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Robert BoydView profile

Professor

• Nonlinear Optics
• Optical Physics
• Quantum Optics
• +3 more

Robert Boyd is a Professor of Optics and Physics at the University of Rochester and holds a Canada Excellence Research Chair at the University of Ottawa. He leads major research initiatives in nonlinear optics, quantum optics, and metamaterials. His work spans theoretical and applied optics, with focus on nonlinear optical interactions, epsilon-near-zero materials, and advanced imaging techniques. Education: BS in Physics from MIT (1977), PhD in Physics from UC Berkeley (1977), supervised by Charles Townes. He joined the University of Rochester faculty in 1977 and expanded his research to the University of Ottawa in 2010. His research group operates in both institutions, emphasizing interdisciplinary collaborations. Research interests include nonlinear optical properties of materials, quantum optics, nanophotonics, and metamaterials. His team explores applications like optical imaging, plasmonic devices, and high-efficiency nonlinear processes in novel materials. Awards include Fellowships from the Optical Society of America and American Physical Society. He authored seminal textbooks such as Nonlinear Optics (1992) and holds nine US patents. His group’s work has produced over 350 publications and trained 33 PhD students. Labs and teams: The Boyd Group operates at both universities, with teams focused on nonlinear optics, quantum photonics, and metamaterials. Active projects include epsilon-near-zero-based devices, high-harmonic generation, and turbulence-resilient optical communications.

Sharon M WeissView profile

Professor

• Photonics
• Nanotechnology
• Silicon Photonics
• +3 more

Sharon M Weiss is the Cornelius Vanderbilt Professor of Engineering and holds joint appointments in Electrical Engineering, Materials Science & Engineering, and Physics at Vanderbilt University's School of Engineering. She directs the Vanderbilt Institute of Nanoscale Science and Engineering. Her research focuses on light-matter interaction, silicon photonics, porous silicon biosensors, and nanotechnology. She earned a B.S., M.S., and Ph.D. in Optics from the University of Rochester. Her work spans advanced photonic crystal designs, ultra-sensitive biosensors, and radiation-tolerant optical components for aerospace applications. Recent projects include photonic metacrystals for high-Q cavities and porous silicon sensors for rapid diagnostics. She has pioneered integration of phase-change materials like VO₂ in silicon photonics for ultrafast optical switching. Publications emphasize subwavelength photonics, biosensing innovations, and space-qualified optoelectronics. Her lab develops hybrid waveguides, nanobeam cavities, and AI-enhanced sensing systems. Collaborations include NASA and industry partners for biomedical and defense applications.

Thomas BifanoView profile

Professor

• Photonics
• MEMS (Microelectromechanical Systems)
• Adaptive Optics
• +4 more

Dr. Thomas Bifano is a Professor of Mechanical Engineering and Director of the Boston University Photonics Center. He holds affiliations with the Biomedical Engineering, Materials Science & Engineering, and Electrical & Computer Engineering departments. His research focuses on MEMS technologies, adaptive optics, and biomedical imaging applications. Dr. Bifano leads interdisciplinary initiatives in photonics, including commercialization of deformable mirrors via Boston Micromachines Corporation. He directs the Neurophotonics Research Training Grant and participates in the NSF Engineering Research Center on Cellular Metamaterials (CELL MET). His lab develops optical instruments for microscopy and telescope instrumentation, emphasizing light control through deformable mirrors. Recent work includes engineered heart tissue studies and high-throughput cardiac tissue screening. Education: PhD from North Carolina State University. Key Roles: Former Chair of the Manufacturing Engineering Department (1999-2006). Affiliations: Photonics & Optical Systems, Neuroscience & Neuroengineering. Grants & Collaborations: NSF CELL MET, BU Photonics Center innovation programs. Facilities: Manages state-of-the-art shared labs and a business innovation center at the Photonics Center.

