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Qing Li is an Associate Professor in the Department of Electrical and Computer Engineering at Carnegie Mellon University (CMU), part of the College of Engineering. He holds a B.E. in Electronics Engineering from Tsinghua University (2006) and a Ph.D. in Electrical and Computer Engineering from Georgia Institute of Technology (2013). Prior to CMU, he worked as a postdoctoral researcher at the National Institute of Standards and Technology (NIST), where he developed quantum frequency conversion and microresonator-based optical systems. His research focuses on light-matter interactions in integrated photonics, emphasizing nonlinear optics and quantum information processing. He has pioneered silicon carbide and aluminum nitride platforms for chip-scale quantum technologies and optical metrology. Dr. Li has been recognized with prestigious awards including the Darpa Young Faculty Award (2019), OSA Paul F. Forman Team Engineering Excellence Award (2020), and Sigma Xi Best Ph.D. Thesis Award (Georgia Tech). His work bridges classical and quantum information systems, with applications in secure communication, atomic systems interrogation, and high-precision frequency synthesis. He actively contributes to the Pittsburgh Quantum Institute (PQI), advancing regional quantum engineering initiatives. His research group’s key projects include developing compact optical frequency synthesizers, soliton microcombs for communication grids, and entangled photon pair sources for quantum networks. Grants and collaborations support his exploration of novel photonic materials and devices, targeting advancements in both fundamental science and applied technologies.

• Photonics
• Nanofabrication
• Quantum Information
• +3 more

Mustafa Yavuz is a Professor and Director of the Nano and Micro Systems Lab (NMSL) at the University of Waterloo, Canada, affiliated with Mechanical & Mechatronics Engineering, System Design Engineering, and Electrical & Computer Engineering. He holds cross-appointments in multiple departments and has been a faculty member since 2009. His research focuses on Opto-Nano/MEMS devices, quantum electronic solids, graphene, and superconductors. Yavuz has supervised over 28 graduate students and postdoctoral fellows, leading to impactful contributions in sensors, nanomaterials, and energy harvesting. He has authored/co-authored numerous articles and holds patents in MEMS and nanotechnology. His awards include the University of Waterloo Research Excellence Award (2018) and international fellowships from MINATEC and JSPS. Education: Ph.D. Materials Engineering (University of Wollongong, 1996) Ph.D. Applied Physics (University of Wollongong, 1995) M.Sc. Materials Engineering (Middle East Technical University, 1991) B.Sc. Materials Engineering (Middle East Technical University, 1989) Research Interests: Yavuz specializes in advanced materials and MEMS/NEMS technologies, including opto-nano-MEMS devices, quantum electronic solids (superconductors, graphene), and functional nanomaterials for sensors and energy systems. His work integrates fabrication, packaging, and reliability testing of nanoscale devices for applications in photonics, biomedical sensing, and environmental monitoring. Recent trends in his articles highlight innovations in resonant MEMS mirrors, graphene-based biosensors, and laser-functionalized 2D materials. Scientific Awards: MINATEC Fellowship (2019) Waterloo Engineering Research Excellence Award (2018) International Nanoarchitectonics Fellowship (2017) JSPS Fellowship (2007) Advising & Grants: Yavuz has supervised 26 doctoral students and 28 postdoctoral researchers. His labs, including the NMSL and BioGraph Sense Inc., focus on MEMS packaging, nanojoining, and plasmonic biosensors. He has led projects funded by NSERC, CFI, and industry collaborations with companies like Apple, Samsung, and Smarter Alloys. Labs/Teams: Director of the Nano and Micro Systems Lab (NMSL), co-founder of BioGraph Sense Inc., and collaborator in the Waterloo Institute for Nanotechnology (WIN). His research group develops cutting-edge nanoscale devices with applications in healthcare, energy, and environmental sensing.

