جست‌وجوی استاد و پژوهشگر

Karin Leistnerمشاهده پروفایل

پژوهشگر

• Magneto-ionic Materials
• Nanoelectrodeposition
• Magnetic Nanostructures
• +۵ مورد دیگر

Dr. Karin Leistner serves as Group Leader for Nanoelectrodeposition and Magneto-ionic Materials at the Leibniz Institute for Solid State and Materials Research Dresden (IFW Dresden). Her research focuses on the intersection of electrochemistry and magnetism, developing energy-efficient methods for voltage-controlled magnetic nanostructures. Her primary research interests include Magneto-ionic Materials , Nanoelectrodeposition , Magnetic Nanostructures , and Voltage-Controlled Magnetism . Through electrochemical approaches, she pioneers methods to manipulate magnetic properties at the nanoscale without requiring external magnetic fields, enabling applications in low-power spintronics and memory devices. Her work emphasizes redox transformations, electrolytic gating, and interfacial engineering to achieve programmable magnetism in hybrid metal/oxide systems. Analysis of her publication trends reveals consistent innovation in magneto-ionic effects (2021-2025), with increasing focus on microscale patterning (2023-2025) and energy-efficient device applications . Her research spans fundamental electrochemistry (e.g., self-terminated electrodeposition) to applied nanotechnology (e.g., magnetoresistance switching aerogels), demonstrating strong translational potential. Recent work integrates advanced characterization techniques like Kerr microscopy with electrochemical control for precise magnetic manipulation. Dr. Leistner has delivered over 20 invited talks at international institutions including TU Chemnitz, Forschungszentrum Jülich, and Simon Fraser University, highlighting her recognition as a leading expert in electrochemically controlled magnetism. Her collaborative research spans multiple continents, with publications co-authored by teams in Germany, USA, Mexico, Austria, and Slovenia. She leads research activities within IFW Dresden's nanoelectrodeposition laboratory, utilizing specialized electrochemical cells coupled with in situ magnetic characterization. Her group maintains strong collaborations with transmission electron microscopy facilities for real-time observation of electrochemical deposition processes, as demonstrated in joint work with the Wigner Research Centre for Physics.

Todd Averettمشاهده پروفایل

استاد پژوهشی

• Experimental Nuclear Physics
• Polarized Nuclear Targets
• Quantum Chromodynamics (QCD)
• +۳ مورد دیگر

Todd Averett is a Research Professor in the Department of Physics at the College of William & Mary. His primary research focuses on experimental nuclear physics, particularly polarized nuclear targets and short-range nuclear correlations. He holds a BS from Arizona State University (1990) and a PhD from the University of Virginia. His work involves deep inelastic scattering experiments at Jefferson Lab, probing neutron structure and QCD dynamics. Key contributions include measurements of neutron form factors, studies of EMC effects, and development of advanced beam diagnostics using Rydberg atoms and atomic magnetometry. He is an APS Fellow and collaborates on major facilities like the MARATHON and Super BigBite experiments. Education: BS, Arizona State University, 1990 PhD, University of Virginia Research trends emphasize precision measurements of nucleon structure, novel beam diagnostic techniques, and exploring quantum chromodynamics at the luminosity frontier. His recent work highlights advancements in polarized target technology and applications of Rydberg states for particle tracking. Awards: American Physical Society Fellow Advising and grants: Todd Averett leads projects on neutron form factor measurements and contributes to large-scale experiments such as Qweak and the upcoming Electron-Ion Collider. His grants support detector development and theoretical collaborations. Labs/Teams: Active in Jefferson Lab collaborations, the MARATHON experiment, and FRIB initiatives, focusing on advanced spectroscopy and nuclear dynamics studies.

