جست‌وجوی استاد و پژوهشگر

• Relativistic Heavy Ion Physics
• High Energy Nuclear Physics
• Transverse Momentum Physics
• +۷ مورد دیگر

Saehanseul Oh is an Assistant Professor in the Department of Physics and Astronomy at Sejong University, specializing in Relativistic Heavy Ion Physics and High Energy Nuclear Physics. His research focuses on understanding the fundamental properties of nuclear matter under extreme conditions created in high-energy collisions. B.S. (2010) from Seoul National University Ph.D. (2017) from Yale University 2017-2020: Postdoctoral associate at Yale University - Brookhaven National Laboratory 2020-2022: Postdoctoral associate at Lawrence Berkeley National Laboratory 2022-Present: Assistant Professor at Sejong University Dr. Oh's research interests center on Relativistic Heavy Ion Physics and High Energy Nuclear Physics, with specific expertise in transverse momentum physics, charged particle physics, hadron physics, nucleon physics, meson physics, center of mass physics, Large Hadron Collider physics, and cross section engineering. His work primarily involves high pT and jet measurements in the STAR experiment at RHIC and developing correlation measurement methodologies for the ALICE experiment at the LHC. Analysis of Dr. Oh's recent publications (2024-2025) reveals a strong focus on advanced measurements in heavy ion collisions across multiple facilities including the LHC and RHIC. His research spans femtoscopic studies of hadron emission, direct photon production, hypernuclei measurements, flow phenomena in various collision systems, and detailed investigations of strangeness and charm production. The work demonstrates sophisticated methodologies for extracting fundamental nuclear physics parameters from complex collision data. Dr. Oh is actively involved in major international collaborations, particularly with the ALICE and STAR experiments. His laboratory work centers around the Relativistic Heavy Ion Physics Group at Sejong University, which focuses on analyzing data from cutting-edge particle colliders to understand the quark-gluon plasma and other fundamental aspects of nuclear matter.

• Particle Physics
• Nuclear Physics
• Experimental Physics
• +۴ مورد دیگر

Antonino Buttacavoli is a Researcher (PHYS-06/A) at the Department of Physics and Chemistry - Emilio Segrè at the University of Palermo. He maintains regular office hours on Wednesdays from 11:00 to 13:00 at the Department of Physics and Chemistry, Viale delle Scienze, Building 18, Palermo. His research is primarily conducted in collaboration with the DAΦNE collider facility. Dr. Buttacavoli's research focuses on kaonic atoms and X-ray spectroscopy , with particular expertise in CZT (Cadmium-Zinc-Telluride) detector technology . His work bridges particle physics, nuclear physics, and advanced detector development, with a strong emphasis on precision measurements of exotic hadronic atoms. He has made significant contributions to the SIDDHARTA-2 experiment at the DAΦNE collider, investigating kaonic atoms across various elements from helium to lead. Analysis of his recent publications reveals a clear research trajectory centered on advancing precision measurements of kaonic atoms through innovative detector systems. His work on CZT detectors represents a critical technological advancement for X-ray spectroscopy in challenging collider environments. The research spans fundamental tests of quantum electrodynamics in exotic systems, precision determination of kaon properties, and investigation of strong interaction effects in hadronic atoms. Dr. Buttacavoli's experimental approach combines sophisticated detector development with precision spectroscopy techniques, contributing to our understanding of hadron-nucleus interactions at low energies. His publications demonstrate a consistent focus on improving measurement precision and developing novel detection methodologies for challenging physics measurements.

Maxim Pospelovمشاهده پروفایل

استاد

• Dark Matter
• Standard Model
• Particle Physics
• +۷ مورد دیگر

Maxim Pospelov is a Professor at the William I. Fine Theoretical Physics Institute and the School of Physics and Astronomy at the University of Minnesota. His research spans precision tests of the Standard Model, dark matter characterization, and novel high-energy physics phenomena. Research Focus: Key areas include Dark matter interactions and their cosmological implications Exploration of baryon number violation via muon-induced processes Chiral symmetry and nucleon structure in QCD Spin forces in muon physics and pseudoscalar couplings Applications of theoretical physics to cosmological models Recent Publications highlight advancements in dark matter catalyzed baryon destruction, muon spin forces, and chiral properties in nucleon interactions. Collaborations span high energy theory and astroparticle physics. Labs & Teams: Affiliated with the William I. Fine Theoretical Physics Institute, focusing on interdisciplinary theoretical research.

