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Efstathios (Stathis) Michaelides is the W.A. "Tex" Moncrief, Jr. Founding Chair of Engineering at Texas Christian University (TCU). He holds a Ph.D. and M.S. in Engineering Science from Brown University (1980, 1979) and a B.A. in Engineering Science and Economics from Oxford University (1977). His research focuses on advanced energy systems, multiphase flow, and renewable energy transitions. Ph.D. , Engineering Science, Brown University, 1980 M.S. , Engineering Science, Brown University, 1979 B.A. , Engineering Science and Economics, Oxford University, England, 1977 Michaelides' work spans energy conversion , geothermal systems , nanofluidics , and particle-fluid dynamics . His recent publications analyze energy storage requirements for renewable transitions, drag force correlations in complex flows, and thermodynamic implications of carbon sequestration. His research trends include decarbonization strategies , nanoparticle-enhanced phase transitions , and smart microfluidic systems . He has also contributed to foundational texts like Particles, Bubbles and Drops (2006) and the Multiphase Flow Handbook (2017).

• Advanced Energy Systems
• Energy Conversion and Conservation
• Geothermal Energy
• +9 more

David S. Corti is the Interim Jay and Cynthia Ihlenfeld Head of the Davidson School of Chemical Engineering at Purdue University, where he also serves as a Professor of Chemical Engineering and Director of Undergraduate Studies. His research focuses on thermophysical and kinetic properties of soft condensed-phase systems, including metastable liquids and colloidal dispersions. He employs theoretical and simulation techniques to study phenomena such as bubble nucleation and entropic force fields in colloidal systems. Corti holds a B.S. from the University of Pennsylvania (1991), an M.A. from Princeton University (1993), and a Ph.D. from Princeton (1997). His scientific contributions include advancements in understanding metastable liquid behavior, colloidal stability, and Hamaker constant estimation via atomic force microscopy. Notable honors include the NSF CAREER Award (2002), the 'Teaching for Tomorrow' Award (2002-2003), and University Faculty Scholar designation (2011-2016). Corti collaborates extensively, notably with Prof. Elias I. Franses on dispersion stability projects. His advising includes graduate student Betty Yung-Jih Yang. Research themes span bubble nucleation mechanisms, entropic control of colloids, and surfactant effects on nanoparticle stability. Corti's work bridges fundamental theory with industrial applications, addressing challenges in materials science and chemical engineering.

• Thermophysical Properties
• Kinetic Properties of Soft Condensed-Phase Systems
• Bubble Nucleation
• +5 more

Sang-Hyun Oh is Distinguished McKnight University Professor and Sanford P. Bordeau Chair in Electrical and Computer Engineering at University of Minnesota. His research develops nano-optical tools for biomedical applications, specializing in plasmonic biosensors, nanophotonic devices, and optical manipulation techniques. Key innovations include nanofluidic platforms for single-molecule analysis, high-Q metasurfaces for vibrational spectroscopy, and waveguide-integrated optical tweezers. Recent projects focus on diagnostic technologies such as Nano-QuIC for Parkinson's detection and computational design of upconversion materials. His laboratory advances nanofabrication methods including template stripping and atomic-layer lithography to create plasmonic nanostructures with atomic-scale precision. Collaborative projects bridge photonics, neuroscience, and clinical medicine to develop next-generation biosensors.

• Nanophotonics
• Plasmonics
• Biosensing
• +2 more

Pedro Jorge Martins Coelho is a Professor in the Mechanical Engineering Department at Instituto Superior Técnico, University of Lisbon, Portugal. His academic career spans several decades with a focus on advanced thermal sciences and computational methods. His research has significantly contributed to the understanding of radiative heat transfer phenomena in complex systems. Dr. Coelho's educational background includes a Ph.D. in Mechanical Engineering, which has provided the foundation for his extensive research in thermal sciences. His work demonstrates a strong theoretical foundation combined with practical applications across various engineering domains. His primary research interests encompass radiative heat transfer, turbulence-radiation interaction, combustion modeling, and numerical methods for thermal systems. Recent work has expanded into biomedical applications of thermal radiation, particularly in laser-tissue interactions for cancer detection and treatment. His publications reveal a consistent focus on developing and refining computational methods for solving complex heat transfer problems, with particular emphasis on the radiative transfer equation in various media and geometries. Analysis of his recent publications shows a clear evolution toward more complex and interdisciplinary applications, including biomedical thermal applications, advanced turbulence modeling, and thermal management of electrical systems. His work consistently bridges fundamental theoretical developments with practical engineering applications, particularly in combustion systems, energy recovery, and thermal management. Dr. Coelho has served on editorial boards for prestigious journals including Heat Transfer Research, Computational Thermal Sciences, and International Journal of Energy for a Clean Environment, demonstrating his standing in the thermal sciences community. His research collaborations span numerous institutions and researchers worldwide, as evidenced by his extensive publication record with various co-authors across different countries. He has also been involved in conference organization, serving as Associate Editor for major international heat transfer conferences.

