William Wadsworth is Professor of Physics at the University of Bath, affiliated with the Centre for Photonics and Photonic Materials. His research focuses on photonic crystal fibres (PCFs) and hollow-core fibre technologies, with applications spanning quantum information, medical imaging, and fundamental metrology. Research Expertise Professor Wadsworth designs and fabricates microstructured optical fibres enabling unprecedented light control. His work centers on: Development of hollow-core anti-resonant fibres for deep ultraviolet guidance Supercontinuum generation across UV-to-infrared spectra Medical applications including UV light therapies and malaria diagnostics Quantum optical systems using alkali-metal vapours in fibres Research Impact His recent publications (2024-2025) demonstrate cutting-edge advances in hollow-core fibre technology for deep-UV applications and medical diagnostics. Key trends include resonance-free supercontinuum generation, integration of AI with photonics for malaria detection, and novel fibre designs enabling quantum applications. These innovations directly support UN Sustainable Development Goals in health and clean energy. Grants and Supervision Professor Wadsworth leads 24 research projects including: U-Care (2021-2026): Deep Ultraviolet Light Therapies (EPSRC) International Collaboration Awards (2020-2023): Clean Air (Royal Society) Plasmon-Enhanced Alkali-metal Vapours (2017): Quantum optical applications He has supervised 18 doctoral students and currently accepts new PhD candidates in photonics and fibre optics. Research Environment As core faculty in Bath's Centre for Photonics and Photonic Materials, he collaborates internationally with institutions in quantum optics, air pollution analysis, and medical instrumentation, maintaining active partnerships across Europe and Asia.
Professor James Im serves as Professor of Materials Science in the Departments of Earth and Environmental Engineering and Applied Physics and Applied Mathematics at Columbia University, with an office at 1106 S.W. Mudd (Mail Code 4701). His academic career spans over three decades at Columbia, where he progressed from Assistant Professor (1991-1994) to Associate Professor (1995-2002), and ultimately to full Professor (2002-present), including a tenure as Chair of the Materials Science and Engineering Program (2002-2014). His educational background includes a B.S. with Distinction in Materials Science from Cornell University (1984) and a Ph.D. in Electronic Materials from MIT (1989), followed by postdoctoral research at Caltech (1989-1991). Cornell University: B.S. Materials Science (1984) MIT: Ph.D. Electronic Materials (1989) Caltech: Postdoctoral Scholar (1989-1991) Im's research centers on ultra-rapid phase transitions in beam-irradiated thin films, specifically focusing on laser crystallization of silicon films , energy-beam-induced melting and solidification , and nucleation in discontinuous phase transitions . His work employs experimental, computational, and theoretical approaches to develop innovative semiconductor materials for advanced displays, solar cells, and integrated circuits. Notably, his invention of Sequential Lateral Solidification (SLS) technology has been licensed to major display manufacturers (Samsung, LG, Sharp) and implemented in products by Apple, Blackberry, and Nokia. Current research focuses on advancing the Spot-Beam Crystallization (SBC) platform using fiber lasers for next-generation microelectronics. His publication record spans environmental aerosol studies (2019-2024), oilfield operations technology (2002-2014), and foundational atmospheric research (1980s), reflecting interdisciplinary expertise bridging materials science, environmental engineering, and petroleum technology. The most recent works emphasize low-cost sensor development and aerosol monitoring. Professional recognition includes membership in prestigious societies: Bohmisch Physical Society Sigma Xi Alpha Sigma Mu Materials Research Society American Physical Society Im's research group maintains strong industry connections through technology licensing and collaborative projects, particularly in display manufacturing. His leadership as former department chair demonstrates administrative commitment alongside scientific innovation. The laboratory leverages state-of-the-art laser systems and beam delivery optics for materials development, with recent focus shifting toward environmental monitoring applications while maintaining core semiconductor research.