• Quantum Sensing
• Optically Pumped Magnetometers
• Atomic Physics
• +۷ مورد دیگر

Marcin Mrozowski is a Research Fellow in the Department of Physics at the University of Strathclyde, Faculty of Science. His work is centered on quantum sensing technologies, particularly optically pumped magnetometers, with applications in navigation, space weather, and biomedical diagnostics. His research focuses on the development of high-sensitivity, miniaturized, and low-noise atomic magnetometers. Key areas include zero-field detection, spin relaxation optimization, and portable systems for real-world deployment. He has contributed to advancements in cesium-based sensors and programmable current sources for magnetic field control. The recent publications reveal a strong trend toward practical quantum instrumentation—emphasizing performance, portability, and integration into distributed networks. His work bridges fundamental atomic physics with engineering applications in navigation, environmental monitoring, and medical sensing. Optically Pumped Magnetometers Quantum Sensing Atomic Physics Low-Noise Instrumentation Space Weather Monitoring Biomedical Magnetometry Mrozowski was a Research Co-investigator on the EPSRC-funded Translational Quantum Technology PhD Studentship (2019–2024), contributing to the development of quantum sensors for real-world deployment. He has collaborated extensively with Paul Griffin and Erling Riis. He has also engaged in public outreach, including participation in the Big Bounce 2021 science festival. He is affiliated with research labs focused on experimental quantum optics and precision measurement at Strathclyde, contributing to both hardware development and data acquisition systems for advanced magnetometry.

Ronny Stolzمشاهده پروفایل

استاد

• Quantum Sensing
• Quantum Metrology
• Superconducting Electronics
• +۳ مورد دیگر

Ronny Stolz is Head of the Quantum Systems Department at the Leibniz Institute of Photonic Technology (Leibniz IPHT) in Jena, Germany. He also serves as head of the Magnetometry group at Leibniz IPHT since 2007 and head of the research group "Near surface geophysics" at Friedrich Schiller University in Jena since 2010. In 2022, he was appointed Honorary Professor at the Technical University of Ilmenau with a focus on Quantum Engineering. His educational background includes: State Doctorate degree in Physics (2006), Friedrich-Schiller-University Jena Ph.D. in Physics (1995), Friedrich-Schiller-University Jena Ronny Stolz's research focuses on cutting-edge quantum technologies, particularly in the development of superconducting and quantum electronics. His work spans quantum sensing and metrology using SQUID sensors and optically pumped magnetometers, quantum computation with superconducting qubits, superconducting radiation detectors, and hybrid superconducting and photonic circuits. His group develops high-precision measurement systems for applications in geophysical instrumentation, including SQUID-based receivers for electromagnetic measurements and Full Tensor Magnetic Gradiometry for exploration and archaeology. Analysis of his recent publications reveals a strong focus on advancing quantum sensing technologies, particularly in magnetometry and superconducting electronics. His work demonstrates a clear progression from fundamental quantum device development toward practical applications in security, mineral exploration, and scientific instrumentation. The research spans theoretical modeling, device fabrication, and real-world implementation across multiple disciplines including physics, engineering, and geophysics. Professor Stolz has received numerous prestigious awards for his contributions to quantum technology: SAGA 2024 Industry Innovation Award ESAS Award for Excellence, EUCAS2017, Geneva Gold medal from the International Trade Fair for "Ideas, Inventions, Innovations" (iENA) Thuringian Research Award, category Transfer International Mining Research Award for the IPHT team Innovations awards of IPHT (2003, 2005) Ron Ono Memorial Award, ISEC2003, Sydney With over 265 scientific papers, 150+ technical reports, 3 book chapters, and multiple patents including 4 patent families, Professor Stolz has established himself as a leading researcher in quantum technologies. His work has been supported by significant research grants that have enabled the development of advanced quantum sensing systems. He actively collaborates with industry partners through the European FLUXONICS foundry initiative, translating academic research into practical applications. Professor Stolz leads a multidisciplinary research team at Leibniz IPHT focused on quantum systems. The group maintains state-of-the-art fabrication facilities for superconducting electronics and collaborates with major research institutions including CERN and GSI. His laboratory specializes in the development of quantum magnetometers for geophysical applications and superconducting circuits for quantum computing interfaces.

