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Lior SepunaruView profile

Associate Professor

• Bioelectronics
• Electrochemistry
• Nanotechnology
• +7 more

Lior Sepunaru is an Associate Professor in the Department of Chemistry and Biochemistry at the University of California, Santa Barbara (UCSB), and a member of the Center of Polymers and Organic Solids. His research focuses on bioelectronics, single-entity electrochemistry, and nano-electrochemistry, with applications in enzyme catalysis, biosensor development, and liquid-liquid phase separation phenomena. He completed his postdoctoral studies at the University of Oxford and earned his Ph.D. from the Weizmann Institute of Science. Education: Ph.D., Weizmann Institute of Science (2014) Marie Curie Research Fellowship, University of Oxford Research interests include: Electrochemical analysis of biological droplets (coacervates) and their role in protocell-like systems Single-molecule electrocatalysis and nano-scale energy conversion mechanisms Biomolecule-mediated nanoparticle synthesis and characterization Electrochemical correlative microscopy for reaction dynamics Publications highlight advancements in electrochemical sensing, catalysis, and bio-inspired materials. His lab employs cutting-edge techniques such as liquid-cell TEM and impedimetric spectroscopy to bridge macroscopic and single-entity electrochemical phenomena. Advising and grants: Guides over 20 graduate students and postdocs in interdisciplinary projects Collaborates with groups in materials science, chemical engineering, and biomolecular science Labs/Teams: Director of the Electrochemistry Lab at UCSB, specializing in bioelectrochemistry and nanoelectrochemical systems.

Joel E. CohenView profile

Professor

• Mathematical Biology
• Population Dynamics
• Demography
• +7 more

Joel E. Cohen is the Abby Rockefeller Mauzé Professor at The Rockefeller University, where he leads the Laboratory of Populations. With over five decades of research experience, Cohen has pioneered innovative mathematical approaches to study biological populations and variability. His work bridges mathematics, biology, and environmental science, fundamentally changing how scientists understand population dynamics and the significance of biological variability. Dr. Cohen's research focuses on developing new mathematical tools to address population problems in demography, epidemiology, and ecology. He has made seminal contributions to the understanding of heavy-tailed distributions that describe extreme events like hurricanes and disease outbreaks, challenging traditional statistical approaches. His laboratory has conducted groundbreaking research on the spatial distribution of human populations in relation to geophysical factors, with unexpected practical applications ranging from soap formulation to semiconductor manufacturing. Cohen has also developed mathematical models for Chagas disease control in rural Argentina and created algorithms to predict international migration patterns. Analysis of Cohen's recent publications reveals a sustained focus on Taylor's law of fluctuation scaling, population dynamics, and ecological statistics. His work consistently demonstrates how abstract mathematical concepts can transform our understanding of biological systems, from cellular processes to global population trends. The research spans theoretical mathematics to practical applications in disease control, conservation biology, and environmental management. Olivia Schieffelin Nordberg Prize for excellence in writing in the population sciences (March 1997) Gheorghe Lazar Prize of Romanian Academy (December 2000) As director of the Laboratory of Populations, Cohen has led research on human population growth, infectious diseases, food webs, and international migration. His methods for assessing the uncertainty of population projections have been applied in court cases for predicting future claimants of asbestos-related diseases. Cohen's laboratory has collaborated with the United Nations Population Division on migration studies and developed mathematical models that account for more than half of the variability in annual migration numbers among 229 countries. Current research directions include understanding how demographic, economic, and cultural changes interact with Earth's physical, chemical, and biological environments. The Laboratory of Populations employs a multidisciplinary approach that combines mathematical modeling, statistical analysis, and field studies to address complex population issues. Their work exemplifies how basic quantitative research on populations frequently yields unexpected practical applications, demonstrating the profound connections between theoretical mathematics and real-world challenges in public health, environmental science, and resource management.

Farzan KazemifarView profile

Associate Professor

• Thermal Energy Systems
• Energy Efficiency
• Multiphase Flow
• +3 more

Farzan Kazemifar is an Associate Professor and Associate Chair in the Department of Mechanical Engineering at San José State University, where he also serves as Director of the SJSU Industrial Assessment Center. His academic background includes a Ph.D. in Mechanical Engineering from the University of Illinois at Urbana-Champaign, an M.Sc. in Mechanical Engineering from the same institution, and a B.Sc. in Mechanical Engineering from Sharif University of Technology. Dr. Kazemifar's research focuses on thermal energy systems and energy efficiency in buildings, with specialized expertise in multiphase flow, porous media dynamics, and carbon capture technologies. His work integrates experimental methods with theoretical modeling to address challenges in sustainable energy and environmental applications. His 15 most recent publications demonstrate a consistent focus on fluid dynamics in porous media, particularly examining CO2-water interactions for carbon sequestration applications. These studies utilize advanced micro-PIV techniques to quantify flow phenomena at pore scales, contributing to improved understanding of multiphase flow regimes under reservoir conditions. Dr. Kazemifar directs the Industrial Assessment Center, which focuses on energy efficiency solutions for industrial applications. No information is available regarding student advising, research grants, or specific laboratory facilities.

