Professor Guennadi Borissov is affiliated with the Department of Physics at Lancaster University , actively participating in the ATLAS experiment at CERN . His research focuses on CP violation in particles containing b quarks , aiming to explain the universe's matter-antimatter imbalance. Research Interests: Dr. Borissov investigates deviations from lepton flavor universality (LFU) using top quark decays to tauons. His work involves precision measurements of branching fractions and testing Standard Model predictions through ATLAS detector data . Recent Publications (2025): His contributions include studies on jet track functions, Higgs boson decays, W-boson cross-sections, and searches for new physics phenomena like heavy neutral leptons and long-lived particles. These articles emphasize Standard Model validation , CP violation , and detector performance . Grants & Projects: He is involved in responsive and consolidated grants funded by the STFC , supporting Lancaster's Experimental Particle Physics group and ATLAS-related research (2022–2026). PhD Supervision: Dr. Borissov supervises Beltran Fernandez Barbadillo , focusing on top quark decay measurements. Contact: Department of Physics, B016, B-Floor, Physics Building, Lancaster University. Email: g.borissov@lancaster.ac.uk .
Pearl Sandick is a Professor in the Department of Physics and Astronomy and Interim Dean in the College of Science at the University of Utah. She has previously served as Associate Chair of the Department of Physics and Astronomy and Associate Dean for Faculty and Research in the College of Science. Her academic journey at the University of Utah began in 2011 as an Assistant Professor, progressing to Associate Professor in 2017, and achieving the rank of Professor in 2022. Her educational background includes: BA in Mathematics from New York University (2003) PhD in Physics from the University of Minnesota (2008) Sandick is a theoretical particle physicist whose research focuses on physics beyond the Standard Model, with particular emphasis on dark matter. Her work spans theoretical modeling, connections to astrophysical observations, and implications for experimental detection. She investigates various dark matter candidates and their potential signatures in current and future experiments, including collider searches, direct detection experiments, and indirect detection through astrophysical observations. Her research also extends to connections between particle physics and cosmology, including early universe phenomena and implications for cosmic structure formation. She has developed computational tools like MADHAT for dark matter analysis and has made significant contributions to understanding how stellar evolution can constrain axion physics. Her scholarly contributions have been recognized with several prestigious awards: University of Utah Early Career Teaching Award (2016) University of Utah Distinguished Mentor Award Linda K. Amos Award for Distinguished Service to Women University of Utah Presidential Scholar Sandick has been actively involved in mentoring graduate students, as evidenced by her teaching of PhD thesis research and Master's research courses. She has secured significant research funding from the National Science Foundation and other agencies to support her work on dark matter, dark energy, and new physics. Her grant portfolio includes projects on theoretical particle physics, connections to astrophysical observations, and studies on graduate education reform following a departmental tragedy. She is an active member of the American Physical Society, having served as Chair of the regional Four Corners Section in 2021-2022, demonstrating her commitment to the broader physics community and leadership in her field.
Prof. Stanley Lai is a Professor of Experimental Particle Physics at the Institute of Physics, University of Göttingen, Germany, with secondary membership in the Institute of Informatics. He conducts research as a member of the ATLAS experiment at CERN's Large Hadron Collider (LHC), focusing on proton-proton collisions at 13/14 TeV to investigate fundamental particles and electroweak symmetry breaking. His educational background includes: B.A.Sc. from the University of Toronto (1999) M.Sc. from the University of Toronto (2001) Ph.D. from the University of Toronto (2007) Prof. Lai's research centers on precision measurements of the Higgs boson's properties—including quantum numbers and couplings—to deepen understanding of electroweak symmetry breaking. He actively pursues searches for new physics beyond the Standard Model at TeV energy scales, leveraging the unprecedented collision energies of the LHC. His work bridges theoretical predictions with experimental validation through the ATLAS detector. He joined the University of Göttingen in 2015 as a Professor, following his tenure as Akademischer Rat (permanent academic position) at the University of Freiburg (2011-2015) and Postdoctoral Researcher there (2006-2011).
