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Bradley D. Olsen is a full professor in the Department of Chemical Engineering at the Massachusetts Institute of Technology (MIT), where he leads research at the intersection of polymer science, soft matter physics, and bioengineering. His work focuses on designing materials for critical applications in biotechnology, hemostasis, and sustainable polymer development while advancing fundamental understanding of polymer network mechanics and self-assembly. Education: Ph.D. in Chemical Engineering, University of California Berkeley (2007) S.B. in Chemical Engineering, Massachusetts Institute of Technology (2003) Olsen's research spans protein-based materials, block copolymer phase behavior, and mechanochemical hydrogels. He has pioneered methods for quantifying polymer network topology, developing hemostatic nanoparticles, and creating bio-inspired materials for selective biomolecular transport and medical applications. His recent publications emphasize data-driven approaches to polymer characterization and educational outreach in materials science. Scientific Awards: American Physical Society (APS) Fellow (2023) Fulbright Amazonia Scholar (2023) Alexander and I. Michael Kasser Chair in Chemical Engineering (2021) ACS Macro Letters Young Investigator Award (2021) MIT Committed to Caring Honor (2019) AIChE Owens Corning Early Career Award (2019) APS Dillon Medal (2018) Kavli Emerging Leader in Chemistry (2017) ACS Polymer Division Fellow (2016) Camille Dreyfus-Teacher Scholar (2015) Alfred P. Sloan Research Fellow (2014) NSF Career Grant (2013) NIH Postdoctoral Fellowship (2008-2009) Hertz Fellow (2003-2007) Barry M. Goldwater Scholarship (2002) Olsen has received significant grant support including NSF Career (2013) and AFOSR (2012) awards. His teaching activities include innovative international outreach like the 2025 soccer-themed science camp in Brazil. The Olsen Group at MIT explores advanced materials with applications ranging from trauma care to sustainable polymers.

• Polymer Science
• Materials Engineering
• Soft Condensed Matter Physics
• +4 more

Mark G. Kuzyk is the Regents Professor of Physics at the Department of Physics and Astronomy , Washington State University (WSU), within the College of Arts and Sciences . His research focuses on Nonlinear Optics , Photomechanical Materials , and Polymer Fibers , with contributions to the theoretical and experimental understanding of quantum limits in optical responses. He pioneered work on polymer fiber optics and developed novel photomechanical actuator technologies. His lab specializes in creating single-mode polymer optical fibers and has advanced research on self-healing photodegradation in dye-doped polymers. Key achievements include his seminal 2000 paper on Physical Limits on Electronic Nonlinear Molecular Susceptibilities , featured in Physical Review Letters , and a book on Polymer Fiber Optics . His work on sum rules for quantum limits has been highlighted in Circuits & Devices Magazine and media outlets like National Geographic and Wired News . Research Interests span: Nonlinear Optics and Quantum Optics Photomechanical and Photothermal Effects Photonic Crystals and Polymer Waveguides Self-healing materials and device applications Lab Facilities include specialized equipment for fabricating and testing polymer optical fibers, with notable studies on disperse red 1 azobenzene dye-doped PMMA fibers . His group investigates both fundamental physics and applied technologies, such as all-optical computing components and energy-efficient photonic devices.