Garth Huberمشاهده پروفایل

استاد

• Hadron Physics
• Particle Physics
• Experimental Physics
• +۳ مورد دیگر

Garth Huber is a Professor in the Department of Physics within the Faculty of Science at the University of Regina. He maintains an active research program focused on experimental particle physics and teaches several advanced undergraduate and graduate physics courses. Professor Huber's research centers on Experimental Studies of Hadron Structure with Electron and Photon Beams . His work aims to understand how quark and gluon interactions give rise to the observed properties of hadrons - the fundamental building blocks of matter. This research addresses one of physics' top unsolved problems: the nature of the strong force where quark confinement dominates. His experimental program seeks unprecedented accuracy in measuring particle properties to better understand their underlying quark-gluon structure. Professor Huber teaches Physics 442: Introduction to Elementary Particle Physics, Physics 800: Classical Electrodynamics, and specialized courses Physics 838 and 839 on The Structure of the Proton. He actively mentors undergraduate students through the NSERC Undergraduate Student Research Awards program, which is available to Canadian citizens and permanent residents. His experimental work is conducted at major international facilities including Hall C at Jefferson Lab in Newport News, Virginia, and experimental area A2 of the Institute of Nuclear Physics in Mainz, Germany, providing students with opportunities to participate in world-class research.

Alexandru Andreiمشاهده پروفایل

استاد

• Theoretical Nuclear Physics
• Particle Physics
• Quantum Chromodynamics (QCD)
• +۳ مورد دیگر

Alexandru Andrei is a Professor of Physics at George Washington University, affiliated with the Department of Physics within the Columbian College of Arts and Sciences. His expertise lies in theoretical nuclear and particle physics, with a focus on lattice quantum chromodynamics (QCD), quantum computing applications to gauge theories, and non-perturbative methods in high-energy physics. Research interests include the study of QCD dynamics at finite temperature, hadron structure (polarizabilities, form factors), and numerical techniques to address challenges in lattice simulations such as the sign problem. He explores novel approaches for quantum algorithms targeting bosonic and fermionic field theories, including qubitization strategies and complex path integration methods. Recent work emphasizes infrared QCD phenomena, pion electromagnetic properties, and the development of efficient computational frameworks for lattice gauge theory and quantum computing. His contributions address fundamental questions in particle physics, such as the nature of the QCD vacuum, quark-gluon dynamics, and the implementation of gauge theories on quantum hardware. Publications since 2023-2024 highlight advancements in polarizability calculations, solutions to variance issues in fermionic systems, and innovative methods for simulating frustrated quantum systems. His research bridges theoretical innovation with computational breakthroughs, aiming to resolve longstanding challenges in both lattice field theory and quantum information science.

Jochen Wambachمشاهده پروفایل

استاد

• Medium modifications of hadrons
• Relativistic heavy-ion physics
• Structure of hadronic matter
• +۵ مورد دیگر

