Ohio University's College of Arts and Sciences. He is affiliated with the Institute of Nuclear and Particle Physics (INPP) and conducts research at the Edwards Accelerator Laboratory on the Athens Campus. His primary research focuses on experimental nuclear and particle physics , involving studies of subatomic particles and nuclear interactions using accelerator-based experiments. His work contributes to the broader fields of high energy physics and fundamental symmetries in nature. Dr. Djalali is a member of the Institute of Nuclear and Particle Physics (INPP), which supports collaborative research in nuclear structure, reactions, and hadronic physics. His laboratory work is central to experimental efforts in probing the strong force and nucleon structure. He earned his Ph.D. from Université Paris Sud-Orsay, France in 1981, followed by a Thèse d’État (a higher doctorate in the French system) from the same institution in 1985. These advanced degrees established his expertise in experimental physics early in his career. Dr. Djalali maintains an active academic role with no indication of part-time status, retirement, or emeritus position. He can be contacted via email at djalali@ohio.edu .

Thomas N. MasseyView profile

Research Professor

• Experimental Nuclear Physics
• Nuclear Structure Studies
• Gamma-ray Spectroscopy
• +7 more

Thomas N. Massey is a Research Professor in the Department of Physics and Astronomy within the College of Arts and Sciences at Ohio University. He is a member of the Institute of Nuclear and Particle Physics (INPP) and conducts his research at the Edwards Accelerator Lab on the Athens campus. His work is centered on experimental nuclear physics, with significant contributions to nuclear structure, neutron interactions, and reaction modeling. Dr. Massey earned his Ph.D. from the University of California in 1988, following an M.S. and B.S. from the same institution. His academic career at Ohio University has spanned from Research Scientist (1989–1994), to Research Assistant Professor (1994–2007), and currently Research Associate Professor (2007–present), reflecting a long-standing and active role in the department. His research interests are focused on Experimental Nuclear Physics , particularly Nuclear Structure Studies using gamma-ray spectroscopy, Measurement of (z,n) Reactions , and Neutron Elastic and Inelastic Cross Sections via time-of-flight techniques. He has pioneered methods for calculating reaction cross sections using a combined shell-model and R-matrix approach and has developed advanced techniques for calculating nuclear level densities. His work has direct applications in nuclear data, medical physics (e.g., BNCT), and reactor shielding. The 15 most recent publications reflect a consistent research trajectory in nuclear data and structure. His work spans from fundamental studies of exotic nuclei like 8 He and 11 Li to practical applications such as neutron source characterization for detector calibration and cancer therapy. A strong theme is the precise measurement and theoretical modeling of neutron interactions, with a focus on light nuclei and practical nuclear data needs. Research Professor, Ohio University (2007–present) Research Assistant Professor, Ohio University (1994–2007) Research Scientist, Ohio University (1989–1994) Dr. Massey has been involved in significant projects, including the NERI Iron Sphere Experiments for neutron transport validation and detector calibration work at Lawrence Livermore National Laboratory. He has also developed a suite of data analysis programs for nuclear experiments, including codes for Rutherford backscattering, kinematics, and time-of-flight data replay. His extensive publication record and ongoing research activities indicate a sustained and impactful career in nuclear physics.

Andrea RichardView profile

Assistant Professor

• Statistical nuclear physics
• Experimental nuclear astrophysics
• Synthesis of heavy elements in the universe
• +3 more

Andrea Richard serves as Assistant Professor in the Department of Physics and Astronomy at Ohio University's College of Arts and Sciences, based at the Edwards Accelerator Laboratory on the Athens Campus. Her experimental research focuses on low-energy nuclear physics phenomena critical to understanding cosmic element formation and medical applications. Her academic credentials include: Ph.D. in Physics from Ohio University (2018) M.Sc. in Physics from Ohio University (2014) B.Sc. in Physics and Mathematics from Muskingum University (2011) Dr. Richard's research program investigates statistical nuclear properties, nuclear astrophysics processes including heavy-element synthesis, and applied medical physics. She conducts neutron-capture cross-section measurements for unstable nuclei using advanced accelerator facilities, with particular emphasis on how nuclear structure influences nucleosynthesis in stellar environments and neutron star mergers. Her experimental approach bridges theoretical models with empirical data from rare-isotope beam facilities. Analysis of her recent publications reveals three interconnected research thrusts: fundamental nuclear structure studies of exotic nuclei (particularly level densities and rotational bands), nuclear astrophysics applications for cosmic element production, and translational medical physics work in particle therapy. The 2022-2023 publications demonstrate increasing interdisciplinary collaboration, with medical physics applications emerging as a significant new direction alongside her core nuclear structure research. Her scientific recognition includes: Diversity, Equity, and Inclusion Directorate Award from Lawrence Livermore National Laboratory (2023) American Physical Society Five Sigma Physicist Award (2021) Nuclear Science and Security Consortium Postdoctoral Fellowship (2018-2021) DOE SCGSR Fellowship (2016) While current documentation does not specify doctoral advisees or active grant funding, Dr. Richard maintains significant research leadership through her Facility for Rare Isotope Beams User Executive Committee membership and Nuclear Science and Security Consortium fellowship legacy. She operates within Ohio University's Edwards Accelerator Laboratory ecosystem while maintaining active research partnerships with Michigan State University's Facility for Rare Isotope Beams and Lawrence Livermore National Laboratory. Her collaborative networks include the GeMSS (Gender Minorities in Science Social) initiative and the American Physical Society's Forum on Diversity and Inclusion, reflecting her commitment to inclusive scientific communities.

Samuel YoffeView profile

Research Fellow

• Laser Physics
• Telecommunications
• 5G Technology
• +3 more

Samuel Yoffe is a Research Fellow in the Department of Electronic and Electrical Engineering at the University of Strathclyde's Faculty of Engineering. His interdisciplinary work bridges fundamental physics research and practical telecommunications applications, with recent focus on 5G technology for broadcast production systems. Dr. Yoffe's research interests include: Laser Physics and Plasma Wakefield Acceleration 5G and Wi-Fi 6E wireless technologies Low-latency broadcast production systems Wireless spectrum utilization for media production Laser pulse dynamics and electron acceleration Private network deployment for major events Analysis of Dr. Yoffe's publication history reveals a notable transition from fundamental physics research toward applied telecommunications engineering. While his 2024 work included significant contributions to laser wakefield accelerator physics, his most recent publications (2024-2025) predominantly address practical implementations of 5G technology in broadcast environments. This shift is exemplified by his research on the coronation broadcast of King Charles III and multiple studies presented at IBC and NAB conferences, demonstrating strong industry-academia collaboration in solving real-world broadcast challenges. Dr. Yoffe maintains active professional engagement through conference presentations and research collaborations. His institutional profile indicates 53 research outputs and 25 datasets, reflecting substantial scholarly productivity. His work appears to involve partnerships with broadcast technology companies and public service broadcasters, particularly in developing wireless production solutions that meet industry requirements for reliability and low latency.