Ying Wu is a Professor of Physics at Duke University within the Trinity College of Arts & Sciences . His research focuses on the nonlinear dynamics of charged particle beams , coherent radiation sources , and the development of novel accelerators and light sources using advanced mathematical frameworks like Lie Algebra, Differential Algebra, and Frequency Analysis. His work has significantly enhanced understanding of nonlinear phenomena in light source storage rings and collider rings, with applications in Gamma-ray source development Free-electron laser (FEL) technology Beam stability and diagnostics VUV mirror protection systems Polarization-controlled radiation sources High-reflectivity cavity design Recent publications highlight experimental and theoretical advances in Orbital angular momentum beam generation Photonuclear cross-section measurements Storage ring lattice optimization Multi-color FEL operation Longitudinal beam instability control Differential algebra for particle dynamics Current research programs include collaborations with the High Intensity Gamma-ray Source (HIγS) facility and the Triangle Universities Nuclear Laboratory , with active grants from the Department of Energy (1997–2027), National Institutes of Health (2024–2026), and Ian's Friends Foundation (2024–2025). Ying Wu's laboratory specializes in Free-electron laser cavity design Gamma-ray beam characterization Storage ring diagnostics systems High-current electron beam control Polarization-sensitive detection Next-generation light source development
Matthew J. Graham is a Research Professor of Astronomy at the California Institute of Technology (Caltech), serving as the Project Scientist for the Zwicky Transient Facility (ZTF). His work bridges astronomy, machine learning, and data science, focusing on time-domain sky surveys that produce hundreds of thousands of public transient alerts per night. Previously, he has worked on the Catalina Real-time Transient Survey (CRTS), NOAO DataLab, Virtual Observatory, and Palomar-Quest Digital Sky Survey. Dr. Graham's primary research interests involve applying machine learning and advanced statistical methodologies to astrophysical problems, particularly the variability of quasars and other stochastic time series. His work addresses the unprecedented data volumes generated by 21st-century astronomy while expanding our ability to work with complex information systems beyond simple correlations. His current projects include real-time low latency inferencing via the NSF-funded A3D3 Institute, reinforcement learning for optimizing astrophysical follow-up campaigns, neural differential models for supermassive black hole variability, and functional analysis of multivariate time series. Analysis of Graham's recent publications reveals a strong focus on time-domain astronomy, particularly leveraging the capabilities of the Zwicky Transient Facility. His work spans multiple areas including gravitational wave counterpart identification, active galactic nuclei variability, supernova characterization, and machine learning applications for transient detection. A notable trend is the integration of artificial intelligence techniques to handle the massive data streams from modern sky surveys, enabling real-time analysis and decision-making that would be impossible with traditional methods. Dr. Graham has been instrumental in developing infrastructure for time-domain astronomy, including the alert distribution system for ZTF and data processing pipelines for handling massive transient datasets. His work on the Catalina Real-time Transient Survey established important methodologies for identifying variable and transient sources that continue to influence the field. As Project Scientist for ZTF, Graham leads a major international collaboration involving Caltech, IPAC, and numerous partner institutions worldwide. The facility represents a significant advancement in time-domain astronomy, providing unprecedented coverage of the dynamic sky and enabling discoveries across multiple areas of astrophysics.
