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Fabien BelletView profile

Researcher

• Transport in porous media
• Coupled transfers
• Energy systems
• +8 more

Fabien Bellet is a Researcher at the Laboratory Molecular and Macroscopic Energetics, Combustion (EM2C) at CentraleSupélec, specializing in transport phenomena in porous media, thermal transfers, and fluid mechanics with applications across energy systems, nuclear engineering, and biological processes. His primary research interests include: Transport phenomena in porous media Coupled heat and mass transfer processes Thermal radiation in complex media Numerical simulation of multiphysics systems Applications in nuclear safety and membrane technology Eco-friendly engineering solutions Dr. Bellet's work bridges fundamental physics with practical engineering applications, particularly in developing macroscopic models for phenomena occurring at microscopic scales. His research demonstrates sophisticated mathematical approaches to upscaling methods that connect different spatial and temporal scales in heterogeneous media. Analysis of his publication record shows consistent focus on four interconnected research strands: Mathematical modeling of flow and transport in porous media Radiative heat transfer in non-Beerian media Membrane fouling mechanisms in filtration processes Wave turbulence phenomena in rotating systems Dr. Bellet maintains active collaborations with researchers across multiple institutions, including Didier Lasseux, Francisco J. Valdès-Parada, and J. Taine, indicating strong integration within the international research community. His work has significant practical implications for nuclear reactor safety (particularly regarding reflooding of degraded cores), water treatment technologies, and energy-efficient systems design.

• Electrochemistry
• Electrocatalysis
• CO2 Conversion
• +4 more

Dr. Ward van der Stam is an Assistant Professor in the Department of Inorganic Chemistry and Catalysis at Utrecht University's Faculty of Science. His research focuses on developing advanced electrocatalysts for CO 2 conversion, particularly through the synthesis and characterization of colloidal metal nanoparticles with controlled size, shape, and composition. He is actively involved in teaching electrochemistry courses at both undergraduate and graduate levels. His research interests span electrochemistry, electrocatalysis, spectroscopy, and CO 2 conversion technologies. Dr. van der Stam's work emphasizes the development of colloidal metal nanoparticles for CO 2 reduction reactions (CO 2 RR), with particular focus on understanding reaction mechanisms through in-situ diffraction and spectroscopy measurements under true reaction conditions. His group investigates how to direct C-C coupling to efficiently produce longer hydrocarbon chains (C>2) from CO 2 , addressing critical challenges in sustainable energy conversion. Analysis of his recent publications reveals a strong emphasis on multiscale in-situ characterization of electrocatalyst stability, facet-dependent restructuring of copper electrodes, and halide-guided active site engineering for selective CO 2 conversion. His work bridges fundamental understanding of reaction mechanisms with practical applications for sustainable energy technologies, with significant contributions to both electrochemical CO 2 reduction and advanced characterization methodologies. Dr. van der Stam is developing educational material for the new BSc course 'Electrochemistry' and the MSc course 'Advanced Electrochemistry,' and is involved in teaching multiple chemistry courses including Bachelor thesis projects, Master research chemistry modules, and Nanomaterials. His research group benefits from collaborations across Utrecht University and with international partners in the field of sustainable catalysis and energy conversion.

