جستجوی استاد راهنمای دانشگاهی

Anatoly Rozenfeldمشاهده پروفایل

استاد

• Medical Physics
• Radiation Therapy
• Nuclear and Plasma Physics
• +۳ مورد دیگر

Anatoly Rozenfeld is a Distinguished Professor and Director of the Centre for Medical Radiation Physics (CMRP) at the University of Wollongong (UOW), School of Physics. He leads research in semiconductor radiation detectors, micro-dosimetry, and advanced radiation therapies. His work spans applications in cancer treatment, space medicine, and radiation protection. He holds editorial roles in journals like Medical Physics and chairs international conferences such as SSD 16 and IEEE NSS/MIC. Education: PhD in Physics, Kiev Institute for Nuclear Research (1991) MSc (Distinction) in Semiconductor Physics, Leningrad Polytechnic Institute (1974) Research Interests: Focuses on medical radiation physics innovations, including proton therapy, heavy-ion therapy, and space radiation monitoring. His lab develops novel detectors like 'MagicPlates' for high-resolution dosimetry and explores 3D bioprinting for tumor models in radiation studies. He also investigates shielding strategies for deep-space missions. Grants & Awards: $17M+ in competitive grants, including NHMRC and ARC funding 2022 NSW Premier’s Outstanding Cancer Researcher Award IEEE NPSS Glenn F. Knoll Award for Radiation Instrumentation (2023) Advisory Roles: Member of ICRU Micro-dosimetry Committee, Australian Space Agency’s Space Medicine Committee, and the Australian National Hadron Therapy Steering Committee. Lab/Teams: Leads CMRP, a globally recognized center with CAMPEP accreditation and ERA ‘above world standard’ ratings (2015, 2018).

• Fluid Dynamics
• Experimental Fluid Mechanics
• Computational Fluid Dynamics
• +۶ مورد دیگر

Zhao Pan is an Assistant Professor in the Department of Mechanical & Mechatronics Engineering at the University of Waterloo. He is cross-appointed into the Department of Electrical and Computer Engineering (ECE). His research focuses on fluid dynamics, experimental methods in fluid mechanics, and computational techniques for pressure field reconstruction. Key areas of expertise include cavitation phenomena, water entry dynamics, and the application of advanced imaging technologies such as particle image velocimetry (PIV). He has developed innovative solutions for reducing splash in urinal designs and explores fluid dynamics in biological systems. Dr. Pan's research interests span a range of fluid dynamics topics, including the development of novel pressure reconstruction methods using Helmholtz-Hodge decomposition and time-resolved velocimetry. He investigates cavitation bubble dynamics, fluid-structure interactions, and high-speed fluid phenomena. His work integrates experimental approaches with computational modeling, addressing challenges in both engineering applications (e.g., sustainable urinal design) and fundamental fluid mechanics. Recent studies include the analysis of error propagation in pressure field calculations and the optimization of boundary conditions for PIV-based reconstructions. No scientific awards have been listed for Dr. Pan in the provided information. No advising or grant information is available in the provided data. Dr. Pan collaborates across disciplines through his cross-appointment in ECE and engages in interdisciplinary research projects at the University of Waterloo.

• Neutrino Physics
• Particle Physics
• Dark Matter Detection
• +۳ مورد دیگر

Antonin Vacheret is a Senior Lecturer in Physics at the University of Caen Normandie, affiliated with the Laboratoire de Physique Corpusculaire de Caen (LPC). He has held previous positions as Senior Researcher at Imperial College London (2016-2023) and Oxford University (2011-2016). His research focuses on neutrino physics, dark matter detection, and high-energy astroparticle experiments, particularly through collaborations like KM3NeT, LUX-ZEPLIN (LZ), SoLid, and T2K. He has contributed to groundbreaking observations of ultra-high-energy neutrinos and constraints on dark matter models. Education: PhD under advisors Walter M. Geist and David Lhuillier. His work emphasizes experimental techniques, detector development, and analysis of cosmic phenomena. Key projects include the KM3NeT neutrino telescope network and the LZ dark matter experiment. Research interests span neutrino oscillations, cosmic ray interactions, and multi-messenger astrophysics. Recent studies highlight observations of ultra-high-energy neutrinos, testing Lorentz symmetry, and probing dark matter via cosmic ray upscattering mechanisms. Publications focus on detector performance, neutrino flux measurements, and dark matter constraints from experiments like LZ and KM3NeT. Notable results include the first observation of an ultra-high-energy cosmic neutrino and studies of neutrino velocity limits.