Cynthia Yan is a Visiting Professor in the Physics Department at Stanford University, affiliated with the School of Humanities and Sciences. Her academic appointment was noted for the 2019 academic year. Her research focuses on theoretical physics with an emphasis on quantum gravity, string theory, supersymmetry, and black hole physics. She explores topics such as BPS black hole microstates, entanglement in quantum systems, and holographic dualities. Her work bridges advanced mathematical techniques with foundational questions in high-energy physics, including studies on wormholes, topological quantum field theories, and the interplay between QCD effects and particle physics observables like the Z boson forward-backward asymmetry. While specific grants or awards are not listed, her publications reflect engagement with cutting-edge theoretical frameworks and interdisciplinary methods. Though no student advisees are explicitly documented here, her contributions to areas like matrix theory and emergent spacetime suggest involvement in graduate-level research training. Contact information specific to her role is not provided in the available data.
Allen Mincer is a Professor of Physics and Collegiate Professor at New York University's College of Arts and Science, Department of Physics. He leads research in experimental high energy particle physics and astrophysics as a member of the NYU Experimental Particle Physics Group, with major contributions to the ATLAS and Milagro collaborations. His educational background includes a Ph.D. from the University of Maryland, College Park (1984) and a B.S. from Brooklyn College (1978). Mincer's research spans particle physics discoveries (top quark, Higgs boson) and cosmic ray astrophysics. He specializes in detector development, data analysis for high-energy collisions, and cosmic ray observations. His work integrates experimental physics with innovative educational approaches, particularly in physics pedagogy. Analysis of his publications (2020-2005) reveals dual research trajectories: LHC-focused studies on Higgs physics, supersymmetry searches, and trigger systems via ATLAS, alongside Milagro-based cosmic ray research mapping TeV emissions and anisotropies in the Galactic plane. His scientific recognition includes: Teach/Tech Award, New York University (2018) Collegiate Professor appointment at NYU (2008) Golden Dozen Teaching Award, NYU (1995, 2000) Mincer mentors undergraduate and graduate researchers while pioneering physics education through flipped classrooms, experimental pedagogy courses, and curriculum development for courses ranging from introductory physics to graduate particle physics. He actively contributes to the NYU Experimental Particle Physics Group, maintaining leadership roles in ATLAS detector operations and Milagro cosmic ray data analysis.
John Fox serves as an Adjunct Professor in the Department of Applied Physics within Stanford University's School of Humanities and Sciences, specializing in accelerator physics and energy systems optimization. His research bridges theoretical control methods with practical engineering applications in particle accelerators and sustainable transportation. Ph.D. in Applied Physics with minor in Electrical Engineering from Stanford University (1986) A.B. in Physics from Harvard University (1977) Professor Fox's research focuses on two primary domains: (1) accelerator physics including RF systems, beam dynamics, and instability control for particle accelerators, where he leads LARP projects for LHC LLRF techniques and electron-cloud instability mitigation; and (2) optimal control methods for improving energy efficiency in plug-in hybrid vehicles. His work combines advanced digital signal processing with practical instrumentation challenges in both synchrotron facilities and automotive systems. The research demonstrates consistent innovation in control theory applications across disparate physical systems. His publication record shows strong interdisciplinary connections between accelerator physics and energy systems engineering, with recent work increasingly focusing on multilevel inverter technologies and battery health optimization. The publications reveal a consistent thread of applying advanced control theory to complex physical systems across both high-energy physics and sustainable energy domains. Scientific Recognition: Dean's Award for Distinguished Teaching (2001) Fellow of the American Physical Society (2008) IEEE Senior Member (2018) Professor Fox has successfully mentored 5 Ph.D. students to completion and supervised 13 M.S. students, with two students receiving American Physical Society Dissertation Prizes and another winning the Toohig Fellowship. His research has been supported by significant collaborations including the Ford-Stanford Alliance and Precourt Center for Energy, with projects focusing on battery health modeling and optimal control strategies for hybrid vehicles. Current research includes leadership roles in LHC accelerator projects and development of energy optimization algorithms for transportation systems. As Group Leader for LARP projects, he directs teams working on feedback control systems for the LHC and SPS accelerators, with expertise spanning electron/positron and hadron synchrotrons, storage rings, and LINAC systems. His laboratory work emphasizes practical implementation of theoretical control concepts in both accelerator and automotive contexts.
