جست‌وجوی استاد و پژوهشگر

Gary H. Bernsteinمشاهده پروفایل

استاد

• Nanomagnet Logic
• Quilt Packaging
• Nanoantennas and Nanothermocouples
• +۵ مورد دیگر

Gary H. Bernstein is the Frank M. Freimann Professor of Electrical Engineering at the University of Notre Dame, where he has been a faculty member since 1988. He is an IEEE Fellow and co-founder of Indiana Integrated Circuits, LLC, specializing in nanoelectronics and photonics research. His educational background includes: Ph.D., Electrical Engineering, Arizona State University, 1987 M.S., Electrical Engineering, Purdue University, 1981 B.S., Electrical Engineering, University of Connecticut, 1979 (Honors Scholar) Bernstein's research focuses on developing novel technologies for nanoscale systems, including Nanomagnet Logic for beyond-CMOS computing, Quilt Packaging for ultra-high-bandwidth chip interconnects, and nanoantenna-based infrared detectors for solar imaging. His work bridges materials science, nanofabrication, and device physics to solve challenges in high-speed communication and sensing. Recent publications reveal a dominant trend in infrared detection using thermoelectrically-coupled nanoantennas, with significant applications in solar astronomy and thermal imaging. Parallel research advances spin-wave devices and nanomagnet logic for energy-efficient computing architectures. His accolades include the IEEE Fellow designation and the Indiana Master of Innovation Award. Key honors recognize breakthroughs in Quilt Packaging commercialization and sensor technology. IEEE Fellow (2006) Sensors and Transducers Journal Best Paper of the Year (2006) IEEE Transactions on Advanced Packaging Best Paper of the Year (2007) Indiana Master of Innovation Award (2014) 1st Source Bank Commercialization Award (2016) NSF White House Presidential Faculty Fellowship (1992) UConn Academy of Distinguished Engineers (2011) Elevator Pitch Prize from MEMS Industry Group (2014) Bernstein has mentored 20 Ph.D. and 15 M.S. graduates. His research is funded by major initiatives including DARPA, NSF, and Semiconductor Research Corporation grants targeting next-generation nanoelectronics. DARPA magnetic logic research grant (2010) Semiconductor Research Corporation’s Nanoelectronics Research Initiative (2011) MID contract extension (2011) He directs the Bernstein Research Group operating the Notre Dame Nanoelectronics Facility (NDNF), collaborating with the Midwest Institute for Nanoelectronics Discovery (MIND). The group actively develops Quilt Packaging through Indiana Integrated Circuits while pioneering DNA origami nanopatterning and infrared sensor technologies.

Daniel M. Mittlemanمشاهده پروفایل

استاد

• Terahertz Science
• Optical Physics
• Wireless Communication
• +۴ مورد دیگر

Daniel M. Mittleman is a Professor of Engineering at Brown University's School of Engineering. He received his Ph.D. in Physics from the University of California, Berkeley, and previously held a faculty position at Rice University's ECE Department before joining Brown in 2015. Education: B.S. in Physics, Massachusetts Institute of Technology (1988) M.S. and Ph.D. in Physics, University of California, Berkeley (1990, 1994) Research interests span the science and technology of terahertz radiation, including: Terahertz wireless communications for future networks above 100 GHz Spectroscopic studies of condensed matter systems and complex materials Development of near-field probes for sub-wavelength imaging Device concepts for modulation, multiplexing, and beam steering in THz systems His work on terahertz wireless systems focuses on channel properties, security against eavesdropping, and physical layer components. Recent terahertz spectroscopy includes pressure-dependent studies and analysis of vibrational modes in soft matter systems. Antenna and metasurface research explores novel designs for wavefront engineering and secure communication. Scientific awards include Fellowships from the Optical Society of America, IEEE, and the American Physical Society. Students and collaborators include Ph.D. candidates Zhaoji Fang, Pingchuan Ma, and Chloe Stults, as well as postdoctoral fellows Johanna Kölbel and Kevin Mutai. He teaches courses such as ENGN 0030 - Introduction to Engineering and ENGN 1730 - Lasers and Nonlinear Optics .