• Human-environmental interactions
• Cultural ecology
• Settlement patterns
• +۱۲ مورد دیگر

Roderick B. Salisbury serves as Associate Professor in the Department of Archaeology and Cultural Anthropology at Comenius University in Bratislava's Faculty of Arts since 2022. He concurrently holds an Affiliated Researcher position at the University of Vienna's Human Evolution and Archaeological Sciences group and serves as Editorial Board Vice-Chair for IANSA - Interdisciplinaria Archaeologica. His career spans multiple European and North American institutions with a focus on prehistoric archaeological science. Salisbury's academic foundation includes: B.A. in Anthropology (Summa cum Laude with Honors) and Minor in Religious Studies from Buffalo State College (1999) M.A. in Anthropology from University at Buffalo (2004) Ph.D. in Anthropology from University at Buffalo (2010) His research centers on human-environmental interactions and cultural ecology through the lens of archaeological soil chemistry and geoarchaeology . He investigates settlement patterns and social organization in Neolithic, Copper Age, and Bronze Age Europe alongside Late Archaic and Woodland North American contexts. His methodological innovations in spatial analysis and micro-refuse studies bridge theoretical frameworks with material evidence to reconstruct community identity and built environments. Recent publications (2020-2024) reveal three dominant trajectories: (1) Advanced soil science applications in archaeological prospection, (2) Groundbreaking analyses of burial practices using proteomics and chemistry, particularly regarding children and gender, and (3) Theoretical contributions to settlement nucleation studies. His collaborative work often integrates multi-method approaches across international teams, with significant impact in high-impact journals like Nature . Salisbury's recognition includes prestigious fellowships: Marie Curie Experienced Researcher (2012-2014) Fulbright Fellowship (2007-2008) He currently supervises 2 Bachelor's and 1 Master's theses while leading major research initiatives: VEGA 1/0746/24: Radiocarbon chronologies and Neolithic settlement history (2024-2027, Principal Investigator) Neolithic Archaeology and Soilscapes Körös Area (NASKA) since 2011 (Principal Investigator) Prehistoric Interactions on the Plain Project (PIPP) since 2019 (Senior Scientist) Körös Regional Archaeological Project (KRAP) since 2010 (Senior Scientist) Salisbury directs the NASKA project team conducting fieldwork in Hungary and Austria, integrating soil chemistry specialists, geophysicists, and excavation experts. His laboratory network spans Comenius University, University of Vienna, and Hungarian institutions, focusing on methodological innovation in archaeological soil analysis and spatial patterning.

Shu-Wei Huangمشاهده پروفایل

دانشیار

• Photonics
• Quantum Engineering
• Nonlinear Optics
• +۵ مورد دیگر

Shu-Wei Huang is an Associate Professor in the Department of Electrical, Computer, and Energy Engineering at the University of Colorado Boulder, affiliated with the College of Engineering and Applied Science. His research focuses on advanced photonics and quantum engineering, with specialties in nonlinear optics, frequency combs, and ultrafast laser systems. He holds affiliations with both the ECEE department and the Photonics and Quantum Engineering group. His work emphasizes novel laser designs, microresonator-based systems, and applications in optical sensing and quantum technologies. Dr. Huang's research interests include the development of high-performance laser systems, such as counterpropagating all-normal dispersion (CANDi) fiber lasers, and the creation of advanced frequency comb technologies. He explores topics like dissipative soliton generation, parametric oscillation, and the integration of machine learning for predictive modeling in nonlinear optics. His experimental work involves cutting-edge platforms such as lithium niobate microresonators and graphene-enhanced devices. His recent contributions span innovations in photonic flywheel systems for stable frequency combs, broadband magnetometry using magnetic nanoparticles, and lidar measurement techniques. He has pioneered methods for deterministic microcomb generation and explored applications in high-resolution imaging and biochemical sensing. His research bridges fundamental physics with engineering applications, addressing challenges in precision metrology and quantum-enabled technologies. Dr. Huang's lab is located in ECEE 1B79, and his work is supported by grants focusing on nonlinear optics, ultrafast lasers, and integrated photonics. His team actively collaborates on projects involving coherent dual-comb spectroscopy, electrically tunable frequency combs, and nanophotonic devices for next-generation optical systems.

