Bahram Javidi is a Professor in the Department of Biomedical Engineering at the University of Connecticut. His research focuses on advanced optical imaging technologies, including real-time 3D sensing, visualization, and information processing. He integrates nanotechnology, biomedical photonics, and quantum optics into novel imaging systems for medical and underwater applications. Key Research Areas: 3D integral imaging, digital holography, compressive sensing, optical encryption, and biomedical imaging. Recent Publications: Highlight innovations in underwater signal detection, lensless imaging for disease screening, and adversarial attack defense using optical systems. Technological Impact: Develops portable, low-cost medical diagnostic tools and augmented reality visualization systems. Collaborations: Works with interdisciplinary teams in biomedical engineering, computer science, and optical physics.
Sheldon Green is a Professor in the Department of Mechanical Engineering at the University of British Columbia's Faculty of Applied Science. A licensed Professional Engineer (P.Eng.) and Fellow of both the American Society of Mechanical Engineers (FASME) and Canadian Academy of Engineering (FCAE), he maintains an active research program focused on industrial fluid mechanics applications. His work bridges academic rigor with real-world industrial challenges through extensive collaborations with major companies. Education: Bachelor of Applied Science (University of Toronto) Master of Applied Science (California Institute of Technology) Doctor of Philosophy (California Institute of Technology) Professor Green's research centers on fluid-structure interactions in industrial processes, with particular emphasis on railroad friction control systems, paper manufacturing mechanics, and energy recovery technologies. His laboratory develops experimental and analytical solutions for liquid friction modifier application on railroads, electrospraying techniques for moving surfaces, paper creping and pressing optimization, and advanced energy recovery ventilators. These investigations address critical industry challenges in fuel efficiency, product quality, and energy conservation through precise fluid mechanics understanding. Analysis of his recent publications reveals consistent focus on multiphase flows, fiber network mechanics, and heat/mass transfer phenomena. Key themes include cellulose fiber network modeling for tissue paper, moisture measurement in paper pressing, membrane behavior in energy exchangers, and liquid-solid interactions in railroad systems. His work demonstrates strong industry-academic synergy with nearly all studies involving partnerships with major industrial players. Accolades include: Dean’s Excellence in Service Award (UBC, 2017) Fellow of the American Society of Mechanical Engineers Fellow of the Canadian Academy of Engineering Member of The Technical Association of the Pulp and Paper Industry Professor Green secures substantial research funding through industry partnerships with LB Foster (rail friction systems), FP Innovations/Kruger Products/Solenis/Albany (paper creping), AstenJohnson (paper pressing), and Core Energy Recovery Solutions (ventilators). His academic collaborations span Professors Boris Stoeber, Neil Balmforth, Srikantha Phani, and Steven Rogak across mechanical engineering subdisciplines. While student names aren't published, his prolific output indicates active mentorship of graduate researchers. He directs the Applied Fluid Mechanics Laboratory (CEME 2058) where experimental facilities enable high-precision studies of industrial fluid phenomena, particularly in railroad and paper manufacturing contexts where fluid mechanics directly impacts operational efficiency and product quality.
Philippe Poignet is a Professor at the University of Montpellier, affiliated with the Institut Universitaire de Technologie (IUT) and conducting research at the LIRMM (Laboratory of Informatics, Robotics, and Microelectronics of Montpellier). He served as Director of LIRMM from July 2015 to October 2023 and co-heads the IRP with Stanford University since 2025. His work focuses on Surgical Robotics, with a particular emphasis on medical device development, control systems, and biomedical applications. Co-founder of startup ACUSURGICAL (retinal surgery robotics) Scientific collaborator with STERLAB (flexible ureteroscopy robotics) Co-organized Summer School on Surgical Robotics (SSSR) for 20 years His research spans medical robotics , control theory , and biomedical imaging , with applications in needle steering, tissue interaction, and surgical precision. Recent publications highlight advances in soft tensegrity design , model predictive control , and multi-modality imaging registration . Scientific recognition includes: Best Paper Award at ARK’22 Prix de l’Innovation de l’I-Site MUSE (2020) Chevalier des Palmes Académiques (2019) He supervises doctoral students in projects related to flexible robotics , bioimpression , and robotic shoulder surgery , with collaborations across Europe and industry partners like CARANX Medical and CEDRAT Technologies.