Kevin Lannonمشاهده پروفایل

استاد

• Particle Physics
• High Energy Physics
• Effective Field Theory (EFT)
• +۳ مورد دیگر

Kevin Lannon is a Professor of Physics & Astronomy at the University of Notre Dame's College of Science, serving as Associate Dean for Faculty Affairs. His research focuses on understanding the top quark's mass hierarchy through CMS detector analyses, effective field theory, and machine learning applications. He leads the Cyberinfrastructure to Accelerate Machine Learning (CAML) GPU cluster initiative and has pioneered opportunistic computing strategies using 10,000-25,000 CPU cores. B.S., St. Norbert College (1997) Ph.D., University of Illinois, Urbana-Champaign (2003) Research emphasizes top quark-Higgs interactions, FPGA-based track triggers, and data-intensive computing. Recent work includes neural network optimization for LHC data and dynamic resource management. He holds the 2020 Joyce Award for Undergraduate Teaching excellence. Key Projects: Track Trigger Upgrade (FPGA-based), Lobster workflow tool, Deep Learning for Particle Reconstruction Grants: CAML GPU Cluster (ND/OSG), CMS Tier-3 Site Scaling Labs/Teams: CMS Collaboration, Notre Dame High Energy Physics Group, CRC Data Science Initiative.

John LoSeccoمشاهده پروفایل

استاد

• Particle Physics
• Neutrino Physics
• CP Violation
• +۳ مورد دیگر

John LoSecco is a Professor in the Department of Physics & Astronomy at the University of Notre Dame. His research focuses on CP violation in quark decays (via the BaBar experiment) and neutrino interactions (via the Double ChooZ experiment). He has contributed to major collaborations like DUNE, IceCube-Gen2, and IMB-3. His work bridges particle physics, astrophysics, and detector technology. B.S. in Engineering Physics, Cooper Union, 1972 A.M. & Ph.D. in Physics, Harvard University, 1973 & 1976 Research interests include neutrino oscillations, CP violation mechanisms, and precision measurements in high-energy physics. Recent work emphasizes the DUNE experiment’s neutrino oscillation program and IceCube-Gen2’s neutrino astronomy capabilities. His studies also explore proton decay and gravitational lensing effects on supernova neutrinos. Key contributions span neutrino mixing angle measurements, detector design for liquid argon time projection chambers (LArTPCs), and machine learning applications for event reconstruction. His articles highlight advancements in neutrino interaction modeling, accelerator upgrades, and software frameworks for large collaborations. Honors: Jefferson Science Fellow (2020-21), Bruno Rossi Prize (1989), DOE Outstanding Junior Investigator (1982-85) LoSecco advises on neutrino projects and collaborates internationally. He has pioneered experimental setups for neutrino flavor transitions and contributed to cosmic ray detection technologies. His labs focus on detector R&D for next-generation particle physics experiments.

Daniel Robertsonمشاهده پروفایل

استاد پژوهش

• Nuclear Astrophysics
• Stellar Nucleosynthesis
• Element Production Mechanisms
• +۳ مورد دیگر

Daniel Robertson is an Associate Research Professor in the Department of Physics & Astronomy at the University of Notre Dame. His research focuses on recreating stellar element-producing reactions in laboratory settings and developing advanced accelerator technologies for underground astrophysics experiments. He holds an MPhys from the University of Surrey and MS/PhD degrees from Notre Dame. MPhys, Nuclear Astrophysics, University of Surrey (2003) M.S., Nuclear Physics, University of Notre Dame (2005) Ph.D., Nuclear Physics, University of Notre Dame (2010) His work bridges experimental nuclear physics and astrophysical observations, emphasizing underground facilities like CASPAR to study low-energy reactions critical to stellar nucleosynthesis. Recent studies include neutron capture processes, resonance measurements, and innovations in detector systems. He leads efforts to improve accelerator technology for studying elusive reactions in environments mimicking stellar interiors. Key contributions include advancements in neutron moderation techniques (NTD project) and multi-isotope analyses using accelerator mass spectrometry. His research addresses gaps in understanding element production mechanisms across the periodic table, particularly in γ-process and CNO cycle contexts. Dr. Robertson collaborates on developing deep underground laboratories to minimize cosmic-ray interference, enhancing precision in low-background nuclear astrophysics measurements. His experimental tools and methodologies are foundational for modeling stellar explosions and the cosmic creation of heavy elements.