• Biological Systems Modeling
• Quantum Optomechanics
• Magnetometry Applications
• +۵ مورد دیگر

Dr. James Bennett is a Post-doctoral Research Fellow in the ARC Centre of Excellence for the Mathematical Analysis of Cellular Systems (MACSYS) at Queensland University of Technology (QUT). He holds a PhD from The University of Queensland (UQ), supervised by Prof. Warwick Bowen, Prof. Halina Rubinsztein-Dunlop (AO, FAA), and Dr. Lars Madsen. His research bridges physics and mathematics, focusing on applying data-driven models to understand complex biological systems. Prior to MACSYS, he specialized in quantum mechanics using optomechanical oscillators and developed magnetic field sensors with applications in navigation and through-earth communication. His academic affiliations include the Faculty of Science and School of Mathematical Sciences at QUT. Bennett teaches Aspects of Computational Science and has prior teaching experience in linear algebra, mechanics, and calculus at Griffith University and UQ. He collaborates with industry partners such as Orica, Defence Science & Technology, and NASA Glenn Research Center on magnetometer technologies for aerospace and mining applications. Education: BSc (Hons I) in Physics, UQ PhD in Physics, UQ Research Interests: Quantum optomechanics Magnetometry for aerospace and environmental applications Mathematical modeling of cellular systems Teaching: Current: Aspects of Computational Science (QUT) Past: Linear Algebra, Mechanics, Calculus (Griffith University) Bennett’s work in MACSYS addresses the interplay between mathematical principles and biological complexity, aiming to uncover foundational biological mechanisms. His publications span optomechanical systems, quantum state manipulation, and sensor technology innovations.

Rui Heمشاهده پروفایل

استاد

• Optical Studies of Nanostructures
• Raman Spectroscopy
• Condensed Matter Physics
• +۳ مورد دیگر

Rui He is a Professor in the Department of Electrical & Computer Engineering at Texas Tech University, holding the Ed and Linda Whitacre Faculty Fellowship. His research focuses on optical and magnetic phenomena in nanostructures, particularly leveraging Raman spectroscopy to study low-dimensional materials and quantum systems. Education PhD in Applied Physics (2006), Columbia University MS in Applied Physics (2003), Columbia University BS in Engineering (1999), Fudan University His work spans two-dimensional magnets, spin-phonon coupling, and magnetic particle imaging technologies. Recent articles highlight computational modeling of magnetic sensors, phonon dynamics in van der Waals solids, and additive manufacturing of magnetic materials for healthcare applications. Scientific Award Ed and Linda Whitacre Faculty Fellow (2022)

Stuart Inglebyمشاهده پروفایل

مدرس ارشد

• Quantum Technology
• Optical Magnetometry
• Atomic Physics
• +۷ مورد دیگر

Dr. Stuart Ingleby is a Senior Lecturer and Chancellor’s Fellow in the Department of Physics at the University of Strathclyde, Faculty of Science. His research focuses on the development of portable, high-sensitivity optical magnetometers for practical applications in medicine, navigation, and environmental monitoring. His research interests include: Quantum-enabled magnetic sensors Compact atomic and optical systems Real-time data acquisition and processing Low-noise precision electronics for sensor interfaces His recent publications demonstrate a strong trend in advancing optically pumped magnetometers (OPMs) for field deployment, with applications ranging from GNSS-denied navigation to space weather monitoring and biomedical imaging. The work emphasizes miniaturization, enhanced sensitivity, and robust hardware-software integration. Scientific awards received: University of Strathclyde Chancellor's Fellowship (2021) Dr. Ingleby leads and co-investigates multiple research projects funded by EPSRC, UK Space Agency, and industry partners such as AWE plc. He is actively involved in the UK Quantum Technology Hub in Sensing, Imaging and Timing (QuSIT), contributing to quantum-enabled positioning and navigation systems. He mentors PhD students and collaborates extensively within interdisciplinary teams. His work includes both theoretical modeling and experimental development of atomic sensors. He is a peer reviewer for journals including Optics Express , Advanced Optical Technologies , and European Physical Journal Quantum Technology , reflecting his standing in the quantum sensing community.