• Nonlinear Optics
• Photonic Crystals
• Photomechanical Materials
• +4 more

Taylor Ware is an Associate Professor in Biomedical Engineering and Materials Science & Engineering at Texas A&M University's College of Engineering, holding the Cain Faculty Fellowship. Her research focuses on designing structured biomaterials and medical devices using stimuli-responsive polymers for clinical applications. Education: Ph.D. in Materials Science and Engineering, The University of Texas at Dallas, 2013 Research Interests: Dr. Ware pioneers the development of liquid crystal elastomers as artificial muscles and implantable electronics substrates, engineered living materials for infection treatment, and directed self-assembly of hydrogels. Her lab specializes in polymer formulation, thermomechanical testing, and microfabrication. Key research thrusts include: Smart elastomers, hydrogels, and composites for dynamic medical devices Programming liquid crystalline polymers for shape-morphing applications Engineered living materials that respond to biomolecular cues in urinary tract environments Publication Trends: Recent work (2023-2025) demonstrates convergence of materials science, microbiology, and medical device engineering. Her group advances liquid crystal elastomers for soft robotics and implantable electronics, develops engineered living materials for UTI treatment using microbial competition, and creates novel hemostats and urethral support devices. Publications emphasize translational applications in urology, wound healing, and neural interfaces. Scientific Awards: Invited Participant, NAE Japan-USA Frontiers of Engineering Bilateral (2023) Senior Member, National Academy of Inventors (2022) NSF CAREER Award (2018) Air Force Young Investigator Award (2017) NSF Graduate Research Fellowship (2011) Fellow of AIMBE (American Institute for Medical and Biological Engineering) Advising and Grants: Dr. Ware leads the Ware Lab with significant funding including an NIH R01 grant (with UT Dallas and Case Western collaborators) and the NSF CAREER award. Her lab mentors postdoctoral fellows like Mustafa (winner of a prestigious postdoctoral fellowship) and graduate students. Current projects are supported by the NSF Engineering Research Center HAND, focusing on advanced materials for healthcare applications. Laboratory and Teams: The Ware Lab collaborates globally and is featured in Texas Monthly, Houston Chronicle, and National Geographic for breakthroughs in engineered living materials. As part of the NSF HAND ERC, the lab develops dynamic materials for stress urinary incontinence treatment and collaborates with medical institutions on UTI therapies using engineered E. coli strains.

• Biomaterials
• Micro/Nanotechnology
• Medical Devices
• +7 more

Ronald G. Larson serves as the George Granger Brown Professor of Chemical Engineering and A. H. White Distinguished University Professor at the University of Michigan's College of Engineering, with additional appointments in Mechanical Engineering and Macromolecular Science & Engineering. His research leadership spans multiple departments within the Chemical Engineering Division, where he directs the Larson Lab focused on fundamental and applied soft matter physics. His research program investigates complex fluids through computational and theoretical frameworks, emphasizing polymer physics, rheology, and molecular simulations. Key thrusts include polymer melt processing, biomembrane dynamics, colloidal systems, and polyelectrolyte coacervation. The group employs advanced techniques like Brownian dynamics, coarse-grained modeling, and multiscale simulation to address challenges ranging from industrial polymer processing to biomedical applications. Recent publications (2023-2025) reveal strong momentum in rheological modeling of complex fluids, with particular emphasis on self-healing materials, wax deposition in pipelines, and crystallization mechanisms. The work bridges fundamental molecular insights with industrial applications, demonstrating consistent high-impact output across polymer science, soft matter physics, and chemical engineering domains. The Larson Lab operates as a collaborative hub within the Chemical Engineering Department, leveraging computational resources to advance understanding of fluid mechanics and material properties. Current projects integrate machine learning with traditional modeling approaches, reflecting the group's commitment to methodological innovation while maintaining strong connections to experimental validation and real-world engineering problems.

• Complex Fluids
• Fluid Mechanics
• Polymer Physics
• +6 more

Christopher T. Middlebrook is a Professor of Electrical and Computer Engineering at Michigan Technological University (MTU), with an affiliated appointment in the Physics department. He holds a visiting faculty research engineer position at Scientific Applications International Corporation (SAIC) supporting the DoD Executive Agent for Printed Circuits and has served as visiting faculty at the Naval Surface Warfare Center Crane (2016–2020). His expertise spans integrated optical devices, electronic substrate manufacturing, and photonics. Middlebrook leads the Plexus Innovation Laboratory, a campus electronics maker space, and has pioneered PCB fabrication education through courses and media contributions. Education: PhD in Optics from the University of Central Florida, MS in Applied Optics from Rose-Hulman Institute of Technology, and BS in Electrical Engineering from MTU. His research focuses on electro-optic polymers, optoelectronic integration, and advanced manufacturing techniques. He has published 49 papers, holds two patents, and secured grants totaling over $970K, including the Michigan Economic Development Corporation-funded 'Back-End Semiconductor Curriculum' initiative (2024). Research highlights include developing UV resin printer methods for PCB prototyping, optimizing polymer waveguides, and advancing quantum communication technologies. Awards include the HKN Professor of the Year (multiple years), Michigan Tech Graduate Mentor Award, and IPC Carano Teacher Excellence Award. His work bridges academia and industry, emphasizing hands-on learning and innovation. Key Grants: Back-End Semiconductor Curriculum for Advanced Substrates: $970K (2024) Mesosphere Observation Mission (MOMBO): $38K (2022–2023) Labs/Teams: Plexus Innovation Lab, MTU's Electronics Maker Space Courses Taught: EE2230 PCB Fabrication, EE3190 Optical Sensing, EE5500 Stochastic Processes, and 15+ others emphasizing photonics and optoelectronics.