• Opto-Nano and Micro-Electro-Mechanical Systems (O-N/MEMS)
• Quantum Electronic Solids
• Superconductors
• +7 more

Dr. Jamie Warner is a Professor and Temple Foundation Endowed Professor in the Walker Department of Mechanical Engineering at The University of Texas at Austin, leading the TMI Electron Microscopy Facility within the Cockrell School of Engineering. His research focuses on nanostructured materials, advanced transmission electron microscopy, and opto-electronic applications. Prior to UT Austin, he held a Full Professorship at the University of Oxford's Department of Materials, where he led the Nanostructured Materials Group and graduated 30 PhD students. Key roles include Director of the Texas Materials Institute and Visiting Professorships at MIT and Sungkyunkwan University. Education: PhD in Physics (University of Queensland, 2004), Postdoc (New Zealand/Australia, 2005-2006) Research Interests: Atomic-scale characterization of 2D materials (graphene, MoS₂, WS₂), electron microscopy techniques, nanoelectronic devices, and energy storage materials. His articles span advanced TEM techniques, 2D material synthesis, and opto-electronic device fabrication. Notable awards include the Royal Society University Research Fellowship (2010), ERC Consolidator Grant (2017), and ACS Nano Lectureship (2019). Awards: Fellow of the Royal Society of Chemistry (2019), Top 10 'Highly Prolific' ACS Nano Author (2018) Advising: 30+ PhD graduates, extensive postdoc and master's supervision Grants: ERC Consolidator Grant for opto-electronics, multiple industry and academic collaborations He leads the Warner Group, which operates cutting-edge facilities for electron microscopy and nanofabrication. Current projects include cryo-TEM for battery materials and single-atom catalysts.

• Nanostructured Materials
• Advanced Transmission Electron Microscopy
• 2D Materials
• +5 more

Ulrich Vogt is a Professor in Applied Physics at Kungliga Tekniska Högskolan (KTH) and leads the X-ray Optics and Nanoimaging group within the Bio-Opto-Nano unit. He serves as Vice-head of the Applied Physics department for undergraduate education. His research focuses on developing advanced X-ray microscopy techniques, particularly at synchrotron facilities like MAX IV’s NanoMAX beamline. He specializes in X-ray optics, nanoimaging, and diffractive optical elements for applications in materials science, biology, and medicine. Key contributions include the design of the NanoMAX beamline, optimization of X-ray zone plates via metal-assisted chemical etching, and advancements in multi-beam ptychography. Vogt has pioneered compact X-ray microscopy systems using laser-plasma sources and liquid-jet targets. His work integrates nanofabrication, computational imaging, and synchrotron instrumentation to achieve sub-100 nm resolution in hard and soft X-ray regimes. Teaching responsibilities include courses on experimental physics, photonics, and X-ray applications. His lab collaborates internationally on projects like the European XFEL, emphasizing high-brightness sources and radiation-resistant optics. Recent innovations include adaptive multi-beam ptychography and stereo X-ray imaging for 3D nanoscale visualization. Research highlights span over 100 peer-reviewed articles, with a focus on coherence characterization, beamline instrumentation, and nanostructured materials. Vogt’s grants include a Röntgen-Ångström Cluster award supporting multi-beam ptychography and cryo-microscopy advancements.

