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Stefan DiebelsView profile

Professor

• Continuum Mechanics
• Material Science
• Finite Element Analysis
• +5 more

Prof. Dr.-Ing. Stefan Diebels is a Professor at the Chair of Applied Mechanics within the Department of Materials Science, Faculty of Natural Sciences and Technology at Universität des Saarlandes. His research group focuses on microstructured continua, developing models for material behavior across scales (metals, polymers, biomaterials) using continuum mechanics frameworks. Experimental work investigates mechanical properties and environmental interactions (e.g., temperature/humidity), validated through finite element simulations. Research Interests: The group’s work spans four key areas: Biomechanics : Fracture healing, orthopedic implant optimization, and biological material behavior. Metals : Multiscale modeling of metallic structures and failure mechanisms. Polymers : Moisture effects, aging, and viscoelastic behavior of adhesives/elastomers. Foams & Metamaterials : Auxetic materials, electrodeposition coatings, and porous media mechanics. Publication Trends (2023-2025): Recent articles emphasize computational biomechanics (fracture healing, digital twins), polymer degradation under environmental stress, and metamaterial design. Over 60% focus on medical applications (implants, trauma recovery), while 30% address material-specific challenges in polymers/metals. Recurring themes include moisture diffusion modeling, finite element validation, and patient-specific simulations. Infrastructure & Collaboration: The chair maintains experimental laboratories for material testing and collaborates on projects like NFDI-MatWerk (National Research Data Infrastructure) and Pro4CableSim (industrial transfer project). Team structure includes scientific/technical staff, with lab capabilities for multiaxial mechanical testing and environmental simulation.

Ronaldo BorjaView profile

Professor

• Computational Mechanics
• Geomechanics
• Geosciences
• +3 more

Ronaldo Borja is a Professor of Civil and Environmental Engineering at Stanford University, affiliated with the School of Engineering. He holds editorial roles at Acta Geotechnica and the International Journal for Numerical and Analytical Methods in Geomechanics . His research focuses on computational mechanics, geomechanics, and geosciences, particularly in strain localization, coupled hydromechanical processes, and finite element modeling of geological materials. He earned his PhD from Stanford University in 1984. Education: PhD, Stanford University (1984). Research interests include: computational poromechanics, shale mechanics, fluid-structure interaction, and anisotropic plasticity. He has authored textbooks such as Plasticity Modeling & Computation (Springer, 2013) and edited volumes on multiscale geomechanics. His work bridges microscale characterization (e.g., nanoindentation of shale) with macroscale phenomena like landslide dynamics and fault rupture modeling. Key awards include the 2016 ASCE Maurice A. Biot Medal. He teaches courses like CEE 101C (Geotechnical Engineering), CEE 281 (Finite Elements), and advanced doctoral courses in computational plasticity. Lab activities include projects on shale deformation, pore-scale modeling, and multiphase poromechanics. His research emphasizes multiscale approaches, combining experimental data with numerical simulations to address challenges in energy and geohazard mitigation.

• Energy Storage
• Materials Science
• Electrochemistry
• +5 more

Dr. Y. Shirley Meng is a Zable Chair Professor in Energy Technologies and Professor of NanoEngineering at UC San Diego. She leads the Laboratory for Energy Storage and Conversion (LESC), focused on developing advanced materials for electrochemical energy storage, including batteries and solar cells. Her research integrates experimental techniques with computational modeling to innovate in solid-state batteries, sodium-ion batteries, and magnetic materials. Dr. Meng founded the Sustainable Power and Energy Center (SPEC), fostering interdisciplinary energy solutions. Education: PhD in Advanced Materials for Micro & Nano Systems (Singapore-MIT Alliance, 2005). Postdoctoral research at MIT. Elected Fellow of the Electrochemical Society. Research interests span energy storage technologies, materials science, and sustainable energy systems. Key projects include high-voltage cathodes, solid electrolytes, and scalable battery designs. Recent breakthroughs include carbon-free silicon anodes and pressure-controlled lithium metal batteries. Over 190 peer-reviewed publications, patents, and prestigious awards reflect her global impact. Current research teams include postdocs, graduate students (e.g., Thomas Wynn, Haelie Chung), and collaborators worldwide. Active in industry partnerships and policy initiatives for clean energy.