Uwe Bergmann is the Martin L. Perl Endowed Professor in Ultrafast X-Ray Science at the University of Wisconsin-Madison's Department of Physics. His research leverages advanced X-ray techniques to study nonlinear phenomena, real-time chemical reactions, and structural changes in both biological and material systems, with a focus on photosynthesis and ancient cultural heritage. PhD in Physics from Stony Brook University Former affiliations: National Synchrotron Light Source, European Synchrotron Radiation Facility, Lawrence Berkeley National Laboratory, Stanford Synchrotron Radiation Lightsource, Linac Coherent Light Source, Stanford PULSE Institute His work spans ultrafast X-ray spectroscopy, synchrotron methods, and the development of novel instruments like the X-FAST tabletop spectrometer. Research themes include: Photosynthetic water oxidation mechanisms using femtosecond X-ray crystallography Electronic and structural dynamics in 2D materials and metalloenzymes Imaging ancient fossils and manuscripts with X-ray techniques Advancing X-ray laser and synchrotron instrumentation Recent publications highlight attosecond X-ray pulses, catalysis under extreme conditions, and structural intermediates in photosystem II. His work intersects physics, chemistry, and paleobiology. Scientific recognition includes the Martin L. Perl Endowed Professorship. He leads the Bergmann Research Group, mentoring graduate students and postdocs in ultrafast X-ray science.
Dr Andrew Thomas is a Senior Lecturer in the School of Materials at The University of Manchester, based in the Photon Science Institute. He holds a PhD in Adsorbate Studies of Titanium Oxides from the University of Liverpool (1994) and an MSc in Instrumentation and Analytical Science from UMIST (1990). His roles include Research Fellow and membership in professional committees such as the Thin Films and Surfaces Group of the Institute of Physics and the Diamond Light Source User Committee. His research focuses on surface science, biomaterials, catalysis, and photovoltaic materials. He has led projects like the £2 million bid to the Sir Henry Royce Institute for advanced spectroscopy instruments. Education: PhD (University of Liverpool), MSc (UMIST), BSc (University of Manchester) Research Groups: Biomaterials, Corrosion and Protection, Ceramics and Inorganics Key Projects: Manchester Bioelectronics Network, development of novel spectroscopy instruments His research interests span organic molecule interactions with surfaces, corrosion mechanisms, and solar energy materials. He has published over 119 articles and contributed to datasets on material characterization. Thomas is actively involved in outreach, including lectures and partnerships with schools for science education initiatives.
Donald T. Miller is a Professor at Indiana University School of Optometry, where he teaches optics to professional and graduate students while leading cutting-edge research in high-resolution retinal imaging. He serves as Graduate Faculty with endorsement to chair PhD committees and maintains an active laboratory developing adaptive optics and optical coherence tomography systems. His educational background includes: Ph.D. in Optics, University of Rochester (1996) B.S. in Applied Physics, Xavier University (1988) Dr. Miller's research pioneers "living histology" – observing cellular processes in the living retina through advanced optical imaging. His work focuses on developing instruments that capture structural and physiological changes at the cellular level, enabling early detection of retinal pathologies. Key innovations include adaptive optics correction for ocular aberrations and MEMS-based OCT systems, with applications targeting age-related macular degeneration, glaucoma, and diabetic retinopathy. His recent publications (2020-2024) demonstrate an evolution from instrument development toward clinical translation, emphasizing ultrafast imaging techniques and cellular-level analysis of retinal diseases. The research consistently bridges optical engineering, neuroscience, and ophthalmology to achieve unprecedented in vivo visualization. Scientific recognition includes: 2024 Rank Prize in Optoelectronics for adaptive optics retinal imaging R&D 100 Award for MEMS-based OCT development Trustees’ Teaching Award (twice) Fellow of the Optical Society of America As a mentor, Dr. Miller chairs PhD committees and leads the Miller Lab – a hub for optical innovation with strong NIH R01 funding. His lab collaborates with the Center for Adaptive Optics and NIH Bioengineering Research Partnerships, translating fundamental optics research into clinical applications. Current work focuses on ultrafast adaptive optics for real-time cellular imaging and glaucoma diagnostics. The Miller Lab operates within Indiana University's vibrant vision research ecosystem, developing instruments that reveal cellular details across full retinal thickness. Their current projects include characterizing retinal ganglion cells in glaucoma and advancing adaptive optics for earlier blindness prevention.
