جست‌وجوی استاد و پژوهشگر

• Atomic Magnetometry
• Magnetic Field Sensing
• Micro-fabrication of Sensors
• +۳ مورد دیگر

Terry Dyer serves as a Research Fellow in the Department of Physics within the University of Strathclyde's Faculty of Science. His work centers on atomic magnetometry and micro-fabricated alkali vapour cells for portable sub-pT magnetic field detection devices targeting medical imaging, geological surveying, security, and inertial sensing applications. Dr. Dyer's research focuses on ultra-sensitive magnetometer development through: Design/fabrication of micro-scale alkali vapour cells Optimization of optical pumping and fluxgate sensor technologies Applications in medical diagnostics and battery cycle analysis His fingerprint reveals dominant expertise in Magnetometer (100%), Magnetic Fields (33%), and Vapor Physics (32%) with significant contributions to Sensor Engineering (26%) and Cavity design. Recent publications (2019-2024) demonstrate consistent innovation in miniaturizing magnetic sensors, enhancing signal-to-noise ratios through digital processing, and developing field-deployable systems for industrial applications like battery monitoring and geological surveying. No scientific awards are documented in available sources. Dr. Dyer actively secures research funding as Principal Investigator for: FLUXOPIA (2024-2027): Innovate UK-funded fluxgate optimization project Battery Analysis Projects (2023-2024): AWE plc-sponsored magnetometer applications Optical Magnetometer Productisation (2025-2026): Prototype development with AWE plc He collaborates extensively with Paul Griffin and Erling Riis across multiple grants. His work operates within Strathclyde's quantum technology ecosystem, evidenced by participation in the 2019 Quantum Technology Showcase and STEMFest, focusing on translating atomic physics research into commercial sensor applications through close industry partnerships.

• Quantum Magnetometry
• Atomic Physics
• Magnetic Field Sensing
• +۳ مورد دیگر

Dr. Dominic Hunter is a Research Fellow in the Department of Physics within the Faculty of Science at the University of Strathclyde. His research focuses on quantum magnetometry, particularly developing optically pumped magnetometers (OPMs) for geophysical, space weather, and biomedical applications. Education Doctor of Engineering in Applied Photonics Dr. Hunter's research centers on atomic-scale magnetic field sensing using quantum techniques. He specializes in free-induction-decay methods, cesium vapor cell optimization, and miniaturization of quantum magnetometers. His work bridges fundamental atomic physics with practical implementations for GNSS-denied navigation, critical infrastructure monitoring, and medical diagnostics like magnetocardiography. Recent innovations include distributed sensor networks for space weather tracking and portable single-beam systems for clinical applications. His 2023-2024 publications reveal strong trends in quantum sensor miniaturization (67% of works), space weather applications (33%), and biomedical translation (17%). Key advancements involve spin relaxation optimization, microfabricated vapor cells, and zero-field operation techniques across physics, geophysics, and biomedical engineering domains. Research Funding Ultra-stable quantum magnetometry for imaging in Earth-field environments (Principal Investigator, Royal Academy of Engineering, 2024-2026) Quantum Sensing of the Geomagnetic Space Weather Environment (Research Co-investigator, EPSRC, 2023-2026) UK National Quantum Technology Hub in Sensing and Timing (Principal Investigator, 2019-2024) Dr. Hunter actively contributes to the academic community through peer review for Optics Express and conference presentations at SPIE events. He collaborates extensively with the UK National Quantum Technology Hub team including Paul Griffin, Erling Riis, and Stuart Ingleby on quantum sensing projects. Laboratory Affiliations He operates within the University of Strathclyde's quantum sensing ecosystem as part of the UK National Quantum Technology Hub in Sensing and Timing, utilizing specialized laboratories for atomic magnetometer development and testing.

