جست‌وجوی استاد و پژوهشگر

• Single Event Effects
• Diamond detectors
• High-temperature sensors
• +۷ مورد دیگر

Helmut Frais-Kölbl is a Professor at the University of Applied Sciences Wiener Neustadt, where he serves as a Research Associate in the Department of Electrical Engineering within the School of Technology. His work focuses on advanced sensor systems and detector technologies for high-energy physics applications and extreme environment measurement systems. Professor Frais-Kölbl's primary research interests include: Single Event Effects and radiation detection systems Diamond detector development using chemical vapor deposition High-temperature solid-state sensors operating up to 500°C Beam monitoring systems for particle accelerators like the LHC Internet of Things applications for sports measurement His recent publication activity demonstrates a strong focus on detector systems for the Large Hadron Collider, particularly the ATLAS experiment. His work on the Beam Conditions Monitoring system represents cutting-edge development in radiation-hard sensor technology using polycrystalline CVD diamond materials. More recently, he has expanded his research into high-temperature sensor applications and IoT-based measurement systems like the Zelos time-speed measurement platform that operates in challenging outdoor conditions. Professor Frais-Kölbl is actively involved in research projects including: SEERad (2023-2025): Development and testing of measurement methods for single event effects Zelos (2020-2022): Development of an IoT-based time-speed measurement system for sports applications requiring temperature range optimization His laboratory work focuses on advanced sensor characterization and testing facilities, particularly for radiation effects and high-temperature performance. The research group maintains strong collaborations with international particle physics laboratories including CERN for LHC-related work, as evidenced by his numerous co-authored publications with large international teams.

• Neutrino Physics
• Particle Physics
• Neutrino Oscillations
• +۲ مورد دیگر

Richard W Gran is a Professor in the Department of Physics & Astronomy at the University of Minnesota Duluth. His work focuses on neutrino physics through major collaborations including DUNE, NOvA, and MINERvA. Current research involves detector development and neutrino interaction uncertainty analysis. Active Grant: RUI: Neutrino physics at Duluth with DUNE, NOvA, and MINERvA (NSF, 2023-2026) Recent Roles: PI for URA Visiting Scholar Program (2025), CoI for NSF grants Research Interests Gran's research spans neutrino oscillations , interaction cross sections , and advanced detector technologies . Key areas include: Development of Liquid Argon Time Projection Chambers for precision neutrino detection Experimental studies of hadron-argon interactions for beam calibration Analysis of antineutrino asymmetries and momentum transfer dynamics Publication Trends Recent work (2024) highlights technical advancements in the DUNE experiment , including modular detection systems , scintillation light optimization , and GeV-scale cross-section measurements .

• Physics
• Antineutrino Physics
• Muon Physics
• +۴ مورد دیگر

Lorna Cook is a researcher affiliated with King's College London , specializing in both physics and medical research . Her work spans fundamental particle physics (muon neutrinos, antineutrinos) and clinical studies in breast cancer surgery . Research interests include: Antineutrino Physics (T2K Collaboration, neutrino oscillations) Charged Particle Interactions (detector technology, scintillator materials) Breast Cancer (nerve preservation during surgery, metastatic carcinoma) Her contributions align with the UN Sustainable Development Goal 3: Good Health and Well-being . Recent publications focus on muon neutrino dynamics and experimental physics methodologies.

• Eating Disorders
• Perinatal Mental Health
• Network Meta-Analysis
• +۴ مورد دیگر

Giulia Martini is an active researcher with interdisciplinary contributions to both neutrino physics and mental health studies . Her work spans experimental particle physics collaborations like the T2K experiment and clinical research on eating disorders, perinatal mental health, and antipsychotic drug effects. Key Research Areas: Eating Disorders, Perinatal Mental Health, Network Meta-Analysis, Neutrino Physics. Recent Publications demonstrate expertise in: Bayesian statistical methods for neutrino experiments. Scoping reviews on parenting and eating disorders. Network meta-analyses of antipsychotic drugs in youth. Her affiliations with international collaborations like T2K and peer-reviewed work in journals such as The Lancet Child & Adolescent Health highlight her academic engagement.