Prof. Matthias Fuchs is a Professor and Head of Department for Accelerator Research and Development I at the Karlsruhe Institute of Technology (KIT). His research focuses on advanced accelerator technologies, laser-plasma acceleration, and ultrafast X-ray science. He is affiliated with the IBPT group (Institut für Beschleunigerphysik und Teilchenphysik) and coordinates activities at the Department of Physics. His work bridges fundamental plasma physics with applied accelerator engineering, aiming to develop next-generation compact light sources and ultra-short wavelength technologies. Research interests include laser-plasma electron acceleration, quasi-isochronous storage ring dynamics, and nonlinear X-ray optics. His team explores parametric excitation mechanisms, high-order beam dynamics, and novel X-ray wave mixing phenomena in materials like silicon. Collaborations involve developing predictive laser stabilization techniques and high-bandwidth imaging systems for precision experiments. No scientific awards are explicitly listed, but his contributions to the Snowmass 2021 report on advanced accelerators highlight his influence in the field. He leads the Accelerator Research and Development I group, overseeing projects like the FLUTE compact storage ring commissioning and compact transverse deflecting system experiments. His lab work focuses on creating tunable X-ray sources and studying betatron radiation generation through transverse oscillating bubbles in plasma.
Aaron Shugar is a Professor and current Bader Chair in Art Conservation at Queen’s University. With a background in archaeometallurgy and conservation science, he specializes in non-destructive analysis techniques for cultural heritage, including X-ray fluorescence (XRF), Raman spectroscopy, and hyperspectral imaging. His work bridges art history, material degradation, and technological innovation. Honours H.B.A. in Anthropology and Law & Society from York University M.S. in Archaeological Materials from the University of Sheffield Ph.D. in Archaeometallurgy from University College London His research focuses on historic artist’s pigments , ancient metallurgy , and technical history of artifacts , with particular interest in degradation pathways and manufacturing processes. Recent publications highlight trends in AI integration with XRF analysis and preservation of modern materials in art conservation. Bader Chair in Art Conservation Mellon Foundation Professor in Conservation Science Aaron co-directed the Archaeometallurgy Laboratory at Lehigh University, served as a guest scientist at NIST, and remains a research associate at the Smithsonian Institution. He actively contributes to TEFAF’s Scientific Vetting Committee and acts as a forensic materials expert for the Court of Arbitration for Art.
Ole Bang is a Professor and Groupleader of the Fiber Sensors & Supercontinuum group at the Department of Electrical and Photonics Engineering, Technical University of Denmark (DTU). His work spans fundamental and applied research in nonlinear optics, fiber sensors, and biophotonics, with strong industrial collaboration and alignment with UN Sustainable Development Goals. Research Interests: Supercontinuum broadband light sources Fiber-optical biosensors Microstructured polymer optical fibers (mPOFs) Nonlinear optics and nonlinear dynamics Numerical modelling of nonlinear pulse propagation Mid-infrared and terahertz photonics His recent publications (2025) demonstrate a strong focus on advanced optical sensing technologies, including mid-infrared surface plasmon resonance sensors, real-time DNA binding detection, and high-resolution liquid level sensors using fiber Bragg gratings. These works highlight trends toward biomedical, environmental, and industrial applications of photonic technologies. Scientific Awards: No awards mentioned in the provided text. Advising and Grants: Currently supervising multiple PhD students in active projects such as Femtosecond Fiber Lasers and Low-Noise Supercontinuum Sources , Mid-infrared supercontinuum generation and rogue waves , and UV Supercontinuum Sources and Meta-Surfaces . Projects funded through DTU PhD programs, indicating institutional grant support. Labs and Teams: Ole Bang leads the Fiber Sensors & Supercontinuum research group at DTU, focusing on the development and application of advanced fiber-based photonic technologies. The group is highly active in both experimental and theoretical research, with strong ties to industrial partners like Koheras A/S and Crystal Fibre A/S.