Pavel Kejikمشاهده پروفایل

مدرس

• Magnetic Sensors
• Hall Effect Sensors
• Fluxgate Magnetometry
• +۴ مورد دیگر

Pavel Kejik is a part-time Lecturer at the Swiss Federal Institute of Technology Lausanne (EPFL), affiliated with the School of Engineering. He joined EPFL's Institute of Microelectronics and Microsystems in 1999 and concurrently works at Monolithic Power Systems (formerly Sensima Technology SA) since 2014. His dual industry-academia role focuses on magnetic sensor industrialization. Education: Diploma degree, Czech Technical University in Prague (1994) PhD, Czech Technical University in Prague (1999) Research Interests: Dr. Kejik specializes in integrated magnetic sensor systems, including Hall effect and fluxgate magnetometry. His work emphasizes low-noise circuit design, offset cancellation techniques, CMOS integration, and applications in contactless current measurement, angular sensing, and non-destructive testing (NDT). Key innovations involve micro-Hall probes, orthogonal fluxgate structures, and noise-reduction methodologies for industrial applications. Publication Trends: His recent articles (2007-2014) demonstrate a consistent focus on CMOS-integrated magnetic sensors, particularly Hall effect devices and fluxgate systems. Research themes include miniaturization, power efficiency optimization, angular position detection, and novel compensation architectures for industrial sensing applications. Advising: Supervised one PhD student: Özge Zorlu. No grants or awards mentioned. Industry Collaboration: Active in sensor industrialization through Monolithic Power Systems and contributes to the Europractice course 'Smart Sensor Systems'. Patents cover innovations in Hall arrays, fluxgate structures, and magnetic anomaly detection.

Andreas Mooserمشاهده پروفایل

پژوهشگر

• Precision Spectroscopy
• Antimatter Physics
• Penning Trap Physics
• +۷ مورد دیگر

Dr. Andreas Mooser is a Group Leader of the μTEx group at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, Germany. He is a leading researcher in the field of precision physics, focusing on fundamental properties of protons and antiprotons using Penning trap techniques. His work is central to the BASE (Baryon Antibaryon Symmetry Experiment) collaboration and related high-precision tests of fundamental symmetries. His research interests include precision spectroscopy , antimatter studies , Penning trap physics , laser cooling of trapped particles , and searches for dark matter via quantum sensors. His work bridges atomic, nuclear, and particle physics, with a strong emphasis on instrumentation and quantum measurement techniques. The 15 most recent publications show a consistent focus on high-precision comparisons between matter and antimatter, particularly protons and antiprotons, with applications to CPT symmetry tests and searches for new physics. The articles span experimental developments in cryogenic Penning traps, sympathetic cooling, superconducting detection circuits, and transportable antiproton storage. Keywords include quantum measurement, fundamental interactions, and precision instrumentation, with sub-fields covering magnetic moments, charge-to-mass ratios, axion-like dark matter, and laser cooling. Dr. Mooser has contributed to groundbreaking results such as a 16-parts-per-trillion measurement of the antiproton-to-proton charge–mass ratio and a 350-fold improvement in the antiproton magnetic moment measurement. His work has been published in top journals including Nature and Physical Review Letters . He leads the μTEx group, which develops novel techniques for sympathetic laser cooling and fluorescence detection of single protons and antiprotons. His team works closely with other leading scientists such as Klaus Blaum and Stefan Ulmer, and collaborates with institutions involved in antimatter research at CERN.

Peter Winterمشاهده پروفایل

پزشک-پژوهشگر

• Particle Physics
• Muon Physics
• Precision Measurements
• +۳ مورد دیگر

Peter Winter is a physicist in the High Energy Physics Division at Argonne National Laboratory, serving as Intensity Frontier Group Leader since 2019 and Co-Spokesperson for the Muon g-2 Collaboration since 2023. He earned a Dr. rer. nat. (2005) and Dipl. Phys. (2001) from the University of Bonn, Germany. Research Interests: Winter focuses on precision measurements in muon physics to test fundamental symmetries and the Standard Model. His work includes the Muon g-2 experiment, investigating anomalous magnetic moments, and developing advanced magnetometry techniques for particle physics applications. Scientific Awards: DOE Office of Science Early Career Research Award (2015) Günther-Leibfried Award (2001) Notable Contributions: Winter has led key advancements in magnetic field calibration for muon experiments, improved understanding of muon decay dynamics, and optimized detector systems for precision measurements.