Brian Pattonمشاهده پروفایل

مدرس ارشد

• Quantum Sensing
• Nanodiamonds
• Optics
• +۹ مورد دیگر

Brian Patton is a Senior Lecturer in the Department of Physics at the University of Strathclyde, Faculty of Science. His work bridges quantum physics, optics, and biomedical imaging, with a strong focus on developing novel sensing and imaging techniques using nanodiamonds. He is actively involved in research and teaching, and currently supervises PhD students in advanced microscopy and quantum sensing. Research Interests: Exploiting nitrogen-vacancy centers in diamond for electric and magnetic field sensing Super-resolution microscopy for high-precision localization of nanodiamonds in biological tissues Adaptive optics to correct tissue-induced optical aberrations in deep-tissue imaging Development of low-cost, open-source optical microscopes using 3D printing Applications in neural imaging and detection of electromagnetic fields from living cells His recent publications reflect a strong trend toward accessible, quantum-enabled imaging technologies, combining fundamental physics with practical engineering solutions. He focuses on making quantum sensing more scalable and applicable to biological systems, particularly neurons. The integration of Bayesian experiment design and widefield detection indicates a move toward intelligent, data-driven sensing platforms. Scientific Awards: Tom Gibson Memorial Award (2017) Brian Patton is actively involved in research funding and advising. He serves as Principal Investigator and Co-investigator on multiple EPSRC and NPL-funded projects, including 'Enhanced quantum sensing by nitrogen-vacancy centres in diamond' and 'The impact of artificial light on arctic marine organisms'. He accepts PhD students and contributes to doctoral training programs. His leadership in organizing workshops such as 'Biophotonics and Biomedical Microscopy' highlights his role in fostering research collaboration. Labs and Research Teams: He is affiliated with the NanoBioPhotonics group at the University of Strathclyde, contributing to the M4All (MultiModal Modular Microscopy for All) initiative, which promotes open-access, modular microscopy platforms. His work is highly collaborative, involving interdisciplinary teams across physics, engineering, and biomedical sciences.

• Quantum Computing
• Atomic Physics
• Quantum Sensing
• +۵ مورد دیگر

Shimon Kolkowitz is an Assistant Professor at the University of Wisconsin-Madison, affiliated with the College of Engineering's Department of Nuclear Engineering and Engineering Physics and the Department of Physics. His research spans quantum technologies, atomic precision measurements, and materials science. Primary Affiliation: Nuclear Engineering and Engineering Physics Additional Affiliation: Physics His work focuses on quantum sensing using nitrogen-vacancy (NV) centers in diamond, optical lattice clocks for fundamental physics tests, and quantum error correction. Key subfields include erasure conversion , spin-lattice relaxation , nanoscale covariance magnetometry , dark matter detection , and gravitational redshift experiments . Recent publications highlight advancements in parallel NV center control , sub-nanometer diamond surface analysis , and decoherence mitigation for quantum clocks. Notable contributions include a NSF CAREER Award (2022) for developing atom-based gravitational wave detection and dark matter searches. His lab designs scalable quantum systems, such as silicon-based light extractors for NV centers and multiplexed optical lattice clocks, aiming to test relativity and explore ultralight dark matter models. NSF CAREER Award (2022) His research combines experimental atomic physics with quantum engineering to address fundamental questions in physics and develop high-precision measurement tools.

Ronald Walsworthمشاهده پروفایل

استاد

• Quantum Sensing
• Precision Measurement Tools
• Nuclear Magnetic Resonance (NMR)/MRI
• +۴ مورد دیگر

Ronald Walsworth is the Minta Martin Professor of Physics and Founding Director of the University of Maryland's Quantum Technology Center. His interdisciplinary research focuses on precision measurement tools, quantum sensing, and their applications in physical and life sciences. He holds affiliations with the Department of Physics, Electrical and Computer Engineering, Institute for Research in Electronics & Applied Physics, and the Joint Quantum Institute. Education: Ph.D. in Physics from Harvard University (1991), B.S. in Physics from Duke University (1984). Awards include the Francis Pipkin Award (2005), APS Fellow (2001), and Smithsonian Exceptional Service Award (1993). Research interests span quantum sensing, NMR/MRI, bioimaging, and astrophysics. Recent work includes diamond-based quantum microscopy, ultralow-mass NMR, and applications in dark matter detection. His lab has spun out multiple startups. Key grants and projects include MURI collaborations and development of quantum diamond microscopes. Advises graduate students like Andrew Beling. Active in NASA quantum sensing assessments and cosmic frontier research (e.g., dark matter, pulsar timing). Labs/Teams: Quantum Technology Center, Walsworth Lab Group, collaborations with aerospace and biomedical institutions. Current projects focus on machine learning-enhanced sensing, quantum diamond microscopes for bioimaging, and directional dark matter detection systems.