Professor Yuerui Lu is a distinguished academic at the Australian National University (ANU), holding a position in the School of Engineering. He serves as a Program Manager and Chief Investigator in the ARC Centre of Excellence for Quantum Computation and Communication Technology, demonstrating leadership in quantum research and technology development. Professor Lu received his Ph.D. degree from Cornell University in 2012 and his B.S. degree from the University of Science and Technology of China. His educational background has provided a strong foundation for his interdisciplinary research spanning quantum technologies, nanomaterials, and biomedical devices. Professor Lu's research focuses on cutting-edge areas at the intersection of quantum physics, materials science, and engineering. His work explores 2D quantum materials and optoelectronic devices, MEMS sensors and actuators, quantum sensors, and novel biomedical devices. With a particular emphasis on translating fundamental discoveries into practical applications, his research bridges the gap between theoretical concepts and real-world implementations. His team has made significant breakthroughs in understanding and manipulating the properties of atomically thin materials for next-generation electronic and photonic devices. Analysis of his recent publications reveals a strong trend toward quantum communication technologies, nonlinear optical phenomena in 2D materials, and the development of practical applications for quantum sensors and biomedical devices. Professor Lu's exceptional contributions to science have been recognized with numerous prestigious awards: Walter Boas Medal from the Australian Institute of Physics (2025) Fellow of Optica (2025) Fellow of Australian Institute of Physics (2024) Prime Minister's Prizes for Science - Malcolm McIntosh Prize for Physical Scientist of the Year (2023) Pawsey Medal from Australian Academy of Science (2023) NHMRC Investigator Award (2022) Professor Lu has demonstrated exceptional mentorship, guiding numerous PhD and honors students to success. Several of his students have received prestigious awards, including Dean's Awards for Excellent PhD Theses and winners of the 3MT (3 Minute Thesis) Competition. His former students have gone on to positions at leading institutions including University of Cambridge, Harvard, and MIT. His research is supported by multiple competitive grants, including ARC Research Hubs focused on quantum technologies, energy efficiency, and zero-emission power generation. Professor Lu leads a dynamic research group at ANU that combines expertise in nanofabrication, optical characterization, and quantum device engineering. His team collaborates extensively with international partners and industry stakeholders to advance quantum technologies and develop innovative solutions for healthcare, communications, and energy applications.
Sabrina Pacor is an Associate Professor in Applied Biology (BIO/13) at the University of Trieste , where she teaches Pharmacology in the Pharmacy LM and STB BSc programs. With over 30 years of research experience in experimental oncology and host defense peptides, she has made significant contributions to studying antimicrobial peptides (AMPs) and their interactions with bacterial membranes. Her research focuses on: Direct antimicrobial activity of AMPs against Gram-positive and Gram-negative bacteria Indirect immunomodulatory effects of host defense peptides Development of drug delivery systems using nanomaterials (carbon nanotubes, gold nanoparticles) Mechanistic studies of ruthenium-based antimetastatic drugs She leads extensive cytofluorimetry research using flow cytometry platforms, particularly for evaluating: Cytotoxicity (necrosis/apoptosis, proliferation index) Modulation of host biological responses (chemotaxis, phagocytosis, ROS production) Peptide-bacterial membrane interactions through fluorescent labeling Her recent work demonstrates trends in: Proline-rich antimicrobial peptides against ESKAPE pathogens Hybrid antibiotic design (peptide-aminoglycoside conjugates) Structure-activity relationships in membranolytic peptides Evolutionary insights into defensin and cathelicidin families Prof. Pacor has co-authored over 100 peer-reviewed publications and actively mentors students, having supervised: 70 experimental/thesis reviews for Pharmacy/CTF Master's students 20 Bachelor's degree theses
