جستجوی استاد راهنمای دانشگاهی

A. B. Balantekinمشاهده پروفایل

استاد

• Theoretical Physics
• Nuclear Physics
• Particle Physics
• +۳ مورد دیگر

A. B. Balantekin is the Eugene P. Wigner Professor in the Department of Physics at the University of Wisconsin-Madison. His research focuses on theoretical physics at the intersection of nuclear, particle, and astrophysics, with particular emphasis on neutrino physics, quantum information applications in subatomic systems, and collective neutrino oscillations. Research Interests: Theoretical physics at the interface of nuclear, particle, and astrophysics; neutrino oscillations and astrophysics; quantum information science applied to neutrino and nuclear systems. Collaborations include the Daya Bay, PROSPECT, and Borexino experiments. Publications reflect a focus on neutrino physics (oscillations, detection, supernova dynamics), quantum computing applications (neutrino simulations), and fundamental theory (EFTs, lattice QCD). Recent work explores entanglement in many-body neutrino systems and machine learning for experimental data analysis. No awards or grants explicitly listed in provided texts. Advising details and lab affiliations not specified in available information.

• Nuclear Physics
• Laser Spectroscopy
• Quantum Control
• +۴ مورد دیگر

Prof. Kieran Flanagan is a Professor of Nuclear Physics and Head of the Nuclear Physics Group at the Department of Physics and Astronomy, The University of Manchester. He is also Director of the Photon Science Institute and Dalton Nuclear Institute. His research focuses on nuclear structure and fundamental physics using laser spectroscopy techniques, particularly the Collinear Resonance Ionization Spectroscopy (CRIS) method. Education: Graduated from The University of Manchester, followed by PhD studies under Prof. Jon Billowes. Postdoctoral work included positions at CERN, KU Leuven, and IPN-Orsay. He returned to Manchester in 2009 as an STFC Advanced Fellow. Research Interests: Spectroscopy of exotic nuclei and molecules, quantum control of molecular ions, trace isotope detection, and exploring physics beyond the Standard Model through radioactive molecules. Key projects include the ERC-funded ActMol initiative (2024) and FNMPLS (2015). Publications highlight advancements in CRIS, laser cooling of radium-containing molecules, and studies of nuclear moments in short-lived isotopes. His work bridges fundamental physics with applications in trace analysis, as seen in the start-up Artemis Analytical Ltd (2016). Awards: STFC Advanced Fellowship (2009), ERC Consolidator (2015), and Advanced ERC (2024). Collaborations span global institutions like CERN, KU Leuven, and IPN-Orsay. Labs: Academic lead of the Ultra Trace Analysis Lab, specializing in high-resolution mass spectrometry and isotope detection.

John F. Trantمشاهده پروفایل

دانشیار

• Medicinal Chemistry
• Organic Synthesis
• Biopolymeric Materials
• +۳ مورد دیگر

Dr. John F. Trant is an Associate Professor in the Department of Chemistry and Biochemistry at the University of Windsor. His work focuses on synthetic and bioorganic chemistry, materials science, and drug discovery. He leads the Trant Team, which integrates computational design with experimental chemistry to develop novel biologically active compounds and advanced materials. Key research areas include peptide and carbohydrate chemistry for medical applications, stable synthetic carbohydrates, and drug delivery systems. Research interests span peptide drugs for autoimmune diseases, ring-shaped cavitand molecules for antibiotic resistance solutions, and materials derived from biomolecules. Collaborations with academic and industrial partners address interdisciplinary challenges in drug development, formulation science, and nanotechnology. The lab emphasizes iterative design through synthesis, bioassay, and computational modeling. Current projects include universal drug delivery particles, enzymatic mimics using cavitands, and targeted therapies for aggressive cancers. The team also explores synthetic methods for cannabinoids, boron-based cancer agents, and nanodiamond drug delivery systems. Funding sources include government grants and industrial partnerships. Teaching responsibilities cover organic chemistry, biochemistry, and materials science. The lab maintains strong ties to industry through formulation science and analytical chemistry projects. Open to postdoctoral researchers in molecular biology, peptide synthesis, and analytical instrumentation.