Maarten Coëgnarts is an Assistant Professor in Film Studies at the University of Antwerp and a Fellow of the Society of the Cognitive Studies of the Moving Image (SCSMI) . His research focuses on embodied cognition , conceptual metaphor theory , and non-verbal meaning-making in cinema , with a particular emphasis on Stanley Kubrick’s work. University of Antwerp, Film Studies, Faculty Member Research Interests Coëgnarts explores how embodied mental schemas shape cinematic perception and creation. His work bridges cognitive linguistics, neuroscience, and film theory to analyze abstract concepts in films through visual, auditory, and editing techniques . Key areas include sensory-motor grounding of emotions , spatio-temporal dynamics in art cinema , and subjectivity in narrative . Recent Publications His 2023–2022 articles examine sound analysis via container schemas , motion vectors , and temporal logic in films , while 2016–2020 works address emotional causality and metaphorical perception . He co-edited the 2023 Baltic Screen Media Review special issue on "Cinematic Minds in the Making" . Scientific Recognition Fellow, SCSMI Books He authored Film as Embodied Art: Bodily Meaning in the Cinema of Stanley Kubrick (2019) and co-edited Embodied Cognition and Cinema (2015). His work highlights filmmakers as "conceptual artists" who leverage non-verbal cinematic tools to convey abstract ideas.
Ue-Li Pen is a Professor at the Canadian Institute for Theoretical Astrophysics (CITA), which is part of the Faculty of Arts & Science at the University of Toronto. His research focuses on theoretical astrophysics where basic physical effects can be isolated from astronomical complexities. His research interests include n-body and hydro simulations, origin of galaxy spin, dark energy studies through 21cm cosmology, baryon acoustic oscillations (BAO), absorber acceleration, and research on Fast Radio Bursts (FRBs) and pulsars related to gravitational waves, wave optics, and lensing. Current projects involve the non-linear dynamics of the cosmic neutrino background, 21cm intensity mapping, pulsar VLBI scintillometry, and the Canadian Hydrogen Intensity Mapping Experiment (CHIME). Analysis of recent publications shows Pen's work spans multiple cutting-edge areas in astrophysics, particularly focused on radio astronomy techniques, gravitational wave detection methods, black hole imaging, and cosmological measurements using 21cm radiation. His research often involves innovative applications of wave optics and interferometry to solve astrophysical problems. Professor Pen maintains an active research program with numerous recent publications in top astrophysics journals, demonstrating his continued leadership in the field of theoretical astrophysics and cosmology.
Professor Carsten Welsch is a leading physicist in accelerator science and technology at the University of Liverpool. He founded the QUASAR Group in 2008 and served as Head of the Physics Department from 2016 to 2023. His work bridges cutting-edge research in antimatter physics, beam diagnostics, and innovative accelerator design with strategic leadership in education and international collaboration. PhD in Accelerator Physics, University of Frankfurt Postdoc, Max Planck Institute for Nuclear Physics CERN Fellow (2005) His research focuses on low-energy antimatter physics , plasma wakefield acceleration , and dielectric laser accelerators , with applications in medicine and global challenges. Recent publications highlight advancements in betatron radiation modeling, positronium cooling, and plasma-driven acceleration techniques. He has secured over 25M€ in EU funding for networks like AVA and EuPRAXIA, trained 100+ Marie Curie Fellows, and founded D-Beam Ltd for beam instrumentation. Awards include the Viddy Platinum Award (2022) and Helmholtz-University YIG Award (2006). As Director of the LIV.INNO Center for Doctoral Training, he champions data-intensive science education. His outreach efforts have impacted millions globally, emphasizing discovery science and accelerator technology's societal benefits.