• Integrated Optical Devices
• Electronic Substrate Manufacturing
• Photonics
• +3 more

Michael Rubinstein is the Aleksandar S. Vesic Distinguished Professor in the Thomas Lord Department of Mechanical Engineering and Materials Science at Duke University. He also holds professorships in Physics, Biomedical Engineering, and Chemistry. His research spans polymer theory, computer simulations, and the application of these principles to biological systems, particularly mucus biophysics. Dr. Rubinstein earned his Ph.D. from Harvard University in 1983. His educational background in polymer physics has formed the foundation for his extensive research career spanning several decades. Dr. Rubinstein's research focuses on developing simple physical models of soft matter and biological systems ranging from polymeric elastomers and gels to extracellular matrix and mucus in human lungs. His work encompasses several key areas: Mucus Research: Investigating airway surface layer properties and their relationship to respiratory diseases like cystic fibrosis Polymer Entanglements: Studying the dynamics of entangled polymers including ring-linear blends and bottle-brush polymers Reversible Networks: Developing theories for interpenetrating elastomers and gels with both permanent and reversible components Charged Polymers: Extending scaling theory to describe complexes of oppositely charged polymers Analysis of Dr. Rubinstein's recent publications (2023-2025) reveals a strong focus on advanced polymer systems with applications in biomedicine and materials science. His work bridges fundamental polymer physics with practical applications, particularly in understanding mucus biophysics for respiratory diseases and developing novel polymer networks with self-strengthening and adaptive properties. Key themes include chromatin organization, hydrogel mechanics, fracture behavior in polymer networks, and topological constraints in ring polymers. Dr. Rubinstein has received several notable awards including the Nelson W. Taylor Award from Penn State University (2022), a University Distinguished Professorship from Duke University (2020), and recognition from the Royal Society of Chemistry (2019). Dr. Rubinstein leads an active research group (the Rubinstein Lab) that extensively collaborates with experimental, computational, and theoretical groups at Duke and worldwide. His lab combines theoretical modeling, computer simulations, and experimental validation to advance understanding of soft matter systems. While specific grant information isn't detailed in the provided text, his numerous high-impact publications suggest substantial research funding supporting his work. The Rubinstein Lab focuses on several interconnected research thrusts including mucus biophysics, self-assembly of amphiphilic systems, reversible networks and gels, polymer entanglements, and charged polymer systems. The lab employs a multi-pronged approach combining theoretical modeling, computer simulations, and experimental collaborations to develop fundamental understanding of soft matter systems with applications to biomedical challenges.

• Polymer Theory
• Computer Simulations
• Polymer Entanglements
• +6 more

Rahmi Ozisik is an Associate Professor in the Department of Materials Science and Engineering at Rensselaer Polytechnic Institute (RPI), where he has been since 2008. His academic journey includes roles as an Assistant Professor (2002–2007) and various visiting appointments at institutions like the University of Akron, ETH Zurich, and Los Alamos National Laboratory. He is affiliated with the Center for Materials, Devices, and Integrated Systems (CMDIS) at RPI. His research focuses on polymer nanocomposites, computational modeling, thermal stiffening phenomena, and supercritical fluid processing. Key areas include understanding interfacial dynamics, nanoparticle dispersion, and material characterization techniques. Ozisik’s work bridges polymer science, nanotechnology, and computational methods to advance material design and industrial applications. His contributions span over 74 indexed publications in Materials Science, Chemistry, and related fields. Notable research includes studies on wear-resistant polymer composites, magnetic nanocomposites, and protein structural modeling. He collaborates internationally and has pioneered methods for enhancing nanocomposite performance through controlled processing and functionalization strategies.

