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Fow-Sen ChoaView profile

Professor

• Neural Engineering
• Photonics
• Quantum Technologies
• +6 more

Dr. Fow-Sen Choa is a Professor in the Department of Computer Science and Electrical Engineering at the University of Maryland, Baltimore County (UMBC). His research focuses on neural engineering, photonics, and biomedical applications, including deep transcranial magnetic stimulation (TMS), EEG brain network analysis, and mid-infrared technologies for chemical sensing. He is a Fellow of the Optical Society of America and has over 250 referred publications. Education: Ph.D. (Electrical Engineering, SUNY Buffalo, 1988), M.S. (SUNY Buffalo, 1985), B.S. (National Taiwan University, 1980). His research interests include opto-electronics, quantum cascade lasers, photoacoustic sensing, and non-invasive neural modulation for treating neural disorders. He collaborates with institutions like the NIH, CBE department, and the University of Maryland, Baltimore (UMB). His lab develops semiconductor lasers and detectors, and he advises UMBC's IEEE student branch. Recent projects involve acoustic beam forming, real-time brainwave systems, and prosthetic robotics. Awards: Fellow of the Optical Society of America. Dr. Choa mentors undergraduate researchers, leading to awards such as the Undergraduate Research Awards for projects on standoff explosive detection and bio-electronic robotics. He co-founded UMBC's Bio Electronics and Bio Photonics laboratory course. Labs/Teams: MOCVD Lab, Mid-Infrared Technologies for Health and the Environment (MIRTHE) consortium.

• Optical Communications
• Quantum Computing
• Quantum Key Distribution
• +3 more

Professor Dominic O'Brien is a Professor of Engineering Science at the University of Oxford and Senior Research Fellow at Balliol College. He serves as Director of the UK National Hub in Quantum Computing and Simulation. His research focuses on optoelectronics, optical wireless communications, and quantum key distribution. He leads the optical communications group and has authored over 200 publications in these areas. His work emphasizes high-speed free-space optical systems, UV-based secure communication, and beam-steering technologies. Education: MA and PhD from the University of Cambridge, followed by a DPhil from the University of Oxford. His research interests include quantum networks, photonics, and energy-efficient optical systems. Notable projects include handheld low-cost quantum key distribution systems and terabit-per-second fiber-wireless links. He collaborates on initiatives like the WORTECS project for virtual reality applications using optical wireless. Publications span topics from UV solar-blind OWC to liquid crystal beam steering. His work bridges academic and industrial applications, addressing challenges in both classical and quantum communication systems. He contributes to standards for visible light communications and next-generation wireless infrastructure.

• Quantum Mechanics
• Quantum Computing
• Atomic Physics
• +11 more

Sølve Selstø is a Professor at the Department of Information Technology , Faculty of Technology, Art and Design, Oslo Metropolitan University. He specializes in theoretical physics and quantum mechanics, teaching mathematics and physics to engineering students. Research interests include quantum computing, photoionization dynamics, relativistic quantum physics, and non-Hermitian quantum systems. His work focuses on quantum particle behavior under light interaction and computational approaches to quantum education. Recent publications address relativistic effects in photoionization, computational quantum physics, and educational frameworks for quantum computing students. Research groups include ADvanced hEalth intelligence and brain-insPired Technologies (ADEPT) and Mathematical Modelling . Outreach involves public communication on quantum computing, quantum physics, and AI through media appearances and lectures.