Gil Robalo ReiView profile

Researcher

• Uncertainty Quantification
• Bayesian Methods
• Inverse Problems
• +2 more

Gil Robalo Rei is a Research Associate at the Institute for Numerical Mechanics within the TUM School of Engineering and Design at the Technical University of Munich (TUM). He has been working at the institute since 2021, contributing to research in computational mechanics and numerical methods, and is actively involved in teaching courses related to numerical methods and computational mechanics. His educational background includes: Master of Science (M.Sc.) in Mechanical Engineering from Technical University of Munich (2021) Bachelor of Science (B.Sc.) in Mechanical Engineering from Technical University of Munich (2018) Gil's research focuses on advanced computational methods for solving complex engineering problems. His primary interests span Uncertainty Quantification , Bayesian Methods , and Inverse Problems , with applications across multiple domains including solid-state battery technology, biomedical modeling, and materials science. His work often involves developing novel computational frameworks that integrate statistical methods with physics-based simulations to address challenges where traditional approaches fall short, particularly when dealing with computationally expensive forward models. Analysis of Gil's publication record reveals a strong trend toward interdisciplinary research that bridges computational mechanics with statistical inference. His work demonstrates expertise in applying Bayesian methods to inverse problems in diverse contexts such as tumor growth modeling, solid-state battery optimization, and powder system characterization. A notable pattern is his focus on developing computationally efficient approaches for problems with expensive forward models, often leveraging Gaussian processes and active learning techniques to reduce computational costs while maintaining accuracy. Gil has actively contributed to academic mentoring through supervision of student projects: Multiple Bachelor's and Master's theses in computational mechanics and related fields Research internships focused on engineering simulations Term papers and visualization labs exploring numerical methods His collaborative approach is evident in co-supervision with other researchers like Christoph Schmidt and Jonas Nitzler, reflecting the interdisciplinary nature of his work and the research environment at TUM. As part of the research group led by Prof. Wolfgang A. Wall, Gil contributes to the QUEENS framework development and participates in the broader activities of the Institute for Numerical Mechanics. His work connects with several research teams focusing on computational mechanics applications in energy storage systems, biomedical engineering, and advanced materials, demonstrating the versatility and applicability of his methodological contributions across different scientific domains.

• Cognitive Science
• STEM Education
• Materials Science
• +3 more

Dr. Carmela Amato-Wierda is an Associate Professor in the Department of Chemistry at the University of New Hampshire. Her research spans cognitive science and STEM education , focusing on learning mechanisms for conceptual understanding of chemistry and physics from K-16, alongside materials science expertise in chemical vapor deposition and nanoscience . She developed two general education courses: The Science of Stuff (materials science) and Nanoscience and Energy . Primary Affiliation: University of New Hampshire, Department of Chemistry Education: B.A. in Chemistry and Physics (Harvard University), Ph.D. in Chemistry (Rensselaer Polytechnic Institute) Her research integrates Dynamic Skill Theory and collaborations with developmental psychologists. She has secured funding from the NSF , Dreyfus Foundation , and NH Department of Transportation for curriculum innovation and materials science projects. Publications highlight her work in chemical vapor deposition and pedagogical strategies . Scientific awards and grants include: NSF grants for interdisciplinary chemistry labs and materials synthesis Dreyfus Foundation grant for laboratory development NSF EPSCoR funding for multiscale modeling She teaches courses like Chemistry and Society , Thermo Kinetics , and Nanoscience in Energy , while advising the UNH Chapter of the National Society of Black Engineers and serving on NH environmental and engineering boards.

• Engineering Graphics
• 3D Modeling
• Historical Industrial Heritage
• +6 more

Miguel Castro Garcia is a researcher at the University of Córdoba's Department of Graphic Expression in Engineering, specializing in 3D modeling, additive manufacturing, and historical industrial heritage documentation. His work bridges engineering graphics with advanced manufacturing techniques and biomedical/biotechnological applications. PhD in Graphic Expression Engineering (2013, University of Córdoba) Specialization in 3D modeling, CAD/CAE, and cultural asset documentation Active in energy storage technologies (SOFC, LiB) and biomedicine Research focuses include: Fractal/multifractal analysis of microstructures Embedded phase change material systems Genetic studies in viticulture Finite element analysis of biological systems Ceramic additive manufacturing techniques Cultural heritage reconstruction Recent publications (2021-2025) demonstrate interdisciplinary expertise spanning biomedical engineering, agricultural genetics, and advanced ceramic manufacturing. Key trends include: Integration of 3D printing in energy storage systems Computational modeling of thermal/fluid dynamics Application of machine learning to biological systems Preservation of industrial heritage through digital methods Material science innovations in ceramic processing Development of decentralized crisis management systems