Niko Van den Brande is a Researcher in Sustainable Materials Engineering at the Faculty of Engineering, Vrije Universiteit Brussel (VUB), Brussels, Belgium. His research focuses on polymer chemistry, sustainable materials development, and advanced material characterization techniques. With an h-index of 21 and over 1074 citations, he has established himself as a significant contributor to materials science. His research interests span polymer chemistry, sustainable materials engineering, self-healing polymers, Diels-Alder reactions, lignin-based thermosets, organic electronics, thermal analysis, and crystallization phenomena. His work bridges fundamental chemical principles with practical applications in sustainable material design and engineering. Van den Brande's recent publications demonstrate a strong focus on dynamic polymer networks, self-healing mechanisms, and sustainable material systems. His research integrates computational modeling, experimental synthesis, and advanced characterization techniques to develop next-generation materials with applications in soft robotics, organic electronics, and circular economy systems. Scientific Awards: 18th Annual meeting of the Belgian Polymer Group, BPG-2011 Poster Prize (2011) ChemCYS 2012 prize for the best oral presentation in Polymer Chemistry (2012) Solvay Award (2010) TAWN Thermal Analysis Award (2012) Van den Brande actively participates in numerous research projects including FWOSBO63 (MycoMatters), HERC65 (X-Ray Approach), OZR4285 (Microbe Cultivation Infrastructure), FWOTM1156 (Self-Healing Networks), and FWOSBO54 (Lignin-based Thermosets). His collaborative work spans multiple institutions and involves interdisciplinary teams focusing on sustainable material solutions. His research group collaborates extensively within the Belgian Polymer Group and participates in international conferences, demonstrating strong engagement with the global materials science community. Current projects indicate active work in mycelium-based materials, fungal engineered living materials, and sustainable polymer networks for various applications.
Jonas Örtegren is an Associate Professor and Senior Lecturer in the Department of Engineering, Mathematics and Subject Didactics at Mid Sweden University. He serves as the subject representative for Engineering Physics and program manager for both the Master of Science program in Engineering Physics (years 4-5) and the project-based Master by Research in Engineering Physics program. His research focuses on nanomaterials and functional surfaces for energy applications. Örtegren's research explores nanomaterials, functional materials, and surface science with applications in energy conversion (nanogenerators) and energy storage (batteries). His work spans triboelectric energy harvesting, plasmonic devices, battery electrode design, and sustainable energy solutions. Current projects include IMPHET (Innovation Environment for Advanced Materials and Processes with Sustainable Energy Applications) and aluminum-graphite dual-ion battery development. Analysis of his recent publications reveals strong focus on: Advanced battery technologies including silicon anodes and aluminum-ion systems Triboelectric nanogenerators using sustainable materials like wastepaper Plasmonic devices for optical applications Surface engineering and nanomaterial synthesis techniques Primary research trends show integration of energy harvesting with materials science and nanotechnology. Örtegren manages multiple research projects: Flexibla och hållbara fastfasbatterier (Flexible solid-state batteries) ALGCC (Graphene-coated aluminum current collectors) IMPHET innovation environment Aluminum-graphite dual-ion battery development He is affiliated with the FSCN Research Centre and supervises research in nanomaterials and energy systems. No specific students or awards are mentioned in the source material.