• Biomedical Engineering
• Stem Cell Research
• Nanotechnology
• +6 more

Professor Stuart Reid FRSE serves as Head of Department and Royal Society Industry Fellow in Biomedical Engineering at the University of Strathclyde. He leads a multidisciplinary research team working at the intersection of medical science and advanced physics, with significant contributions to both regenerative medicine and gravitational wave detection technologies. His research encompasses two major thrusts: Nanokicking Technology: As co-inventor of 'nanokicking,' he developed a method using precisely controlled nanoscale vibrations to stimulate stem cells to differentiate into bone tissue. This groundbreaking work, published in ACS Nano (2013) and Nature Biomedical Engineering (2017), is now being translated to clinical applications through nanokick.com, with support from Find A Better Way charity for land mine injury treatment. Advanced Optical Coatings: His laboratory has pioneered the world's first high-energy ECR ion beam deposition facility, producing the lowest absorption sputtered amorphous silicon coatings (PRL 2018) for next-generation gravitational wave detectors. This work enables detectors to approach quantum noise limitations. Professor Reid's publications reveal a consistent trajectory from fundamental science to clinical and industrial applications, demonstrating exceptional translational impact across disciplines. His recent work increasingly focuses on commercialization and clinical translation of both nanokicking technology and advanced optical coatings. His scientific recognition includes: Appointment to the RSE Young Academy of Scotland (2014) Membership on the Royal Society's Research Grants Board (2020) 12 total prizes as documented in his academic profile Currently overseeing 49 research projects (16 active, 33 completed), Professor Reid directs significant research funding including the BIOME project (2025-2026) and EPSRC DTP research on extracellular vesicles. He established the Extreme Performance Optical Coatings testbed (www.epoc.scot) within the National Manufacturing Institute Scotland, creating a national resource for advanced optical coating development and testing.

Enrico RossiView profile

Professor

• Condensed Matter Theory
• Theoretical Physics
• Superconductivity
• +4 more

Enrico Rossi is a Professor of Physics at the College of William & Mary, affiliated with the College of Arts & Sciences. His research focuses on condensed matter theory with particular emphasis on superconductivity, quantum materials, and topological insulators. He has contributed to pioneering studies on Josephson junctions, quantum Hall effects, and topological phase transitions. His work often intersects with experimental collaborations, including contributions to the ATLAS detector at CERN. Education: Ph.D., University of Texas at Austin, 2005. Research Interests: Rossi’s research spans theoretical and experimental condensed matter physics, with recent emphases on superconducting diode effects in Dirac semimetals, quantum geometry in materials, and detector technology for particle physics. His studies on epitaxial heterostructures and Josephson junctions explore novel phenomena in low-dimensional systems. Publications Trends: Recent articles highlight advancements in superfluid dynamics, quantum transport in topological materials, and detector characterization for high-energy physics. Collaborations with the ATLAS experiment reflect his dual expertise in theoretical and applied physics. Awards & Grants: No awards explicitly listed, but his extensive publication record suggests recognition in his field. Active in interdisciplinary projects involving quantum materials and detector innovation. Labs & Teams: Engaged with the ATLAS collaboration and William & Mary’s condensed matter theory group, contributing to experimental setups and computational modeling of quantum systems.

Amir Hamed MajediView profile

Professor

• Quantum photonics
• Superconducting optoelectronics
• Microwave-photonics
• +5 more

Amir Hamed Majedi is a Professor at the University of Waterloo , cross-appointed to the Departments of Physics and Astronomy and Applied Mathematics . He leads the Integrated Quantum Optoelectronics Lab (IQOL) under the Waterloo Institute for Nanotechnology. Research Interests : Quantum photonics Superconducting optoelectronics Graphene photonics THz photonic devices Nano-electrophotonics Quantum information technology Article Trends : His publications focus on quantum electrodynamics in superconducting and graphene structures, covering single-photon detectors, nonlinear optical effects, THz amplification, and microwave-photonics integration. Keywords include Quantum Physics , Nanotechnology , Photonics , and Superconductivity . Teaching : Courses taught in recent years include ECE 106 - Electricity and Magnetism , ECE 375 - Electromagnetic Fields and Waves , and advanced topics in Quantum Electronics and Photonics (ECE 677, QIC 885). Education : Doctorate in Electrical and Computer Engineering (2001, University of Waterloo) Master's in Electromagnetic Waves and Photonic (1996, Amirkabir University of Technology) Bachelor's in Telecommunications (1994, Khaje-Nasir Toosi University of Technology)