• Quantum Sensing
• Free Radical Research
• Diamond-based Technologies
• +۵ مورد دیگر

Claudia Reyes San Martin is a researcher at the University of Groningen's Faculty of Science and Engineering in the Department of Chemical and Pharmaceutical Engineering. Her work focuses on the intersection of quantum physics and biomedical applications, with particular expertise in diamond-based quantum sensing technologies. She is actively involved in cutting-edge research that bridges physics, chemistry, and medical diagnostics, contributing significantly to the UN Sustainable Development Goals through her innovative approaches to health challenges. Dr. Reyes San Martin specializes in quantum sensing applications for free radical detection across various biological systems. Her research spans cancer cell migration, reproductive medicine, immunology, and dermatology, with a consistent focus on developing diamond-based technologies for precise biological measurements. She has pioneered techniques for measuring free radicals in human semen, breast cancer cells, liver tissue, and immune cells, demonstrating how quantum sensing can provide unprecedented insights into cellular processes and disease mechanisms. Her work has particular relevance for understanding oxidative stress in medical contexts and developing new diagnostic approaches. Her publication record shows a strong trajectory of high-impact research, with multiple publications in prestigious journals including Proceedings of the National Academy of Sciences, ACS Sensors, and Nano Today. Her most recent work demonstrates increasing sophistication in applying quantum sensing to complex biological systems, from single-cell analysis to tissue-level investigations. The consistent citation of her work (with several papers accumulating multiple citations within months of publication) indicates growing recognition of her contributions to the field. Dr. Reyes San Martin collaborates extensively with researchers across disciplines, particularly with Prof. Romana Schirhagl's group at the University of Groningen. Her work connects physics, biology, and medicine through innovative applications of quantum technologies. She has established herself as a key contributor to the emerging field of diamond-based biomedical sensing, with research that has potential applications across multiple medical specialties including oncology, reproductive medicine, and immunology.

Dipanjan Mazumdarمشاهده پروفایل

دانشیار

• Experimental Condensed Matter Physics
• Novel Electronic Materials
• Spintronics
• +۳ مورد دیگر

Dipanjan Mazumdar serves as an Associate Professor in the Department of Physics at Southern Illinois University, specializing in experimental condensed matter physics. His research focuses on the growth and characterization of novel electronic and magnetic materials with atomic-level precision. His research interests include: Electronic properties of novel materials and heterostructures Interplay between spin, charge, lattice, and orbital degrees of freedom Design of high spin-polarization inverse-Heusler materials Magneto-transport properties of topological insulator heterostructures Recent publications reveal strong emphasis on topological insulators, 2D materials, and spintronics devices. His work spans material synthesis (PVD/CVD), computational modeling, and advanced characterization techniques including X-ray diffraction, magnetometry, and scanning probe microscopy. Notable scientific contributions include: Development of magnetoresistance devices (AMR, GMR, TMR) Investigation of electronic and magnonic topological insulators Optical characterization of few-layer topological materials He actively mentors graduate students including Hassana, Miller, Ricky, Said Bakkar, Yubraj Sapkota, and Stephen Hofer. His laboratory recently acquired a Rigaku Diffractometer and focuses on thin-film growth and physical property investigations. He teaches advanced courses in Magnetism, Magnetic Materials, and Spintronics (PHYS 575).

• Physics beyond the Standard Model
• Dark Matter
• Axions
• +۴ مورد دیگر

Peter W. Graham serves as Professor of Physics at Stanford University, leading research at the intersection of theoretical particle physics and experimental design since joining the faculty in 2010. His work bridges astrophysics, atomic physics, and solid-state techniques to probe fundamental physics beyond the Standard Model. Education: Harvard University: AB and AM in Physics (2002) Stanford University: Ph.D. in Physics (2007), advised by Savas Dimopoulos Graham's research program centers on developing novel experimental approaches for detecting dark matter candidates and solving theoretical puzzles. He pioneered the Cosmic Axion Spin Precession Experiment (CASPEr) using NMR techniques to detect axion dark matter and co-developed the DM Radio Pathfinder for hidden photon searches through precision magnetometry. His theoretical breakthrough in cosmological relaxation offers an elegant solution to the hierarchy problem by connecting electroweak scale dynamics to inflationary cosmology, generating significant discussion in particle physics circles. He also advanced gravitational wave detection methodologies using atom interferometry, demonstrating cross-disciplinary innovation. Analysis of his publications reveals consistent focus on precision measurement technologies applied to fundamental physics questions, with recurring themes in dark matter phenomenology, quantum sensor development, and connections between cosmology and particle physics. His work demonstrates exceptional synergy between theoretical insight and experimental feasibility. Scientific Awards: New Horizons in Physics Prize (2017) for developing new experimental tests of physics beyond the Standard Model Department of Energy Early Career Award (2014) Terman Fellow at Stanford University (2014) Graham's research has been supported by significant funding including the DOE Early Career Award, enabling his leadership in multiple experimental collaborations. While specific grant details aren't provided, his CASPEr and DM Radio initiatives represent major multi-institutional efforts involving national laboratories and international partners. He maintains strong ties with the Stanford Institute for Theoretical Physics while actively collaborating with experimental groups to translate theoretical concepts into detector designs. His research ecosystem includes the Stanford-based theoretical group developing detection frameworks and close partnerships with experimental teams building ultra-sensitive quantum sensors. The CASPEr collaboration spans multiple universities focusing on NMR-based dark matter detection, while DM Radio involves teams developing resonant cavity and lumped-element detectors for hidden sector particles, creating a robust infrastructure for next-generation fundamental physics experiments.