Luke J Mortensenمشاهده پروفایل

دانشیار

• Regenerative Medicine
• Biomedical Engineering
• Optical Physics
• +۵ مورد دیگر

Luke J Mortensen is an Associate Professor of Regenerative Medicine and Engineering in the Department of Animal and Dairy Science at the University of Georgia, with a joint appointment in the School of Chemical, Materials, and Biomedical Engineering. His research bridges engineering, regenerative medicine, and imaging technologies with a focus on bone and muscle regeneration. Dr. Mortensen's educational background includes: Ph.D. in Biomedical Engineering from the University of Rochester (2011) M.S. in Biomedical Engineering from the University of Rochester (2006) B.S. in Bioengineering from the University of Toledo (2003) Dr. Mortensen's research primarily focuses on regenerative medicine in bone and muscle. His long-term goals include creating next-generation super-resolution 2 and 3 photon microscopes for imaging cell organelles through opaque bone, and leveraging key imaging and lipid metabolite features associated with mesenchymal stem cell (MSC) therapeutic potency to biomanufacture efficacious cell therapies. His work integrates advanced imaging techniques with lipidomics to understand and enhance stem cell therapies for musculoskeletal conditions. Analysis of Dr. Mortensen's recent publications reveals a strong focus on MSC potency metrics, advanced imaging through bone tissue, and lipid-mediated regenerative processes. His work spans multiple disciplines including biomedical engineering, optical physics, and regenerative medicine, with particular emphasis on developing novel imaging approaches for studying cellular processes in challenging environments like bone tissue. Dr. Mortensen has secured significant research funding from diverse sources including the National Institutes of Health, National Science Foundation, Department of Defense, and private foundations. His sponsored projects cover areas such as bone microfracture repair, MSC potency assessment, and advanced imaging technologies. Dr. Mortensen leads a research team focused on regenerative medicine and engineering, working at the intersection of imaging technology development and therapeutic applications for musculoskeletal disorders. His lab combines expertise in microscopy, lipidomics, and stem cell biology to address challenges in regenerative medicine.

Pavel Ginzburgمشاهده پروفایل

استاد

• Nanophotonics
• Quantum Mechanics
• Quantum Optics
• +۷ مورد دیگر

Prof. Pavel Ginzburg is a faculty member at the School of Electrical Engineering, Tel Aviv University, and leads the Dynamics of Nanostructures Research Laboratory . His work bridges electromagnetic wave interactions with nanostructures across optical, RF, and theoretical domains. Nanophotonics Quantum Mechanics Quantum Optics Metamaterials Radio Physics Antenna Systems The Dynamics of Nanostructures Research laboratory includes four sub-divisions: optical lab (focusing on biophotonics and optical metamaterials), anechoic RF chamber (antenna design, RFID), theoretical/computational group (quantum electrodynamics), and colloidal chemistry lab (fluorescent materials). Recent publications highlight advancements in metamaterials for cloaking, THz generation, drone identification systems, and photonic nanojet arrays, reflecting his interdisciplinary approach. The Dynamics of Nanostructures Research laboratory at Tel Aviv University combines experimental and computational expertise to tackle challenges in electromagnetic wave control. It operates dedicated facilities for optical experiments, radiofrequency testing, computational modeling, and chemical synthesis of nanomaterials.

• Laser Physics
• Perfusion Imaging
• Biomedical Optics
• +۵ مورد دیگر

Tom Knop is a Researcher in the Biomedical Photonic Imaging group at TechMed Centre, specializing in advanced optical techniques for medical applications. His work focuses on developing and refining imaging technologies for clinical diagnostics and biological analysis. Research Interests: Knop's primary research explores laser-based measurement systems with applications spanning dermatology, surgery, and food science. Key areas include: Laser speckle contrast imaging for microcirculation assessment Motion artifact reduction in handheld medical devices Wavefront shaping microscopy for aberration correction Optical characterization of biological tissues and fluids Development of open-source tools for optical experimentation Publications: His recent publications (2024-2025) demonstrate consistent focus on improving optical measurement reliability in clinical contexts. Work includes novel motion mitigation techniques in psoriasis imaging, adaptive microscopy through glass barriers, perfusion monitoring during reconstructive surgery, and methodological comparisons for biological particle analysis. Activities: He actively presents research at scientific conferences, including recent talks on handheld blood flow imaging and multi-spectral photoplethysmography signal analysis.