• Materials Science
• Polymer Nanocomposites
• Computational Modeling
• +5 more

LaShanda T. J. Korley is a Distinguished Professor of Engineering at the University of Delaware with joint appointments in Materials Science and Engineering and Chemical & Biomolecular Engineering. She directs the Department of Energy's Center for Plastics Innovation (CPI), co-directs the UD CHARM Materials Research Science and Engineering Center, leads the NSF PIRE project on Bio-inspired Materials and Systems, and serves as Associate Director of the Center for Research in Soft matter & Polymers (CRiSP). Her research program pioneers bio-inspired sustainable materials through a bioeconomy framework, focusing on molecular design of functional polymeric systems including thermoplastics, networks, composites, and gels. Core interests span plastics deconstruction/upgrading, sustainable materials development, and novel fiber/composite manufacturing, with emphasis on lignin-derivable polymers and peptide-polymer hybrids for circular polymer solutions. Recent publications (2024-2025) reveal intense focus on polymer upcycling through advanced depolymerization techniques for polyurethanes, polystyrene, and polyethylene. Her group innovates across catalytic conversion, enzymatic deconstruction, vitrimer chemistry, and bio-hybrid hydrogels, demonstrating interdisciplinary approaches to transform plastic waste into high-value materials while addressing performance-sustainability tradeoffs. Scientific Awards 2023 ACS Fellow 2023 RSC Fellow 2023 AIChE Fellow 2023 ACS POLY Fellow 2023 U.S. Science Envoy 2022 AIChE MAC William W. Grimes Award for Excellence in Chemical Engineering 2022 APS Fellow 2022 ACS PMSE Fellow 2021 AIChE MAC Gerry Lessells Award 2021 Chemical and Engineering News Black Trailblazer 2020 AIMBE Fellow 2019 NOBCChE Lloyd N. Ferguson Young Scientist Award Korley secures major federal funding to advance sustainable polymer science, including DOE support for catalytic plastic waste deconstruction and NSF backing for international bio-inspired materials research. Her grants portfolio drives interdisciplinary collaboration across chemistry, engineering, and environmental science to develop circular economy solutions. She mentors a dynamic research group training next-generation scientists in advanced materials characterization and sustainable design principles. Her laboratories at the University of Delaware integrate molecular synthesis, catalytic testing, and advanced characterization to develop next-generation polymer systems. The research environment emphasizes cross-disciplinary teamwork between chemists, materials scientists, and engineers to tackle plastics sustainability challenges through fundamental molecular design and scalable process innovation.

• Bio-inspired Materials
• Sustainable Polymers
• Plastics Recycling
• +4 more

Job Dekker is a Professor holding the Joseph J. Byrne Chair in Biomedical Research at UMass Chan Medical School, where he serves as faculty across multiple departments including Systems Biology, Biochemistry and Molecular Biotechnology, and Bioinformatics and Integrative Biology. His work bridges the T.H. Chan School of Medicine and Morningside Graduate School of Biomedical Sciences, with significant contributions to understanding the three-dimensional organization of genomes. Utrecht University, Utrecht, Netherlands: MS Biology Utrecht University, Utrecht, Netherlands: PhD Physiological Chemistry Dekker's research focuses on the fundamental question of how chromosomes are organized in three-dimensional space and how this organization influences gene regulation. As a pioneer in chromosome conformation capture technologies (particularly Hi-C), his laboratory investigates long-range gene regulation, higher-order chromosome organization, and the mechanisms of chromatin folding. The lab employs a multidisciplinary approach combining cell culture, protein biochemistry, microscopy, genomics, and computational modeling to address these questions. Analysis of Dekker's recent publications reveals a continued focus on the structural principles governing chromosome organization, with particular emphasis on mitotic chromosome formation, loop extrusion mechanisms, and the role of cohesin and condensin complexes. His work spans multiple model systems and has increasingly incorporated multi-omics approaches to understand how 3D genome architecture relates to cellular function in both normal and disease states. Member, National Academy of Sciences (2022) Member, National Academy of Medicine (2021) EMBO Associate Member (2020) International Award of the Biochemical Society (2018) Novitski Prize of the Genetics Society of America (2018) Investigator, Howard Hughes Medical Institute (2015) Fellow, American Association for the Advancement of Science (2014) As Principal Investigator of the Dekker Lab within the Program in Systems Biology, Dekker has secured substantial funding including his HHMI Investigator position, which supports his research into chromosome organization. His laboratory offers multiple rotation projects for graduate students focusing on long-range gene regulation and chromosome organization using high-throughput genomics technologies. Dekker's work has been instrumental in developing and refining chromosome conformation capture techniques that are now widely used across the genomics field. The Dekker Lab is a leader in the 4D Nucleome field, contributing significantly to our understanding of how chromosomes fold in three-dimensional space and how this organization changes over time (the fourth dimension). His research group continues to push the boundaries of chromosome conformation capture technologies, developing new methodologies to investigate genome architecture at increasingly higher resolutions and across diverse biological contexts.