Paul McKennaView profile

Professor

• Ultra-intense laser-plasma interactions
• Laser-driven particle sources
• Laser-driven radiation sources
• +7 more

Paul McKenna is a Professor in the Department of Physics, Faculty of Science, at the University of Strathclyde, where he currently serves as Deputy Associate Principal (Research & Knowledge Exchange). He previously held leadership roles as Vice Dean (Research) in the Faculty of Science (2021–2023) and Head of the Department of Physics (2018–2021). His work is central to advancing ultra-intense laser-plasma science and its applications. His research focuses on ultra-intense laser-plasma interactions , particularly the development of laser-driven particle and radiation sources , plasma optics and photonics , and high field science . His work bridges fundamental physics with practical applications in medicine, materials science, and fusion energy. He is actively involved in major international laser facilities, serving on advisory boards such as the Program Advisory Committee for the Extreme Light Infrastructure-Nuclear Physics (ELI-NP) and previously at the Central Laser Facility, Harwell. Recent publications highlight a strong trend in laser-driven proton acceleration , beam diagnostics using machine learning , plasma-based collimation , and structured light generation . His work increasingly integrates computational methods, such as Bayesian optimization and neural networks, to enhance experimental outcomes in high-energy-density physics. Fellow of the Royal Society of Edinburgh (2020) High Power Laser Science and Engineering Outstanding Contribution Award (2023) McKenna has secured significant research funding, notably from EPSRC, and leads multiple active projects including those on relativistic plasma apertures and Bayesian optimization in fusion simulations. He contributes extensively to researcher development and postgraduate research strategy. He has supervised numerous early-career researchers and PhD students, though specific names are not listed in the provided data. He is also involved in interdisciplinary efforts to foster collaborative research cultures in technological universities. He leads or participates in advanced research facilities such as the SCAPA (Scottish Centre for the Application of Plasma-based Accelerators) and contributes to the development of high-repetition-rate laser systems. His lab’s work is highly collaborative, involving partnerships across the UK and internationally, with strong ties to institutions like Queens University Belfast and national laboratories.

• nuclear physics
• bound states of the eta meson
• kaon atoms
• +5 more

Dr. hab. Magdalena Skurzok is an Associate Professor at Jagiellonian University in Krakow, Poland, affiliated with the Faculty of Physics, Astronomy and Applied Computer Science. She conducts research in nuclear physics with a focus on exotic nuclear matter, particularly mesic nuclei and mesonic atoms. Her work bridges fundamental particle physics with practical medical applications through advanced detector systems including the J-PET scanner and SIDDHARTA-2 apparatus. Her educational background includes: Habilitation thesis: "Investigation of exotic nuclear matter in the form of mesic nuclei and mesonic atoms" (2024) Doctoral thesis: "Search for eta-mesic helium via dd -> 3Henpi0 reaction by means of the WASA-at-COSY facility" (2016) Diploma thesis: "Feasibility study of eta-mesic nuclei production by means of the WASA-at-COSY and COSY-TOF facilities" (2010) Dr. Skurzok's research primarily focuses on nuclear physics, particularly the investigation of exotic nuclear matter in the form of mesic nuclei and mesonic atoms. Her work explores the bound states of the eta meson with light atomic nuclei and kaon atoms, contributing to our understanding of strong interactions in nuclear systems. She is also involved in PET tomography research, developing novel imaging techniques with applications in medical diagnostics. Her experimental work utilizes advanced detector systems including the J-PET scanner and the SIDDHARTA-2 apparatus at the DAFNE collider. Analysis of Dr. Skurzok's recent publications reveals a strong focus on kaonic atoms research, precision X-ray spectroscopy, and PET imaging technology development. Her work bridges fundamental nuclear physics with practical medical applications, particularly in brain imaging and cancer diagnostics. The interdisciplinary nature of her research connects particle physics, nuclear spectroscopy, and medical imaging technologies. Dr. Skurzok is actively involved in several major research collaborations: SIDDHARTA-2 experiment at DAFNE collider for kaonic atoms research J-PET collaboration developing novel PET imaging technology AMADEUS experiment investigating low-energy K- interactions with nuclei WASA-at-COSY facility for mesic nuclei research Her laboratory work primarily involves the SIDDHARTA-2 apparatus for X-ray spectroscopy of kaonic atoms and the J-PET scanner for positron emission tomography. These advanced detector systems enable precision measurements of exotic nuclear phenomena and innovative medical imaging applications. Dr. Skurzok's research group collaborates extensively with international institutions including CERN, GSI, and various European research centers.