Edward Stechمشاهده پروفایل

استاد پژوهش

• Nuclear Physics
• Astrophysics
• Element Formation in Stars
• +۳ مورد دیگر

Edward Stech is a Research Professor in the Department of Physics & Astronomy at the University of Notre Dame. He is a core member of Prof. Michael Wiescher’s research group, focusing on nuclear reactions critical to understanding energy production and element formation in stars and explosive stellar environments. His work leverages the Nuclear Science Laboratory’s accelerators to support faculty, graduate, and undergraduate researchers. Additional research includes developing a Particle Induced X-Ray Emission (PIXE) setup using the FN tandem accelerator and leading JINA’s PIXE PAN program, which brings physics education to high school teachers and students through annual summer workshops. Stech holds a B.S. (magna cum laude, 1995), M.S. (2001), and Ph.D. (2004) in Physics from the University of Notre Dame. His research emphasizes accelerator-based studies of neutron capture reactions, resonance strengths, and detector instrumentation. Key projects include the HECTOR gamma-ray spectrometer for γ-process studies and the Neutron Target Demonstrator (NTD) for irradiation experiments. His contributions span interdisciplinary collaborations across campus and with external institutions. His recent publications (2023–2025) highlight advancements in resonance strength measurements, accelerator applications, and experimental techniques for nucleosynthesis studies. These include analyses of reactions like 22Ne(α,n)25Mg, 92Mo(p,γ)93Tc, and 15N(α,γ)19F, with implications for stellar energy production and element formation. Stech’s work also advances applied technologies such as the LENZ neutron detection system and the PIXE education program.

• Molecular Biology
• Epigenetics
• Neurodegenerative Diseases
• +۳ مورد دیگر

Jyotsna Kumar is an Associate Research Scientist in the Department of Laboratory Medicine at Yale School of Medicine. Her research spans molecular genetics, epigenetics, and neurodegenerative diseases, with a focus on prion toxicity, protein aggregation, and heterochromatin assembly mechanisms. She also contributes to interdisciplinary fields like biomedical engineering and nuclear medicine through studies on radiation dosimetry and accelerator technology. Education and Background: While her specific educational background isn't detailed here, her appointments and publications suggest advanced training in molecular biology, genetics, and engineering disciplines. Research Interests: Dr. Kumar’s work explores the molecular basis of epigenetic regulation, particularly through RNA-DNA interactions and heterochromatin dynamics in fission yeast. She investigates how J-proteins mitigate amyloid toxicity and prion propagation, with implications for neurodegenerative diseases. Additionally, she applies engineering principles to medical diagnostics, including radiation dosimetry for prostate cancer imaging. Key Contributions: Her recent studies highlight innovations in understanding siRNA-DNA hybrid roles in chromatin formation, human antiamyloid chaperones’ protective roles, and RF power distribution in particle accelerators. These contributions bridge basic science and translational applications. Grants and Awards: No specific grants or awards are listed in the provided text. Labs and Teams: Her research likely integrates with Yale School of Medicine’s Laboratory Medicine departmental initiatives, though specific lab affiliations aren’t detailed here.

• Nuclear Astrophysics
• Nucleosynthesis
• Stellar Evolution
• +۴ مورد دیگر

Dr. Sophia Florence Dellmann is a researcher at the Department of Physics (FB 13) of Goethe University Frankfurt . She is affiliated with the Institute for Applied Physics and contributes to experimental nuclear astrophysics research focused on understanding the origin of elements through stellar nucleosynthesis processes. Research Interests: Her work centers on nuclear reactions under stellar conditions, particularly studying neutron capture processes (s-process) and explosive nucleosynthesis mechanisms. She employs advanced experimental techniques in storage rings to measure reaction cross-sections and emission probabilities, contributing to our understanding of stellar interiors and element formation. Publications: Her recent 2025 publications highlight advancements in neutron detection technology, simultaneous gamma-neutron emission measurements, and nuclear reaction studies using stored rare ion beams. These works span subfields like astrophysical simulations, radiation instrumentation, and nuclear decay dynamics. Contact: She can be reached at the Institute for Applied Physics via email at dellmann@iap.uni-frankfurt.de or by phone at +49-69-798-47413.