• Materials Science
• Energy Materials
• Neutron Scattering Methods
• +3 more

Maths Karlsson is a Professor in Materials Science at Chalmers University of Technology since 2023. Previously, he worked at the European Spallation Source (2008–2011) and held visiting roles at Iowa State University (2004) and UC Santa Barbara (2012–2013). He chairs the Faculty Assembly of the Department of Chemistry and Chemical Engineering and serves on the Chalmers Faculty Senate. His research focuses on functional materials for energy applications, including proton-conducting oxides, metal halide perovskites, and inorganic phosphors. Utilizing advanced neutron and x-ray scattering techniques, his group explores structure-dynamics relationships in materials for devices like solid oxide fuel cells and solar cells. Experimental methods are emphasized, with a focus on developing novel scattering methodologies. Recent publications highlight advancements in optical communications, photonic integration, and machine learning applications in signal processing. Key themes include nonlinear optics, silicon nitride waveguide technologies, and polarization-insensitive receiver designs. His work bridges fundamental materials research with applied photonics for high-speed data transmission and network resilience. Awards: No specific prizes mentioned in the provided texts. Grants and advising details are absent from the data. Research group: Active in Chalmers' Department of Chemistry and Chemical Engineering, focusing on materials for energy and photonics. Collaborations include Institut Laue-Langevin and industry partners.

Duncan Paul HandView profile

Professor

• Photonics
• Laser Technology
• Medical Device Manufacturing
• +4 more

Professor Duncan Paul Hand is a distinguished academic at Heriot-Watt University, holding dual appointments in the School of Engineering & Physical Sciences and the Institute of Photonics and Quantum Sciences. He specializes in applied photonics, with expertise in laser technology and its applications across diverse sectors including aerospace, medical devices, and defense. He leads the £12M Medical Device Manufacturing Centre (MDMC) and directs a £1M project on ultra-short pulsed laser welding. His career includes roles such as Assistant Vice Principal Research and Impact, and Acting Deputy Principal (Pro-VC) Research and Impact. Education: BSc in Physics with Electronics (University of St Andrews, 1986); PhD in Optical Fibres (University of Southampton, 1991). Professional milestones include promotions from Research Associate (1991) to Professor of Applied Photonics (2003), alongside leadership in academic administration. His research focuses on photonics-enabled manufacturing, laser material processing, and sustainable engineering solutions aligned with UN SDGs. Research interests emphasize industrial collaborations with firms like Renishaw and Leonardo, advancing applications in medical device fabrication, optical materials, and energy-efficient technologies. Recent work includes innovations in laser welding of optical materials and stress management in bonded components. He oversees the Pico Second Laser Machining facility and has contributed to over 398 research outputs, with datasets and activities highlighting advancements in microfluidics, anti-counterfeiting holography, and laser beam shaping.

Cynthia F. MossView profile

Professor

• Sensory coding
• Auditory neuroscience
• Spatial perception
• +6 more

Cynthia F. Moss is a Professor in the Department of Psychological and Brain Sciences at Johns Hopkins University (JHU), with joint appointments in Neuroscience and Mechanical Engineering. She directs the Comparative Neural Systems and Behavior Laboratory (Bat Lab), investigating neural mechanisms of sensory perception and spatial navigation in echolocating bats. Her work combines neurophysiology, behavioral ecology, and engineering to study how bats process auditory information for navigation, communication, and obstacle avoidance. Dr. Moss earned a B.S. (summa cum laude) from the University of Massachusetts, Amherst, and a Ph.D. from Brown University. She held prior faculty positions at Harvard University and the University of Maryland, where she directed the Neuroscience and Cognitive Science graduate program. Her research has received prestigious awards including the Hartmann Award (2017), James McKeen Cattell Award (2018), and Alexander von Humboldt Research Prize (2019). Her research focuses on sensory coding of natural stimuli, spatial perception, attention, and adaptive motor control. Key findings include discoveries about 3D auditory space representation in the midbrain, age-resistant hearing in bats, and the role of wing hairs in flight control. Her lab employs innovative techniques like wireless neural recording, two-photon imaging, and DREADDs-mediated inactivation to study neural circuits. Dr. Moss collaborates across disciplines, bridging neurobiology, robotics, and sensory systems engineering. Her work informs biomimetic technologies for sonar navigation and adaptive control systems. She actively mentors students and postdocs in the Krieger School of Arts and Sciences, Whiting School of Engineering, and School of Medicine at JHU.