• Chromosome organization
• 3D genome architecture
• Chromatin structure
• +7 more

Junsoo Kim is an Assistant Professor of Mechanical Engineering at Northwestern University, leading the Soft Matter Mechanics Lab . His research focuses on understanding mechanics in soft materials, identifying theoretical limits of their properties, and designing molecular structures for applications in robotics, biomedical devices, and polymer pollution solutions. He holds a PhD from Harvard University and undergraduate/graduate degrees from Seoul National University. Research Interests : The lab investigates soft materials' mechanical behavior, with emphasis on hydrogels, polymer networks, and fatigue resistance. Key applications include biomedical devices and sustainable materials. Recent work has explored hydrogel elasticity, fracture mechanics in polymers, and chemical pumps for energy systems. Awards : 2023 Hanwha Non-Tenure Faculty Award Kavli Frontiers of Science Fellow (2023) Scialog Fellow (2023) Teaching : Undergraduate: Solid Mechanics, Thermodynamics Graduate: Fracture Mechanics, Soft Materials His publications span Nature , Science , and Advanced Materials , addressing topics like fatigue-resistant polymers and hydrogel design. The lab emphasizes translational research bridging fundamental science and engineering applications.

• Soft Matter Mechanics
• Polymer Science
• Biomedical Engineering
• +3 more

Yuecheng Zhou is an Assistant Professor at the University of Illinois, affiliated with the departments of Materials Science and Engineering, Bioengineering, the Materials Research Lab, and the Beckman Institute for Advanced Science and Technology. His research focuses on polymer dynamics, liquid-liquid phase separation, and electrochromic materials for biomedical applications. Zhou’s work bridges fundamental polymer science with practical applications in biomedicine and material design. His research interests include studying single polymer dynamics under various flow conditions, developing optical recording techniques for bioelectric potentials using electrochromic materials, and investigating the rheological behavior of complex polymer solutions. He has contributed significantly to understanding the dynamics of ring-linear polymer blends and the role of molecular architecture in non-equilibrium systems. Zhou’s recent publications highlight advancements in label-free optical detection of cellular signals, liquid-liquid phase separation in synthetic biosystems, and theoretical insights into viscoelastic hysteresis using fluctuation theorems. These studies underscore his interdisciplinary approach, combining experimental and computational methods to address challenges in materials science and biophysics. His work is supported by affiliations with leading research institutes at the University of Illinois, enabling collaborative projects across engineering, physics, and biology. Zhou’s research has implications for developing novel materials for biomedical diagnostics, energy storage, and advanced sensor technologies.

• Polymer Dynamics
• Liquid-Liquid Phase Separation
• Electrochromism
• +4 more

Kevin T. Turner is the John Henry Towne Department Chair and Professor of Mechanical Engineering and Applied Mechanics at the University of Pennsylvania's School of Engineering and Applied Science, with a secondary affiliation in Materials Science and Engineering. He leads the Turner Research Group, which investigates mechanics, materials, and manufacturing challenges, specializing in micro/nano-systems, adhesion, fracture mechanics, and advanced manufacturing. His research focuses on three primary thrusts: Materials with programmable mechanical properties (e.g., electroadhesives for robotics) Fracture and adhesion in structured/heterogeneous materials Printed and flexible sensors (including biodegradable cellulose-based variants) Key projects include tunable adhesion surfaces, architected materials for damage tolerance, and additive manufacturing stress control. Turner's recent publications (2022-2023) demonstrate a strong emphasis on adhesion mechanics, robotics applications, and nanomaterial design. Trends include bio-inspired structures, machine learning optimization, and interdisciplinary approaches bridging mechanics with biomedicine and agriculture. Computational methods like physics-informed neural networks are increasingly utilized for material property analysis. He directs an active research laboratory developing novel sensor technologies and materials systems, collaborating widely across engineering and applied science disciplines.