Laura Elisa Marcucciمشاهده پروفایل

استاد

• Theoretical Nuclear Physics
• Nuclear Astrophysics
• Few-nucleon structure and dynamics
• +۳ مورد دیگر

Laura Elisa Marcucci is a Full Professor of Theoretical Nuclear Physics at the Department of Physics, University of Pisa. She serves as Deputy Director of the Department of Physics and as Delegate for Orientation Activities at the University of Pisa. Since 2000, she has been a research associate at the Pisa Section of the National Institute for Nuclear Physics (INFN). Her academic journey includes: Graduated with honors in Physics from the University of Pisa (1995) PhD from Old Dominion University in Norfolk and Jefferson Laboratory in Newport News (2000) Research fellow (2000) University researcher (2002) Associate professor (2016) Full professor in Theoretical Physics of Fundamental Interactions (2020) Professor Marcucci's research focuses on theoretical nuclear physics, particularly on nuclear interaction modeling and the description of light nuclear systems and reactions. Her work spans from fundamental few-nucleon structure to astrophysically relevant reactions involved in Big Bang nucleosynthesis and stellar evolution. More recently, she has expanded her research to nuclear reactions relevant for clean energy production through fusion reactors, serving as the scientific responsible for a PON project in this area. Her publication record shows a consistent focus on few-body nuclear systems, chiral effective field theory applications, and nuclear reactions of astrophysical significance. The most recent publications reveal growing interest in the PTOLEMY experiment for cosmic neutrino background detection, X17 boson theoretical analyses, and advanced modeling of few-nucleon correlation functions using hyperspherical harmonics methods. Professor Marcucci's scientific recognition includes: Fellow of the American Physical Society (2014) Ordinary member of the Italian Physical Society She has supervised numerous bachelor's, master's, and doctoral theses throughout her career. Her research has been supported by various grants, including her current role as scientific responsible for a PON project on fusion energy. She has established productive collaborations with major experimental groups worldwide, including Hall A at Jefferson Laboratory, LUNA and PTOLEMY collaborations at Gran Sasso National Laboratories, and ALICE collaboration at the Large Hadron Collider. Professor Marcucci founded and directed (2018-2022) the nuclear physics section of Frontiers in Physics journal. She has organized numerous conferences and given invited talks at over 50 national and international conferences, demonstrating her active engagement with the global nuclear physics community.

Matthew G. Walkerمشاهده پروفایل

استاد

• Astrophysics
• Cosmology
• Dark Matter
• +۳ مورد دیگر

Matthew G. Walker is a Professor of Astrophysics & Cosmology at Carnegie Mellon University's Department of Physics, part of the Mellon College of Science. His research focuses on dark matter properties using dwarf galaxies, combining optical imaging, spectroscopy, and dynamical modeling. He has held academic roles since 2013, progressing from Assistant to Associate and full Professor. Previously, he conducted postdoctoral research at Harvard University (2010–13) and the University of Cambridge (2007–10). Education: PhD in Astrophysics from the University of Michigan (2007). Professional memberships include the American Astronomical Society. Awards include the Martin and Beate Block Award (2013) and Hubble Postdoctoral Fellowship (2010). Research interests center on dark matter's role in dwarf galaxies, exploring particle properties via gravitational interactions and substructure. Collaborations involve major facilities like Magellan telescopes, MMT, and the Very Large Telescope, plus the Sloan Digital Sky Survey IV. He investigates topics such as dark matter cusps, stellar binary fractions, and novel detection methods like wide binary stars. Recent work includes discovering new dwarf galaxies (e.g., 'Snake in the Clouds'), analyzing Draco's dark matter distribution, and advancing modeling techniques (e.g., GravSphere code). His publications span theoretical and observational cosmology, with a focus on bridging particle physics and galactic dynamics.

Vladimir Gudkovمشاهده پروفایل

استاد

• Theoretical Physics
• Neutron Interactions
• Fundamental Symmetries
• +۴ مورد دیگر

Vladimir Gudkov is a Professor in the Department of Physics and Astronomy at the University of South Carolina's McCausland College of Arts and Sciences. His research specializes in theoretical neutron physics, focusing on fundamental symmetries including parity violation (PV) and time reversal invariance violation (TRIV) in low-energy neutron interactions. His work provides theoretical support for experimental programs at major neutron facilities worldwide, including the Spallation Neutron Source (SNS) at Oak Ridge National Laboratory, J-PARC in Japan, and the European Spallation Source. Research Focus Professor Gudkov's research aims to test the Standard Model and explore new physics through: Theoretical modeling of TRIV effects in neutron-nucleus scattering Analysis of PV phenomena in nuclear interactions Investigation of neutron properties including beta-decay mechanisms Study of neutron-antineutron oscillations as probes for beyond-Standard Model physics Development of theoretical frameworks for fundamental neutron experiments Publication Trends Recent publications (2021-2025) demonstrate a strong focus on fundamental neutron physics, with emphasis on symmetry violations in neutron interactions. Key themes include precision measurements of P-odd/T-odd effects in neutron resonances, spin-dependent phenomena in nuclear scattering, neutron-antineutron oscillation methodologies, and theoretical frameworks for interpreting experimental data from major neutron facilities.

