Angus Kingon is the Barrett Hazeltine University Professor of Entrepreneurship and Organizational Studies and Professor of Engineering at Brown University's School of Engineering. His expertise spans advanced materials science and technology entrepreneurship education. Research interests include electronic thin films, piezoelectric/ferroelectric materials, X-ray detectors, and entrepreneurship methodologies. He teaches courses such as 'Technology Entrepreneurship and Commercialization' and 'Qualitative Market Research for Entrepreneurs.' His work bridges materials innovation with commercialization strategies, focusing on sustainable and high-performance technologies. Research highlights include developing lead-free dielectric films for energy storage, piezoelectric nanocomposite generators, and high-resolution x-ray detectors. He emphasizes interdisciplinary collaboration and has contributed to MEMS-based energy harvesters and flexible electronics. Teaching emphasizes global entrepreneurship and innovation, particularly in underserved regions. Publications reflect a focus on materials synthesis, device applications, and entrepreneurship education. His work addresses challenges in solid-state chemistry, nanotechnology, and scalable manufacturing for energy and biomedical systems.
Dr. Hongseok Choi is an Associate Professor in the Department of Mechanical Engineering at Clemson University's College of Engineering, Computing and Applied Sciences. His research focuses on solidification nanoprocessing, micro/nano sensors, ultrasonic joining, laser materials processing, and additive manufacturing. Ph.D., University of Wisconsin-Madison (2007) M.S., University of Wisconsin-Madison (2002) B.S., Yeungnam University, South Korea (1997) Dr. Choi’s work advances scalable nanomanufacturing of bulk nano-engineered materials for high-performance applications. He develops smart micro/nanosystems, laser-based materials processing, and additive manufacturing techniques. His research has resulted in 32 refereed journal articles, 28 peer-reviewed conference proceedings, 2 patents, and 7 invention disclosures. Recent publications highlight innovations in friction element welding, nanoconfinement effects in polymers, ultrasonic-assisted soldering, and microstructural control in metal matrix nanocomposites. His research spans thermal analysis, chip formation, and acoustic monitoring in advanced manufacturing processes. Dr. Choi serves as a reviewer for multiple journals including the Journal of Manufacturing Processes and IEEE Transactions on Automation Science and Engineering. He is a member of ASME, SME, and TMS professional societies.
Hulya Dogan serves as a Ross Endowed Professor in the Department of Grain Science and Industry at Kansas State University, specializing in food engineering with emphasis on grain processing. Her work bridges fundamental research with industrial applications in milling and extrusion technologies. Education B.S. Food Engineering, Middle East Technical University, Turkey (1990) M.S. Food Engineering, Middle East Technical University, Turkey (1993) Ph.D. Food Engineering, Middle East Technical University, Turkey (2000) Professor Dogan's research integrates rheology , extrusion technology , and biopolymer science to solve industry challenges. Her work on structure-texture relationships informs product development in expanded snacks and milling operations, with significant focus on mathematical modeling of thermo-mechanical processes. Current projects examine cellular architecture in extruded systems and infrared disinfestation methods that preserve grain quality. Her publication portfolio reveals strong trends in grain processing optimization (35% of works), extrusion technology (30%), and post-harvest protection (20%), demonstrating consistent industry relevance through collaborations with AACC International and IAOM. Scientific Recognition Ross Endowed Professorship As co-leader of the Milling Science and Management undergraduate program, she advises 25-30 students annually while maintaining active industry partnerships. Her professional engagement includes key roles in AACC International, IFT, and IAOM, facilitating technology transfer between academia and grain processing industries. Research Infrastructure Her work utilizes K-State's specialized facilities including the Hal Ross Flour Mill, Wheat Quality Lab, and O.H. Kruse Feed Technology Center, enabling integrated studies from grain to end-product.