• Space Weather
• Space Plasma Physics
• Radiation Belt Dynamics
• +۳ مورد دیگر

Richard Horne is a Distinguished Research Scientist at the British Antarctic Survey (BAS) and Visiting Professor at the University of Sheffield. He holds the highest Individual Merit Promotion (Band 1) across UKRI and serves on the BAS Executive Team since 2014. His career spans over four decades, beginning as a Higher Scientific Officer at Rutherford Appleton Laboratory (1981–1984) before joining BAS in 1984. He earned his PhD in space plasma physics from the University of Sussex (1982) and a Doctor of Science from the University of Cambridge (2020). His research focuses on wave-particle interactions in Earth’s magnetosphere, relativistic electron dynamics in Van Allen radiation belts, and space weather hazard mitigation. Key achievements include developing the HOTRAY wave propagation model and contributing to international projects like SPACECAST and CLUSTER. His work has advanced forecasting systems for satellite radiation exposure and European space weather capabilities. Horne has published over 230 papers with an h-index of 70. Notable awards include the Royal Astronomical Society Gold Medal (2022), Fellowship of the Royal Society (2021), and the International Kristian Birkeland Medal (2020). His research bridges theoretical plasma physics with applied space weather science, addressing global technological risks from space environments. Contributions to planetary science include studies of Jupiter and Saturn’s radiation belts, demonstrating universal plasma physics principles. He collaborates internationally, leading initiatives to improve space weather risk assessments and satellite resilience against geomagnetic storms.

• Materials Science
• Nuclear Engineering
• Mechanical Engineering
• +۶ مورد دیگر

Dr. Ming Jiang is a Postdoctoral Research Associate at the Department of Engineering Science, University of Oxford, affiliated with the Science and Technology Facilities Council (STFC). His research focuses on advanced materials for extreme environments in nuclear and aerospace applications. Education: PhD in Physics from University of Bristol (2024) Master of Engineering (MEng) from University of Bristol Master of Science (MSci) from University of Bristol His work explores thermomechanical properties of nuclear graphite, TRISO fuel particles, and high-entropy alloys through multiscale experiments and modeling. Current projects include DUNE-LBNF Phase II collaboration and industrial testing with EDF Energy/NNL. Research trends: Recent publications emphasize irradiation damage analysis, cryogenic fracture mechanics, and in situ imaging techniques for materials under extreme conditions. Key methods include peridynamic modeling, Raman spectroscopy, and 4D tomographic imaging. Collaborations: Engages with Fermilab (USA), UK National Nuclear Laboratory (NNL), EDF Energy, ISIS Neutron and Muon Source, and UK Atomic Energy Authority (UKAEA). Labs: Works within Oxford's Solid Mechanics research group, utilizing beamline experimental facilities for material characterization.

James J. De Yoreoمشاهده پروفایل

استاد مدعو

• Biophysics
• Materials Science
• Physical Chemistry
• +۳ مورد دیگر

James J. De Yoreo is an Affiliate Professor of Chemistry and Materials Science & Engineering at the University of Washington, Seattle. His research focuses on understanding and manipulating interactions at solid-liquid interfaces in nanoscale, biological, and environmental systems using advanced in situ microscopy techniques like TEM and AFM. He holds a Ph.D. in Chemistry from Cornell University (1985). His research interests span biophysics, materials science, and environmental mineralogy, with a focus on biomineralization, protein aggregation, and crystal growth mechanisms. He leads a multidisciplinary group investigating topics such as oriented attachment in nanoparticle assembly, biomimetic mineral formation, and nanomaterial synthesis. His work bridges fundamental science and applied technologies, including energy materials and biomedical applications. De Yoreo has received prestigious recognition, including the 2025 Fred Kavli Distinguished Lecturer in Materials Science. His lab actively collaborates with institutions like Pacific Northwest National Laboratory (PNNL), leveraging cutting-edge tools to study dynamic processes at the atomic scale. He advises graduate students in areas like molecular engineering and nanotechnology. Key research themes include: Controlled mineralization using biomimetic polymers In situ visualization of nucleation and growth pathways Impact of solvents and additives on crystal morphology Design of 2D materials and peptoid-based nanomembranes His group’s innovations aim to advance fields from clean energy to biomedical implants through a deep understanding of atomic-scale processes.