Jonas Strandberg is an Associate Professor at KTH Royal Institute of Technology's Department of Physics, part of the School of Engineering Sciences. His research focuses on particle physics, particularly within the ATLAS Collaboration at the Large Hadron Collider (LHC). He contributed to the Higgs boson discovery and currently studies its properties. Strandberg has been involved in detector development, including the HGTD timing detector for the LHC upgrade. He holds a PhD from Stockholm University (2006) and worked as a postdoc at the University of Michigan (2006-2011) before joining KTH. His teaching responsibilities include courses on experimental particle physics, statistical methods, and engineering skills. Research interests span high-energy physics, collider technology, and detector systems. Research Highlights: Member of the ATLAS Collaboration since 2011 Key contributor to Higgs boson measurements Developed timing detector systems for LHC upgrades Published extensively on particle physics and accelerator technology Teaching & Supervision: Course responsible for Experimental Particle Physics (SH2203) Teaching roles in Applied Modern Physics (SH1015), Embedded Systems Design (IL2232), and more Professional Activities: ATLAS Data Preparation Coordinator (2015-2017) Member of the Particle and Astroparticle Physics Group at AlbaNova University Centre
Carl E. Carlson is the Class of 1962 Professor of Physics at the College of William & Mary in Virginia. He holds a B.A. and Ph.D. from Columbia University (1965 and 1968, respectively). His research focuses on theoretical particle and nuclear physics, including the proton radius problem, low-energy tests of new physics, hadronic effects in atomic physics, and two-photon physics. Recent courses include Quantum Field Theory II, Classical Electricity and Magnetism II, and General Physics. He has been recognized with the Thomas Ashley Graves Award for Sustained Excellence in Teaching (1994) and the Alumni Fellows Award (1978). His recent work explores topics like twisted photon interactions, lattice QCD corrections, and proton structure corrections to atomic spectroscopy. He has held sabbaticals at institutions like the Helsinki Institute for Physics and the Helmholtz Institute Mainz.
Kari Rummukainen is a Professor at the Department of Physics, Faculty of Science, University of Helsinki. His research focuses on theoretical particle physics and cosmology , particularly using computational methods . He leads the Computational Field Theory research group . Research keywords include: Physical sciences High Energy Physics Cosmology Lattice Gauge Theory Scientific awards: Finnish Academy of Sciences and Letters: 2008 Vaisala prize (awarded in Dec 2006) Current projects: Avaruuden ja kosmologian tutkimus (2024–2030) - University of Helsinki Funds CoCoS AdG (2024–2029) - European Research Council Particle cosmology and gravitational waves (2024–2027) - Academy of Finland
Andreas Jung is an Associate Professor of Physics and Astronomy at Purdue University, affiliated with the CMS experiment at CERN. His research focuses on understanding the electroweak scale stabilization via precision measurements of top quark interactions, Higgs boson studies, and detector R&D. He also explores quantum algorithms for high-energy physics and supply chain optimization. Jung earned his Ph.D. from the University of Heidelberg (2009) and a diploma from the University of Dortmund (2004). Education: Ph.D. in Physics, University of Heidelberg, 2009 (Dissertation: D* Meson Cross Section Measurement) Diploma in Physics, University of Dortmund, 2004 (Commissioning of H1 Fast Track Trigger) Research Interests: High Energy Physics, Particle Physics, Detector Development, Quantum Computing Applications, Material Science for Detectors, and Collider Experiments. His work includes analyzing top quark spin correlations, quantum annealing for vertex reconstruction, and carbon fiber composites for CMS upgrades. Awards: Senior Distinguished Researcher fellowship at Fermilab LHC Physics Center (2019) 3-year PhD scholarship from German Research Society (2004–2007) Teaching & Leadership: Teaches courses on particle physics and data science. Serves as Convener of CMS TOP Physics Analysis Group and leads detector mechanics R&D. Engages in quantum computing collaborations with DoD and industry partners. Labs/Teams: Jung Research Group at Purdue, CMS Collaboration, and Purdue Quantum Science & Engineering Institute (PQSEI). Active in detector development for the High-Luminosity LHC upgrade, including carbon fiber support structures and silicon pixel detectors.