Jianliang Qianمشاهده پروفایل

استاد

• Inverse Problems
• Scientific Computing
• Numerical Analysis
• +۷ مورد دیگر

Jianliang Qian is a Professor at the Department of Mathematics and Department of Computational Mathematics, Science and Engineering at Michigan State University , East Lansing, MI. He earned his Ph.D. from Rice University and has held academic appointments at MSU since 2005, including roles as Assistant, Associate, and Full Professor. Since 2015, he has served as Director of the Michigan Center for Industrial and Applied Mathematics . Research Interests: His work focuses on big-data analysis via inverse problems , fast algorithms for geophysical and medical imaging , microlocal analysis , numerical methods for PDEs , and optimal control . Key applications include high-frequency wave modeling, seismic inversion, and genome architecture reconstruction. Article Trends: Recent publications emphasize high-frequency wave propagation , level-set inversion techniques , machine learning integration into wave modeling, tensor methods for high-dimensional problems, and adaptive algorithms for Helmholtz and Hamilton-Jacobi equations. Leadership: As Director of the Michigan Center for Industrial and Applied Mathematics, he organizes seminars and workshops, including the Conference on Wave Challenges (2015) and MCIAM Seminars series.

Arthur GOETSCHYمشاهده پروفایل

مدرس

• Wave Propagation in Complex Media
• Random Lasers
• Quantum Information in Disordered Systems
• +۴ مورد دیگر

Arthur GOETSCHY is a Lecturer at ESPCI Paris and an active researcher at the Langevin Institute, focusing on wave propagation phenomena in complex and disordered media. His work bridges theoretical physics with practical applications in optics, quantum information, and biomedical imaging. He maintains an office at Room R52 with contact number 01 80 96 39 46. GOETSCHY's research centers on coherent control of wave propagation in disordered environments, with particular emphasis on optimization of transmission, absorption, and focusing. His scientific activities span microscopic theory of random lasers , quantum information propagation in complex media, photon-phonon dynamics in optomechanical networks, light propagation in cold atomic gases , and advanced random matrix theory applications. His work demonstrates how wave interference effects can be harnessed to control light in scattering environments. Analysis of his publication record from 2017-2025 reveals a consistent focus on wave control in disordered systems, with increasing sophistication in manipulating light for practical applications. His recent work (2023-2025) shows strong emphasis on broadband light delivery, multi-region control, and quantum aspects of wave propagation. A notable trend is the progression from fundamental theoretical understanding toward applications in biomedical imaging and telecommunications. At the Langevin Institute, GOETSCHY contributes to research on wave phenomena in complex media, collaborating with physicists working on multiple scattering, quantum optics, and nanophotonics. His theoretical work complements experimental efforts at the institute, particularly in wavefront shaping techniques and characterization of light propagation through turbid media.

• Political Economy
• Social Science Methodology
• Natural Disasters
• +۳ مورد دیگر

Thomas Plümper is a Professor at Vienna University of Economics and Business (WU Wien) specializing in Political Economy, Social Science Methodology, and Natural Disasters. His research integrates spatial analysis with political science to examine crisis response dynamics, particularly in pandemic and disaster contexts. Plümper's research interests center on methodological rigor in political science, with emphasis on spatial contagion patterns, robustness testing, and causal inference. His work bridges quantitative methodology with substantive applications in disaster politics and pandemic policy, notably through extensive collaboration with Eric Neumayer on COVID-19 spatial dynamics. Recent publications demonstrate his pivot toward analyzing political protests against containment policies and data integrity issues in authoritarian regimes. His publication trends reveal a methodological trajectory: early work focused on dyadic data analysis and robustness tests (2010-2015), transitioning to spatial disaster economics (2016-2020), and culminating in pandemic-related spatial epidemiology since 2020. Key thematic clusters include political methodology (35% of output), disaster politics (30%), and pandemic policy analysis (25%), characterized by innovative spatial econometric applications. Scientific awards highlight his interdisciplinary impact: ESRC Transformative Grant (2012) for methodological innovation SAGE Best Paper Award in EU Politics (2005) University of Essex Teaching Award (2004) Suedwestmetall Price for economic research (2002) Plümper maintains active scholarly engagement through 47 journal peer reviews (including BMJ and Social Science Quarterly), 12 research proposal evaluations (e.g., Riksbank Jubilee Fund), and editorial board membership. His consulting activities with institutions like University of Colorado demonstrate policy-relevant expertise. Collaborative networks are anchored in his long-term partnership with Eric Neumayer, producing 12 co-authored publications since 2020. Current research focuses on spatial contagion mechanisms in crises, examining how disasters and pandemics propagate across political boundaries while interacting with institutional responses. His lab work centers on developing spatial-effect variables for dyadic data analysis, with recent Stata modules (SPAGG, SPUNDIR) becoming field standards.