Eray S. AydilView profile

Professor

• Photovoltaics
• Solar Cells
• Plasmas
• +3 more

Eray S. Aydil is the Senior Vice Dean of the NYU Tandon School of Engineering and holds the Alstadt Lord Mark Professorship in Chemical and Biomolecular Engineering. He previously served as Executive Officer of the Department of Chemical Engineering and Materials Science at the University of Minnesota and held faculty roles at UC Santa Barbara. His research focuses on electronic/optoelectronic materials, plasma synthesis, and renewable energy technologies, particularly photovoltaics and solar cells. He earned his B.S. degrees in Chemical Engineering and Materials Science from UC Berkeley (1986) and his Ph.D. in Chemical Engineering from the University of Houston (1991). Affiliations: NYU Tandon School of Engineering, American Vacuum Society Fellow, Editor-in-Chief of Journal of Vacuum Science and Technology Education: UC Berkeley (B.S.), University of Houston (Ph.D.) Research interests include semiconductor synthesis for solar energy applications, plasma-assisted materials processing, and nanomaterials characterization. Key projects involve hybrid perovskite materials, pyrite solar cells, and plasma synthesis techniques. Recent work emphasizes lead-free perovskites, quantum cutting materials, and insulator-metal transition phenomena in nanocrystals. Over 200 publications highlight contributions to perovskite optoelectronics, nanocrystal networks, and photovoltaic materials. Awards include the Peter Mark Award and Plasma Prize from the American Vacuum Society. His lab explores energy-efficient materials, solar cell efficiency, and sustainable chemical processes.

• Medical Physics
• Radiation Oncology
• Proton Therapy
• +3 more

Sara Margareta Cecilia Pilskog serves as an Associate Professor in the Department of Physics and Technology at the University of Bergen, Norway, with dual affiliation at Haukeland University Hospital's Department of Cancer Treatment and Medical Physics. Her research bridges theoretical medical physics and clinical oncology applications, focusing on precision radiotherapy techniques and biological optimization. Her primary research interests center on proton therapy innovation, where she investigates biological optimization strategies using linear energy transfer (LET) and relative biological effectiveness (RBE) modeling. She develops adaptive radiotherapy frameworks to address inter-fractional motion in pelvic cancers, particularly prostate and rectal malignancies. Her work also pioneers neutron-based in-vivo range verification systems and statistical deformation models for dose accumulation. Current projects emphasize reducing treatment margins through anatomical robustness and optimizing biological dose distributions for organ sparing. Analysis of her 15 most recent publications reveals a dominant focus on improving proton therapy precision for pelvic cancers through biological modeling and motion management. Approximately 70% of her work addresses prostate cancer applications, with significant contributions to adaptive strategies for inter-fractional changes and biological optimization techniques. Her research consistently employs Monte Carlo simulations (particularly FLUKA) and clinical data analysis to translate theoretical models into clinically viable solutions. No scientific awards were documented in the provided materials. While specific advising details remain unreported, her collaborative patterns indicate active mentorship within the University of Bergen's medical physics research ecosystem. Her publications consistently involve junior co-authors from clinical physics teams at Haukeland University Hospital, suggesting hands-on supervision of technical staff and research fellows in radiotherapy innovation projects. Grant funding appears primarily channeled through institutional hospital-university partnerships focused on clinical translation of advanced radiotherapy techniques. Dr. Pilskog operates within the University of Bergen's medical physics research cluster that maintains close operational ties to Haukeland University Hospital's radiotherapy department. This integrated academic-clinical environment enables direct implementation of her research on adaptive proton therapy and biological optimization into clinical workflows, with particular emphasis on pelvic cancer treatment protocols. The team utilizes advanced Monte Carlo simulation platforms and clinical treatment planning systems to develop and validate next-generation radiotherapy approaches.

