Hans van Dommelen is Associate Professor of Micromechanics at Eindhoven University of Technology (TU/e), Department of Mechanical Engineering, where he leads the Group Van Dommelen . His research couples microstructure to mechanical and functional behaviour of materials spanning nuclear fusion, additive manufacturing, polymers, and biomechanics. Education PhD in Mechanical Engineering, TU/e (2003) – Micromechanics of particle-modified semicrystalline polymers Visiting researcher, MIT (1999–2000), University of Virginia (2003–2004), and Cambridge University (2010–2012) Research Interests Van Dommelen’s work focuses on multi-scale mechanics and structure–property relationships . Using microstructural modelling and homogenization techniques, he links phenomena at the microscale to macroscopic response in: Crystalline and heterogeneous materials Nuclear fusion reactor materials (tungsten, liquid-metal shields) Additive manufacturing (wire-arc, selective laser sintering, vat photopolymerization) Semi-crystalline polymers and short-fiber composites Traumatic brain injury biomechanics Scientific Output He has authored over 230 peer-reviewed publications (h-index > 40) in leading journals such as Journal of the Mechanics and Physics of Solids , Biomechanics and Modeling in Mechanobiology , Nuclear Fusion , and Additive Manufacturing . Recent trends include viscoelastic-viscoplastic metamaterials, anisotropic food printing, recrystallization kinetics of tungsten under fusion loads, and multiscale fracture of additively manufactured metals. Teaching & Supervision Van Dommelen coordinates and lectures in: Structure and Properties of Materials Computational and Experimental Micro-mechanics Fusion Reactor Materials and Plasma-Wall Interaction He has supervised >85 MSc and PhD theses to date. Laboratory & Collaborations He heads the Group Van Dommelen within the Mechanics of Materials section, maintaining strong collaborations with DIFFER, ITER, and international partners on liquid-metal technologies for fusion blankets and advanced additive manufacturing processes.
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نمایش ۱۲۱-۱۲۵ از ۱۲۵ استاد راهنما
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Ondrej Rokosمشاهده پروفایل
استادیار
Ondrej Rokos is an Assistant Professor in the Mechanics of Materials section at Eindhoven University of Technology (TU/e), Department of Mechanical Engineering. He is actively involved in research and teaching related to multiscale materials modeling, with a focus on computational mechanics, metamaterials, and homogenization techniques. He leads Group Rokos and is affiliated with the Institute for Complex Molecular Systems (ICMS). PhD in Civil Engineering (2014) from Czech Technical University in Prague Postdoctoral positions at CTU Prague and TU/e Visiting researcher at TU/e (2015) and University of Luxembourg (2016) His research centers on understanding multiscale physical phenomena in materials engineering to enable optimal material design. Key areas include: Homogenization and quasicontinuum methods for discrete microstructures Machine learning integration in surrogate modeling Stochastic structural dynamics and experimental-computational frameworks Mechanical metamaterials with pattern transformation capabilities Recent publications emphasize the application of machine learning (e.g., symmetric positive definite convolutional networks) and advanced homogenization techniques (e.g., similarity-equivariant graph neural networks) to optimize metamaterials. Notable trends include: Development of data-driven models for modular structures Geometrical parameterization of elastomeric metamaterials Active stiffness control in pneumatic systems Extended quasicontinuum methodologies for heterogeneous systems He teaches courses in: Computer Aided Engineering Solid Mechanics Machine Learning for Multi-Physics Modeling and Design Research is conducted within the Mechanics of Materials group, with affiliations to ICMS and collaborations across institutions.
Dengpeng Huangمشاهده پروفایل
استادیار
- Artificial Intelligence
- Robotics
- Materials Science
- +۳ مورد دیگر
Dengpeng Huang is an Assistant Professor specializing in Artificial Intelligence and Robotics within the field of Elastomer Technology and Engineering . His work bridges computational modeling with advanced materials, focusing on applications in smart materials and mechanical systems. Research Interests: Development of AI-driven models for predicting elastomer properties Multiscale analysis of rubber composites Electromechanical coupling in dielectric elastomer actuators Meshfree methods for metal cutting and chip formation Ultra-precision polishing of optical surfaces Recent Trends: His 2024–2025 publications emphasize data-driven modeling of rubber's viscoelastic behavior, multiscale analysis of composites, and CNN-based approaches for material characterization. Earlier work (2014–2022) explores tool path optimization, beam modeling, and computational machining. Scientific Recognition: Holds an h-index of 5 according to Scopus citations, with recognition as an AI and robotics expert in the service industry. Advising & Collaboration: Collaborates with researchers like Anna Blume, Evgeny Karaseva, and Tim Bor on elastomer composites. Supervised at least one academic work, though specific students are not named in the provided data. Labs & Teams: Affiliated with simulation and robotics teams in the smart materials sector, likely within an advanced materials or mechanical engineering research group.