Deven Estesمشاهده پروفایل

استادیار

• Catalysis
• Surface Chemistry
• Metal Hydrides
• +۲ مورد دیگر

Dr. Deven Estes is an Assistant Professor at the University of Stuttgart's Faculty of Chemistry, affiliated with the Institute of Technical Chemistry. His research focuses on surface chemistry, catalysis, and materials characterization with particular emphasis on immobilized metal complexes and hydride chemistry. Research interests include catalyst design for sustainable energy applications, surface immobilization techniques, and advanced characterization methods including solid-state NMR and X-ray spectroscopy. Recent work explores hydrogen storage, CO2 conversion, and electrocatalyst development. Publication analyses show strong focus on metal hydride characterization, surface confinement effects, and catalytic mechanisms of transition metal complexes, with emerging interests in green chemistry applications and analytical method development. His group develops novel catalytic systems for energy conversion and sustainable chemical synthesis.

• Nuclear Engineering
• Radiation Protection
• Neutron Dosimetry
• +۳ مورد دیگر

Max Pallàs i Solís is a researcher affiliated with the Universitat Politècnica de Catalunya (UPC), specifically within the Departament de Física at the Escola Tècnica Superior d'Enginyeria Industrial de Barcelona (ETSEIB). He is a core member of the Advanced Nuclear Technologies Research Group (ANT) and the Institut de Tècniques Energètiques. His work spans nuclear engineering, radiation protection, and astrophysics, with a focus on neutron dosimetry, particle therapy, and exotic nuclear isotopes. Education: Doctorat en Enginyeria Nuclear i de les Radiacions Ionitzants (UPC) Research Interests: Neutron detection systems, radiation safety in medical facilities, nuclear astrophysics, and r-process nucleosynthesis. Recent publications highlight advancements in LINrem neutron dosimetry systems for particle therapy facilities, studies of neutron-rich isotopes' decay properties, and development of modular neutron counters like miniBELEN-10A. Collaborations include projects funded by the Spanish State Research Agency (AEI), focusing on nuclear technologies and astrophysical applications. Grants & Projects: Tecnologías avanzadas para la exploración del universo Estructura Nuclear, Astrofísica y Transferencia de Conocimiento Sistema de diagnóstico en vivo de neutrones para hadrón-terapia His research contributes to improving radiation protection protocols, medical proton therapy accuracy, and understanding stellar nucleosynthesis processes in neutron-rich environments.

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

Tarak Nath Maity is an academic researcher at the Department of Physics, University of Sydney. His work focuses on particle astrophysics and cosmology, particularly in the realm of dark matter detection and neutrino physics. He is affiliated with the Faculty of Science and utilizes experimental facilities such as Super-Kamiokande, XENON1T, and the Tibet ASγ experiment to explore fundamental questions about dark matter interactions and cosmic phenomena. His research interests include dark matter-electron scattering, neutrino backgrounds in direct detection experiments, and the implications of ultralight bosons on galactic structures. He has contributed to understanding the weak mixing angle through direct detection experiments and has modeled dark matter substructures' effects on experimental signals. His work often integrates cutting-edge detector technology with theoretical astrophysical models to advance our understanding of non-baryonic matter and cosmic particle interactions. While no specific awards or grants are explicitly listed, his publications reflect a sustained focus on experimental and theoretical challenges in dark matter detection, with recent work addressing solar constraints, neutron star dynamics, and sub-PeV gamma-ray signatures. His research group likely collaborates with international experimental consortia given the cited facilities.