Janis Lungevics is a Research Professor and Leading Researcher at Riga Technical University's Faculty of Civil and Mechanical Engineering, specializing in the Material Surface Characterization and Tribology Team. He leads the RTU workpackage of the National Research Project and heads the Mitutoyo Metrology Scientific Laboratory. His expertise spans ice tribology, surface engineering, and dimensional metrology. Key achievements include a Latvian Academy of Sciences Award (2022) and RTU's Valorisation Award (2019). He has published 41 SCOPUS-indexed papers, collaborating with institutions like V-Research GmbH (Austria) and McGill University (Canada), yielding a Hirsch index of six. He actively contributes to the Latvian Metrology Council and has supervised 11 Bachelor’s theses. Research focuses on tribological properties of coatings, ice friction mechanisms, and advanced surface characterization techniques. His work integrates nanotechnology and material science to enhance industrial applications. Ongoing projects emphasize optimizing surface textures for low-friction performance and improving metrology standards for mechanical components. Awards: Latvian Academy of Sciences Award (2022), RTU Valorisation Award (2019) Leadership Roles: Head of Mitutoyo Metrology Lab, Member of Latvian Metrology Council Collaborations: V-Research GmbH (Austria), McGill University (Canada) Publications: 41 SCOPUS-indexed papers with significant contributions in ice tribology and coating analysis His research bridges theoretical tribology with practical industrial challenges, particularly in cold-climate engineering and advanced material coatings. Current efforts target scalable solutions for friction reduction and precision manufacturing.
Nathan Crane is Professor of Mechanical Engineering at Brigham Young University's College of Engineering, with expertise spanning additive manufacturing, microfluidics, and material science. He holds PhD (MIT), MS and BS degrees (BYU) in Mechanical Engineering, complemented by industry experience at Pratt & Whitney and national laboratories. His research focuses on advanced manufacturing technologies including binder jetting, laser powder bed fusion, and projection sintering. Current projects explore microfluidic actuation, functionally graded materials, and sustainable building technologies. Interdisciplinary work combines material science with thermal analysis and precision engineering. Crane's publications demonstrate consistent innovation in manufacturing processes. Recent work emphasizes in-situ monitoring techniques and material property optimization. Theoretical contributions include electrowetting models and droplet-powder interaction studies, while applied research targets energy-efficient systems and corrosion-resistant materials. Significant honors include Fulbright Scholarship (2014), USF Outstanding Faculty Award (2015), and multiple best paper awards. Grant funding exceeds $2 million from NSF and industry partners, supporting research in microfluidic RF devices and binder jetting defect reduction. He directs the Additive Manufacturing Laboratory, mentoring graduate researchers and teaching undergraduate courses in manufacturing processes and mechanical design. Industrial collaborations include Pratt & Whitney and Sandia National Laboratories.
Cheng Luo is Professor of Mechanical and Aerospace Engineering at the University of Texas at Arlington. His research spans micro/nanosystems, biomicrosystems, additive manufacturing, and bio-inspired fluid dynamics. He developed novel fabrication techniques for microstructures and studies Leidenfrost phenomena for self-propulsion systems. Current work includes 3D printing process optimization and geothermal de-icing technologies. Recent publications show strong focus on additive manufacturing science and interfacial fluid phenomena. Article clusters reveal growing interest in bio-inspired engineering applications and sustainable technologies.
Dr. Zhibin Lin is an Associate Professor in Civil Engineering at The University of Texas at Arlington. His research focuses on AI-empowered structural health monitoring, resilient infrastructure systems, and innovative materials for sustainable civil infrastructure. He holds a PhD from the University of Wisconsin (2010) and MS/BS degrees from Nanchang University (2003/2000). Awards : Innovation in Teaching Award (2023), Best Paper Award (ASCE Pipeline Conference 2022), Research of the Year Award (2022), and KSCE Springer Award (2020). Recent Grants : Includes USDOT PHMSA-funded work on hydrogen infrastructure risk assessment ($124,800), Water Research Foundation projects on sensor networks for sewer systems ($324,123), and NSF-funded initiatives in corrosion-resistant materials. Teaching : Leads graduate courses in civil engineering research, dissertation supervision, and senior project design. Actively advises PhD/Master's students and postdocs. Service : Serves as Associate Editor for ASCE Journal of Pipeline Systems Engineering and Practice, President of ASCE North Dakota Section, and reviewer for NSF/USDOT grants.