Jochen Wambach is a Full Professor at the Institute for Nuclear Physics, Technical University Darmstadt, Germany. He also serves as Head of the Theory Group 'Hadrons and QCD' at GSI, Darmstadt since 2004 and maintains an Adjunct Professor position at the Department of Physics, University of Illinois, Urbana-Champaign since 1996. His academic career includes previous appointments as Full Professor at UIUC (1990-1996), Associate Professor at the University of Bonn (1990-1995), and Deputy Director at the Institute for Nuclear Physics, Forschungszentrum Jülich (1990-1995). His educational background includes: Dr.rer.nat. (PhD) 1979, Physics Department, University of Bonn Dipl.Phys. 1976, Physics Department, University of Bonn Professor Wambach's research focuses on theoretical nuclear physics with particular emphasis on: Medium modifications of hadrons Relativistic heavy-ion physics Structure of hadronic matter Nuclear astrophysics Nuclear structure physics Effective field theories His publication record demonstrates expertise in quantum chromodynamics, phase transitions, and applications to astrophysical environments. His work frequently employs advanced theoretical frameworks including Dyson-Schwinger equations, functional renormalization group approaches, and studies of color superconductivity. Professor Wambach has received significant recognition including: Fellow of the American Physical Society (2003) Elected Member of the Wissenschaftliche Gesellschaft der Universität Frankfurt (2014) He has served the academic community extensively through editorial roles as Associate Editor of the European Journal of Physics A (2007-2014) and Divisional Editor of Physical Review Letters (2007-2014), as well as membership on numerous program advisory committees including those at GSI, LAMPF, and the American Physical Society. With 221 refereed publications and over 6,730 citations (h-index 43), Professor Wambach remains an active contributor to nuclear physics research.

Richard G. Milnerمشاهده پروفایل

استاد

• Nuclear Physics Experiment
• Quantum Chromodynamics (QCD)
• Spin Structure of Nucleons
• +۳ مورد دیگر

Richard G. Milner is a Professor of Physics at MIT since 1988. He leads research in nucleon/nuclear structure using lepton probes, with a focus on QCD and spin observables. His experimental work spans SLAC, MIT-Bates, DESY, and Jefferson Lab. He directed MIT’s Bates Linear Accelerator Center (1998–2006) and the Laboratory for Nuclear Science (2006–2015). Notable honors include the APS Tom W. Bonner Prize (2020), Humboldt Prize (2011), and APS Fellow status (2007). Educations: B.Sc./M.Sc. (UCC, 1978–1979), Ph.D. (Caltech, 1985). Research: Spin structure of protons, electronuclear experiments, proton visualization projects (e.g., Visualizing the Proton documentary). Labs/Teams: Hadronic Physics Group (HPG), affiliated with MIT’s Laboratory for Nuclear Science (LNS). Leadership: Advocacy for the Electron-Ion Collider (EIC), co-recipient of the Buechner Teaching Award (2018). His work bridges art and science, exemplified by collaborations with filmmakers and animators to depict subatomic phenomena. Current interests include QCD dynamics and gluon states in nuclei.

• Experimental Nuclear Physics
• Experimental Particle Physics
• Parity-Violating Electron Scattering
• +۷ مورد دیگر

D.S. Armstrong is the Chancellor Professor of Physics at the College of William & Mary , where he leads a research group focused on experimental nuclear and particle physics. He conducts major experiments at Jefferson Lab, including Qweak, PREx, CREx, and the upcoming MOLLER experiment, all aimed at precision tests of the Standard Model through parity-violating electron scattering. Chancellor Professor of Physics, College of William & Mary Primary research site: Jefferson Lab, Newport News, VA Research group leads in precision weak interaction measurements and hadronic structure Education B.Sc., McGill University, 1981 M.Sc., Queen's University, 1984 Ph.D., University of British Columbia, 1988 Armstrong's research centers on experimental nuclear and particle physics , particularly precision measurements of the proton's weak charge and the neutron skin in nuclei. His group uses polarized electron beams to probe parity-violating asymmetries in electron-nucleus scattering, providing stringent tests of the Standard Model and insights into quark contributions to nucleon structure. His work on the G0 experiment explored strange quark effects, while Qweak delivered the first direct measurement of the proton’s weak charge, published in Nature (2018). Current efforts focus on the MOLLER experiment , which will achieve even higher precision in weak mixing angle measurements. The recent publications reflect a strong trend toward precision electroweak physics , with increasing focus on detector calibration , tracking efficiency , and background suppression in next-generation experiments like MOLLER. The subfields span parity violation, hadronic structure, strange quark contributions, and advanced simulation techniques using GEANT4. Scientific Awards: Monica Potkay Advisor of the Year, 2022 Armstrong has advised over 30 PhD and senior thesis students, many of whom have pursued academic and research careers at institutions like MIT, Stanford, Jefferson Lab, and NASA. His research is supported by the National Science Foundation (NSF) and Department of Energy (DOE), including recent funding for the MOLLER experiment from NSF and the Canadian Foundation for Innovation (CFI). He also contributes to broader scientific service, including faculty governance and development of open-source educational resources like the Virginia Physics Flexbook. His team collaborates extensively with national laboratories, particularly Jefferson Lab, and includes active graduate students such as Ezekiel Wertz, Kate Evans, and Tasneem Raza. The group emphasizes both experimental hardware development and advanced data analysis, including machine learning applications for particle identification and track reconstruction.