• X-ray Optics
• Nanoimaging
• Synchrotron Radiation
• +3 more

Professor Emanuele (Manuel) Trucco is the NRP Chair of Computational Vision in the Department of Computing, School of Science and Engineering, at the University of Dundee. He holds additional roles as an Honorary Clinical Researcher at NHS Tayside and formerly served as an Adjunct Professor at the Chinese Academy of Sciences from 2018 to 2021. He earned his MSc and PhD in Electronic Engineering from the University of Genoa, Italy, in 1984 and 1990, respectively. His research focuses on medical image and data analysis, particularly in retinal imaging, using machine and deep learning techniques. He is co-director of VAMPIRE, a major international initiative in retinal image analysis, which supports biomarker studies in cardiovascular disease, diabetes, dementia, and neurodegenerative disorders. His recent work includes AI-driven tools for predicting dementia from brain scans and cardiovascular risk from retinal images. The latest publications reflect strong trends in applying deep learning to retinal and brain imaging for early disease detection, with themes centered on AI in healthcare, precision medicine, and non-invasive diagnostics. FRSA (Fellow of the Royal Society of Arts) FIAPR (Fellow of the International Association for Pattern Recognition) Professor Trucco has led and co-led significant research projects funded by EPSRC, NIHR, and EU programs. He has supervised PhD students through industry-sponsored studentships (e.g., OPTOS, NIDEK, Toshiba) and collaborated with institutions such as the Universities of Edinburgh and Liverpool. His research is supported by extensive industrial partnerships including Canon Medical, Epipole plc, and NIDEK. He is a key member of the UK Biobank Eye and Vision Consortium and co-director of the VAMPIRE initiative, a collaborative effort between the Universities of Dundee and Edinburgh focused on retinal image analysis. His work also involves participation in major research networks such as the Academic Health Science Partnership in Tayside.

• Computer Vision
• Medical Image Analysis
• Retinal Image Analysis
• +7 more

Jake M. Yang is a Lecturer in Physical Chemistry at the School of Chemistry, University of Leicester, where he leads an interdisciplinary research group focused on electrochemistry and sustainable material processing. He holds a DPhil and MChem from the University of Oxford and was awarded an EPSRC Doctoral Prize in 2020 for developing electrochemical sensors to monitor oceanic 'blue carbon'. His research integrates operando electrochemistry with spectroscopic and fluorescent imaging to investigate chemical reactions at electrode interfaces and their environmental applications. He is particularly known for pioneering green recycling methods for lithium-ion batteries and fuel cell membranes. Electroanalysis and Sensor Instrumentation Operando opto/spectro-electrochemical instrumentation Recycling of Technological Critical Materials Monitoring Microplastics and Ocean Ecosystems Fundamental electrochemistry Finite difference simulations The recent publications highlight a strong trend toward sustainability-driven electrochemistry, with a focus on recycling technologies using ultrasound and vegetable oil nanoemulsions. These works bridge fundamental science with industrial applications, particularly in the circular economy of electronics and energy systems. Award Highlights: EPSRC Doctoral Prize Award RSC Horizon Prize 2024 (Faraday Institute ReLIB project) University of Leicester Chemistry Image of Research Competition, 1st Prize Jake actively mentors students and offers funded PhD opportunities. His work is supported by institutional and industry-aligned grants, particularly in sustainable battery and fuel cell recycling. He collaborates across disciplines, including Earth Sciences and engineering, and promotes knowledge transfer through public engagement and media outreach. He is a key member of the Centre for Sustainable Material Processing and leads research on techno-economic analysis of recycling processes, ensuring scientific innovation meets real-world industrial and environmental needs.