• Radiative heat transfer
• Computational thermal sciences
• Turbulence-radiation interaction
• +4 more

Jonathan Boreyko serves as an Associate Professor and John R. Jones III Faculty Fellow in Virginia Tech's College of Engineering, Department of Mechanical Engineering. His research integrates fluid dynamics, heat transfer, and biomimetic engineering to develop sustainable solutions for water and energy harvesting through innovations like Fog Harps and synthetic trees. Dr. Boreyko earned his Ph.D. in Mechanical Engineering from Duke University (2012), following an M.S. and B.S. in Mechanical Engineering and Physics from Trinity College (2007). His academic journey includes postdoctoral research at Oak Ridge National Laboratory and faculty appointments in Biomedical Engineering and Mechanics at Virginia Tech before transitioning to Mechanical Engineering. His research program centers on interfacial phenomena in micro/nano-structured materials, with core expertise in droplet dynamics, phase-change heat transfer (condensation, evaporation, boiling), and biomimetic water harvesting systems. The Nature-Inspired Fluids and Interfaces Lab examines how natural designs—from plant transpiration to insect surfaces—can inform engineered solutions for atmospheric water collection, anti-icing, and thermal management. Analysis of his 15 most recent publications reveals three dominant research thrusts: (1) biomimetic water harvesting systems (Fog Harps for atmospheric water collection), (2) thermal diodes leveraging droplet bridging for directional heat transfer, and (3) anti-clogging/anti-tangling mechanisms in fog harvesting meshes. These works consistently bridge fundamental fluid mechanics with practical sustainability applications. His scientific achievements include: John R. Jones III Faculty Fellow (2020) NSF CAREER Award for Thermal Transport Processes (2017) AFOSR Young Investigator Program Award (2016) 3M Non-Tenured Faculty Award (2016) Multiple best poster awards at APS, Gordon Research Conferences, and MRS meetings Dr. Boreyko has advised graduate students including Weiwei (Ph.D., 2020) and Viverjita (M.S., 2020), with research funded by NSF, AFOSR, and 3M. His lab maintains active collaborations with industry partners and national laboratories for technology translation. The Nature-Inspired Fluids and Interfaces Lab combines experimental fluid dynamics, materials characterization, and computational modeling to develop deployable systems. Current projects include scaling Fog Harps for real-world water harvesting, optimizing synthetic trees for passive desalination, and exploring jumping-droplet phenomena for thermal management in electronics.

• Interfacial fluid mechanics
• Biomimetic engineering
• Phase-change heat transfer
• +5 more

Dr. Shengqian Ma serves as University Distinguished Research Professor and Welch Chair in Chemistry at the University of North Texas (UNT), joining in 2020 after advancing to Full Professor at the University of South Florida (2010-2020). His career trajectory includes Assistant Professor (2010), Associate Professor with early tenure (2015), and Full Professor (2018) at USF. Educational background: B.S. in Chemistry, Jilin University, China (2003) Ph.D. in Chemistry, Miami University, Ohio (2008) Director’s Postdoctoral Fellowship, Argonne National Laboratory His research centers on designing functional porous materials—particularly metal-organic frameworks (MOFs), covalent organic frameworks (COFs), and porous organic polymers (POPs)—for catalysis, gas separation, and environmental remediation. Key innovations include enzyme immobilization platforms, uranium extraction systems, and water treatment membranes. Recent work emphasizes biomedical applications like cardiovascular therapy and insulin delivery through framework functionalization. Analysis of 2023-2025 publications reveals dominant themes in nuclear waste remediation (radioiodine/pertechnetate capture, uranium extraction) and sustainable energy (hydrogen production, water desalination). Gas separation research focuses on industrial ethylene purification and olefin/paraffin processes using flexible MOFs. Scientific recognition includes: Director’s Postdoctoral Fellowship, Argonne National Laboratory Dr. Ma leads an active research group at UNT with extensive grant-supported projects, evidenced by high-impact publications in energy and environmental chemistry. His team develops materials for carbon capture and climate mitigation while maintaining strong industry collaborations in petrochemical separation. The research group operates within UNT’s Department of Chemistry, utilizing advanced synthesis and characterization facilities as indicated by their dedicated website (http://www.chemistry.unt.edu/~sqma).