• Mechanics
• Materials Science
• Manufacturing
• +6 more

R Bharath Venkatesh is a Postdoctoral Scholar at the University of California, Santa Barbara (UCSB), affiliated with the Robert Mehrabian College of Engineering. His research focuses on polymer dynamics in catalytic upcycling processes, interfacial phenomena in nanoparticle packings, and advanced material fabrication techniques like LeCaRI. Research Interests: Polymer dynamics under mechanical and chemical stress Nanoconfinement effects on molecular mobility Catalytic upcycling of polyolefins Capillary-driven polymer infiltration Thermal management via polymer-nanoparticle interfaces Recent Article Trends: Venkatesh's work bridges polymer physics and sustainable materials engineering. His studies explore shear-induced scission, nanopore-mediated catalysis, and moisture-responsive systems, with applications in plastics recycling, water condensation, and soft material design. Laboratory: Venkatesh works in the Rachel Segalman Lab, which investigates energy-efficient material systems and advanced characterization tools.

• Polymer Dynamics
• Catalytic Upcycling
• Nanopore Engineering
• +4 more

Alison C. Dunn is an Associate Professor in the Department of Mechanical Science and Engineering at the University of Illinois at Urbana-Champaign. She holds a PhD, MS, and BS in Mechanical Engineering from the University of Florida (2013, 2006, 2004). Her research focuses on tribology, biomechanics, and soft materials, particularly in frictional adaptations in insects and hydrogel-based materials. Dunn leads the Materials Tribology Laboratory and has been recognized with awards including the Engineering Council Award for Excellence in Advising (2017, 2020) and the STLE Early Career Award (2019). She teaches courses such as ME 371 (Mechanical Design II) and ME 472 (Introduction to Tribology). Education: PhD Mechanical Engineering, University of Florida (2013) MS Mechanical Engineering, University of Florida (2006) BS Mechanical Engineering, University of Florida (2004) Research Interests: Dunn explores frictional morphological adaptations in insects, soft matter tribology, and wear mechanisms in materials. Her work includes developing novel instrumentation for in situ friction testing and studying hydrogel lubrication in biological systems. Scientific Awards: University of Illinois Engineering Council Award for Excellence in Advising (2020, 2017) STLE Early Career Award (2019) ASME Award for Contributions to Tribology (2019) Advising & Grants: Dunn is noted for her excellence in mentoring, as highlighted by her advising awards. Her research is supported by grants focused on tribological systems and biomaterials. She collaborates on projects such as the TMS Frontiers award-winning work on tribology of soft materials. Labs & Teams: Directs the Materials Tribology Laboratory, advancing interdisciplinary tribology research in mechanical engineering and materials science.

• Tribology
• Biomechanics
• Materials Science
• +4 more

Thomas E. Murphy is a Professor and Keystone Professor in the Department of Electrical and Computer Engineering at the University of Maryland, College of Engineering. He serves as the Director of the Institute for Research in Electronics and Applied Physics (IREAP) and Associate Chair for Research and Faculty Affairs. His research focuses on nonlinear and ultrafast optics, terahertz photonics, plasmonics, and optoelectronic materials. Notable honors include Fellow of the Optical Society of America and multiple teaching/research awards from the Clark School of Engineering. Education: Ph.D. (MIT, 2001), M.S. (MIT, 1997), B.A./B.S.E.E. (Rice University, 1994). His work spans experimental and theoretical studies in photonics, including graphene-based devices, THz technology, and nonlinear optical phenomena. Active in interdisciplinary projects, he leads the Photonics Research Laboratory and collaborates with institutions like MIT Lincoln Laboratory. Research Highlights: Innovations in terahertz detectors, plasmonic structures, and ultrafast optical systems. Recent articles emphasize nonlinear optics in 2D materials, THz sensing, and microwave photonics applications. Awards: 2020-21 Distinguished Scholar-Teacher OSA Fellow (2016) NSF CAREER Award (2006) Grants & Labs: Leads IREAP and directs the Photonics Research Lab. His funding includes DARPA, NSF, and industry partnerships. Research activities involve laser-matter interactions, optoelectronic device fabrication, and advanced sensing technologies.

• Nonlinear Optics
• Ultrafast Optics
• Terahertz Photonics
• +5 more