Yuri RzhanovView profile

Research Professor

• 3D Modeling
• Visualization
• Artificial Intelligence
• +7 more

Yuri Rzhanov is a Research Professor at the Center for Coastal and Ocean Mapping at the University of New Hampshire , where he focuses on numerical modeling and image processing for marine applications. His work bridges semiconductor physics foundations with modern underwater 3D scene reconstruction and habitat classification. Education : Ph.D. in Semiconductor Physics, Academy of Science of Russia M.S. in Semiconductor Physics, Novosibirsk State University Research Interests center on 3D modeling/visualization , underwater image processing , refractive effect compensation , and benthic habitat classification using conventional/multispectral imagery. His career evolved from semiconductor quantum effects to solid-state nonlinear phenomena, then to marine signal/image processing. Key Collaborators : Co-investigators: Larry Mayer, Brian Calder, Jennifer Dijkstra, May-Win Thein Co-authors: John Hughes Clarke, Kim Lowell, Thomas Butkiewicz Grants include projects funded by the US Geological Survey , NOAA , and US Navy (2004–2024) related to seafloor mosaicing, unmanned underwater vehicle coordination, and marine acoustic/image data processing.

• Nanobioscience
• Nano-electronics
• Nano-biotechnology
• +3 more

Takashi Tanii is a Professor at Waseda University's School of Fundamental Science and Engineering within the Faculty of Science and Engineering. He holds a Doctor of Engineering degree from Waseda University and maintains an active research program as evidenced by his homepage at http://www.tanii.nano.waseda.ac.jp. His research spans multiple interdisciplinary fields at the intersection of physics, engineering, and biology. Professor Tanii's primary research interests focus on Nanobioscience , with specific expertise in Nano-electronics and Nano-biotechnology . His work demonstrates a strong integration of quantum physics principles with biological applications, particularly in the areas of quantum sensing using diamond nitrogen-vacancy centers and neural network analysis. His research also extends to cell adhesion studies, TiO 2 photocatalysis, and single ion implantation techniques for quantum device fabrication. An analysis of his 15 most recent publications reveals a consistent trend toward quantum technologies and biophysical applications . His work on diamond nitrogen-vacancy centers for quantum sensing, particularly for nuclear spin detection, represents cutting-edge research in quantum information processing. Simultaneously, his investigations into neuronal networks and cell adhesion mechanisms demonstrate a strong commitment to understanding biological systems at the nanoscale. The interdisciplinary nature of his research bridges physics, engineering, and life sciences, with potential applications in quantum computing, neural engineering, and biomedical diagnostics. Professor Tanii is an active member of several professional societies including the Japanese Neural Network Society, Architectural Institute of Japan, Japan Society of Applied Physics, and Japan Surface Science Society, reflecting the breadth of his research interests. His work has resulted in 114 publications with 1,627 citations and an h-index of 23, indicating significant impact in his fields of study. While specific grant information is not detailed in the provided text, his consistent publication record across multiple high-impact journals suggests sustained research funding. His laboratory appears to operate at the intersection of quantum physics and biophysics, with research teams likely comprising physicists, engineers, and biologists working collaboratively. The integration of techniques from quantum sensing, microfabrication, and cellular neuroscience suggests a highly interdisciplinary research environment focused on pushing the boundaries of nanoscale measurement and manipulation technologies.