• Metal-Organic Frameworks
• Covalent Organic Frameworks
• Porous Organic Polymers
• +5 more

Paul Rothemund is a Visiting Associate in Computing and Mathematical Sciences and Computation & Neural Systems at the California Institute of Technology . His research focuses on expanding the toolkit of DNA nanotechnology , particularly through the development of DNA origami and its integration into fields like biological engineering and translational research . He is part of the Biology and Biological Engineering divisions and collaborates with the Winfree and Qian labs. B.S., Caltech (1994) Ph.D., University of Southern California (2001) Research Interests Rothemund’s work centers on programmable molecular systems , with a focus on DNA origami for creating nanoscale shapes, RNA nanostructures , and lipid nanodiscs . His lab develops methods for molecular self-assembly , nanophotonic architectures , and single-molecule assays . Key applications include hybrid nanodevices , precision biomolecular placement , and dynamic DNA/RNA systems . Publication Trends Over 15 recent articles, Rothemund’s research spans DNA/RNA origami , lipid bilayer engineering , nanoarray fabrication , and biomolecular sensing . Themes include modular design , co-transcriptional folding , and programmable nanoscale materials . Scientific Recognition Beckman Senior Research Fellow (2001-04) Bryan R. Coles Prize (2017) Advising & Collaborations Rothemund has advised doctoral students and postdocs such as Anya Mitskovets (now at KLA) and Tyler Ross (MIT/Harvard). His lab forms a DNA nanotechnology supergroup and engages in interdisciplinary collaborations.

• DNA Nanotechnology
• Molecular Biology
• Biochemistry
• +4 more

Omid Mahian is a professor at Ningbo University, Ningbo, China, with significant contributions to thermal engineering, renewable energy, and nanotechnology. His research focuses on optimizing heat transfer mechanisms in systems like supercritical CO 2 cycles, printed circuit heat exchangers, and photovoltaic thermal modules. He has over 14,597 documents cited, with an h-index of 81 and 287 publications on Scopus. Key research areas: Thermal Load, Surface Roughness, Microchannel Flow, Exergy Destruction, Renewable Energy, Forced Convection. Recent work explores advanced cooling techniques (e.g., wicked heat pipes, grooved copper foam) and nanofluid applications for atmospheric water harvesting and CO 2 absorption. His studies address energy efficiency in off-grid systems, including predictive dispatch strategies for hybrid renewable energy, supersonic separation for carbon capture, and thermal management in electric vehicle motors. Omid Mahian has authored 180 articles on ScienceDirect, with a focus on improving energy systems through innovative designs and materials. His collaborations span numerous disciplines, emphasizing sustainability and technological feasibility.

• Thermal Engineering
• Renewable Energy
• Nanotechnology
• +3 more

Dr. Xiangchun (Schwann) Xuan is a Professor in the Department of Mechanical Engineering at Clemson University. He joined in December 2006 and specializes in thermal/fluid sciences with a focus on microfluidic devices and Lab-on-a-chip technology. His research explores electrokinetic phenomena, viscoelastic fluid dynamics, and particle manipulation in micro/nano-scale systems. Education: Ph.D., University of Toronto, 2006 DENG, Shanghai Institute of Technical Physics, 2000 B.S., University of Science and Technology of China, 1995 Research Interests: Dr. Xuan's work centers on micro- and nano-fluidics, including electroosmotic flow, dielectrophoresis, and the effects of viscoelasticity on particle behavior. He investigates applications in lab-on-a-chip devices, separation techniques, and fluid rheology in confined geometries. Publications: His recent work emphasizes nonlinear electrokinetic flows, shear-thinning fluid dynamics, and particle focusing in non-Newtonian systems. Key topics include electroosmotic instabilities, dielectrophoretic separation, and the interplay between fluid elasticity and microscale transport. Awards & Grants: No specific awards are listed, but his contributions are reflected in his extensive publication record and academic roles. He is a member of ASME, APS, and AES. Labs/Teams: His research is conducted within Clemson’s Mechanical Engineering facilities, focusing on experimental and analytical studies of microfluidic systems and electrokinetic phenomena.