Michael Wurmمشاهده پروفایل

استاد

• Neutrino Oscillations
• Astroparticle Physics
• Low-Energy Neutrino Physics
• +۶ مورد دیگر

Professor Dr. Michael Wurm is a leading figure in experimental particle and astroparticle physics at the Johannes Gutenberg University Mainz. Since 2014, he has held a W2 professorship at the PRISMA+ Cluster of Excellence, focusing on precision measurements in neutrino oscillations and detector development for low-energy neutrino experiments. His work bridges fundamental physics with international collaborations like BOREXINO, JUNO, and ANNIE. Appointments: PRISMA Professor for Experimental Particle Physics (2014–present) Prior Roles: Postdoc at TU Munich, University of Hamburg, University of Tübingen Research Focus: Neutrinos as probes for astrophysical phenomena and physics beyond the Standard Model. His current work emphasizes: Precision measurement of neutrino oscillation parameters Search for sterile neutrinos and FIPs Development of organic/water-based scintillators for JUNO and OSIRIS Neutrino astronomy of solar and supernova sources Notable Contributions: Key publications in Nature , Phys. Rev. D , and Astropart. Phys. His LENA concept (2012) and 2020 Nature solar neutrino study are seminal works. Collaborations span BOREXINO, Double Chooz, JUNO, and ANNIE experiments. Awards and Recognition: Excellence Cluster 'Universe' PhD Award (2009) Carl Zeiss Foundation Postdoc Scholarship (2013–2014) Leadership Roles: L2 manager for liquid scintillator/OSIRIS in JUNO, co-spokesperson of ANNIE experiment, member of PRISMA+ Steering Committee, deputy member of KAT, and participant in CERN SPSC. He leads detector R&D efforts for future experiments.

Shirin Pourashrafمشاهده پروفایل

پژوهشگر

• Medical Imaging
• Positron Emission Tomography (PET)
• Microelectronics
• +۴ مورد دیگر

Shirin Pourashraf is a Physical Science Research Scientist at Stanford University's School of Medicine, working within the Department of Radiology's Molecular Imaging and Instrumentations Laboratory (MIIL) under Professor Craig Levin. She leads a challenging Medical Imaging hardware project to build a 16-module partial-ring Time of Flight (TOF)-PET Scanner with 100 ps coincidence time resolution (CTR), focusing on designing compact high-speed and low-noise custom electronic readouts. Ph.D. in Electrical Engineering/Mixed-Signal Integrated Circuit (IC) Design from New Mexico State University (2018) Master of Science in Electrical Engineering/Microelectronics from Isfahan University Of Technology (2011) Bachelor of Science in Electrical Engineering from Shahid Chamran University of Ahvaz (2007) Dr. Pourashraf's research centers on advancing medical imaging technology, particularly in Time-of-Flight Positron Emission Tomography (TOF-PET) systems. Her work focuses on achieving unprecedented 100 ps coincidence time resolution through innovative electronic readout designs, custom circuit development, and optimization of detector components. Her expertise bridges microelectronics, VLSI design, and medical physics, with particular emphasis on improving signal-to-noise ratio in PET scanners through enhanced timing resolution. Her research has significant implications for cancer detection, as improved CTR can increase the ability to detect and quantify metastatic malignant lesions or reduce scanning times and radiation exposure for patients. Analysis of Dr. Pourashraf's publications reveals a consistent research trajectory focused on pushing the boundaries of TOF-PET technology. Her work demonstrates expertise in electronic circuit design for radiation detection, with particular emphasis on timing resolution optimization. The publications span medical physics, nuclear instrumentation, and electronics engineering, reflecting the interdisciplinary nature of her work. A notable trend is the progression from fundamental circuit design (earlier publications) toward integrated system development and novel detector configurations (more recent publications), with increasing focus on practical implementation challenges in clinical settings. Multiple IEEE NSS/MIC/RTSD Trainee Grants (2019-2024) Multiple Stanford Bio-X Travel Awards (2022-2024) Stanford Cancer Imaging Training (SCIT) Fellowship; NIH T32 Award (2022-2024) Valentin T. Jordanov Radiation Instrumentation Travel Grant (2022) NIH Research grants (1R01EB02512501 and 5R01CA21466903, 2019-2024) Xilinx University Donation Program equipment grant (2019) Outstanding Graduate Assistantship Award from New Mexico State University (2018) Dr. Pourashraf has secured significant research funding through NIH grants and has been actively involved in the Molecular Imaging and Instrumentations Laboratory at Stanford. Her work involves collaboration with multiple researchers and students, though specific advising relationships aren't detailed in the available information. The laboratory focuses on developing next-generation medical imaging instrumentation with emphasis on time-of-flight PET technology. As a key member of the Molecular Imaging and Instrumentations Laboratory (MIIL) at Stanford, Dr. Pourashraf contributes to a collaborative research environment focused on advancing medical imaging technology. Her current project involves building a 16-module partial-ring TOF-PET scanner with 100 ps CTR, which represents a significant advancement over current state-of-the-art systems that achieve 225-400 ps CTR. This work has direct implications for improving cancer imaging and detection capabilities.