Ute Ebert is a part-time professor of Applied Physics at Eindhoven University of Technology (TU/e) and leads the Multiscale Dynamics research group at Centrum Wiskunde & Informatica (CWI) in Amsterdam. She is internationally recognized for her pioneering theoretical and computational work on electric discharges in gases, particularly streamer discharges which are fast-moving ionized filaments that serve as precursors to sparks and lightning. Her educational background includes studies at the University of Heidelberg (1980-1987), Hebrew University in Jerusalem (1987-1988), a PhD at the University of Essen, Germany (1988-1994), and postdoctoral work at Leiden University (1994-1998), followed by positions at CWI Amsterdam (1998-2001) and TU/e (2002-present). Ebert's research focuses on plasma physics and atmospheric electricity, with particular expertise in the quantitative modeling of electric discharges. Her work spans multiple scales, connecting fundamental plasma physics with atmospheric electricity and practical applications in high-voltage technology. She combines theoretical physics, numerical simulation, and collaboration with laboratory experiments to understand how discharges initiate, propagate, branch, and interact, and how they may create electric short circuits, greenhouse gases like nitrogen oxides, and high-energy radiation. Her recent publications demonstrate a strong focus on 3D modeling of streamer discharges in various environments, including studies of streamer branching, parameterization of streamer heads, radio emissions from streamers, and the effects of magnetic fields and gas composition on discharge behavior. Her work has important applications in high-voltage technology and atmospheric science. Ebert has received numerous prestigious awards for her contributions to the field: Von Engel and Franklin Prize (2025) for "seminal contributions to the state-of-the-art, high-fidelity theory and simulations of transient electric discharges" Fellow of the American Geophysical Union (2022) "for crucial theoretical, numerical and experimental insights on lightning and related sciences" Dutch Minerva Prize (2004) for the best physics publication by a woman in the Netherlands Member of the Royal Holland Society of Sciences and Humanities (since 2006) She actively advises PhD students and postdocs, many of whom have become successful members of the worldwide discharge community. Her current research includes the "Green sparks" project focused on understanding electric breakdown dynamics of eco-friendly insulating gases for high-voltage technology. She serves on editorial boards for journals like Journal of Physics D: Applied Physics and Plasma Sources Science and Technology, and participates in international scientific committees. Ebert leads the Multiscale Dynamics group at CWI, which develops advanced computational methods for simulating electric discharges across multiple scales. The group has created tools like Afivo (a Framework for quadtree/octree AMR with shared memory parallelization) that enable efficient parallel computations for plasma modeling. Her team collaborates extensively with experimental groups studying lightning, streamer discharges, and high-voltage phenomena.
Jannis Teunissen is a researcher in the Multiscale Dynamics group at Centrum Wiskunde & Informatica (CWI), the Dutch national center for mathematics and computer science. He also serves as a visiting lecturer at the Centre for mathematical Plasma Astrophysics at KU Leuven. Education: BSc in Physics & Astronomy and Master in Computational Science from University of Amsterdam PhD in computational plasma physics at CWI (obtained "cum laude") Postdoctoral research at KU Leuven's Centre for mathematical Plasma Astrophysics Dr. Teunissen's research focuses on computational plasma physics, particularly on simulating electric discharges. His work bridges theoretical modeling, computational methods, and experimental validation. He develops advanced computational techniques for studying streamer discharges, which are fast-moving ionized channels that form the first stage of sparks. These phenomena have important applications in environmental technology, high-voltage engineering, and atmospheric science. His research employs a range of computational methods including adaptive mesh refinement (AMR), plasma fluid modeling, particle-in-cell simulations, geometric multigrid solvers, and high-performance computing techniques. More recently, he has been applying machine learning methods to space weather research. Analysis of his publication history shows a strong focus on streamer discharge phenomena across different gas mixtures, with emphasis on macroscopic parameterization, electric field measurements, and radio emission calculations. Hershkowitz Early Career Award and Review (2024) from Plasma Sources Science and Technology Early Career Scientist Prize on Plasma Physics (2023) from IUPAP Student Award of Excellence of the Gaseous Electronics Conference (2015) PhD obtained "cum laude" (2015) Dr. Teunissen has been actively involved in several research projects including "Reliable nExt GENERation Actuation sysTEms (REGENERATE)" and "Plasma for Plants: Towards controlled and efficient plasma-activated water generation for a cleaner environment." His work has resulted in numerous publications focusing on streamer discharges in various gas mixtures, their radio emissions, electric field measurements, and computational modeling approaches. His research has significant implications for understanding natural phenomena like lightning and developing more environmentally friendly alternatives to traditional insulating gases used in high-voltage technology.