• Cyber Physical Systems
• Risk/Reliability Analysis
• Deep Learning
• +3 more

Dr. Saptarshi Sengupta is an Assistant Professor in the Department of Computer Science at San José State University (SJSU), leading the Machine Intelligence and Complex Systems (MICoSys) Lab. He advises the ACM student club at SJSU and holds a 'Alien of Extraordinary Ability' visa (Einstein Visa) from USCIS. His work focuses on resilient cyber-physical systems, risk analysis, and deep learning applications in healthcare and industrial systems. Education: Ph.D. in Electrical Engineering, Vanderbilt University M.S. in Electrical Engineering, Vanderbilt University B.Tech. in Electronics & Communication Engineering, West Bengal University of Technology Research Interests: Cyber-Physical Systems Security Healthcare AI for Cancer and Chronic Disease Prediction Battery Prognostics and Energy Systems Machine Learning for Complex Systems Analysis Key Achievements: Dr. T.M.A. Pai Gold Medal Award for Healthcare AI contributions Recipient of multiple best paper awards at international conferences Author of over 30 peer-reviewed publications Labs & Teams: Leads the MICoSys Lab, developing AI solutions for healthcare diagnostics, industrial prognostics, and smart infrastructure systems. Collaborations include interdisciplinary projects with biomedical and engineering domains.

Nicole ChurchView profile

Research Fellow

• Materials Science
• Metallurgy
• Biomedical Engineering
• +3 more

Nicole Church is a Beatrice Mary Dale Research Fellow at Newnham College and a member of the Rolls-Royce University Technology Centre (UTC) in the Department of Materials Science & Metallurgy at the University of Cambridge. She holds an MSci and PhD in Materials Science from Cambridge, where she specialized in titanium alloys. Her research focuses on superelastic and shape-memory titanium alloys for biomedical and aerospace applications, particularly investigating functional fatigue and microstructural degradation mechanisms. She lectures the Fracture and Fatigue course in the Materials Science Part II of the Natural Sciences Tripos. Key achievements include developing a new theory governing transforming alloys and being awarded the IOM3 Prize for her undergraduate research. Her work addresses challenges in alloy design, including optimizing composition and processing to prevent in-service property degradation. Nicole has collaborated with Rolls-Royce UTC on high-temperature structural alloys and solid-state welding processes. Recent research highlights include studies on Ti-Nb-Au alloys for low-modulus biomedical applications, functional fatigue mechanisms in Ti2448 alloys, and microstructural stability in nickel-based superalloys. Her interdisciplinary approach combines advanced characterization techniques like high-energy diffraction and electron microscopy to advance material science solutions.

• Metamaterials
• Photonic Crystals
• Terahertz Technology
• +4 more

Professor Boris Kuhlmey is a Professor at the School of Physics, University of Sydney, and a member of the Sydney Nano Institute. His research focuses on metamaterials, photonic crystals, and terahertz technology, with applications in imaging, waveguides, and energy transfer. He has authored the book Foundations of Photonic Crystal Fibres and over 100 peer-reviewed publications. Key projects include developing terahertz imaging techniques, exploring light sails for interstellar travel, and advancing metamaterial fabrication through fiber-drawing methods. His work bridges fundamental physics with practical applications, spanning photonics, nanotechnology, and aerospace engineering. Notable contributions include subwavelength imaging via virtual superlensing and 3D-printed terahertz couplers that improve signal quality. He leads grants on superconducting cavities for quantum coupling and nanostructured textiles for sustainable energy solutions. Professor Kuhlmey collaborates widely, with recent conference presentations at META Conferences and SPIE events. His research has been featured in Science & Vie , Universe Today , and New Scientist , highlighting breakthroughs in invisibility cloaks and stable lightsail propulsion systems.