Ivica Picekمشاهده پروفایل

استاد

• Particle Physics
• Cosmology
• Quantum Field Theory
• +۳ مورد دیگر

Ivica Picek is a Full Professor at the Faculty of Science, University of Zagreb, affiliated with the Theoretical Physics Division of Particles and Fields. His primary research focuses on particle physics and cosmology, with significant contributions to understanding CP violation, kaon decays, quantum chromodynamics, and the interface between particle physics and cosmology. His research interests span several key areas in theoretical physics: Elementary particle physics and the Standard Model CP violation mechanisms in particle decays Quantum chromodynamics in both perturbative and non-perturbative regimes Cosmological models connecting particle physics to the early universe Neutrino interactions and physics beyond the Standard Model Professor Picek's publications demonstrate a consistent focus on kaon physics, particularly rare decay processes like K L → π 0 γγ, where he has investigated both short-distance and long-distance QCD effects. His recent work frequently explores the role of quantum anomalies, instanton contributions, and radiative corrections in particle interactions. The publication trend shows increasing attention to precision tests of the Standard Model through rare decays and neutrino interactions. He has supervised several students in particle physics research, including I. Puljak, I. Furic, and D. Horvatić. His teaching responsibilities include courses on Elementary Particle Physics and Physical Cosmology at both undergraduate and graduate levels.

• High-Energy Nuclear Physics
• Experimental Physics
• Particle Physics
• +۴ مورد دیگر

You Zhou is an Associate Professor at the Niels Bohr Institute , University of Copenhagen, leading the Experimental Subatomic Physics group. With a focus on Quark-Gluon Plasma (QGP) studies via the ALICE collaboration at CERN since 2010, his work leverages anisotropic particle expansion to probe QGP properties, including shear viscosity and thermalization. Principal Investigator of Villum Young Investigator project (2019–2024) on creating the "smallest droplet of early universe" Over 450 publications in experimental nuclear/particle physics Organized major international conferences including Initial Stages 2023 and Quark Matter workshops His research bridges high-energy nuclear physics , particle correlations , and collective flow , supported by grants from the Carlsberg Foundation , DFF-Sapere Aude , and Villum Foundation . He supervises students from bachelor projects to PhDs, including award-winning theses from Katarina Gajdosova and Vojtech Pacik . Key awards include the Villum Young Investigator (2019) and Carlsberg Postdoctoral Fellowship (2016). Recent lectures span the Nordic Winter School and Peking University . His work on femtoscopy, hypernuclei, and photon production has advanced understanding of early universe conditions and matter formation.