• Nano-Optics
• Nano-Electronics
• Quantum Information Processing
• +6 more

Professor Hong Koo Kim is a distinguished academic at the University of Pittsburgh's Swanson School of Engineering, serving as the Graduate Program Director. He holds the Bell of PA/Bell Atlantic Professorship, a prestigious title spanning over 15 years (2008–present). His research focuses on nano-optics, nano-electronics, and quantum technologies, with applications in energy-efficient computing and communications. Research Highlights: Quantum-dot light sources for quantum information processing Plasmonic metamaterials for integrated quantum photonics Nano-vacuum transistors for extreme environments Nanoscale integration of systems for multifunctional operations He has been recognized with the Pitt Innovator Award (multiple years) and the Beitle-Veltri Memorial Award for Teaching Excellence. His leadership roles include organizing international symposia and advising committees for nanotechnology initiatives.

• Nonlinear Partial Differential Equations
• Calculus of Variations
• Materials Science
• +5 more

Robert V. Kohn is the Silver Professor of Mathematics at New York University, affiliated with the Courant Institute of Mathematical Sciences (CIMS). He holds academic positions within the Department of Mathematics at the College of Arts & Science and the Graduate School of Arts & Science. His research focuses on nonlinear partial differential equations (PDEs), calculus of variations, and their applications to materials science, thin elastic sheets, and machine learning. Education: Ph.D. in Mathematics from Princeton University (1979), M.Sc. from the University of Warwick (1975), and A.B. from Harvard University (1974). Research interests span elastic energy-driven pattern formation (e.g., wrinkling, folding), PDEs in machine learning (e.g., prediction with expert advice), and continuum mechanics. Recent work includes variational analysis of thin film mechanics and PDE-based approaches for binary sequence prediction. His articles explore topics ranging from metamaterials to stochastic growth models. Notable themes in his publications include energy minimization in materials, optimal control analogies in learning algorithms, and mathematical modeling of physical phenomena. While no formal awards are listed, his contributions to PDE theory and applied mathematics are widely recognized. Advising and grants details are not explicitly documented here.

Zoltán HarmanView profile

Researcher

• Quantum Electrodynamics
• Atomic Physics
• Highly Charged Ions
• +12 more

Zoltán Harman is a Leading Scientist at the Max Planck Institute for Nuclear Physics (MPIK) in Heidelberg, Germany, and is affiliated with Heidelberg University. He conducts cutting-edge research in atomic physics, quantum electrodynamics, and precision measurements, particularly using highly charged ions and Penning trap techniques. He holds a habilitation in physics from Heidelberg University and regularly lectures there on advanced topics such as quantum electrodynamics and theoretical physics. Research Interests: Quantum Electrodynamics (QED) in strong fields Precision spectroscopy of highly charged ions g-factor measurements and tests of fundamental physics Development of atomic clocks using highly charged ions Determination of fundamental constants (e.g., electron mass, fine-structure constant) Searches for new physics beyond the Standard Model, including fifth forces Neutrino mass determination via Penning trap measurements His recent publications (2024–2025) focus on high-precision g-factor measurements in ions like tin and beryllium, two-loop QED calculations, King plot analyses for new boson searches, and neutrino mass studies. These works appear in top journals such as Nature , Physical Review Letters , and Science , reflecting his leadership in precision atomic physics. Scientific Awards and Grants: Postdoctoral scholarship from the Max Planck Society (2005–2007) EMMI Visiting Professor Scholarship (2012, 2013) Erasmus student scholarship (1999–2000) Primary investigator of the ISOQUANT Collaborative Research Centre (SFB1225) Teaching and Advising: Harman has been a regular lecturer at Heidelberg University since 2008, teaching courses in quantum electrodynamics, theoretical physics, and experimental physics. He co-organizes advanced lecture series and supervises student research projects, including poster sessions and talks. He is also a lecturer in the International Max Planck Research School on Quantum Dynamics. Research Group and Collaborations: Harman is a key member of the quantum dynamics group at MPIK, led by Prof. Christoph H. Keitel. His work involves close collaboration with experimental teams at MPIK, GSI, and Heidelberg University, combining theoretical and experimental efforts in precision physics. He is actively involved in major projects such as PENTATRAP and ALPHATRAP, which aim to push the limits of atomic and nuclear measurements.