Jane ClealView profile

Associate Professor

• Reproductive Cell Biology
• Placental Biology
• Fetal Development
• +4 more

Dr. Jane Cleal is an Associate Professor in Reproductive Cell Biology at the University of Southampton’s Faculty of Medicine. She leads research on placental and maternal tissue mechanisms, focusing on fetal development, lifelong health, and interventions to improve pregnancy outcomes. Her work integrates systems biology with molecular and cellular approaches. Education: PhD in Medicine, University of Southampton (2005) BSc (Hons) Molecular Cell Biology, University of Southampton (2001) Fellow of the Higher Education Academy (2013) Teaching Roles: Deputy Programme Lead for the BM6 widening access to medicine degree Module Lead for MEDI0011 Human Structure & Function 1 Her research interests span placental and endometrial biology, vitamin D regulation, and the impact of maternal exposures on fetal programming. Key areas include fetal growth, obesity, and cardiometabolic health. Recent work explores endometrial gland function in miscarriage risk and climate change effects on developmental health in Caribbean communities. Publications highlight placental transport mechanisms, vitamin D’s role in pregnancy, and computational models of drug diffusion. She has supervised 3 current PhD students and secured grants from Wessex Medical Research, BBSRC, and Wellbeing of Women. Awards: Fellow of the Higher Education Academy (2013) External Roles: Editorial Board Member, British Journal of Nutrition (2012–2018) Council Member, Physiological Society (2009–present) Reviewer for Irish Government research panels (2017–2023) Outreach: Public engagement on reproductive science and healthy lifestyle choices.

Sharon M WeissView profile

Professor

• Photonics
• Nanotechnology
• Silicon Photonics
• +3 more

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

Arthur F WitulskiView profile

Research Professor

• Radiation Effects on Electronic Devices
• Power Semiconductor Reliability
• Space System Radiation Hardening
• +3 more

Arthur F Witulski is a Research Professor of Electrical Engineering at Vanderbilt University's School of Engineering. He specializes in radiation effects on electronic power semiconductor devices and systems, focusing on radiation reliability in aerospace and nuclear environments. His research addresses challenges in satellites, robotics, and high-reliability power electronics. Education: PhD, MS, and BS in Electrical Engineering from the University of Colorado. Research Interests include radiation hardening of power electronics, semiconductor reliability under ionizing environments, and system-level modeling of radiation effects. His work spans energy systems, nano-materials, and risk mitigation strategies for complex engineering projects. Key contributions include developing models for SiC power device failures, Bayesian assurance frameworks for space systems, and methodologies linking component-level testing to system reliability. His recent articles emphasize single-event effects in advanced semiconductors and radiation tolerance in commercial-off-the-shelf (COTS) components. Witulski has pioneered radiation assurance tools for small satellites and robotic systems, emphasizing probabilistic modeling and fault-tolerant designs. His work integrates theoretical physics with practical engineering solutions for harsh radiation environments.

Thomas BifanoView profile

Professor

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

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

Thao NguyenView profile

Professor

• Biomechanics
• Polymer Engineering
• Materials Science
• +3 more

Thao (Vicky) Nguyen is a Professor of Mechanical Engineering at Johns Hopkins University, with a secondary appointment in the Department of Materials Science and Engineering. She is co-Deputy Director of the Hopkins Extreme Materials Institute (HEMI). Her research focuses on biomechanics of soft engineering and biological materials, including adaptive polymers, fracture mechanics, and ocular biomechanics related to glaucoma. Key collaborators include the National Eye Institute and National Science Foundation. Nguyen holds a B.S. from MIT (1998), and M.S. and Ph.D. from Stanford (2000, 2004). She previously worked at Sandia National Laboratories. Awards include the James R. Rice Medal (2025), NSF CAREER Award, and multiple ASME honors. Her lab integrates experimental and computational approaches, with notable work on shape-memory polymers and scleral biomechanics. Research interests include collagen growth, liquid crystal elastomers, and architected materials. She leads studies on optic nerve head mechanics, funded by DOD, NEI, and BrightFocus. Nguyen serves on editorial boards for ASME journals and professional societies.

Nathaniel RosiView profile

Professor

• Inorganic Chemistry
• Materials Chemistry
• Metal-Organic Frameworks
• +2 more

Nathaniel Rosi is the Covestro Professor of Chemistry at the University of Pittsburgh's Dietrich School of Arts and Sciences, Department of Chemistry. His research focuses on designing and synthesizing new materials using chemical building blocks like metal clusters and biomolecules to create hierarchical structures with tailored properties for energy, medicine, and other applications. Research interests span inorganic and materials chemistry, metal-organic frameworks (MOFs), nanoparticle assembly, and sustainable energy materials. The Rosi Lab develops unifying design principles for organizing building blocks across multiple length scales, employing diverse synthetic methods and characterization techniques including NMR, TEM, X-ray diffraction, and sorption analysis. Scientific awards include: Chancellor's Distinguished Research Award (2014) Kavli Fellow (2012) ChemComm Emerging Investigator (2011) NSF CAREER Award (2010-2015) US Delegate for Transatlantic Frontiers of Chemistry Conference (2008) The Rosi Research Laboratory trains students in interdisciplinary approaches at the chemistry-biophysics interface and welcomes graduate students to explore its multi-disciplinary research environment.