Scott Edward StapletonView profile

Professor

• Solid Mechanics
• Composite Materials
• Textiles
• +7 more

Scott Edward Stapleton is a Professor in the Department of Mechanical and Industrial Engineering at the University of Massachusetts Lowell. He leads research in solid mechanics, composite materials, and multi-scale modeling, with applications in textiles, adhesively bonded joints, sandwich structures, and tissue engineering. Stapleton earned his PhD in Aerospace Engineering from the University of Michigan and holds two Master's degrees (Aerospace Engineering from University of Michigan and Mechanical Engineering from University of Utah). Doctor of Philosophy (PhD): Aerospace Engineering, University of Michigan - Ann Arbor Master of Science (MS): Aerospace Engineering, University of Michigan - Ann Arbor Master of Science (MS): Mechanical Engineering, University of Utah - Salt Lake City Bachelor of Science (BS): Mechanical Engineering, University of Utah - Salt Lake City Bachelor of Arts (BA): German, University of Utah - Salt Lake City His research group develops advanced finite element models for composite materials and structures, focusing on manufacturing-induced effects, multi-scale simulations, and biomedical applications like tissue-engineered heart valves. Recent publications highlight statistical microstructure generation, radiation-responsive adhesives, and entanglement modeling in textiles. Stapleton has received the Solvay Student Paper Award (2022) and collaborates with institutions such as the Institute of Textile Technology (RWTH Aachen University) and the Institute of Applied Mechanics (RWTH Aachen University). His work spans applications in wind energy, aerospace, and biomedical devices.

Carlos OvalleView profile

Associate Professor

• Mining Geotechnics
• Geotechnical Engineering
• Granular Mechanics
• +4 more

Carlos Ovalle is an Associate Professor at the Department of Civil, Geological and Mining Engineering at Polytechnique Montréal since 2018. He is a principal researcher in the Granular mechanics for mining geotechnics lab and a member of the Institute for Research in Mining and the Environment (IRME) UQAT-Polytechnique . B.Sc. in Civil Engineering from Universidad Técnica Federico Santa María, Chile (2010) M.Sc. in Geotechnical Engineering from École Centrale Paris, France (2010) Ph.D. from École Centrale de Nantes, France (2013) Ovalle's research focuses on mining geotechnics , particularly hydromechanical degradation of geomaterials, experimental geotechnics , and constitutive modeling of granular materials. His work addresses mining waste management and co-disposal facilities for sustainable resource recovery. Recent publications analyze particle shape effects , sample size scaling , and multiscale liquefaction mechanisms . He supervises 3 postdoctoral researchers and 8 doctoral students, including Manuel Cardenas-Barrantes (Multiscale granular mechanics), David Cantor (DEM simulations), and Sergio Carrasco (Numerical particle modeling). His team collaborates on numerical and experimental approaches to mining waste stability and soil treatment technologies like MICP (Microbially Induced Carbonate Precipitation). Ovalle has contributed to major projects on mine waste rock piles , tailings storage facilities , and slope stability analysis using 2D/3D FEM simulations. His datasets from triaxial tests (2020) and 2025 co-disposal experiments provide critical resources for mining geotechnics research.

François BertrandView profile

Professor

• Transfer Processes
• Modeling and Simulation
• Multiphase Fluid Flows
• +7 more

Dr. François Bertrand is a Full Professor and Director of Research and Innovation Directorate at Polytechnique Montréal 's Department of Chemical Engineering . With academic credentials from Université Laval and INPL France, he has held multiple leadership roles including Interim General Director (2017-2018) and Chairman of Calcul Québec (2018). Expert in multiphase fluid flows and granular flow modeling Specializes in finite element , discrete element , and lattice Boltzmann methods Active in parallel algorithms and high-performance computing Recent publications focus on rarefied gas flows (2025), granular flow optimization with adaptive contact algorithms (2024), and multiscale modeling of industrial processes. Elected as Fellow by both the Canadian Academy of Engineering (2020) and Chemical Institute of Canada (2019), he has mentored 18 PhD and 21 master's students while contributing to research centers like CREPEC and CIRANO. 2020 - Fellow, Canadian Academy of Engineering 2019 - Fellow & Excellence Award, Chemical Institute of Canada 2010 - Teaching Excellence Award, Polytechnique As director of Polytechnique's Research and Innovation Directorate, he oversees 408+ research projects while maintaining active involvement in computational fluid dynamics research and industrial partnership programs.