Professor J. Andreas Bærentzen is an Associate Professor at the Department of Applied Mathematics and Computer Science, Technical University of Denmark (DTU), where he has held academic positions since 2001. His research focuses on computer graphics, shape modeling, real-time rendering, and geometry processing. He holds a MSc Eng (1998) and PhD (2003) from DTU. His work emphasizes topological adaptability in shape representation and efficient geometry processing, with notable contributions to structural topology optimization, 3D reconstruction, and virtual reality applications. Education: MSc Eng, Technical University of Denmark, 1991–1998 PhD, Technical University of Denmark, 1998–2003 Research Interests: Interactive 3D modeling and real-time graphics Topology optimization and structural infill design Shape modeling using distance fields and deformable hypersurfaces Applications in biomedical imaging (e.g., white matter dynamics) and environmental engineering (e.g., tree geometry simulation) His recent publications highlight advancements in neural network-based shape representation, skeletonization for tree reconstruction, and inverse-designed structural infill for engineering. He supervises multiple PhD students and leads projects on robotic manufacturing and virtual reality visualization. Bærentzen collaborates internationally, including visits to Stony Brook University (USA) and Padova University (Italy). Advisees & Projects: PhD Students: Rui Cui, Thomas D. V. Christiansen, Elias Theil Gæde Key Projects: 'Generative Methods for Brain Tissue Phantoms', 'Neural Form Representation', 'Graph Algorithms with Geometric Applications' His work bridges theoretical geometry processing with practical applications in architecture, biomedical engineering, and environmental science, leveraging DTU's interdisciplinary research ecosystem.
Mohamad Bayat is an Associate Professor at the Department of Civil and Mechanical Engineering, Technical University of Denmark (DTU). He holds a Master's from Sharif University of Technology (2017) and a Ph.D. from DTU (2020). His roles include teaching courses like Heat Transfer, Finite Element Analysis, and Thermo-Mechanics at undergraduate and graduate levels. His research focuses on multiphysics simulations of advanced manufacturing, particularly in additive manufacturing (AM), thermal management systems, and laser-material interactions. Long-term goals include expanding into space-related and biomedical applications. Research interests include metal 3D printing, online process monitoring, and thermal-fluid dynamics in AM. He supervises PhD students in projects involving laser welding, powder bed fusion, and thermal modeling. Awards include the Energies Prize (2022), IIW Kenneth Easterling Award (2018), and NAFEMS Nordic PhD Award (2021). His work contributes to UN Sustainable Development Goals by advancing efficient manufacturing and thermal technologies. Education: Ph.D. in Mechanical Engineering, DTU (2017–2020) Master of Mechanical Engineering, Sharif University of Technology (2017) Grants/Projects: Multiphysics simulation of metal AM for topology optimization Thermal modeling of heat pipes for space applications Laser welding for battery pack manufacturing Awards: Energies Prize for Best Multi Physics Paper (2022) IIW Kenneth Easterling Best Paper Award (2018) NAFEMS Nordic PhD Student Award (2021) Lab/Team: Active in DTU's Construct group, focusing on AM process development and thermal-fluid modeling.
Douglas Matson is a Professor of Mechanical Engineering at Tufts University School of Engineering and also holds a position at Tufts Tisch College. His academic career spans over two decades at Tufts, where he was promoted from Associate Professor (2001-2022) to his current Professor position. Before joining Tufts, he served as a Lecturer and Research Scientist at MIT from 1993 to 2001. Dr. Matson earned his Ph.D. in Materials Engineering from MIT in 1996, following an M.S. in Materials Science from UC Davis (1992), a B.S. in Mechanical Engineering from California State University, Sacramento (1988), and a B.S. in Chemical Engineering from Cornell University (1979). His research focuses on three main areas: solidification and space processing, advanced materials, and engineering education outreach and service learning. He specializes in the science of engineered materials and trains students to become leaders in the production, processing, and manufacture of metal, plastic, ceramic, and biomaterial products. His work frequently involves microgravity research conducted aboard the International Space Station, particularly using electromagnetic and electrostatic levitation techniques to study thermophysical properties and solidification processes of metallic materials. Dr. Matson's publication record shows consistent high-impact research in space-based materials science, with numerous articles in prestigious journals like npj Microgravity and Metallurgical and Materials Transactions. His research demonstrates expertise in thermophysical property measurement, solidification kinetics, and the effects of microgravity on materials processing. Fellow of the American Society for Gravitational and Space Research (FASGSR) Award for Compelling Results in Physical Sciences & Materials (2023) Koster Medal (2022) ASM-Fellow (2022) ASGSR Fellow (2021) Editor's Pick of 2021 (npj Microgravity) Outstanding Paper Award 2021 (JASMAC-33) Dr. Matson has secured significant research funding, primarily from NASA (including multiple ELFSTONE projects), NSF, and DOE grants. He serves as Associate Editor for npj Microgravity and has held leadership positions including ABET Program Director at Tufts. His teaching portfolio includes advanced courses in thermodynamics, engineering design, and materials manufacturing, reflecting his commitment to engineering education.