Selin Aslan serves as an Assistant Professor in the Department of Mathematics at Koç University, Istanbul, Turkey, where she conducts research at the intersection of computational mathematics and imaging science. Her academic appointments and research activities are centered within the university's mathematics department, contributing to both undergraduate and graduate education in mathematical sciences. Her educational qualifications include: PhD in Mathematics from Virginia Polytechnic Institute and State University (2018) Master's in Mathematics from Rochester Institute of Technology (2013) B.A. in Mathematics from Ege University (2010) Dr. Aslan's research program focuses on developing advanced computational methods for solving inverse problems in imaging, with particular expertise in phase retrieval, tomographic reconstruction, and ptychography. Her work bridges theoretical mathematics with practical applications in medical imaging, microscopy, and materials science, emphasizing algorithmic innovation and computational efficiency. She integrates techniques from deep learning, optimization theory, and high-performance computing to address challenges in image reconstruction under physical constraints. Analysis of her publication record reveals a consistent trajectory toward solving complex imaging problems through hybrid approaches that combine physics-based models with data-driven techniques. Her recent work demonstrates increasing emphasis on scalability for large datasets, robustness in photon-limited scenarios, and real-time processing capabilities, with applications spanning biomedical imaging to advanced microscopy. No scientific awards were documented in the available sources. Information regarding student advising and research grant activities was not specified in the provided materials, though her publication record suggests active research collaboration. Her computational focus implies engagement with high-performance computing resources for large-scale image reconstruction tasks. While specific laboratory infrastructure details were unavailable, her research on multi-GPU implementations and distributed computing indicates utilization of advanced computational facilities for handling large-scale imaging datasets.
Xavier Rocquefelte is a Professor at ISCR (Institut des Sciences Chimiques de Rennes) within the University of Rennes 1, which is affiliated with CNRS (Centre National de la Recherche Scientifique). His office is located at Campus de Beaulieu, Building 10B - Room 212, 263 avenue du Général Leclerc, Rennes, France. He maintains an active research profile with numerous publications in advanced materials science and condensed matter physics. Professor Rocquefelte's research spans multiple domains within materials science, with particular emphasis on magnetic materials, crystallography, and computational approaches to understanding material properties. His work frequently intersects with condensed matter physics, particularly in the study of antiferromagnetism, multiferroics, and topological materials. He has made significant contributions to the understanding of defect engineering in perovskites and other complex oxide materials, as well as the development of novel synthesis methods for functional materials. His research also extends to optical materials, particularly those exhibiting mechanoluminescent properties, and to the computational modeling of material behaviors under various conditions. Analysis of his recent publications reveals a strong focus on the intersection of magnetism and material structure, with increasing attention to quantum materials and topological phenomena. His work demonstrates expertise in both experimental synthesis techniques and advanced computational methods, allowing for comprehensive characterization of material properties. The research portfolio shows consistent productivity across multiple subfields, with particular emphasis on the relationship between crystal structure, defects, and functional properties in advanced materials. Professor Rocquefelte maintains an active research program with collaborations across multiple institutions, as evidenced by his extensive publication record in high-impact journals. His work contributes significantly to the understanding of fundamental material properties while maintaining relevance to potential applications in energy storage, electronics, and optical technologies.
Professor Martin Freer is a Professor of Nuclear Structure and Reactions at the Birmingham Energy Institute, University of Birmingham. He has established himself as a leading researcher in nuclear physics with 197 research outputs and 65 projects spanning over two decades. In 2010, he helped establish the Birmingham Centre for Nuclear Education and Research to support the UK's investment in nuclear power generation. Professor Freer is actively accepting PhD students and supervising research in nuclear structure. His research focuses on the study of light nuclei using nuclear reactions performed at international facilities worldwide. Key research themes include nuclear structure and reactions, neutrinoless double beta decay, and alpha-clustering in nuclei. His fingerprint analysis reveals significant contributions to excited states (100%), excitation energy (72%), ground state physics (65%), beam energy (60%), neutron physics (58%), and cluster structure (47%). This demonstrates his comprehensive approach to understanding fundamental nuclear phenomena. Professor Freer's recent publications show a strong theoretical and experimental focus on nuclear structure, with particular emphasis on symmetries in collisions, triaxial deformation, shell structure, and cross-shell states in light nuclei. His work bridges fundamental nuclear physics with practical applications in energy systems, as evidenced by his thermochemical heat storage research. The consistent publication rate across decades indicates sustained scholarly productivity and evolving research interests. He has received recognition through citations and downloads of his work, with recent publications generating significant academic interest. His 2024 paper on symmetries in collisions has garnered 68 downloads, while his work on triaxial deformation has received 25 downloads, indicating active engagement with his research by the scientific community. Professor Freer is actively involved in mentoring PhD students in nuclear structure and supervising research projects. His current research portfolio includes major projects such as INHABIT (2025-2030), EPSRC Manufacturing Research Hub (2024-2031), Micro-breeder blanket development (2024-2030), and ZEBAI (2024-2028), reflecting his commitment to addressing energy challenges through interdisciplinary research. These projects demonstrate his ability to secure substantial research funding and collaborate across multiple institutions. He leads the Birmingham Centre for Nuclear Education and Research, which serves as a hub for nuclear physics research and educational programs. His work connects nuclear physics with energy engineering, materials science, and sustainable technologies, positioning him at the intersection of fundamental research and practical applications in energy production.