Mark C. Kruse is a Professor in the Department of Physics at Duke University, within Trinity College of Arts & Sciences. His research focuses on High-Energy Particle Physics, particularly the analysis of data collected by the ATLAS detector at the Large Hadron Collider (LHC). With the Higgs boson discovered by ATLAS and CMS collaborations in July 2012, his work now centers on discovering models beyond the Standard Model of particle physics. Dr. Kruse's educational background includes: Ph.D. in Physics from Purdue University (1996) M.S. in Physics from University of Auckland, New Zealand (1988) B.S. in Physics from University of Auckland, New Zealand (1986) Professor Kruse's research primarily investigates phenomena beyond the Standard Model of particle physics. His work with the ATLAS detector at the LHC focuses on Higgs boson properties, top quark physics, and searches for new particles and forces that could explain dark matter and other cosmic mysteries. He has been instrumental in analyzing data from proton-proton collisions at various energy levels to uncover potential deviations from established physics theories. His research group at Duke actively contributes to the international effort to understand fundamental particles and their interactions at the highest energy scales accessible to humanity. Analysis of Professor Kruse's recent publications reveals a strong focus on Higgs boson physics, top quark measurements, and searches for physics beyond the Standard Model. His work with the ATLAS collaboration spans multiple areas including precision measurements of known particles, searches for exotic decays, and investigations of quark-gluon plasma. The research demonstrates increasing sophistication in data analysis techniques as the LHC continues to deliver higher luminosity and energy collision data. Professor Kruse has received several notable awards and recognitions: Dean's Leadership Award from Duke University (April 2013) Sir Thomas Lyle Fellowship from University of Melbourne, Australia (2013) Bass Society of Fellows at Duke University (May 2012) Shared recognition for the Discovery of the Top Quark (July 2019) As a dedicated educator and mentor, Professor Kruse has advised numerous students through independent study courses (PHYSICS 493) and thesis projects (PHYSICS 495). He has secured substantial research funding including the REU Site for Undergraduate Research in Nuclear Particle Physics (2022-2027) and the Support and Maintenance for the ATLAS Transition Radiation Detector at CERN (2025-2027). His grants consistently support both graduate and undergraduate research opportunities, reflecting his commitment to training the next generation of physicists. Professor Kruse is a key member of the ATLAS collaboration at CERN, where he serves as the US ATLAS Transition Radiation Tracker Level 3 Manager. His research group at Duke University works closely with international collaborators on data analysis and detector operations. The team contributes significantly to the ongoing physics program at the LHC, particularly in areas related to Higgs boson characterization and searches for new physics phenomena.
Christopher Hearty is a Professor in the Department of Physics & Astronomy at the University of British Columbia (UBC), Faculty of Science, and serves as an IPP (Institute of Particle Physics) Principal Research Scientist. His office is located in Hennings 268 with laboratory space at TRIUMF/Hennings 222, where he conducts cutting-edge experimental particle physics research using major international facilities. Hearty earned his B.Sc. in Mathematics and Physics from Simon Fraser University (1982), followed by a Ph.D. in Physics from the University of Washington (1987). He completed postdoctoral research at Lawrence Berkeley National Laboratory from 1987 to 1994 before joining UBC. B.Sc., Mathematics and Physics, Simon Fraser University, 1982 Ph.D., Physics, University of Washington, 1987 Postdoctoral Researcher, Lawrence Berkeley National Laboratory, 1987-1994 His research program focuses on direct searches for physics beyond the Standard Model through e+e- collisions, with particular emphasis on dark sector phenomena including dark photons, axion-like particles, and strongly interacting dark matter. As a key contributor to the Belle II experiment, he develops advanced calorimeter calibration techniques, reconstruction algorithms, and trigger systems while mentoring students in machine learning applications for large-scale data analysis. His work bridges theoretical phenomenology with experimental verification in the search for new fundamental particles. Recent publications demonstrate a concentrated effort on dark sector exploration at Belle II, featuring innovative approaches like graph neural networks for photon reconstruction and sophisticated analysis of displaced vertices. The research spans both visible and invisible decay channels, significantly advancing constraints on dark matter models while establishing Belle II's sensitivity to elusive particles through precision measurements of e+e- collision data. Hearty's scientific recognition includes: APS Fellow (2015) Breakthrough Prize in Fundamental Physics (2016) as part of the T2K collaboration He actively supervises graduate students on thesis projects spanning dark photon searches, axion-like particle detection, and detector development, while serving on UBC's teaching peer review committee and as LHCb chief reviewer for CERN's LHCC committee. His mentorship provides students with hands-on experience in international collaborations, detector instrumentation, and advanced data analysis techniques. Based at TRIUMF Canada's particle accelerator centre and UBC's Department of Physics & Astronomy, Hearty leads a research group within the global Belle II collaboration. His team contributes to multiple detector subsystems including calorimetry and tracking systems, while developing novel analysis frameworks for new physics signatures in high-energy collision data.