Frank Wienholtzمشاهده پروفایل

پژوهشگر

• Experimental Nuclear Physics
• Radioactive Beam Physics
• Nuclear Mass Spectrometry
• +۳ مورد دیگر

Dr. Frank Wienholtz is a researcher at the Institute for Nuclear Physics (IKP) at Technical University of Darmstadt, Germany, specializing in experimental nuclear physics with radioactive nuclei. His work centers on precision measurements of exotic nuclei and development of novel experimental techniques for nuclear structure studies. His research focuses on: Nuclear mass spectrometry using Penning traps and multi-reflection time-of-flight devices Hypernuclear physics and antiproton annihilation studies with radioactive targets Investigations of nuclear fission mechanisms and shell effects in neutron-rich systems Development of beamlines and ion-optical systems for low-energy antiproton and ion beams Applications in nuclear astrophysics, particularly r-process nucleosynthesis Wienholtz is a key contributor to major international collaborations including PUMA (antiProton Unstable Matter Annihilation) at CERN, the HYPER hypernuclei factory project, and the NEXT setup for neutron-rich exotic nuclei. His recent publications demonstrate expertise in mass measurements of Ag, In, and noble gas isotopes, molecular beam production of radioactive actinides, and precision studies of nuclear charge radii using antiproton annihilation. These works frequently appear in high-impact journals covering nuclear structure, accelerator physics, and nuclear astrophysics.

• Particle Physics
• High Energy Physics
• Radiation Detection
• +۳ مورد دیگر

Professor Gianluigi Casse is a faculty member in the Department of Physics at the University of Liverpool, specializing in high-energy particle physics and radiation detection technologies. His work focuses on detector design, radiation-hard materials, and medical physics applications. Key research areas: Particle Physics, Silicon Sensor Development, Radiation Tolerance Leadership roles: ATLAS Upgrade Collaboration Board (2010-2012), CERN-RD50 Experiment (2010), LHCb-VELO Collaboration (2010) Recent publications (2025) analyze rare particle decays, CP symmetry breaking, and detector performance in high-energy experiments. These works span subfields including lepton universality, quark interactions, and Monte Carlo simulations. He has served as a PhD examiner at Universities of Barcelona, Valencia, Paris-Sud XI, Helsinki, and Madrid, and contributes to instrument design for proton therapy verification.