Matteo TamburiniView profile

Researcher

• Quantum Plasma Physics
• Strong-Field Quantum Electrodynamics (QED)
• High-Intensity Laser Physics
• +3 more

Matteo Tamburini is a Group Leader at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, leading the Extreme Field Quantum Plasma Dynamics and Relativistic Laboratory Astrophysics group. He also serves as a Lecturer at the International Max Planck Research School in Quantum Dynamics (IMPRS-QD). His academic journey includes a PhD in Physics from the University of Pisa, Italy, and postdoctoral research at MPIK. Research Interests: Tamburini specializes in quantum plasma dynamics, strong-field quantum electrodynamics (QED), and high-intensity laser-plasma interactions. He focuses on topics such as radiation reaction effects, relativistic astrophysical simulations, and the generation of ultra-high energy particles and gamma-ray bursts. His work bridges theoretical modeling with experimental validation at facilities like FACET-II (SLAC), Gemini (UK), and DESY. Experimental Contributions: Key projects include devising experiments to probe quantum radiation reaction (E-332, E-320, E-305), developing the SFQEDtoolkit for QED simulations, and advancing polarized laser-wakefield acceleration. His research often involves close collaboration with international teams and leverages cutting-edge facilities like the Gemini laser and FACET-II. Awards & Service: Tamburini is recognized as an IOP trusted reviewer for peer review excellence. He organizes the Seminar Theoretical Quantum Dynamics and contributes to reviewing for journals like Physical Review Letters and Nature Physics. He has secured significant funding, including a 4-year scholarship for student Michael Quin. Lab/Teams: Leads the Extreme Field Group at MPIK, focusing on advancing understanding of quantum plasma phenomena and relativistic astrophysical processes through theoretical and computational approaches.

Charles WangView profile

Academic

• General Relativity
• Quantum Gravity
• Modified Gravity
• +13 more

Dr. Charles Wang is a Reader in the Department of Physics at the University of Aberdeen, within the School of Natural and Computing Sciences. He has held this position since 2005 and is also an Honorary Cruickshank Lecturer in Astronomy at the same institution. His academic journey began with a BSc in Physics from National Taiwan University, followed by a Certificate of Advanced Study in Mathematics from Cambridge, and culminated in a PhD in Mathematical Physics from Lancaster University. Education: BSc (National Taiwan University), CASM (Cambridge), PhD (Lancaster) Current Position: Reader, Department of Physics, University of Aberdeen Additional Role: Honorary Cruickshank Lecturer in Astronomy Dr. Wang's research lies at the intersection of theoretical physics and experimental gravity, focusing on general relativity, quantum gravity, modified gravity, astrophysics, and cosmology. He is a pioneer in quantum gravity phenomenology, particularly through atom interferometry techniques. His work extends into applied mathematics, including differential geometry, Clifford algebra, and the Cosserat theory of rods. He actively collaborates with industry and research institutions on quantum sensing, gravity gradiometry, and precision measurement applications. His recent publications reveal a strong trajectory in quantum aspects of gravity, including Unruh radiation, gravitational decoherence, quantum sensing of spacetime fluctuations, and loop quantum gravity formulations. These works are published in high-impact journals such as Physical Review D, Classical and Quantum Gravity, and the European Physical Journal C. Scientific honors include being a Fellow of the STFC Centre for Fundamental Physics. He has secured significant research funding from sources like MoD/Dstl, EPSRC, UKSA, and BP for projects related to quantum gravity experiments and gravity sensing technologies. STFC Centre for Fundamental Physics Fellow Dr. Wang has supervised PhD students and contributed to major international collaborations such as STE-QUEST (ESA mission candidate), GG-TOP (with Birmingham), and CERN-related supernova research. He has also served in professional roles including Grampian Regional Organiser for the Institute of Physics in Scotland and as a Series Editor for Springer Briefs in Physics. He is affiliated with research groups including the Plasma Science Research Group (PSRG) and contributes to interdisciplinary initiatives such as the Advanced Centre for Energy and Sustainability (ACES).