• quantum imaging
• microscopy
• interferometry
• +۳ مورد دیگر

Cyril C Torre is a Senior Research Associate at the School of Physics , University of Bristol, specializing in quantum imaging and precision measurement. His research bridges quantum optics and advanced microscopy techniques using non-classical light sources. Role : Senior Research Associate PhD Thesis : Microscopy with Quantum States of Light (2023) Collaborations : Quantum Imaging Centre, University of Bristol Research Interests focus on: Quantum-enhanced microscopy for sub-micron depth imaging Entangled photon applications in magnetic field sensing Single-pixel imaging with quantum correlated photons Interferometry (Hong-Ou-Mandel, Kerr amplitude-squeezed light) Precision measurement in lossy environments

• Quantum Technologies
• Optical Nanosensing
• Nanodiamond Physics
• +۳ مورد دیگر

Associate Professor Taras Plakhotnik is a faculty member at the School of Mathematics and Physics, University of Queensland. His research integrates atomic/molecular physics, quantum optics, and nanomaterials, with emphasis on nanodiamond-based sensors for biological and quantum applications. He teaches undergraduate courses in quantum physics, electronics, and statistical mechanics. Research interests span: Quantum Technologies : Development of rubyene platforms and nitrogen-vacancy (NV) centers in nanodiamonds for quantum sensing. Optical Nanosensing : Ultrasensitive thermometry, intracellular thermal conductivity mapping, and photothermal applications using hybrid diamond nanosensors. Spectroscopy : Advanced techniques for single-molecule detection, Raman scattering in atmospheric science, and low-light spectroscopy with sCMOS cameras. Recent publications (2021–2025) predominantly explore: Nanodiamond sensors for intracellular thermal monitoring. Metamaterials for subwavelength imaging. Rubyene nanoparticles for quantum-enhanced imaging. High-precision atmospheric water-content measurements using Raman lidar. No scientific awards are documented. He has supervised three PhD students to completion, focusing on NV-center applications in thermometry/magnetometry, and holds grants from international agencies like the Human Frontier Science Program.

Mishkat Bhattacharyaمشاهده پروفایل

استاد

• Quantum Physics
• Optics
• Nanomechanics
• +۳ مورد دیگر

Dr. Mishkat Bhattacharya is a Professor in the School of Physics and Astronomy at the Rochester Institute of Technology (RIT). He holds joint appointments as program faculty in RIT's Center for Imaging Sciences and as a member of the University of Rochester's Center for Coherence and Quantum Optics. His academic journey includes: B.Tech in Engineering Physics from Indian Institute of Technology, Bombay Ph.D. from University of Rochester Postdoctoral positions at Georgia Institute of Technology, University of Arizona, and University of Maryland His research explores light-matter interactions with dual focus on fundamental quantum science and technological applications. Primary investigations include electromagnetic mode interactions with nanofabricated mechanical oscillators and rotors, aiming to achieve quantum regime cooling of macroscopic objects and develop next-generation quantum sensors for displacement, force, and rotation measurement. Complementary work involves quantum platforms like ultracold atoms and superconducting systems. Publication analysis reveals consistent focus on quantum optics, nanomechanics, and quantum sensing since 2016, with theoretical frameworks bridging atomic physics, optomechanics, and nanotechnology. Recent work emphasizes levitated nanoparticle control, phonon lasers, and quantum-enhanced sensing methodologies. Dr. Bhattacharya mentors researchers at all levels including undergraduates, master's and doctoral candidates, and postdoctoral scholars. Current research funding sources include: Research Corporation for Science Advancement Office of Naval Research National Science Foundation He leads the theoretical Bhattacharya Group, maintaining active collaborations with experimental teams globally while teaching core physics courses including Quantum Mechanics and Modern Physics.