• Particle Physics
• High Energy Physics
• Experimental Physics
• +۳ مورد دیگر

Professor Andrew Mehta is a faculty member at the University of Liverpool , affiliated with the Department of Physics . His research focuses on Particle Physics , particularly in Experimental Physics and High Energy Physics , working extensively with the ATLAS Experiment at the LHC. Key research themes: Higgs boson studies, collider physics, and dark matter searches Active in teaching modules like Computational Modelling, Quantum Physics, and project supervision His work involves analyzing proton-proton collisions and optimizing cloud computing resources for large-scale experiments. Awards include the John Rutherglen Prize and a PPARC Advanced Fellowship . Organizing committee roles in international conferences (e.g., HERA, Tevatron) Referee for Physics Letters B and PhD examination roles globally

• Particle Physics
• High-Energy Physics
• Quantum Chromodynamics (QCD)
• +۴ مورد دیگر

Dr. Jan Kretzschmar is a Senior Lecturer in the Department of Physics at the University of Liverpool, actively contributing to experimental particle physics through the ATLAS and H1 collaborations. His work focuses on precision measurements of W and Z boson production, Higgs boson decays, and searches for beyond-Standard-Model phenomena at the LHC. Academic affiliation: University of Liverpool Key collaborations: ATLAS, H1 Research themes: QCD, proton structure, Higgs phenomenology His research spans precision electroweak measurements, dark matter exploration, and Monte Carlo generator development for detector simulations. He has led analyses of Drell-Yan cross sections, deep inelastic scattering, and Higgs decay modes, contributing to fundamental understanding of particle interactions. Recent publications include studies on jet energy calibration, W boson pair production, and top-quark-associated Higgs signals. He received the Guido Altarelli Award (2016) for his HERA contributions. Professional roles involve convening sessions at EPS-HEP and Moriond conferences, with teaching responsibilities in computational physics and W/Z boson luminosity monitoring.

• Neutrino Physics
• Dark Matter Research
• Particle Astrophysics
• +۲ مورد دیگر

Dr. Ellen Sandford is an active researcher in neutrino physics and dark matter detection, affiliated with major international collaborations including T2K and DarkSide-20k. Her work bridges experimental high-energy physics with advanced cryogenic engineering systems. Key research areas include: Neutrino-oxygen quasielastic interactions Dark matter particle sensitivity studies Underground argon cryogenics optimization Neutral-current scattering cross-section measurements Subatomic detection technology development Recent publications demonstrate specialization in accelerator neutrino experiments and noble gas detector design. Collaborative work spans institutions across 11 countries with contributions to Physical Review D and Communications Physics journals.

Paul Nolanمشاهده پروفایل

استاد

• Nuclear Physics
• Particle Physics
• Radiation Detection
• +۵ مورد دیگر

Prof Paul Nolan is a Professor at the University of Liverpool, specializing in Nuclear Physics , Particle Physics , and Radiation Detection research. His work bridges theoretical and experimental domains, with a focus on nuclear structure, detector development, and applications in Medical Imaging and High Energy Physics . Research Interests Nuclear structure studies at high spin and ultra-high spin states Development of gamma-ray and semiconductor radiation detectors Medical imaging technology (e.g., portable gamma cameras) Applications in dosimetry, nuclear dating, and security Scientific Awards & Collaborations Fellow of the Institute of Physics (1973 - present) Long-term involvement in AGATA (Advanced Gamma Tracking Array) and other large-scale experimental collaborations Grants & Professional Activities Prof Nolan has secured numerous grants from the Science and Technology Facilities Council , EPSRC , and European Commission for projects spanning nuclear physics, medical imaging, and detector innovation.