• Electrochemistry
• Environmental Monitoring
• Sensor Development
• +7 more

Dr. Anna Baldycheva is a Senior Lecturer in Electronic Engineering at the University of Exeter, within the College of Engineering, Mathematics and Physical Sciences. She leads the interdisciplinary STEMM Laboratory, focusing on applied R&D in smart materials, photonics, AI, and IoT. With prior research experience at MIT, Trinity College Dublin, and Tyndall National Institute, she has established herself as an internationally recognized innovator and entrepreneur in emerging technologies. PhD in Electronic and Electrical Engineering, Trinity College Dublin (2008–2012) BSc (Hons) in Physics, St. Petersburg State University (2003–2008) Postgraduate Certificate in Academic Practice, University of Exeter (2016–2017) Postgraduate Certificate in Technology Management, Smurfit Business School (2009–2010) Her research spans Nano-Engineering, Opto-Electronics, Photonics, AI, and IoT , with a strong emphasis on real-world applications. She pioneers work in fluid opto-electronics , graphene nanocoatings , and AI-driven emotion recognition and early cancer detection . Her lab develops smart composite materials for flexible electronics, e-textiles, and structural applications, integrating machine learning into healthcare, education, and communications systems. The recent publications highlight a strong trend toward applied interdisciplinary innovation , combining materials science with AI and photonics for healthcare diagnostics, energy-efficient computing, and educational technology. Her work frequently bridges fundamental physics with commercialization potential, as seen in spin-out technologies like GSurf and the Electronic-Nose for lung cancer detection. Fellow, Royal Microscopical Society (RMS) Fellow, Higher Education Academy (FHEA) Expert, Future and Emerging Technologies, European Commission Featured in Forbes and Forbes Tech Council Editor-in-Chief, InSTEMM Journal Associate Editor, Nature Scientific Reports and Discover Nano Trustee, Royal Microscopical Society Founder, STEMM Global Scientific Society Founder, It’s Her! Women in STEMM Initiative Dr. Baldycheva actively supervises PhD students and has secured industrial collaborations with organizations such as Qinetiq and Lumentum. She leads multiple outreach initiatives, including STEMM Junior for underprivileged children, and serves on the committee for the Jocelyn Bell Brunel PhD Scholarship. She has raised significant research funding through national and international grants, though specific grant names are not listed. She leads the STEMM Laboratory , a multidisciplinary research group with divisions in Smart Composite Materials, Machine Learning & AI, and Opto-Electronics & Photonics. The lab emphasizes industry collaboration and technology transfer, having produced a university spin-out (GSurf) and multiple media-highlighted innovations.

• Nano-Engineering
• Opto-Electronics
• Photonics
• +18 more

Professor Francois Ladouceur is a distinguished academic at the University of New South Wales (UNSW), where he serves in the Faculty of Engineering, specifically within the School of Electrical Engineering and Telecommunications. With a career spanning over three decades, Professor Ladouceur has established himself as a leading expert in photonics, optical engineering, and neural interfaces. His educational background includes: Ph.D. in Optical Communication from The Australian National University (1992) Masters in Solid State Physics from École Polytechnique, Montréal, Canada (1987) B. Eng. in Engineering Physics from École Polytechnique, Montréal, Canada (1985) Professor Ladouceur's research spans several cutting-edge areas in photonics and optical engineering. His work focuses on integrated optics, silica and diamond-based photonics, optical sensing networks, and photonics-based brain/machine interfaces. He has made significant contributions to both fundamental waveguide theory and applied integrated optics, introducing innovative approaches to waveguide path design that have improved the size and ease of design of integrated optics devices. His recent work has particularly emphasized the development of liquid crystal-based optical electrodes for neural interfacing and brain/machine interfaces. Analysis of his recent publications reveals a strong trend toward biomedical applications of photonics, particularly in neural interfaces and optrode technology. His research has evolved from fundamental optical engineering to practical applications in healthcare, with a focus on developing novel optical sensing technologies for electrophysiological measurements. The interdisciplinary nature of his work combines optical engineering, materials science, and biomedical engineering to create innovative solutions for neural interfacing. Professor Ladouceur has secured significant research funding through multiple prestigious grants: ARC Discovery (DP200102825): "A Multi-Optrode Array for Closed-Loop Bionics" ($495k) NHMRC Ideas Grant (APP2002282): "Re-engineering the Future of Electrophysiological Measurements" ($732k) ARC Discovery 2016 (DP160104625): "Design of an optrode for next generation brain-machine interfaces" ($457.6k) CRC Project 2016: "High performance optical telemetry system for ocean monitoring" ($1,014,320) US Office of Naval Research: "Multi-Optrode Array for Neural Interfacing" (US$360,000) Professor Ladouceur has extensive experience in translating research into practical applications, having founded Bandwidth Foundry Pty Ltd after raising approximately $20 million from private and public sources. His work bridges the gap between academic research and commercial applications, with a particular focus on developing novel hybrid opto-electronics devices from initial design through to commercial realization. He collaborates extensively with researchers across disciplines, particularly with Professor Nigel Lovell and other colleagues in biomedical engineering. His laboratory focuses on developing optical technologies for neural interfaces, with current projects including multi-optrode arrays for brain-machine interfaces, optical telemetry systems for various sensing applications, and diamond-based photonic structures. The research group maintains strong connections with industry partners and defense organizations, applying photonics solutions to real-world problems in healthcare, mining safety, and ocean monitoring.