Professor Stefano Moretti holds a Professorship at the University of Southampton's Department of Physics & Astronomy and is a Full Professor at Uppsala University's Theoretical Particle Physics group. He is a member of the Southampton High Energy Physics (SHEP) group and the Southampton Theory Astrophysics and Gravity (STAG) Research Centre. His research focuses on particle phenomenology, particularly collider physics, with over 550 publications and 34,000 citations. He is also a Visiting Staff at RAL PPD and part of the CMS experiment at CERN. Education: PhD from the University of Torino, followed by postdoctoral roles at the University of Cambridge, Rutherford Appleton Laboratory (RAL), and the University of Oxford. He joined Southampton in 2003 via an STFC Advanced Fellowship. Research Interests : Standard Model (QCD/EW interactions), Supersymmetry, Non-minimal Higgs Models, Monte Carlo Event Generators, and Higher Order Corrections. He authored textbooks on Supersymmetry and SM Phenomenology. Awards : 2024 Lilly and Sven Thuréus Prize (Sweden), 2018 Honorary Doctorate from Uppsala University, and 2025 Breakthrough Prize in Fundamental Physics (shared with LHC experiments). Teaching : Coordinates the UG module PHYS2006 (Classical Mechanics) and teaches the PG Phenomenology course within the NExT PhD School. Grants/Projects : Lead researcher on multiple STFC, Royal Society, and EU-funded projects. Active in Horizon Europe evaluations and UK REF2021 panel work. Labs/Teams : Director of the NExT Institute, member of SHEP and STAG, collaborates with CMS at CERN, and advises on policy for science assessment frameworks.
Graham Kribs is a Professor of Physics at the University of Oregon and Director of the Institute for Fundamental Science (2019-2025). He holds a PhD from the University of Michigan (1998) and has been at UO since 2005. His research specializes in theoretical high-energy physics, particularly phenomena beyond the Standard Model. Research interests focus on: Effective field theory extensions of the Standard Model Particle astrophysics and dark matter phenomenology Early universe cosmology and cosmological implications of new physics Supersymmetry, extra dimensions, and grand unification theories Black hole physics and quantum gravity interfaces His publications primarily explore dark matter detection strategies, lattice gauge theory applications, and collider phenomenology, with recurring themes of symmetry breaking mechanisms and beyond-Standard-Model particle interactions. Awards & Honors: Fellow, American Physical Society (elected 2015) Ben Lee Fellow, Fermilab Theory Group (2010-2011) Member, Institute for Advanced Study, Princeton (2013 sabbatical) He has organized major theoretical physics conferences at institutions including the Aspen Center for Physics, Mainz Institute for Theoretical Physics, and Institute for Nuclear Theory.
Keith Olive is a Distinguished McKnight University Professor in the School of Physics and Astronomy at the University of Minnesota, holding the Gloria Becker Lubkin Chair in Theoretical Physics at the William I. Fine Theoretical Physics Institute and serving as a Member of the Minnesota Institute for Astrophysics. His work bridges fundamental particle physics with cosmological phenomena, addressing core questions about the universe's origin and structure. Professor Olive's research spans cosmology and particle physics , with primary focus on big bang nucleosynthesis (explaining light element formation up to 7Li), particle dark matter , big bang baryogenesis (resolving matter-antimatter asymmetry), and inflation theory (solving standard cosmology's outstanding problems). His theoretical frameworks integrate supersymmetry, grand unified theories, and early universe dynamics to model cosmic evolution from primordial conditions. Recent publications (2024-2025) reveal concentrated exploration of dark matter detection mechanisms, inflationary model refinements, and string theory-cosmology intersections. Key trends include gravitational portal dynamics during reheating, R²-inflation derived from 4D string frameworks, curvaton behavior post-Planck data, and electroweak corrections in wino dark matter detection—highlighting his leadership in connecting quantum gravity, particle phenomenology, and observational cosmology. Honors include: Distinguished McKnight University Professor Gloria Becker Lubkin Chair in Theoretical Physics Professor Olive actively mentors graduate researchers and leads the DOE-funded project "Theoretical High Energy Physics at the University of Minnesota" (2014-2026), securing $X million for dark matter and particle cosmology research. This initiative fosters collaboration with co-investigators Gherghetta, Peloso, and Voloshin across theoretical frameworks and observational constraints. He directs research within the William I. Fine Theoretical Physics Institute and Minnesota Institute for Astrophysics, coordinating the High Energy Theory group and Particle Data Group contributions. These teams drive interdisciplinary work connecting string theory, collider physics, and cosmic microwave background analysis to decode fundamental universal laws.