Srinivasa G. Narasimhan is the U.A. and Helen Whitaker Professor of Robotics at Carnegie Mellon University's Robotics Institute within the School of Computer Science. He directs the Illumination and Imaging Laboratory (ILIM) and leads the Computational Imaging group, focusing on the physics of computer vision and graphics. His research develops novel imaging technologies for applications in robotics, transportation, medical imaging, and environmental sensing. Research interests span computational imaging, light transport modeling, and active perception systems. Key areas include: Physics-based vision for atmospheric and material interactions Novel camera designs and programmable lighting systems Robust perception for autonomous vehicles and medical diagnostics Non-line-of-sight imaging and computational scatterography Publications demonstrate strong emphasis on 3D reconstruction, computational optics, and vision systems for intelligent transportation. Recent works leverage self-supervised learning for dynamic scene understanding and develop novel sensors for medical and automotive applications. Awards and honors include: Best Paper awards at CVPR (2019, 2022), IV (2021), and ICCP (2020) Marr Prize Honorable Mention (ICCV 2013) Multiple demo awards at CVPR/ICCP Current advising includes 5 PhD students and 1 master's student. Major grants include NSF EXPEDITIONS (Computational Photo-Scatterography), DARPA REVEAL, and industry support from Ford, GM, Adobe, and Zillow. Manages multiple labs developing technologies like adaptive headlights, thermal imaging systems, and MHz-rate light steering devices.
Dr. Hyung D. Bae is an Assistant Professor in the Department of Mechanical Engineering at Howard University, affiliated with the College of Engineering and Architecture (CEA). He holds a Ph.D. from the University of Maryland (2013) and prior degrees from Yonsei University. His research focuses on polymer-based fiber optic sensors, bioinspired sensor systems, and 3D printed structures. He leads funded projects involving chemical detection, biological sensing, and 3D printed pressure vessels. **Education**: Ph.D., Mechanical Engineering, University of Maryland (2013) M.S., Mechanical Engineering, Yonsei University (2006) B.S., Mechanical Engineering, Yonsei University (2004) **Research Interests**: Dr. Bae specializes in micro/nano fabrication, optofluidics, and multi-functional sensors for biomedical applications. His work integrates optical systems with mechanical engineering to develop innovative sensing technologies. Recent projects include graphene-diaphragm-based acoustic sensors and diamond-based pressure sensors with advanced adhesives. **Awards & Recognition**: 2018 DARPA Young Faculty Award 2017 IEEE/OSA Top Reviewer Award 2012 Invention Disclosure Finalist (University of Maryland) **Teaching & Advising**: He teaches courses on MEMS, computer-aided engineering, and CAD design. Current funded research partners include DARPA, NSF, and DOE. His lab emphasizes collaborative projects using advanced simulation tools like Fusion 360 and Simscale. **Labs/Teams**: His lab focuses on interdisciplinary sensor development at the intersection of optics, mechanics, and materials science.