Vincent BARRAمشاهده پروفایل

استاد

• Data Analysis
• Image Processing
• Video Processing
• +۶ مورد دیگر

Vincent BARRA is a full professor in Computer Science at the LIMOS lab of Clermont-Auvergne University and CNRS. He serves as Vice dean of Clermont-Auvergne-INP (education and training), Assistant director of LIMOS, and Artificial Intelligence Special Advisor for Clermont-Auvergne University. He is also a member of the scientific board and Executive committee of MIAI Cluster. His academic work is primarily conducted through ISIMA, the engineering school in computer science of Clermont-Auvergne INP. Professor BARRA's research focuses on data analysis from both methodological and applicative perspectives. His work spans image and video processing, mesh processing, computational geometry, and machine/deep learning techniques. His interdisciplinary research connects computer science with applications in medical imaging, geothermal systems, polymer dynamics, mental health diagnostics, semiconductor manufacturing, and environmental monitoring. His publications demonstrate consistent innovation in developing algorithms for segmentation, feature extraction, and pattern recognition across diverse domains. The analysis of his recent publications reveals strong trends toward deep learning applications in specialized domains. His work shows increasing focus on medical applications (depression diagnosis, preterm birth prediction), geoscience (geothermal systems analysis), and industrial applications (semiconductor metrology, structural health monitoring). A consistent theme across his research is the development of robust, domain-specific deep learning architectures that address unique challenges in data analysis across different scientific fields. Professor BARRA maintains active collaborations across multiple institutions and disciplines, as evidenced by his extensive co-authorship network. His work bridges theoretical computer science with practical applications in diverse fields, demonstrating a commitment to solving real-world problems through innovative computational approaches. He leads research within the LIMOS laboratory, which focuses on computer science, modeling, and systems optimization.

Jim Harkinمشاهده پروفایل

استاد

• Embedded Systems
• Neural Networks
• Hardware Systems
• +۵ مورد دیگر

Professor Jim Harkin serves as Head of the School of Computing, Engineering and Intelligent Systems at Ulster University's Magee Campus in Derry~Londonderry. He is a prominent member of the Computational Neuroscience and Neuromorphic Engineering team within the Intelligent Systems Research Centre (ISRC), where he leads cutting-edge research bridging biological neural processes with hardware implementations. Harkin's research focuses on developing intelligent embedded systems capable of self-repair under error conditions, drawing inspiration from neural network models. His work explores how computer models of neural networks can be mapped to hardware to build highly efficient and reliable embedded computers. Key innovations include Networks-on-Chip strategies and hardware implementation of self-repairing Spiking Neural Networks. His research spans multiple domains including fault tolerance, neuromorphic computing, and AI hardware acceleration, with applications in healthcare, structural monitoring, and energy systems. Analysis of his recent publications reveals a strong trend toward practical applications of neuromorphic computing, particularly in healthcare monitoring systems, structural health assessment, and energy-efficient computing. His work shows increasing integration of spiking neural networks with real-world hardware implementations, demonstrating a clear trajectory from theoretical models to deployable systems with commercial applications. Harkin has received numerous scientific accolades including the Life and Health Startup Company of the Year 2019 from InventNI Ulster Distinguished Learning Support Fellowship Multiple awards for innovative routing strategies in neural network hardware implementations Professor Harkin has secured significant research funding exceeding £3.5 million from diverse sources including EPSRC, MRC, Innovate UK, HSC R&D, InvestNI, and DEL. His grant portfolio demonstrates strong industry and healthcare sector engagement, particularly through his co-founded startup Respiratory Analytics which focuses on medical analytics. He has supervised numerous research students and has been instrumental in Ulster University's Computer Science submissions to major research assessment exercises including RAE 2008, REF2014, and REF2021. As Head of School and leader within the Intelligent Systems Research Centre, Harkin oversees multiple research teams focusing on computational neuroscience, neuromorphic engineering, and intelligent embedded systems. His lab has developed specialized FPGA-based platforms for simulating and implementing self-repairing neural networks, including the AstroByte multi-FPGA architecture for accelerated simulations of fault-tolerant spiking astrocyte-neuron networks.