• Experimental Particle Physics
• Collider Physics
• High-Energy Physics
• +۶ مورد دیگر

Dr. James Ferrando is a Reader in Collider Experimental Particle Physics at the Department of Physics, Lancaster University. He contributes extensively to the ATLAS experiment at the LHC, focusing on top quark physics, Higgs boson studies, and Standard Model precision measurements. Research Interests: Experimental Particle Physics Top Quark Cross-Sections and Effective Field Theories Higgs Boson Production and Decays Jet Physics and Track Reconstruction Dark Matter and Exotic Particle Searches Scientific Awards: IPPP Associateship (2024–2025) PhD Students: Beltran Fernandez Barbadillo is advised by Dr. Ferrando, with additional collaboration with Sasha Jenkins. Contact: j.ferrando@lancaster.ac.uk

• Particle Physics
• Neutrino Interactions
• Dark Matter Detection
• +۴ مورد دیگر

Professor Jaroslaw Nowak is a faculty member in the Department of Physics at Lancaster University. He serves as Chair of the Nuclear & Particle Physics Theme Group and actively coordinates and teaches multiple advanced physics modules including Phys311 (Particle Physics) and Phys133 (IT Skills - LaTeX). As a leading figure in neutrino physics, he contributes to detector development and simulation software. Phys311 (Particle Physics) - Coordinator/Instructor Phys133 (IT Skills - LaTeX) - Coordinator/Instructor Phys450 (MPhys projects) - Report Moderator His research program focuses on experimental particle physics with particular emphasis on neutrino interactions, dark matter detection, and liquid argon detector technology. Key areas include resonance excitations, hyperon production, and nuclear effects in neutrino scattering. He leads the NuWro generator development and contributes to GENIE and NUANCE neutrino simulation frameworks. Recent publications highlight his work on neutrino cross-section measurements (MicroBooNE, DUNE), detector calibration (DarkSide-20k), and software development (ProtoDUNE-SP algorithms). His team investigates supernova neutrino detection capabilities and MeV-scale sensitivity in LArTPCs, while maintaining active participation in the DUNE, SBND, and MicroBooNE collaborations. Professor Nowak supervises PhD candidates including Krittika Adhikari and Bethany McCusker, while previous students like Dr. Christophe Thorpe and Dr. Adam Lister have completed neutrino interaction studies. His research receives support from STFC and MSCA grants, including DUNE-related projects and DarkSide travel funding.

• Beyond the Standard Model Phenomenology
• Quantum Field Theory
• Supersymmetry
• +۵ مورد دیگر

Professor Valentin Khoze is a distinguished academic in the Department of Physics at Durham University's Faculty of Science, where he also holds a position at the Institute for Particle Physics Phenomenology. His research focuses on theoretical particle physics with significant contributions to understanding fundamental aspects of the universe through advanced mathematical frameworks. His educational background and academic journey have led him to specialize in Beyond the Standard Model Phenomenology , Quantum Field Theory , Supersymmetry , Scattering Amplitudes , Non-perturbative Effects , and Gauge Theory / String Theory Dualities . His work bridges theoretical concepts with potential experimental verification at facilities like the LHC. Professor Khoze has published extensively on topics including monopoles, instantons, dark matter, and gravitational waves, with his most recent publications exploring frontier areas like magnetic monopole detection and gravitational wave signatures from cosmological phase transitions. His research trajectory shows consistent focus on non-perturbative phenomena in quantum field theory, with recent work expanding into connections between gravitational waves, dark matter, and beyond standard model physics. The publications reveal increasing collaboration with experimental physicists to develop testable predictions for next-generation detectors. Royal Society Wolfson Research Merit Award Professor Khoze currently supervises postgraduate research students including Wendy Gray, contributing to the next generation of theoretical physicists. His work has been supported by prestigious research funding that enables extensive collaboration with international research teams. The Institute for Particle Physics Phenomenology at Durham University provides the collaborative environment where his theoretical work connects with experimental efforts worldwide. Professor Khoze is an active member of the Institute for Particle Physics Phenomenology, participating in collaborative research groups that bridge theoretical predictions with experimental verification at facilities like the LHC and future colliders. His work contributes to Durham's strong reputation in theoretical particle physics.