Heidi Ottevaere is a Professor at the Faculty of Engineering of the Vrije Universiteit Brussel (VUB) since October 1, 2009. She serves as the head of the Instrumentation and Metrology platform at the Photonics Innovation Center and leads the 'biophotonics' research unit of the Brussels Photonics Team (B-PHOT), which is chaired by Prof. Hugo Thienpont. Her work focuses on the design, fabrication, and characterization of photonic components and systems for diverse applications in medical diagnostics, environmental monitoring, and industrial processes. Dr. Ottevaere earned her Electrotechnical Engineering degree with majors in Photonics from Vrije Universiteit Brussel in 1997 and completed her PhD in Applied Sciences at the same institution in 2003. Her doctoral research focused on 'Refractive microlenses and micro-optical structures for multi-parameter sensing: a touch of micro-photonics.' Professor Ottevaere's research spans multiple cutting-edge areas of photonics with particular emphasis on biophotonics, micro-optics, and optical metrology . Her work bridges fundamental science with practical applications, developing novel photonic components and systems that address real-world challenges. She has pioneered research in miniaturized optical systems for medical diagnostics, environmental monitoring, and industrial applications. Her current research focuses on advancing lab-on-a-chip technologies, microfluidic optical sensors, and novel optical fiber systems for biomedical applications. She has developed microminiaturized, integrated plastic detection units for absorbance and laser-induced fluorescence measurements in microfluidic channels, enabling portable, robust, and disposable diagnostic systems. Her recent publications demonstrate a strong trend toward integrated optical sensing systems with applications in medical diagnostics and environmental monitoring. There's a clear progression from fundamental optical component design to complete system integration, with increasing emphasis on artificial intelligence for data analysis and computational imaging techniques. Her work bridges photonics with biomedical engineering, materials science, and data science, reflecting the interdisciplinary nature of modern photonics research. Dr. Ottevaere has been recognized with several prestigious awards: Best Application award (2008) Educational award - Bronze (2019) MOC09 Contribution Award Winners (2009) As an educator and mentor, Professor Ottevaere has promoted 9 PhD students and supervised numerous master's theses. She has secured substantial research funding from diverse sources including the Fund for Scientific Research Flanders (FWO), the Institute for the Promotion of Innovation by Science and Technology in Flanders (IWT), and multiple European Framework Programs. Her current portfolio includes projects on miniaturized biosensors for drinking water screening, precision manufacturing, and photonics education initiatives in Uzbekistan. She has coordinated multiple strategic research and networking projects with regional, national, and international funding bodies. Professor Ottevaere leads the biophotonics research unit within the Brussels Photonics Team (B-PHOT), one of Europe's leading photonics research groups. Her team includes researchers working on optical metrology, micro-optics fabrication, and biophotonic applications. She collaborates extensively with industry partners including Melexis, Umicore, and Anteryon, as well as academic institutions across Europe through various EU-funded projects. She has been instrumental in developing the interuniversity engineering curriculum 'Master in Photonics' which received the EC Erasmus Mundus quality label in 2006, and continues to be the driving force behind photonics education at VUB.
Zeynep Atamer is an Assistant Professor at Oregon State University's Food Science and Technology Department, affiliated with the Food Innovation Center in Portland, OR. Her research focuses on dairy science and technology, particularly bacteriophage dynamics, spore inactivation, milk protein behavior, membrane processing, and food safety optimization. Primary affiliation: Oregon State University, Food Innovation Center Department: Food Science and Technology Research interests include: Dairy bacteriophages and their thermal/non-thermal inactivation Spore-forming bacteria in dairy processing Milk protein fractionation and functional properties Membrane separation technologies for dairy applications Cheese and fermentation process optimization Development of phage-free dairy products and sensitive detection systems Recent publications highlight advancements in UV-C/phage reduction strategies, casein-based material development, bitter peptide characterization in cheese, and encapsulation technologies for microbial control. Key subfields include dairy processing stressors, whey protein stability, and gut microbiota modulation via phage delivery. Her work integrates industrial-scale validation with lab-to-commercial translation, addressing critical challenges in dairy safety and functionality through interdisciplinary approaches spanning microbiology, biochemistry, and food engineering.