• Integrated optics
• Silica and diamond-based photonics
• Optical sensing networks
• +5 more

Edo Waks is the Herbert Rabin Distinguished Professor of Electrical and Computer Engineering at the University of Maryland (UMD), and Associate Director of the Quantum Technology Center (QTC). He holds affiliations with the Joint Quantum Institute (JQI), the Institute for Research in Electronics and Applied Physics (IREAP), and the Brain and Behavior Institute. His research focuses on quantum photonics, including topological photonics, quantum confined emitters, and low-energy opto-electronics. Waks leads projects such as a $1M NSF-funded initiative to develop quantum interconnects for ion trap quantum computers. He has pioneered work on photonic crystal-based quantum information processing and solid-state quantum emitters. Education: B.S. and M.S. in Electrical Engineering from Johns Hopkins University (1995–1996), Ph.D. in Electrical Engineering from Stanford University (2003). Postdoctoral research at Stanford under Professors Yoshihisa Yamamoto and Jelena Vuckovic. Research interests include applications of photonic crystals to quantum computing and sensing, with key contributions in cavity quantum electrodynamics (QED), quantum dot photonics, and topological photonic systems. His lab develops scalable quantum devices and hybrid systems integrating trapped ions with photonic chips. Awards include the Presidential Early Career Award for Scientists and Engineers, NSF Career Award, and APS Fellow. His work has been published in Nature Photonics , Physical Review Letters , and Optica . Grants and collaborations include leadership in multi-institutional NSF projects and the Center for Integration of Modern Optoelectronic Materials on Demand (IMOD). His lab focuses on quantum networks, low-power optoelectronics, and topological photonics applications. Labs and Teams: Quantum Photonics Lab (JQI/IREAP), Quantum Technology Center, and collaborations with MIT, University of Arizona, and others in quantum networking initiatives.

• Quantum Photonics
• Topological Photonics
• Quantum Information Processing
• +5 more

Mehmet Arik is an Associate Professor in the Department of Mechanical Engineering at Auburn University's College of Engineering. He holds a PhD from the University of Minnesota, an MS from the University of Miami, and a BS from Istanbul Technical University, all in Mechanical Engineering. PhD, University of Minnesota, Mechanical Engineering MS, University of Miami, Mechanical Engineering BS, Istanbul Technical University, Mechanical Engineering His research focuses on advancing heat transfer techniques, electronics cooling, and thermal management of photonics systems. With over 25 years of academic and industrial experience, he addresses theoretical model development and experimental validation for energy systems, medical systems, industrial electronics, photonics systems, and defense technologies. Key projects include thermal management of electronics, microfluidics jets, boiling/condensation heat transfer, and frost formation studies. Dr. Arik has earned prestigious scientific awards, including NAI Fellow status and the Hartnett-Irvine Award from ICHMT. These honors recognize his contributions to heat transfer research and invention, particularly through a prolific patent portfolio (over 120 issued patents) with applications in medical, energy, aviation, and photonics systems. NAI Fellow (2022) Hartnett-Irvine Award (2022)