• Precision Measurement
• Photonics
• Optical Clocks
• +۳ مورد دیگر

Professor Andre Luiten is the Chair of Experimental Physics and IPAS Chief Innovator at the University of Adelaide. He holds dual fellowships from the Australian Institute of Physics and the Australian Academy of Technology and Engineering. His research focuses on precision measurement, photonics, and quantum technologies, with applications in defense, environmental monitoring, and fundamental physics. Luiten has authored over 140 journal papers, secured $50M+ in grants, and co-founded QuantX Labs, a defense technology company valued at $7.5M annually. Education: PhD in Physics (UWA, 1997), Bragg Medal recipient Research interests include optical clocks, frequency combs, and ultra-sensitive sensors. His work has led to commercial innovations such as compact atomic magnetometers and portable optical clocks. Notable awards include the 2018 Eureka Prize and 2022 South Australian Innovator of the Year. Grants and funding: Over $170M raised for the Institute for Photonics and Advanced Sensing (IPAS), tripling its annual income during his leadership. QuantX Labs, his venture, employs 32 researchers and engineers.

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

Dr. Ralf Gebel is a researcher at the Institute of Nuclear Physics (IKP) at Forschungszentrum Jülich. His work focuses on accelerator physics, storage ring technology, and neutron source development. He is actively involved in the High Brilliance Neutron Source (HBS) project and operates within the Cooler Synchrotron COSY facility. Key research areas include beam dynamics optimization, spin physics, and precision experiments for electric dipole moment (EDM) measurements. Dr. Gebel contributes to advancements in ion source design, proton beam polarization techniques, and machine learning-driven accelerator optimization. His technical expertise spans beamline design for neutron production, development of RF spin rotators, and feedback systems for maintaining resonance conditions in storage rings. Recent efforts include the implementation of reinforcement learning for injection optimization and the first tests of polarized ion sources for future storage ring experiments. Dr. Gebel's work bridges fundamental physics research with applied accelerator technology, supporting both academic investigations and industrial applications in neutron science. He collaborates on projects such as the HBS neutron facility and ELENA ion source development, contributing to next-generation particle physics infrastructure. His research frequently intersects with medical radionuclide production and radiation effects testing using GeV proton beams.

Tulio Brito Brasilمشاهده پروفایل

استادیار

• Quantum Optics
• Quantum Information
• Quantum Sensing
• +۳ مورد دیگر

Tulio Brito Brasil serves as an Assistant Professor in the Quantum Optics department at the Niels Bohr Institute, University of Copenhagen. His academic profile demonstrates a strong focus on quantum information science and quantum technologies, with particular expertise in quantum sensing, quantum teleportation, and quantum networking. The Niels Bohr Institute is a leading center for physics research in Europe, with a long tradition of excellence in quantum physics dating back to Niels Bohr himself. Dr. Brasil's research interests center on quantum optics and quantum information processing, with specific focus on quantum networks, quantum sensing technologies, and quantum communication protocols. His work bridges theoretical concepts with experimental implementations, particularly in the areas of continuous variable quantum information and atomic quantum systems. His research has significant implications for future quantum technologies including quantum computing, quantum communication networks, and ultra-precise quantum sensors. Analysis of his publication record from 2020-2025 reveals a consistent trajectory of high-impact research in quantum information science. His work spans both fundamental quantum phenomena and practical quantum technology applications, with publications in top-tier journals including Nature and Nature Communications. The publications demonstrate expertise in quantum teleportation protocols, quantum sensing with atomic systems, and advanced photonic state generation techniques, indicating a research program at the forefront of quantum information science. Dr. Brasil's research has garnered significant attention in the scientific community, with multiple publications receiving news coverage (including pickup by 7 news outlets for his 2025 Nature paper), social media mentions across various platforms (including 33 X users for one publication), and substantial academic readership on platforms like Mendeley. His work appears to be well-integrated within the international quantum information research community, as evidenced by collaborations with researchers across multiple institutions. As a member of the Quantum Optics research group at the Niels Bohr Institute, Dr. Brasil contributes to one of Europe's leading centers for quantum physics research. The group maintains strong connections with other quantum research centers globally and participates in cutting-edge experimental work on quantum information processing, quantum communication, and quantum sensing technologies. The research environment at the Niels Bohr Institute provides access to state-of-the-art quantum optics laboratories and collaborative opportunities with other quantum research groups within the institute.