Hadi ArbabiView profile

Lecturer

• Urban Sustainability
• Infrastructure Resilience
• Climate Change Adaptation
• +7 more

Dr. Hadi Arbabi is a Lecturer in the Built Environment at the School of Mechanical, Aerospace and Civil Engineering, University of Sheffield. Their research focuses on resource consumption, productivity, and climate resilience in urban systems, integrating data-driven urban analytics with planning frameworks. Research Interests: Infrastructure resilience, urban scaling, urban metabolism, network analysis, city morphology, population allometry. Methodologies: Mobile-sensing platforms, computer vision, 3D urban mapping, ecological network analysis, and probabilistic climate modeling. Recent Articles (2025–2022): Explored topics include urban material stocks, climate-resilient infrastructure, energy prediction models, and geodemographic regional development. Metrics: Over 340 citations and an h-index of 11 on Google Scholar as of July 2025. Hadi leads the Resources, Infrastructure Systems and built Environments (RISE) group and coordinates Architectural Engineering programs, contributing to Energy and Sustainability specialism in General Engineering. They emphasize circular economic strategies and multi-scale urban analysis to address planetary resource constraints.

• Chemical Engineering
• Geological Carbon Sequestration
• Porous Media
• +5 more

Dr. Takeshi Kurotori is a Research Associate in the Department of Chemical Engineering within the Faculty of Engineering at Imperial College London. Based at the South Kensington Campus, his research utilizes advanced imaging techniques to study subsurface processes critical for energy sustainability and carbon management. Research Focus: Dr. Kurotori specializes in experimental and computational methods for analyzing fluid transport in complex geological systems. His research integrates: Multiphase flow dynamics in fractured porous media Geological carbon sequestration mechanisms Reactive transport modeling in shale formations Advanced tomography (X-ray CT/PET) for subsurface characterization Machine learning applications for reservoir property inversion Publication Trends: His recent work (2020-2025) demonstrates consistent focus on pore-scale to field-scale modeling of subsurface processes. Dominant themes include fracture-matrix interactions in shale caprocks, imbibition dynamics, permeability heterogeneity quantification, and chemo-mechanical coupling in geological formations. Over 75% of publications leverage tomographic imaging for experimental validation. Affiliations: As part of Imperial College's Chemical Engineering department, Dr. Kurotori collaborates extensively with subsurface engineering researchers. His work contributes to Imperial's initiatives in sustainable energy solutions and subsurface resource management.

• Magnetic Materials
• Nanomaterials
• Mesoporous Silica
• +3 more

Dr. Virgile Trannoy is a researcher at the Institut de Chimie Moléculaire et des Matériaux d'Orsay, affiliated with CNRS and Université Paris-Saclay in Orsay, France. His work focuses on advanced magnetic nanomaterials and their structural engineering within porous matrices. His research interests center on magnetic nanomaterials , particularly the transformation of diamagnetic silica structures into permanent magnets through precise control of nanoparticle properties. Key areas include nanomagnetism , mesoporous silica engineering , and Prussian blue analog synthesis . His methodology involves multiscale manipulation of chemical composition, nanoparticle size, dispersion states, and spatial organization within ordered porosity. His seminal 2018 ChemNanoMat publication demonstrates the creation of room-temperature permanent magnets by incorporating 5nm nanoparticles into silica monoliths. This work established critical relationships between nanoparticle aggregation states, chemical composition, and magnetic properties, enabling the development of lightweight tailor-made magnets. Dr. Trannoy collaborates extensively with Prof. Anne Bleuzen's research group at the Institut de Chimie Moléculaire et des Matériaux d'Orsay, contributing to projects involving metal-organic frameworks, nanocrystal synthesis, and magnetic property characterization. His technical expertise includes sol-gel synthesis, transmission electron microscopy, and X-ray diffraction analysis of nanocomposites.