• Heat Transfer
• Thermal Management
• Electronics Cooling
• +9 more

Emanuele (Manuel) Trucco is a Professor of Computing and holds the NRP Chair of Computational Vision in the School of Science and Engineering at the University of Dundee. He is also an Honorary Clinical Researcher at NHS Tayside and previously served as an Adjunct Professor at the Chinese Academy of Sciences (2018–2021). His research is centered on computational vision and medical image analysis, particularly in retinal imaging and its applications in systemic disease detection. PhD, Electronic Engineering, University of Genoa (1990) MSc, Electronic Engineering, University of Genoa (1984) Manuel Trucco's research focuses on computer vision and medical image analysis , with a strong emphasis on retinal image analysis for early detection of diseases such as diabetes, cardiovascular conditions, stroke, dementia, and neurodegenerative disorders. He co-directs the VAMPIRE (Vessel Assessment and Measurement Platform for Images of the Retina) initiative, a collaborative effort between the Universities of Dundee and Edinburgh. This platform enables automated, multi-modal analysis of retinal images and has been used in biomarker studies across the UK and internationally. His work integrates deep learning , artificial intelligence , and biomedical engineering to develop non-invasive, scalable diagnostic tools. Industrial collaborations include Canon Medical, OPTOS plc, NIDEK, and Epipole plc, while institutional partners include the Royal College of Ophthalmologists and the UK Biobank Eye and Vision Consortium. Recent publications highlight a strong trend in using AI and deep learning to extract clinical insights from retinal images, including predicting cardiovascular outcomes in diabetic patients, estimating biological age, and analyzing retinal vasculature changes under physiological stress. His work bridges computer science, ophthalmology, and public health, contributing to precision medicine and health equity. His scientific contributions have been recognized through fellowships: FRSA (Fellow of the Royal Society of Arts) FIAPR (Fellow of the International Association for Pattern Recognition) Trucco has led or co-led major research projects, including a £7M NIHR grant on precision medicine for diabetes (Dundee-Chennai), a £1.1M EPSRC grant on vascular dementia biomarkers (PI), the 3M-Euro ITN "REVAMMAD", and several PhD studentships sponsored by OPTOS, NIDEK, SINAPSE, and Toshiba. He has served on the organizing and program committees of major international conferences such as MICCAI and the European Conference on Computer Vision. He is a key member of the VAMPIRE research team and the UK Biobank Eye and Vision Consortium , contributing to large-scale data analysis efforts in vision and systemic disease. His work is at the forefront of AI-driven healthcare innovation, with real-world applications in early disease detection and personalized medicine.

• Computer Vision
• Medical Image Analysis
• Retinal Image Analysis
• +7 more

Geoffroy Hautier serves as Adjunct Associate Professor of Engineering at Dartmouth College's Thayer School of Engineering within the Physics and Astronomy Department. His research bridges computational materials science with practical energy applications through high-throughput methodologies and machine learning integration. Previously holding positions at MIT and ULB, he maintains active collaborations across international research networks including the psi-k society. His research expertise spans computational materials design with emphasis on ab initio and high-throughput computing approaches. Key focus areas include opto-electronic properties of materials, transparent conducting oxides, thermoelectrics, photovoltaics, and high entropy alloys for energy applications. His group develops advanced computational frameworks for materials discovery, particularly targeting energy production and storage solutions through quantum mechanical simulations. Analysis of recent publications reveals strong trends in quantum materials discovery (2022-2024), sustainable magnet development (2023), and hydrogen storage technologies (2024). His work consistently integrates machine learning with first-principles calculations to accelerate materials design cycles across photovoltaics, quantum information science, and sustainable energy systems. Scientific recognition includes: Chemistry of Materials Reviewer Excellence Award (2018, 2019) Finalist for Rising Star in Computational Materials Science (2018) Marie Curie Fellowship (2012) As group leader, Hautier mentors multiple PhD students and postdoctoral researchers while directing projects funded by DOE and other agencies. His research portfolio includes significant grants for quantum materials ($2.7M DOE grant), sustainable magnets, and hydrogen storage frameworks. The Hautier Research Group maintains active collaborations with national laboratories and industry partners through the Materials Project initiative. The group operates within Dartmouth's advanced computational infrastructure, focusing on quantum defect engineering for silicon photonics, 2D material design for electrocatalysis, and rare-earth-free permanent magnet development. Current efforts emphasize scalable quantum technologies and decarbonization pathways through advanced materials discovery.