• Laser Physics
• Nonlinear Optics
• Fiber Lasers
• +5 more

Irina T. Sorokina is a Professor of Physics and the head of the Laser Physics Group at the Norwegian University of Science and Technology (NTNU). Her research focuses on ultrafast laser technology, nonlinear optics, and mid-infrared laser applications. She has pioneered advancements in solid-state lasers, femtosecond pulse generation, and mid-IR laser applications in sensing, materials processing, and quantum computing. Prof. Sorokina is a Fellow of the Optical Society of America (2006) and recipient of the IEE Snell Premium Award (2004). She co-founded ATLA Lasers AS, an NTNU spin-off company. Her research interests include femtosecond laser writing, mid-IR laser development, and applications in materials processing, spectroscopy, and quantum technologies. Recent work explores ultrafast laser modification of silicon and ZnS crystals, energy scaling of mid-IR oscillators, and dissipative soliton dynamics. Key contributions include advancements in chirped-pulse amplifiers, subsurface material processing, and frequency comb generation. Awards: Fellow of OSA (2006), IEE Snell Premium Award (2004) Lab/Group: Laser Physics Group at NTNU Spin-off: Co-founder of ATLA Lasers AS Publications emphasize mid-IR laser systems, ultrafast processing techniques, and interdisciplinary applications spanning from quantum sensors to industrial manufacturing.

• Silicon Devices
• Wide Bandgap Semiconductors
• High-Frequency Electronics
• +3 more

Mikael Östling is a Professor at KTH Royal Institute of Technology, holding a position in the Division of Electronics and Embedded Systems within the School of Information and Communication Technology. He earned his MSc (1980) and PhD (1983) in engineering physics from Uppsala University. Since 1984, he has been a faculty member at KTH, serving as Deputy President (2017–2022), Dean of the School of ICT (2004–2012), and Head of the Department of Microelectronics and Information Technology (2000–2004). He has held visiting roles at Stanford University and the University of Florida. His research focuses on silicon/silicon germanium devices, wide bandgap semiconductors (e.g., silicon carbide), and high-power/high-frequency applications. He has authored over 600 papers, 10+ book chapters, and a textbook. Key achievements include co-founding TranSiC (2005), securing the ERC Advanced Investigator Grant (2009), and serving as Editor-in-Chief of IEEE Journal of Electron Devices Society (2016–2019). He is an IEEE and ECS Fellow. Östling has supervised 50 PhD theses and contributed to innovations like high-temperature silicon carbide circuits and graphene-based sensors. His work spans academic leadership, industry collaboration, and global research advisory roles in EU frameworks and the European Research Council.