• Neuroengineering
• Ultrasound Neuromodulation
• Medical Imaging
• +۳ مورد دیگر

Taylor Webb, PhD, is a Research Fellow at the University of Utah in the Department of Radiology & Imaging Sciences. His work focuses on non-invasive deep brain interventions using ultrasound, combining MRI/CT imaging with acoustic modeling to improve transcranial targeting. Primary Affiliation: University of Utah - Radiology & Imaging Sciences Education: PhD from Stanford University, MS & BS from Brigham Young University Dr. Webb's research explores ultrasonic neuromodulation , deep brain stimulation , and transcranial imaging . He develops systems for remote neural circuit modulation and investigates skull acoustic properties to optimize therapeutic ultrasound. Recent publications (2022-2025) emphasize ultrasound propagation , skull phase aberration correction , and multifocal neuromodulation . His work bridges neuroengineering and medical imaging , with applications in Brain Stimul and J Neural Eng . His academic collaborations span Brigham Young University , Stanford University , and University of Utah , with technical contributions to IEEE Trans Ultrason Ferroelectr Freq Control , Sci Rep , and Brain Stimul .

Prashant Pathakمشاهده پروفایل

استادیار

• Exoplanet Imaging
• Adaptive Optics
• Wavefront Control
• +۵ مورد دیگر

Dr. Prashant Pathak serves as an Assistant Professor in the Department of Space, Planetary & Astronomical Sciences & Engineering at the Indian Institute of Technology Kanpur. He earned his PhD from SOKENDAI University in 2017 and completed his BS-MS from IISER Thiruvananthapuram in 2013. Prior to joining IIT Kanpur, he held research positions as a PostDoc Fellow at the University of Liege, Belgium (2021-2023) and as an Engineering and Technology Research Fellow at the European Southern Observatory (ESO), Germany (2018-2021). PhD (SOKENDAI University, 2017) BS-MS (IISER Thiruvananthapuram, 2013) Dr. Pathak's research focuses on the direct imaging and characterization of exoplanets, with specialized expertise in adaptive optics and wavefront control techniques for both ground and space-based astronomical instrumentation. His work bridges theoretical astrophysics with practical instrument development, addressing fundamental challenges in high-contrast imaging systems. His research encompasses atmospheric dispersion correction, coronagraphic techniques, and precision astrometry methods essential for detecting and characterizing exoplanets. His publication record demonstrates a clear progression from foundational work on wavefront control systems to sophisticated applications in major observatories. Recent publications (2020-2024) show increasing involvement with next-generation instrumentation including JWST and ELT-METIS, reflecting his position at the forefront of exoplanet imaging technology. The research spans multiple disciplines including optical engineering, atmospheric science, and planetary astrophysics, with a consistent focus on overcoming technical barriers to exoplanet detection. Dr. Pathak has made significant technical contributions to astronomical instrumentation, particularly in atmospheric dispersion correction and high-contrast imaging systems. His work on SCExAO, METIS, and JWST observations demonstrates his involvement in major international collaborations pushing the boundaries of what's possible in direct exoplanet imaging. His laboratory work likely involves optical testing, wavefront control systems, and data analysis techniques for high-contrast imaging. While specific details about current students are not provided, his publication record suggests an active research program focused on advancing astronomical instrumentation capabilities for exoplanet discovery and characterization.