Frank Petrielloمشاهده پروفایل

استاد

• Precision QCD
• Hadron Collider Physics
• New Physics Searches
• +۳ مورد دیگر

Frank Petriello is a Professor of Physics at Northwestern University, specializing in precision QCD calculations and collider phenomenology. He holds a PhD from Stanford University (2003) and focuses on improving Standard Model predictions for hadron collider observables and developing strategies for new physics searches at the Large Hadron Collider (LHC) and future colliders. His work emphasizes ultra-precise theoretical comparisons with experimental data, particularly in Drell-Yan processes, Higgs boson production, and Standard Model Effective Field Theory (SMEFT) applications. Key research areas include precision QCD calculations, electroweak physics, and the development of novel techniques for analyzing collider data. Petriello has contributed to studies of the Future Circular Collider (FCC), Electron-Ion Collider (EIC), and high-luminosity LHC upgrades. His theoretical frameworks address challenges in proton structure, parton distribution functions, and dimension-8 SMEFT operators. Education: PhD in Physics, Stanford University, 2003 His recent work explores renormalization-group running of four-fermion operators in SMEFT, transverse spin asymmetries at FCC-ee, and the impact of Drell-Yan data on BSM model fits. He has co-authored influential papers on W/Z boson production, Higgs+jet processes, and jet substructure at NNLO accuracy. Awards: U.S. Department of Energy Outstanding Junior Investigator Award Alfred P. Sloan Foundation Research Fellowship Fellow of the American Physical Society Petriello collaborates on major international initiatives like the Future Circular Collider conceptual design and the Electron-Ion Collider theory alliance. His research bridges theoretical predictions with experimental capabilities, emphasizing precision measurements to uncover physics beyond the Standard Model.

D. Mark Manleyمشاهده پروفایل

استاد

• Nuclear Physics
• Hadronic Physics
• Baryon Resonances
• +۳ مورد دیگر

Roles & Affiliations: Professor and Undergraduate Coordinator in the Department of Physics at Kent State University since 1986. Active in the Baryon Resonance Analysis Group, CB@MAMI Collaboration, and JLab Hall A Collaboration. Research collaborations include the Crystal Ball experiment at Mainz and studies at MAMI. Education: Ph.D. in Physics from the University of Wyoming (1981), postdoctoral research at Virginia Polytechnic Institute (1981–1984) and Lawrence Livermore National Laboratory (1984–1986). Research Interests: Focus on baryon resonances, electron scattering, and partial-wave analyses. Explores nuclear structure through photonuclear reactions, meson photoproduction, and exotic hadron states like the d*(2380) hexaquark. Utilizes facilities like MAMI and JLab for precision measurements of proton polarizabilities and resonance parameters. Publications Trends: Recent work emphasizes helicity-dependent cross sections, polarized photon interactions, and signatures of exotic particles. Key topics include neutron polarization transfer, double-polarization observables in Compton scattering, and multi-meson photoproduction systems. Labs & Teams: Collaborates with the Crystal Ball/TAPS detectors team, Mainz Microtron (MAMI), and Jefferson Lab (JLab) facilities. Engaged in global partial-wave analysis frameworks to extract resonance parameters.

William H. Kinneyمشاهده پروفایل

استاد

• Inflationary Cosmology
• Dark Matter
• Dark Energy
• +۳ مورد دیگر

William H. Kinney is a Professor in the Department of Physics at the University at Buffalo, State University of New York (SUNY), where he has been on faculty since 2003. His research bridges Inflationary Cosmology , Dark Matter , and Dark Energy with experimental data from Cosmic Microwave Background (CMB) observations and particle accelerators like the Large Hadron Collider . He has held visiting positions at institutions including Yale University, Perimeter Institute, and Stockholm University. Education : BA in Physics from Princeton University (1986), PhD in Physics from University of Colorado, Boulder (1996) His research focuses on the physics of the early universe , particularly inflation , which explains the rapid expansion post-Big Bang. He uses data from robotic telescopes mapping billions of light-years and satellite detectors measuring CMB to study quantum fluctuations and their imprints on cosmic structure. Recent publications analyze thermal distortions in the cosmic neutrino background , axion dark matter searches , and constraints from swampland conjectures in string theory. His work spans inflationary dynamics , non-Gaussianity , and trans-Planckian physics . Scientific Awards : SUNY Chancellor's award for excellence in teaching (2014) He is author of the popular science book An Infinity of Worlds (MIT Press) and has contributed to workshops like the Buffalo-Case-Cornell-Syracuse Cosmology Workshop (2010). His collaborations include institutions such as Fermilab, CERN, and the DUNE and LHCb experiments.