Caroline MuellenbroichView profile

Senior Lecturer

• Light-sheet microscopy
• Biomedical imaging
• Neuroscience
• +5 more

Dr. Caroline Muellenbroich is a Senior Lecturer at the School of Physics & Astronomy, University of Glasgow, where she develops advanced microscopy techniques for cardiac and neuro imaging. She joined the university in 2018 and is based at the Advanced Research Centre. Her work bridges physics, engineering, and biomedical sciences to create innovative imaging solutions. Dr. Muellenbroich received her physics education at the University of Heidelberg, Germany, and earned her PhD from the Institute of Photonics, University of Strathclyde, Glasgow in 2012. Her doctoral research focused on adaptive optics in advanced microscopy techniques. She then pursued postdoctoral research at the Biophotonics group at the European Laboratory for Nonlinear Spectroscopy (LENS) in Florence, Italy, where she implemented confocal light-sheet microscopy for whole mouse brain imaging and functional calcium imaging in Zebrafish. From 2016-2018, she worked as a researcher with the Italian National Institute of Optics, part of the Italian National Research Council. Dr. Muellenbroich's research focuses on developing and applying advanced optical imaging techniques, particularly light-sheet microscopy, for biomedical applications. Her work spans neuroscience and cardiology, with a strong emphasis on whole-brain imaging in model organisms and cardiac electrophysiology studies. She has made significant contributions to improving imaging fidelity, developing artifact removal techniques, and creating open-source microscope hardware. Her research bridges fundamental physics with practical biomedical applications, enabling new discoveries in brain function and cardiac physiology. Analysis of her recent publications reveals a strong focus on light-sheet microscopy applications in neuroscience and cardiology. Her work addresses technical challenges in whole-brain imaging, artifact reduction, and the development of novel optical approaches for studying brain activity and cardiac function. She has made important contributions to the field through both technical innovations in microscopy hardware and novel applications of these techniques to biological problems. Dr. Muellenbroich is actively involved in developing open-source approaches to microscope hardware, as evidenced by her 2022 Nature Methods publication "CAD we share? Publishing reproducible microscope hardware." Her research has been supported by various grants, though specific funding sources are not detailed in the available information. She leads research efforts in developing advanced microscopy techniques for cardiac and neuro imaging, working with interdisciplinary teams that include physicists, engineers, biologists, and medical researchers. Her laboratory likely focuses on pushing the boundaries of optical imaging to address challenging biomedical questions in brain function and cardiac physiology.

• Quantum Technologies
• Imaging
• Sensing
• +6 more

Professor Daniele Faccio is Professor of Quantum Technologies at the University of Glasgow's School of Physics & Astronomy since December 2017. He also serves as adjunct professor at the University of Arizona and was elected Fellow of the Royal Society of Edinburgh in 2017. Previously, he was at Heriot-Watt University (2010-2017) and has held visiting positions at MIT and ICFO, Barcelona. Professor Faccio leads the Extreme Light Group, focusing on quantum technologies applied to imaging and sensing. His research spans quantum-enhanced imaging through complex media, photon transport in biological tissues, and analogue gravity phenomena where intense laser pulses create artificial black holes and 'expanding universes' in laboratory settings. His work bridges fundamental physics with practical applications in biomedical imaging, security, and quantum information processing. Recent publications reveal a strong trend toward quantum-enhanced imaging techniques, machine learning applications in optical sensing, and biomedical applications of advanced optical technologies. His research integrates quantum optics, computational imaging, and photonics to develop novel sensing modalities with applications ranging from non-invasive medical diagnostics to quantum information processing. Professor Faccio has received numerous prestigious awards including the Philip Leverhulme Prize in Physics (2015) and the Royal Society of Edinburgh Senior Public Engagement Medal (2017). He was an ERC fellow from 2012-2017 and a Marie-Curie fellow at ICFO, Barcelona. As principal investigator, Professor Faccio has secured significant research funding supporting his interdisciplinary team. His work on quantum imaging, analogue gravity, and computational optics has attracted substantial grant support from major research councils. He actively mentors postdoctoral researchers and PhD students in the interdisciplinary field spanning physics, engineering, and computational science. The Extreme Light Group maintains state-of-the-art laser laboratories with capabilities in ultrafast optics, quantum optics, and computational imaging. Current projects focus on quantum-enhanced imaging for biomedical applications, non-line-of-sight imaging through scattering media, and exploring fundamental physics through optical analogues of gravitational phenomena.