Prof. Serhat Yesilyurt is a Professor of Mechatronics Engineering at Sabanci University in Istanbul, Turkey. He holds a PhD from MIT (1995) and has held visiting professorships at the University of Michigan. His research focuses on bio-inspired micro-swimming robots, PEM fuel cells, vertical axis wind turbines, and computational fluid dynamics. He leads projects on energy optimization, micro/nano swimmer dynamics, and PEMFC durability funded by TUBITAK and international collaborations. Education: BS in Nuclear Energy Engineering (Hacettepe University, 1986), MS/PhD in Nuclear Engineering (MIT, 1991/1995) Research: Specializes in microscale propulsion, renewable energy systems, and advanced fuel cell modeling. Collaborates internationally on medical micro-robotics and sustainable energy solutions. His recent work explores catalyst layer optimization for low-platinum fuel cells, acoustic manipulation of microswimmers, and VAWT control algorithms. Over 100 peer-reviewed publications and 3 patents demonstrate his interdisciplinary impact spanning robotics, energy systems, and fluid mechanics.
Susannah P. Fritton is the Department Chair & Herbert G. Kayser Professor in the Biomedical Engineering department at City College of New York (CUNY). Her research focuses on bone biomechanics, fluid dynamics in bone tissue, and the effects of mechanical loading on bone adaptation. Academic Rank: Professor Department: Biomedical Engineering Email: fritton@ccny.cuny.edu Research interests include: Bone microstructure analysis in osteoporosis and disuse conditions Interstitial fluid flow and solute transport mechanisms in cortical/cancellous bone Role of osteocyte lacunar-canalicular networks in mechanotransduction Impact of hormonal changes on bone remodeling Recent publications demonstrate expertise in combining experimental models (rat, turkey ulna) with computational simulations to study bone adaptation. Key methodologies include high-resolution µCT imaging, histological staining, and mechanical loading experiments. Trends show consistent focus on fluid dynamics, bone porosity, and pathological conditions like estrogen deficiency. Email: fritton@ccny.cuny.edu
Joseph White is a Professor in the Earth Sciences department at the University of New Brunswick. His research focuses on the geometry, kinematics, and processes of deformation in geological systems, with a particular emphasis on fault zones and microstructural analysis using electron-beam techniques. Key projects include studies along the Minas fault zone (Nova Scotia), Denali fault system (Yukon), and international collaborations at the San Andreas Fault (SAFOD), Alpine Fault (New Zealand), and Tohoku-Oki earthquake zone (Japan). His expertise spans structural geology, geophysics, and tectonics, with a focus on linking microscale deformation mechanisms to large-scale geological phenomena. White holds a PhD and has published extensively on topics such as shear zone dynamics, fault gouge behavior, and experimental rock deformation. His work integrates field observations, laboratory experiments, and advanced microscopy techniques. Recent presentations and publications highlight his contributions to understanding strain localization, fluid-rock interactions, and the interplay between fracture and ductile flow in crustal systems. He has collaborated on major international projects, including the Deep Fault Drilling Program (DFDP) and the Japan Trench Fast Drilling Project (JFAST).