• Nuclear Engineering
• Radiation Detection
• Isotopic Monitoring
• +۳ مورد دیگر

Malcolm Joyce is a Distinguished Professor of Nuclear Engineering and Interim Pro-Vice-Chancellor (Research and Enterprise) at Lancaster University. He previously served as Head of Engineering (2008–2015), leading the expansion of the department, including introducing Chemical Engineering. Prior to academia, he worked in industry as Technical Director of Hybrid Instruments Ltd. His research focuses on nuclear engineering, radiation detection, and isotopic monitoring, with over £25M in grants. Current projects include C-GANE, AIRS-NFM, ALACANDRA, and AMS-UK. He is Associate Editor of IEEE Transactions on Nuclear Science and serves on UK government advisory boards like NIRAB and CoRWM. Awards include the James Watt Medal (2014) and Royal Society Wolfson Award (2016). He authored Nuclear Engineering: A Conceptual Guide to Nuclear Power (2017). His group includes 4 postdocs, 1 Experimental Officer, and 4 PhD students. Research interests span nuclear fuel cycles, radiation localization, and environmental radiological assessment. Education & Background: No formal educational details provided in the text. Research Grants: Principal Investigator on multiple EPSRC-funded projects, including £1.6M (C-GANE), £1.9M (AIRS-NFM), £1.5M (ALACANDRA), and £2.8M (AMS-UK). Tracks over £25M in competitive grants from UKRI, industry, and government. Awards & Honors: James Watt Medal (ICE, 2014) Royal Society Wolfson Research Merit Award (2016) Professional Activities: Co-chair, National Nuclear User Facility (NNUF) UKAEA Programme Advisory Committee Editorial roles: European Journal of Physics N (EPJ-N) Labs & Teams: Leads a research group focused on nuclear fuel manufacturing, radiation detection, and robotic applications in nuclear environments. Collaborates on projects like Fukushima fuel debris localization and nuclear cogeneration of chemicals.

• Nuclear Physics
• Physics Education
• Neutron Activation Analysis
• +۲ مورد دیگر

Prof. Mustafa Karadağ is a full-time Professor in the Department of Physics Education at Gazi University's Gazi Education Faculty, specializing in nuclear physics and physics education. He has held continuous academic positions since 1995, progressing from Research Assistant to Professor. His leadership roles include serving as Dean (2016) and Vice Chairman of TÜRTEP at Ahmet Yesevi University (2009–2015). Education: PhD in Physics Education, Gazi University (1998–2003) MSc in Physics Education, Gazi University (1995–1998) BSc in Mathematics and Science Education, Gazi University (1991–1995) Research Interests: Prof. Karadağ focuses on neutron cross-section measurements, radiation detection technologies, physics curriculum development, and educational tool design. His work bridges experimental nuclear physics with pedagogical innovations, including assistive devices for visually impaired students and magnetic polarity detectors. Publications: His 42+ articles predominantly explore neutron activation analysis, reactor physics, and science education methodologies. Recent works emphasize practical teaching tools and conceptual physics education, while earlier research established foundational nuclear data for isotopes. Students Supervised: He has advised 10+ graduate students, including thesis work on physics textbooks, teacher satisfaction studies, and curriculum comparisons. Notable students include O.TÜRK (PhD) and E.ÖZKAN (MSc). Laboratory & Teams: Collaborates with nuclear physics researchers (e.g., H. YÜCEL, M.G. BUDAK) on radiation detection projects and co-authors educational studies with physics educators.

• Solid-state materials chemistry
• Magnetic materials
• Energy storage and conversion materials
• +۹ مورد دیگر

Professor Chris Ling is a distinguished academic at the University of Sydney, serving as Professor of Solid-state Chemistry in the School of Chemistry since 2018. He also holds the position of Deputy Director at the Sydney Analytical Core Research Facility and is a member of both The Net Zero Institute and The University of Sydney Nano Institute. His educational background includes a BSc from the University of Melbourne (1992-1994), a BSc (Hons 1) from the Australian National University (1995), and a PhD from the Research School of Chemistry at ANU (1996-1999). Following his doctoral studies, he completed postdoctoral research at Argonne National Laboratory in the USA and worked as a Physicist at the Institut Laue-Langevin in France. Professor Ling's research focuses on solid-state materials chemistry, with particular emphasis on magnetic materials, energy storage and conversion systems, solid-oxide fuel cells, batteries, and solid-state ionic conductors. His work employs advanced techniques including neutron scattering, synchrotron X-ray science, and crystallography to investigate phase transitions and modulated structures. He takes a "crystal chemical" approach, relating crystal structure to chemical composition and physical properties. His recent publications demonstrate a strong focus on energy materials, particularly battery technologies and solid-state ionic conductors. There's a clear trend toward investigating complex oxide materials for energy applications, with significant contributions to understanding magnetic structures in frustrated systems and developing new materials for fuel cells and batteries. Among his notable honors are: Friedrich Wilhelm Bessel Research Award from the Alexander von Humboldt Foundation (2018-19) SOAR Fellow at The University of Sydney (2017-18) Neutron Award from the Australian Neutron Beam Users Group (2017) Faculty of Science Outstanding Teaching and Research Award from The University of Sydney (2017) Professor Ling currently supervises several research students working on diverse projects including lithium-ion battery degradation mechanisms, rare earth-free high-performance magnets, and oxides for energy applications. His research is supported by significant grants including ARC DP190101862 and ARC DP200100959, totaling over $1.7 million in funding. His research group maintains comprehensive facilities for materials synthesis and characterization, including Australia's first IR floating-zone image furnace for crystal growth, advanced X-ray powder diffractometers, and specialized equipment for battery material testing. The group also has extensive access to neutron scattering facilities at the OPAL research reactor and synchrotron facilities in Melbourne.