• Microfluidics
• Thermal Fluid Sciences
• Nanofluidics
• +3 more

Dr. Nathanial Wiggins is a Senior Lecturer at the University of Houston in the Department of Industrial and Systems Engineering, with additional roles as Distinguished Professor of Engineering and Mathematics at San Jacinto College and Adjunct Professor of Mathematics at University of Houston - Clear Lake. He is affiliated with the Institute of Electrical and Electronics Engineers (IEEE) and the American Society for Engineering Education (ASEE). Ph.D. in Systems and Engineering Management, Texas Tech University M.S. in Mathematical Science, University of Houston – Clear Lake B.S. in Mathematics and Russian Studies, University of Colorado, Boulder Dr. Wiggins' research focuses on artificial intelligence, mixed reality, and complex dynamical systems. He develops systems that scaffold knowledge from repetition to utilization, particularly in neural networks and intelligent infrastructure. His work intersects with aerospace, oil and gas, and defense industries, emphasizing student-driven projects and collaborative learning frameworks. His publications span mixed reality applications in education, swarm robotics for Mars exploration, neural network methodologies, and aerospace systems like microgravity flame suppression and battery cooling. Keywords include AI, computer science, and engineering education, with sub-fields like neural networks and systems integration. SJC Gold Level Honoraria, Institutional Impact Award, 2019 IEEE CCWC Best Speaker Award, Las Vegas, 2019 Roueche Excellence Award, League for Innovations, 2013 NISOD Award, Community College Organization, 2013 Edu-STEM Award, Texas Space Grant Consortium, 2012 NASA Microgravity University recognition, 2012 Dr. Wiggins leads grants including NSF Bridges to STEM Careers and NASA collaborations (Swarmathon, Microgravity University). He founded the Artificial Intelligence Technology Labs, integrating peer mentoring and hands-on research to enhance STEM education.

• Artificial Intelligence
• Mixed Reality
• Complex Dynamical Systems
• +6 more

Aaron R. Hawkins is an Associate Professor of Electrical and Computer Engineering at Brigham Young University in Provo, Utah, where he directs the Integrated Microfabrication Laboratory. His research focuses on optofluidics, a field combining photonic integrated circuits with microfluidic and nanofluidic systems for applications in biosensing and biomedical technology. His work emphasizes dynamic reconfigurability through fluid manipulation of optical properties, as detailed in his co-edited 2010 text Handbook of Optofluidics . This publication serves as a foundational reference for professionals and graduate students in nanotechnology and photonics. While no specific scientific awards are mentioned in the provided text, Hawkins' editorial contributions and leadership in microfabrication highlight his significant role in advancing optofluidic research. He balances academic work with family life in Provo, Utah.

• Optofluidics
• Photonics
• Microfluidics
• +6 more

Mauro Ferrari is a distinguished Professor in the Department of Pharmaceutics at the University of Washington , joining in 2019. Previously, he served as tenured professor in engineering and/or medicine at institutions including the University of Texas, University of California Berkeley, Ohio State University, and Weill Cornell Medicine. He led the Houston Methodist Research Institute as President & CEO and held leadership roles at the European Research Council. Dottore in Matematica, Universita di Padova, Italy PhD and MS in Mechanical Engineering, University of California, Berkeley Executive education at Harvard Business School and Wharton As a pioneer of nanomedicine and transport oncophysics, his research focuses on cancer therapeutics , nanomedicine , drug delivery technology , mathematical oncology , and biological mass transport . His laboratory leads a DOD-funded initiative for metastatic breast cancer cures. His selected publications highlight trends in nanoparticle design , molecular transport , cancer nanotherapy , and multistage delivery systems . Scientific leadership includes clinical translation of dozens of drugs and medical devices . Current entrepreneurial roles: CEO of DXT Pharmaceuticals, Director at Arrowhead Pharmaceuticals, and Scientific Founder of BrYet US.