• Quantum Device Physics
• Graphene and 2D Materials
• Superconducting Circuits
• +3 more

Sergey Kubatkin is a Full Professor at the Quantum Device Physics department within the Department of Microtechnology and Nanoscience (MC2) at Chalmers University of Technology , Sweden. His research focuses on quantum devices , graphene-based electronics , and 2D material heterostructures , with applications in quantum computing and metrology . He leads projects under the Graphene Flagship and collaborates with institutions like the European Commission and Knut and Alice Wallenberg Foundation . Key Research Areas: Quantum transport in graphene and 2D materials Decoherence mechanisms in superconducting circuits Van der Waals heterostructures for electronic devices Near-field scanning microwave microscopy Quantum Hall effect for metrology Recent Publications highlight advancements in epigraphene stability , ultranarrow semiconductor transistors , and spin-echo suppression in quantum circuits . His work addresses challenges in quantum noise reduction and low-power electronic devices , often leveraging collaborations with teams like the European Research Council and Swedish Foundation for Strategic Research . Scientific Contributions include foundational studies on graphene quantum Hall resistance standards and single-molecule electronics . Current projects, such as Quantum geometry and flat bands (2025–2030), aim to explore room-temperature superconductivity through 2D material engineering. His lab develops scalable graphene bolometers and high-precision microwave detectors for quantum technologies.

• Quantum Optics
• Quantum Information Science
• Quantum Imaging
• +3 more

Prof. Juan P. Torres is a Professor at ICFO (Institut de Ciències Fotòniques) leading the Quantum Engineering of Light research group. His work focuses on generating and tailoring novel forms of classical and quantum light for fundamental quantum theory exploration and applications in secure communications, high-resolution imaging, and precision probing. His research centers on quantum optics and photonics with specialized expertise in spatial and frequency engineering of photons. He pioneers techniques for tailoring spatial entanglement through spontaneous parametric down-conversion schemes, enabling the generation of qudits with on-demand properties. His group actively develops quantum imaging methods using undetected light and explores high-dimensional quantum information processing. Analysis of his recent publications reveals dominant trends in quantum imaging with undetected photons, high-dimensional quantum teleportation, and decoherence-assisted quantum key distribution. His work consistently bridges theoretical quantum mechanics with practical implementations in optical coherence tomography and quantum communication protocols, emphasizing spatial mode manipulation. Prof. Torres maintains active international collaborations with leading researchers including Prof. Bahaa Saleh (CREOL), Prof. Malvin Teich (Boston University), Dr. Fabio Sciarrino (University of Rome), Prof. J. H. Eberly (University of Rochester), and Dr. Alfred U'Ren (UNAM). His laboratory features two fully equipped optical facilities with four optical tables, multiple laser systems across wavelengths, single-photon detectors, nonlinear crystals, and advanced spectroscopy equipment for quantum light generation and characterization.

• Quantum Physics
• Condensed Matter Physics
• Theoretical Physics
• +3 more

Prof. Luis Santos is a Professor and Executive Director at the Institute of Theoretical Physics, part of Leibniz University Hannover's Faculty of Mathematics and Physics. He leads the Institute's Executive Board and serves as Spokesperson for the Student Council of Mathematics and Physics. His research focuses on quantum many-body systems, including ultracold atoms, dipolar Bose-Einstein condensates, and topological phases in optical lattices. He is a key member of the Collaborative Research Centre (CRC 1227) 'Designed Quantum States of Matter (DQ-mat)' and the Cluster of Excellence 'QuantumFrontiers.' Prof. Santos' work bridges theoretical physics with quantum technologies, exploring topics like non-equilibrium dynamics, quantum phase transitions, and entanglement in strongly correlated systems. His group contributes to advancing quantum simulation methods and the understanding of quantum droplets, polarons, and exotic phases in dipolar systems. He maintains affiliations with multiple research networks, including the CRC 1227 Executive Board and QuantumFrontiers, reflecting his role in shaping interdisciplinary quantum research. His research group's activities are centered at the Institute of Theoretical Physics, where they investigate cutting-edge phenomena in quantum matter.