Dilhan M. Kalyon is an Institute Professor and Director of the Highly Filled Materials Institute at Stevens Institute of Technology, where he has held academic and administrative positions since 1980. He serves in the Department of Chemical Engineering and Materials Science within the Charles V. Schaefer, Jr. School of Engineering and Science. Previously, he held faculty appointments in the Departments of Chemistry and Chemical Engineering; Chemical, Biomedical, and Materials Engineering; and served as Interim Vice Provost for Research, Innovation, and Entrepreneurship (2019-2020) and Vice Provost for Research and Innovation (2020-2022). Professor Kalyon earned his B.Eng. from Middle East Technical University in Ankara, and his M.Eng. and Ph.D. in Chemical Engineering from McGill University in Canada. His academic progression at Stevens includes Assistant Professor (1984-1987), Associate Professor (1987-1990), Professor (1990-1999), and Institute Professor (1999-present). He also served as Joint Affiliate Professor in the Department of Chemistry, Chemical Biology and Biomedical Engineering from 2010-2015. Professor Kalyon's research focuses on rheology, simulation, and processing of complex fluids including polymers, biopolymers, and energetic, ceramic, magnetic, and composite materials. His work places particular emphasis on suspensions filled with rigid particles at concentrations approaching their maximum packing fraction. His multidisciplinary research integrates mathematical modeling, experimental studies using industrial-scale processing equipment, and detailed analysis of microstructure and final material properties. Key innovations from his group include new rheometers and methods for rheological characterization of viscoplastic fluids, mathematical models for optimizing processing of viscoplastic fluids subject to wall slip, functionally graded constructs for bone grafting, novel methods for manufacturing nanofibers with nanoparticles, and X-ray diffraction techniques for analyzing particle size distribution. Analysis of Professor Kalyon's recent publications reveals a strong focus on advanced biomaterials, particularly for tissue engineering and regenerative medicine applications. His work demonstrates continued expertise in rheology and processing of complex fluids, with increasing emphasis on 3D bioprinting, hydrogel scaffolds with controlled mineral gradients, and novel fabrication techniques like electrowriting. His research bridges traditional polymer processing with cutting-edge biomedical applications, showing particular strength in translating fundamental rheological understanding into practical biomaterial solutions for bone and tissue regeneration. Thomas Baron Award in Fluid-Particle Systems by AIChE (2008) International Research Award by Society of Plastics Engineers (2008) Harvey N. Davis Distinguished Teaching Assistant Professor Award (1987) Henry Morton Distinguished Teaching Full Professor Award (2000) Faculty Appreciation Award (2017) DuPont Central Research and Development Fellowship (1997) Exxon Education Foundation Fellowship (1990) Unilever Education Fellowship (1991) Fellow of Society of Plastics Engineers (2004) Fellow of American Institute of Chemical Engineers (2006) Professor Kalyon has advised numerous graduate students and postdoctoral researchers throughout his career, with research spanning biomaterials development, rheological characterization, and advanced processing techniques. His work has been supported by various funding sources including industry fellowships and research grants. He directs the Highly Filled Materials Institute at Stevens, which serves as the hub for his multidisciplinary research team working on complex fluids and advanced materials. The institute facilitates collaboration between chemical engineers, materials scientists, and biomedical researchers to develop innovative solutions for challenges in materials processing, tissue engineering, and environmental safety.
J. Crawford Downs is a Professor in the Department of Ophthalmology at the University of Alabama at Birmingham (UAB). He serves as Vice-Chair of Research and founding director of UAB's Ocular Biomechanics and Biotransport Program, which investigates glaucoma mechanisms through computational/experimental methods. BA & MA in Economics from Tulane University Undergraduate coursework at University of New Orleans M.S. & Ph.D. in Biomedical Engineering from Tulane University Research focuses on intraocular pressure (IOP) effects, aging, and African heritage in glaucoma progression. His work includes developing IOP telemetry methods and eye-specific finite element models. Recent publications address viscoelastic modeling, translaminar pressure gradients, and ocular perfusion dynamics in nonhuman primates. Current affiliations include: Heersink School of Medicine at UAB Ocular Biomechanics Laboratory Collaborations with LSU Eye Center and Devers Eye Institute