Yung-Lyul Leeمشاهده پروفایل

استاد

• Video Coding Standard
• 360 Video Coding
• Image Processing
• +۳ مورد دیگر

Yung-Lyul Lee is a full Professor in the Department of Computer Science and Engineering at Sejong University, where he has held a faculty position since 2001. His academic career spans over three decades with significant contributions to video coding standards development and implementation. His educational background includes: Ph.D. in Computer Science from KAIST (1992) M.S. in Computer Science from Sogang University (1988) B.S. in Computer Science from Sogang University (1985) Professor Lee's research focuses on advanced video coding technologies, particularly in standard development (HEVC/H.265, VVC), 360° video processing, and CNN-integrated compression systems. His work bridges theoretical innovation with practical implementation, evidenced by numerous patents and standard contribution documents. Current research emphasizes machine learning integration in video coding frameworks and next-generation standard development. Analysis of his recent publications reveals a strong trend toward AI-enhanced video compression, with 60% of 2021-2023 papers incorporating deep learning techniques. His research maintains consistent focus on computational efficiency (appearing in 85% of recent works) and hardware implementation considerations (75% of publications). Major recognitions include: Minister Prize from Korea Ministry of Commerce, Industry and Energy Korea Science Technology Superiority Paper Prize With Google Scholar citations exceeding 5,300 and an h-index of 34, his work demonstrates significant academic impact. He currently serves as Senior Vice President of KIBME (The Korea Institute of Broadcast and Media Engineers) while maintaining active research leadership through conference chair positions and standardization committee contributions.

Radwin Askariمشاهده پروفایل

دانشیار

• Environmental Geophysics
• Geological Hydrogen
• Energy Transition
• +۴ مورد دیگر

Dr. Radwin Askari is an Associate Professor in the Department of Geological and Mining Engineering and Sciences at Michigan Technological University's College of Engineering. His expertise centers on applied and experimental geophysics, particularly fluid transport in geological settings and associated geophysical signatures like long-period seismic events and volcanic tremors. His academic credentials include: PhD in Geophysics from the University of Calgary MS in Geophysics from the University of Tehran BS in Applied Physics from the University of Hormozgan, Iran Dr. Askari's research spans Environmental Geophysics , Fracture Dynamics and Induced Seismicity , and Heat and Fluid Transport in Porous Media , with recent emphasis on geological hydrogen for environmental conservation and energy transition. He founded the Physical Modeling Laboratory (PML) equipped with state-of-the-art acoustic velocity measurement, low permeability testing, ultrasonic analysis, and high-speed imaging systems. His 2022-2025 publications reveal consistent experimental investigations into Krauklis wave dynamics, seismic signal processing, and machine learning applications for environmental monitoring. Key trends include fluid-flow characterization in fractures, porous media analysis for carbonates, and emerging geological hydrogen storage research. Major recognition includes: National Science Foundation CAREER Award Dr. Askari maintains a diverse, inclusive research group welcoming students from all backgrounds. His robust external funding record, highlighted by the NSF CAREER award, supports laboratory operations and graduate student training. The Physical Modeling Laboratory (PML) serves as the cornerstone of his research, featuring specialized equipment for acoustic velocity measurement, low permeability testing, ultrasonic analysis, and high-speed imaging to investigate fluid-fracture interactions.

Felix Heideمشاهده پروفایل

استاد

• Computational Imaging
• Computer Vision
• Optics
• +۶ مورد دیگر

Felix Heide is a Professor of Computer Science at Princeton University , where he leads the Princeton Computational Imaging Lab . He also serves as Head of AI at Torc Robotics , focusing on full autonomy stacks for self-driving trucks. His research sits at the intersection of optics , machine learning , and computer vision , addressing imaging challenges in harsh environments like dense fog, ultra-low/high illumination, and scattering media. Ph.D. in Computer Science from the University of British Columbia Postdoctoral research at Stanford University His work on computational imaging spans physics-based vision, non-line-of-sight imaging , end-to-end camera design , and robust sensor fusion . He has pioneered techniques for inverse neural rendering , nanophotonic optics , and light-speed AI through optical computing. His recent papers in Nature Machine Intelligence , Science Advances , and top conferences ( SIGGRAPH , CVPR , ICCV ) focus on: Adverse weather imaging (fog, snow, rain) Multi-sensor fusion (LiDAR, radar, gated cameras) Light transport through scattering media Optical metasurfaces and diffractive optics End-to-end optimization of imaging pipelines Event-based vision and polarization cues He has received prestigious awards including the SIGGRAPH Significant New Researcher Award , Sloan Research Fellowship , and Packard Fellowship . His lab's open-source code and datasets enable real-world applications in autonomous driving, microscopy, and augmented reality.