Leslie GreengardView profile

Professor

• Integral Equation Methods
• Electromagnetics
• Acoustics
• +5 more

Leslie Greengard is a Silver Professor of Mathematics and Computer Science at New York University's Courant Institute, part of the Faculty of Arts and Science. His research focuses on integral equation methods for electromagnetics, acoustics, plasma physics, and fluid dynamics, with recent work extending to kernel-based methods in statistical inference. He leads the Courant Mathematics and Computing Laboratory and contributes to novel electromagnetic simulation techniques. Education: Ph.D. and M.D. in Computer Science and Medicine from Yale University (1987) B.A. in Mathematics from Wesleyan University (1979) Research Interests: Greengard's group develops fast solvers for complex geometries in electromagnetics and fluid dynamics. Notable contributions include the Fast Multipole Method (FMM) for particle simulations and Quadrature by Expansion (QBX) for layer potential evaluations. His work bridges computational mathematics and applications in physics, engineering, and biomedicine. Recent Article Trends: Recent publications emphasize fast algorithms (e.g., FMM, adaptive Gauss transforms), biomedical applications (e.g., deep brain stimulation modeling), and cosmological simulations. His methods address challenges in high-dimensional data, multiscale problems, and real-time computation. Awards & Recognition: While no specific prizes are listed, his foundational work on FMM has had a transformative impact on computational science. Advising & Collaborations: Collaborations span academia and industry, with co-authors including V. Rokhlin, M. O’Neil, and others. No formal advisees are listed here, though his research involves postdoctoral fellows and graduate students. Labs & Teams: Active in the Courant Mathematics and Computing Laboratory, focusing on electromagnetic simulation and design methodologies.

Petra RudolfView profile

Professor

• Molecular Motors and Switches
• 2D Materials (Graphene, Transition Metal Dichalcogenides)
• Organic Electronics
• +4 more

Prof. Petra Rudolf is a Professor of Experimental Solid State Physics and Dean of Graduate Studies at the University of Groningen. She holds a PhD from the University of Namur (Belgium) and a MSc from the University of Rome "La Sapienza". Her research focuses on molecular motors/switches, 2D materials (graphene, transition metal dichalcogenides), organic thin films, and energy-related nanomaterials. She leads the Surfaces and Thin Films group at the Zernike Institute for Advanced Materials. Education: PhD in Physics (1995) from University of Namur MSc in Physics (1987) from University of Rome Research Interests: Design of functional surface architectures using molecular switches and motors Synthesis and characterization of 2D materials (graphene, MXenes) Development of nanomaterials for energy storage (lithium-sulfur batteries) and catalysis Electrochemical processes and surface functionalization techniques Recent Article Trends: Advances in organic solar cell efficiency via interlayer engineering Electrocatalytic strategies for sustainable chemical production Innovative 2D material synthesis methods (vapor phase, solvothermal) Self-healing materials and smart adhesives Awards: EU Descartes Prize (2007) for molecular machine research Member of Academia Europaea (2021) Fellowships: APS (2010), Institute of Physics (2001) Advising & Grants: Guided 35+ PhD students and 10 current advisees Leadership in European research networks and funding initiatives Labs/Teams: Surfaces and Thin Films Group at Zernike Institute Collaborations with Max Planck Institute, SOLARIS Synchrotron, and others

Andreas Milias ArgeitisView profile

Associate Professor

• Systems Biology
• Biochemistry & Molecular Biology
• Mathematics, Interdisciplinary Applications
• +6 more

Andreas Milias Argeitis is an Associate Professor in the Faculty of Science and Engineering at the University of Groningen. He leads the Milias-Argeitis Lab within the Molecular Systems Biology research unit at the Groningen Biomolecular Sciences & Biotechnology Institute (GBB). His research focuses on integrating experimental and computational approaches to understand cellular processes, particularly the coordination between cell growth, division, and metabolic dynamics in budding yeast. Key research areas include systems biology, TOR signaling pathways, cell cycle regulation, and the application of machine learning and mathematical modeling. His lab develops advanced tools like optogenetic control systems and deep learning algorithms for cell segmentation and tracking. Recent work has revealed metabolic oscillations linked to the cell cycle and explored the role of proteins like Sch9 in TORC1-dependent signaling. Notable achievements include an NWO Vidi Grant (2018) and an ENW Science-M Grant (2023) for studying how growth drives the cell division cycle. He has over 40 peer-reviewed publications, including work in Nature Communications , Nature Metabolism , and Journal of Cell Science . His research bridges fundamental biology with technological innovations in single-cell analysis and synthetic biology. Lab activities include CRISPR/Cas9 genome editing protocols, fluorescent protein maturation studies, and the development of photo-switchable enzymes. Collaborations span biochemistry, mathematics, and engineering, reflecting his interdisciplinary approach to unraveling cellular mechanisms.