• Computational Materials Design
• Ab Initio Computing
• High-Throughput Computing
• +8 more

Dr. Bastian Pfau serves as Department Head of the “Imaging and Coherent X-rays” (B2) division and Project Coordinator for “Transient Structures and Imaging with X-rays” at the Max Born Institute in Berlin, where he has conducted postdoctoral research since 2016. His work pioneers nanoscale magnetic imaging using coherent X-ray techniques, with significant contributions to ultrafast magnetization dynamics and topological spin structures. His academic foundation includes a Dr. rer. nat. (PhD) in Physics from Technical University Berlin (2013) with thesis “Imaging magnetic nanostructures using soft x-ray Fourier transform holography,” and a Diplom (MSc) in Physics from Technical University Dresden (2006) focused on “Combining photon correlation spectroscopy and fluctuation analysis for investigating diffusion dynamics.” Additional research experience spans Lund University (2014-2015), Technical University Berlin (2010-2013), and Helmholtz Center Berlin (2006-2010). Dr. Pfau’s research centers on developing and applying X-ray holography and coherent diffraction imaging to visualize magnetic nanostructures at nanometer-femtosecond scales. His group specializes in ultrafast magnetization dynamics , skyrmion imaging , and element-specific magnetic probing using soft X-rays. Key innovations include achieving 5 nm resolution magnetic imaging and demonstrating all-optical helicity-independent switching via plasmonic nanostructures, with applications in next-generation spintronic devices and magnetic storage technologies. Analysis of his 15 most recent publications reveals dominant themes in nanoscale magnetic imaging (particularly skyrmions and topological textures), ultrafast opto-magnetic effects using extreme ultraviolet radiation, and advanced X-ray methodologies for capturing transient magnetic states. His work consistently bridges fundamental physics with practical instrumentation development, as evidenced by contributions to laser-driven plasma sources and tabletop X-ray setups. As Department Head of B2, Dr. Pfau leads a multidisciplinary team operating cutting-edge X-ray microscopy facilities at MBI. The group maintains strong collaborations with international synchrotron facilities (including BESSY II) and free-electron laser centers, focusing on developing MHz-repetition-rate pump-probe capabilities and high-resolution magnetic imaging techniques. Current projects emphasize real-time visualization of light-induced phase transitions and magnetic switching phenomena in functional materials.

• X-ray Holography
• Magnetic Imaging
• Ultrafast Dynamics
• +5 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.

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

Christian A. Nijhuis is a Full Professor at the University of Twente's MESA+ Institute for Nanotechnology, within the Faculty of Science and Technology. His research focuses on hybrid materials for opto-electronics, molecular electronics, and nanotechnology, with emphasis on self-assembled monolayers, molecular tunnel junctions, and plasmonic devices. He leads the Hybrid Materials for Opto-Electronics group, driving innovations in molecular-scale devices and electronic hardware. His work integrates chemistry, physics, and engineering to develop advanced materials and nanoscale systems. Notable contributions include molecular-scale reconfigurable electronics, plasmonic energy harvesting, and biomimetic sensors. Recent projects explore proton-coupled electron transport, self-assembled monolayer stability, and plasmonic waveguide engineering. Research trends in his publications highlight molecular-level control over charge transport, plasmonic phenomena, and integration of organic-inorganic systems. He actively collaborates internationally, advancing optoelectronic devices and sensor technologies. His group's work addresses challenges in energy-efficient computing and sustainable materials. He has delivered invited talks on 'Intelligent molecular materials' and 'Biomolecular interactions', showcasing interdisciplinary research impact. His lab develops cutting-edge tools for in-operando characterization of molecular junctions and nanoscale systems.

• Molecular Electronics
• Plasmonics
• Nanotechnology
• +4 more