• Particle Physics
• Cosmology
• Astrophysics
• +۳ مورد دیگر

Dr. Djuna Lize Croon serves as an Associate Professor in the Department of Physics, conducting cutting-edge research at the intersection of particle physics, cosmology, and astrophysics. Her work focuses on dark matter phenomenology, gravitational wave signatures, and early universe cosmology, with significant contributions to understanding extended dark matter structures and their observational consequences. Her research program investigates extended dark matter objects through cosmic microwave background constraints, microlensing surveys, and gravitational wave observations. She explores dark matter's role in leptogenesis and baryogenesis, its thermal effects on planetary and stellar systems, and develops machine learning techniques for astrophysical data analysis. Current projects examine dark matter interactions in supernovae, black hole formation mechanisms, and axion physics in compact object environments. Analysis of her 2021-2025 publications reveals a dominant focus on dark matter phenomenology, particularly extended structures and their multi-messenger signatures. Her work consistently bridges theoretical particle physics with observational astrophysics, addressing fundamental questions about dark matter composition, early universe dynamics, and gravitational wave source populations through innovative computational approaches. No scientific awards or honors were documented in the provided profile. Dr. Croon actively mentors postgraduate researchers, currently supervising: Ansh Bhatnagar (PGR Student) Ben Crossey

John Brockmanمشاهده پروفایل

دانشیار

• Nuclear Forensics
• Radio-Analytical Chemistry
• Trace Element Epidemiology
• +۳ مورد دیگر

John Brockman is an Associate Professor at the University of Missouri in the Department of Chemistry , with a focus on nuclear forensics , radio-analytical chemistry , and trace element epidemiology . He serves as the Associate Director of Research and Education at the University of Missouri Research Reactor. Education: BS in Chemistry, Truman State University (2001) PhD in Chemistry, University of Missouri – Columbia (2006) Postdoctoral Fellowship, University of Missouri Research Reactor (2006–2008) His research leverages ICP-MS and other radio-analytical methods to address challenges in pre- and post-detonation nuclear forensics , environmental health , and neurodegenerative disease pathology . Recent work includes studying the bactericidal effects of boron neutron capture , analyzing trace elements in epidemiological contexts , and developing rapid dissolution techniques for nuclear debris . Brockman's publications span nuclear chemistry , medical isotopic analysis , and environmental trace element monitoring . His interdisciplinary collaborations reflect expertise in nuclear engineering , public health , and materials science .

Damilola Folleyمشاهده پروفایل

دانشگاهی

• Radiation detection
• Gamma-ray Spectroscopy
• Luminescence
• +۱ مورد دیگر

Damilola Folley is a Research Associate in Applied Radiation Spectroscopy at the Nuclear Engineering Group , Lancaster University , specializing in the C-GANE project (Capture Gamma-ray Assessment in Nuclear Energy) . Her work bridges radiation detection, gamma-ray spectroscopy, and machine learning for nuclear applications. Research Interests : Radiation detection, Gamma-ray Spectroscopy, Luminescence, and Machine Learning Modelling. Publication Trends highlight expertise in neutron capture gamma-ray techniques for water detection, scintillator material comparisons, and luminescence properties in crystalline materials. Her recent work incorporates machine learning in radiation analysis. Collaborations : Worked with multidisciplinary teams on nuclear safeguards and robotic radiation detection systems.