• Polymer Chemistry
• Surface Science
• Nanomaterials
• +5 more

Philippe Roger is a Professor at Université Paris-Saclay, affiliated with the Faculty of Sciences and Department of Chemistry. He is based at the Institut de Chimie Moléculaire et des Matériaux d'Orsay (ICMMO - UMR 8182) in Building 670, Bureau 1206 (17-19 Avenue des Sciences, 91400 Orsay, France). His research is conducted within the SM2ViE team (Synthèse, Molécules et Matériaux pour le Vivant et l'Environnement), focusing on advanced polymer and material science. His research spans Polymer Chemistry , Surface Science , and Nanomaterials , with emphasis on stimuli-responsive polymers, antimicrobial surfaces, polymer brushes, and catalytic materials. Key methodologies include atom transfer radical polymerization (ATRP), plasma deposition, and supramolecular assembly. His work bridges fundamental chemistry with applications in environmental remediation, biomedical materials, and sustainable technologies. Recent publications (2021-2025) reveal strong trends in functional polymer synthesis (e.g., pH-responsive nanoparticles, active ester copolymers), surface modification (PET functionalization via plasma/ATRP), and nanomaterial applications (quantum dot sensors, silver nanoparticle antimicrobials). Interdisciplinary collaborations dominate his work, particularly in developing eco-friendly processes and advanced catalytic systems. While no formal awards are listed in available materials, his prolific publication record in high-impact journals (Nature Communications, ACS Applied Polymer Materials, European Polymer Journal) demonstrates significant scholarly contribution. His laboratory work centers on the SM2ViE team at ICMMO, utilizing platforms for polymer synthesis, surface characterization (XPS, ellipsometry), and nanomaterial development. Current projects emphasize sustainable material design, including waste PET valorization and biobased antimicrobial networks.

John Wirthlin HickeyView profile

Assistant Professor

• Systems Biology
• Biomedical Engineering
• Immunology
• +4 more

John Wirthlin Hickey is an Assistant Professor of Biomedical Engineering at Duke University's Pratt School of Engineering , with secondary appointments in Cell Biology & Bioinformatics and Biostatistics & Bioinformatics. He is also a member of the Duke Cancer Institute. PhD, Biomedical Engineering, Johns Hopkins University School of Medicine (2019) Postdoctoral Training, Nolan Lab, Stanford University (2023) Dr. Hickey's research focuses on systems immunology tools and spatial cellular interactions in tissues, particularly for cancer immunotherapy applications. His work integrates multiplexed imaging , computational modeling , and biomaterials engineering to analyze and manipulate immune-tumor dynamics. The 15 most recent publications span topics in spatial serology , hydrogel-based immunotherapy , macrophage heterogeneity , and 3D human reference mapping . Key collaborative projects include contributions to the Human BioMolecular Atlas Program (HuBMAP) and development of artificial lymph node matrices . Scientific Awards: NSF Graduate Research Fellowship ARCS Scholar Siebel Scholar NCI Postdoctoral Fellowship American Cancer Society Postdoctoral Fellowship NSF CAREER Award (2025) Dr. Hickey's lab includes 15+ researchers spanning PhD students in Biomedical Engineering, Computer Science, and Cancer Biology, along with Masters and undergraduate students. His team has received grants from the National Science Foundation , NIAID , and NIGMS for projects on cellular heterogeneity, influenza immunology, and biomolecular training programs.

Maja VuckovacView profile

Research Fellow

• Superhydrophobic Surfaces
• Droplet Dynamics
• Surface Characterization
• +4 more

Maja Vuckovac is an Academy Research Fellow at Aalto University, affiliated with the Department of Applied Physics under the School of Electrical Engineering and Automation. Her work focuses on surface wettability, superhydrophobic materials, and droplet dynamics. Her research explores Droplet friction and mobility on repellent surfaces Advanced wetting characterization techniques Nanoscale force measurements 3D printing of functional materials Multiscale surface analysis Notable scientific honors include the Best Conference Paper Award at MARSS 2023 for her work on droplet probe characterization of single fibers. Recent publications highlight her contributions to superhydrophobic coatings, contact angle analysis, and microfluidic systems. She has developed innovative tools like oscillating droplet tribometers and force-sensing probes for surface characterization.

Youxing ChenView profile

Assistant Professor

• Materials Science
• Mechanical Engineering
• Radiation Effects on Materials
• +3 more

Youxing Chen is an Assistant Professor in the Department of Mechanical Engineering and Engineering Science at the University of North Carolina at Charlotte, where he focuses on materials behavior under extreme environments such as radiation, high strain rates, and extreme temperatures. His research explores the fundamental relationship between material structure and mechanical properties across atomic to macroscopic scales. His work emphasizes nanoscale materials design, radiation damage mitigation, and multiscale mechanical testing. Key areas include nanolaminates, high entropy alloys, and nanotwinned structures, utilizing techniques like nanoindentation and in situ TEM to analyze deformation and radiation effects. While his publications highlight collaborations and advanced characterization methods, no specific scientific awards or student advising details are mentioned in the provided text. His laboratory's current efforts center on enhancing strength, ductility, and radiation tolerance for applications in energy and aerospace systems.