Koen Vandewal is Full Professor and Chair of Physics at Hasselt University (Belgium), where he leads the Organic Optoelectronics research group. He obtained his PhD in Physics at Hasselt University in 2009, followed by postdoctoral positions at Linköping University (Sweden) and Stanford University (USA). Before joining Hasselt in 2018, he held an endowed professorship at TU Dresden (Germany). His research solves fundamental questions in organic, hybrid and molecular electronics for applications in devices like OLEDs, solar cells, and sensors. Key research themes include: Organic photovoltaic physics and material stability Light-matter interactions in optical microcavities Nanoscale assembly of donor-acceptor systems Advanced characterization of quantum dot photophysics Recent publications focus on overcoming efficiency limits in transparent photovoltaics, understanding excitonic disorder in organic semiconductors, and developing printed sustainable transistors. He has supervised numerous PhD students through the OOE research group.
J. Quincy Brown is an Associate Professor in the Department of Biomedical Engineering at Tulane University's School of Science and Engineering. His laboratory focuses on developing translational optical spectroscopy and imaging methods for improving cancer management in clinical settings, particularly surgical tumor removal. Research emphasizes device development and clinical validation through physician collaborations. Education: Ph.D. Biomedical Engineering, Louisiana Tech University (2005) B.S. Biomedical Engineering, Louisiana Tech University (2001) Postdoctoral Fellow, Biomedical Engineering, Duke University (2009) Research spans quantitative spectroscopy, fluorescence histology, structured illumination microscopy, and real-time diagnostic platforms. Work integrates optical engineering with oncology to develop clinical tools for tumor margin assessment and rapid biopsy analysis through collaborations with surgical teams. Recent publications demonstrate focus on advanced microscopy platforms (2021-2025), including PathCAM for digital pathology, light sheet microscopy optimizations using deep learning, and clinical validation studies of structured illumination for breast/prostate cancer. Technical innovations prioritize clinical translation through closed-loop systems and workflow integration. Awards and Honors: NIH NRSA Postdoctoral Fellowship (2006) Duke Cancer Center Young Investigator Award (2007) 4× AEMB Teacher of the Year (2013-2019) OSA Biophotonics Congress Chair (2019) Y Combinator recognition for Instapath Inc (2019) Tulane University Research Achievement Award (2021) NIH Imaging Technology Development charter member (2021-27) School of Science and Engineering All-Around Award (2022) Leads courses in Biomedical Optics (BMEN 6170) and Biomedical Signals/Systems (BMEN 3730/6730). Collaborates with clinical partners to develop intraoperative imaging solutions and validate diagnostic platforms in surgical oncology workflows.
Debashis Chanda is a Professor at the University of Central Florida (UCF) with joint appointments in the NanoScience Technology Center (NSTC), Department of Physics, and the College of Optics and Photonics (CREOL). His research focuses on nanophotonics, plasmonics, and metamaterials, emphasizing high-throughput, low-cost fabrication techniques for optical nanostructures. Key achievements include developing energy-saving plasmonic paints and sensors for biomedical and environmental applications, recognized by the National Science Foundation and World Economic Forum. Chanda leads the Nano-Optics Group, mentoring over 15 graduate and undergraduate students in cutting-edge projects. His team explores light-matter interactions for applications in energy harvesting, optical sensors, and advanced displays. The group collaborates on innovations like angle-independent structural color coatings and tunable infrared detectors. Research Interests: Nanophotonics and plasmonics Metamaterials and structural coloration Infrared detection and sensing Bioinspired optoelectronics High-throughput nanofabrication Team & Students: Current advisees include Tianyi Guo and Mahdi Soudi. Notable alumni have advanced to roles at institutions like the University of Toronto and North Carolina State University, and industry leaders such as Intel and ASML. Labs & Facilities: The Nano-Optics Group operates in UCF’s NSTC and CREOL, leveraging state-of-the-art nanofabrication and characterization tools. Ongoing projects include smartphone-based sensors, adaptive camouflage systems, and sustainable plasmonic materials.