Ricardo Eusebiمشاهده پروفایل

استاد

• High-Energy Physics
• Particle Physics
• Standard Model
• +۴ مورد دیگر

Ricardo Eusebi is a Professor at Texas A&M University, affiliated with the CMS collaboration at the Large Hadron Collider (LHC) in Switzerland. He specializes in high-energy physics, focusing on fundamental particle interactions, electroweak symmetry breaking, supersymmetry, and lepton flavor universality violation. His research leverages particle accelerator data to explore new physics beyond the Standard Model, including Higgs boson properties and B-meson decay anomalies. His institutional partnerships include the Mitchell Institute for Fundamental Physics & Astronomy, CMS Detector at the LHC, and the LPC at Fermilab. Key contributions include developing high-performance track-fitting algorithms for ultra-fast electronics, as published in Nuclear Instruments and Methods in Physics Research . Eusebi advises a research team comprising Valeria D’Amante, Patrick Flanagan, and others. His work is funded by the U.S. Department of Energy, State of Texas, and Texas A&M’s Mitchell Institute. He has been a CMS member since 2003, contributing to the Higgs boson discovery and subsequent precision measurements.

• Quantum Optics
• Gravitational Theory
• Quantum Thermodynamics
• +۴ مورد دیگر

Anatoly Svidzinsky is a Research Professor at Texas A&M University, specializing in advanced theoretical and applied physics. His research focuses on quantum optics, gravitational theories, and quantum thermodynamics, with notable contributions to black hole physics, vector gravity models, and quantum heat engine design. His work bridges fundamental physics with practical applications in photonics and condensed matter systems. Key research areas include: Quantum phenomena in black holes and de Sitter space Vector gravity models challenging general relativity Quantum coherence effects in energy systems Entanglement in relativistic systems (Unruh, Hawking radiation) Condensed matter dynamics and Bose-Einstein condensation Recent work explores novel applications of quantum theory in biology, photonic energy systems, and antenna engineering. His interdisciplinary approach integrates classical and quantum frameworks, as seen in his reinterpretation of Bohr's molecular model and vector gravity's implications for dark energy solutions. Publications highlight innovations in transient lasing without inversion, parametric resonance applications, and experimental designs for gravitational wave detection. His research often emphasizes coherence-driven enhancements in energy transfer and signal detection, with potential impacts on quantum computing and renewable energy technologies.

• Architecture
• Design
• Building
• +۵ مورد دیگر

Gwyllim Jahn is a Lecturer in Architectural Design at RMIT University, working within the School of Architecture, Urban Design (AUD). His academic position focuses on bridging traditional architectural practices with cutting-edge digital technologies, particularly in the realm of augmented and mixed reality applications for design and construction. Dr. Jahn's research spans multiple disciplines including Architecture, Design, Artificial Intelligence, and Human-Centered Computing. His work demonstrates a consistent focus on integrating digital technologies with physical construction processes. Key areas of investigation include: Augmented Reality applications for precision construction Mixed Reality interfaces for collaborative design and fabrication Digital fabrication techniques for timber and steel structures Holographic construction guidance systems AI-assisted design processes Analysis of his recent publications reveals a strong trajectory toward practical applications of mixed reality technologies in architectural construction. His 2022-2024 works demonstrate increasing sophistication in using AR for high-precision fabrication, with measurable accuracy improvements achieving tolerances as low as 0.97mm. The research shows a clear evolution from theoretical exploration to practical implementation with quantifiable results in construction efficiency and precision. Dr. Jahn has collaborated with numerous researchers including Newnham C, van den Berg N, and others, indicating an active research network. His work has been presented at prestigious conferences including CAADRIA and ACADIA, suggesting successful acquisition of research funding for projects focused on digital architectural technologies. His research appears to involve laboratory or workshop settings for testing digital fabrication techniques, with documented real-world applications such as using holographic construction methods with expert bricklayers who completed wall sections in a fraction of expected construction time while maintaining industry-standard tolerances.