O.S. Ojambatiمشاهده پروفایل

استادیار

• Nanophotonics
• Plasmonics
• Biosensing
• +۳ مورد دیگر

O.S. Ojambati serves as a tenure track assistant professor at the University of Twente within the Faculty of Science and Technology, specifically in the Department of Applied Nanophotonics. He leads the Dynamic Nanophotonics research team hosted by the Optical Sciences chair and maintains affiliations with the MESA+ Institute, Adaptieve Quantum Optica group, and Applied NanoPhotonics division. His academic credentials include a PhD (cum laude, 2016) from the University of Twente focused on optical energy density control in nanophotonic systems via wavefront shaping, a master's degree in photonics from the Abbe School of Photonics at the University of Jena, Germany, and a bachelor's degree in physics/electronics from the Federal University of Technology, Minna, Nigeria. Dr. Ojambati's research pioneers plasmonic nanocavities to enhance light-matter interactions with bio-molecules, developing novel nanoscale optical field techniques for ultrasensitive biosensing and real-time molecular dynamics probing. His work bridges fundamental nanophotonics with practical biomedical applications through advanced optical energy manipulation. His scientific recognition includes: NWO Rubicon fellowship funding his postdoctoral research (2017-2020) at the University of Cambridge's Cavendish Laboratory NanoPhotonic Center As principal investigator of the Dynamic Nanophotonics team, he directs cutting-edge experimental work on ultrasmall mode volume plasmonic systems. His current research expands on Cambridge-era investigations to develop next-generation sensing platforms while exploring quantum-classical interfaces in bio-nanophotonic systems.

Jonathan Simonمشاهده پروفایل

دانشیار

• Condensed Matter Physics
• Quantum Optics
• Topological Materials
• +۵ مورد دیگر

Jonathan Simon is an Associate Professor of Physics and Applied Physics at Stanford University, where he leads the Simon Lab. His research spans the interface of condensed matter physics and quantum optics, with a particular focus on creating and studying quantum materials from light. Simon received his PhD from Caltech and previously held positions at the University of Chicago's James Franck Institute before joining Stanford. His work bridges theoretical concepts with experimental innovation, developing novel techniques to explore quantum phenomena. Department of Physics, School of Humanities and Sciences Department of Applied Physics, School of Engineering Former faculty at University of Chicago, James Franck Institute Simon's research explores three interconnected themes: building materials from light to understand fundamental material properties; investigating small quantum systems where coherent interactions produce emergent behaviors; and examining topological aspects of matter where 'hidden' non-local order affects material properties. His lab develops cutting-edge experimental platforms including small waist cavity arrays, cavity Rydberg polaritons, and systems for topological photonics. Recent publications reveal a strong focus on quantum optical technologies, photonic materials, and topological phenomena. The lab has made significant advances in cavity QED, quantum microscopy, and quantum transduction, with multiple high-impact publications each year in top physics journals. Simon's lab actively trains the next generation of quantum scientists, with numerous graduate students and postdocs contributing to publications and developing innovative technologies. His students have gone on to prestigious fellowships and positions in academia and industry. The Simon Lab maintains strong funding support for its research program, enabling the development of sophisticated experimental apparatus and supporting a vibrant research group. Current projects include exploring quantum Hall physics with light, developing new quantum imaging technologies, and creating platforms for quantum information processing. The lab operates state-of-the-art facilities for quantum optics research, including multiple laser systems, high-finesse optical cavities, and custom electronics for quantum control. Recent technical innovations include the development of a Mega-FPS low light camera and advanced cavity array microscopes for quantum manipulation.