• Cancer therapeutics
• Nanomedicine
• Drug delivery technology
• +2 more

Professor Deyu Li is a faculty member in the Department of Mechanical Engineering at Vanderbilt University's School of Engineering. His research focuses on advancing energy and biomedical technologies through the study of micro/nano-scale thermal and fluid phenomena, nanofabrication techniques, and computational simulations using molecular dynamics and Monte Carlo methods. He leads the Micro/Nanofluidics Lab (MNTFL), which develops novel devices for energy conversion and medical applications. Education background includes: Ph.D., Mechanical Engineering, University of California M.E., Thermal Science, Tsinghua University B.E., Engineering Thermophysics, University of Science & Technology of China His research interests span several key areas, with a strong emphasis on nanoscale thermal and fluid transport, nanomaterials engineering, and the development of advanced microfluidic platforms. He explores these topics through experimental and computational approaches, including molecular dynamics simulations and nanofabrication. Specific areas of focus include: Micro/Nano energy systems and their applications in sustainable technologies Optimization of thermoelectric materials via phonon engineering Design of lab-on-a-chip devices for biomedical research Electrochemical flow capacitors and their performance in energy storage Characterization of nanowire and nanotube thermal properties Development of biocompatible microfluidic platforms Recent publications (2021–2025) highlight innovations in nanoscale thermal and fluid transport, including breakthroughs in phonon-mediated heat conduction, advanced thermoelectric materials, and biomedical applications of microfluidics. His work addresses challenges in energy efficiency, material interface optimization, and scalable fabrication of nanodevices. No scientific awards are explicitly mentioned in the provided text. Professor Li's advising and grants narrative remains unspecified, as no formal advisees or grants are listed. His research activities are centered on the Micro/Nanoscale Thermal-Fluids Lab (MNTFL), which bridges fundamental physics with practical applications in renewable energy and healthcare.

• Micro/Nano Engineering
• Thermal Sciences
• Nanofabrication Techniques
• +7 more

Justus Ndukaife is an Associate Professor of Electrical Engineering and Mechanical Engineering at Vanderbilt University's School of Engineering. He holds a Ph.D. in Electrical Engineering from Purdue University (2017), an M.S. from Purdue, and a B.S. from the University of Lagos. His research focuses on nanophotonics, microfluidics, and bio-inspired soft robotics, with emphasis on optical trapping, programmable self-assembly of nanostructures, and optobiomechanical actuators. Key research areas include nano-optical trapping using plasmonic and dielectric metasurfaces, energy harvesting systems, and single-nanoparticle analysis for biomedical and environmental applications. Notable achievements include the 2017 Dimitris N. Chorafas Foundation Award for his doctoral work and the NSBE Golden Torch Award. His recent work explores advanced optical tweezers, quasi-bound states in the continuum (BIC) for thermal emission control, and lab-on-a-chip technologies. He leads interdisciplinary projects funded by NSF grants, including the CAREER grant for EV analysis (2022) and the NOTED quantum photonics initiative (2023). Grants: NSF CAREER (2022), NSF CQIS (2023) Labs/Teams: Interdisciplinary nanophotonics and optofluidics research groups Publications: Over 60+ peer-reviewed articles in Nature Nanotechnology , Science , and ACS Nano , emphasizing optical manipulation and nanoscale systems.

• Nanophotonics
• Microfluidics
• Nanotechnology
• +6 more

Goong Chen is a Professor at Texas A&M University (TAMU) within the College of Arts & Sciences. His research focuses on Control Theory, Applied Mathematics, and interdisciplinary applications in computational mechanics, fluid dynamics, and quantum systems. He holds a Ph.D. from the University of Wisconsin (1977) and a B.S. from National Tsing-Hua University (1972). His research interests span computational biomechanics, forensic modeling, nanofluidics, and mathematical physics. Recent work includes modal analysis of animal motion, crash mechanics of aircraft, and forensic reconstruction of disasters. He has contributed to theoretical advancements in PDEs, nonlinear dynamics, and quantum computing. Chen’s articles address cutting-edge topics like thermoelastic plates, Volterra equations, and DFIM systems. He has pioneered numerical methods for complex systems using OpenFOAM and finite element techniques. His computational models have been applied to real-world scenarios such as submarine implosions and chemical warfare forensics. No academic awards are explicitly listed, but his extensive publication record reflects significant contributions to applied mathematics and engineering. He leads research teams focused on interdisciplinary challenges in computational science and engineering.

• Control Theory
• Applied Mathematics
• Computational Mechanics
• +7 more