• Atmospheric sciences
• Climate change science
• Geology
• +3 more

Sebastian Hoch is an Adjunct Associate Professor in Atmospheric Sciences at the University of Utah. His research focuses on boundary layer processes in complex terrain , particularly examining radiation and surface energy balance effects on boundary layer evolution and terrain-driven flows. Education: PhD in Natural Sciences (Earth Science) from ETH Zurich (2006) Languages: German His research integrates atmospheric sciences , climate change science , and geophysics , with specific emphasis on pollution monitoring , mountain meteorology , and fog dynamics . Recent publications analyze freezing fog microphysics, coastal fog formation mechanisms, and complex terrain wind energy potential using WRF-COAMPS modeling. Grant-funded projects include: COLD FOG AMONGST COMPLEX TERRAIN (CFACT) 2021-2025 RED BUTTE AIR EXCHANGE STUDY 2019-2020 OWENS LAKE LIDAR STUDY 2018 MODELING FOR FASMEE 2018-2021 MATERHORN program 2011-2017 As educator, he has taught Experiential Learning II and Mountain Weather & Climate courses (2023-2024). His work combines extensive field measurements with high-resolution modeling to address atmospheric boundary layer dynamics in complex environments.

Kun FuView profile

Assistant Professor

• Additive Manufacturing
• Composite Materials
• Battery Materials
• +4 more

Kun (Kelvin) Fu is an Assistant Professor and Terri Connor Kelly and John Kelly Career Development Professor in Mechanical Engineering at the University of Delaware (UD), with affiliations to the Center for Composite Materials. His research bridges Additive Manufacturing and Composite Material Innovation , focusing on creating multiscale solutions for energy, environmental, and health challenges. As Co-founder of CarbonForm Inc., he commercializes sustainable composite technologies. Education: PhD in Fiber and Polymer Science (2014) from North Carolina State University Research interests include additive manufacturing of thermoset composites, solid-state battery development , and CO2-to-materials conversion . He pioneered 3D printing of pure carbon nanotube architectures and invented technologies like Additive Fiber Tethering (AFT) and Wood Universal Feedstock for Forming (WUFF). Recent publications address: CO2 upcycling (Nature Communications, 2024), non-planar composite structures (Composites Part A, 2025), high-loaded battery filaments (Advanced Energy Materials, 2023), and dry-processable electrolytes (ACS Nano, 2023). Trends show cross-disciplinary innovation in composites and energy storage . Scientific Recognition: Clarivate Highly Cited Researcher (2024, 2022) ACS PMSE Young Investigator (2021) Fiber Society Distinguished Achievement (2024) SAMPE Young Professionals Award (2020) His lab mentors PhD students Kaiyue Deng, Soyeon Park, and Chunyan Zhang, who have received NSF travel awards and innovation prizes . The team secured over $6M in grants from DOE, NASA, and Army, including a 2024 NASA EPSCoR RID Seed Grant and 2023 DOE ARPA-E OPEN award .

İlker TemizerView profile

Professor

• Computational Mechanics
• Multiscale Modeling
• Multiphysics Problems
• +2 more

İlker Temizer is a Professor and Chair of Mechanical Engineering at Bilkent University, where he leads the Computational Multiscale Mechanics Laboratory (CMML). His research focuses on computational mechanics, multiscale-multiphysics modeling of heterogeneous materials, and interface behaviors. Research interests include computational homogenization techniques for materials and interfaces, thermomechanical contact problems, and isogeometric analysis. His work bridges theoretical mechanics with applied engineering solutions. Recent publications emphasize multiscale modeling in density functional theory, hydrodynamic lubrication texture optimization, and smart material design, demonstrating consistent innovation in computational mechanics methodologies.

Berger AlexandreView profile

Researcher

• Atmospheric Modeling
• Urban Heat Islands
• Climate Variability
• +6 more

Berger Alexandre is a Researcher at the Université Bourgogne Franche-Comté (UBFC), affiliated with the Biogéosciences department. He currently holds an occasional collaborator (collaborateur occasionnel) role in the CRC (Climate Research Center) team. His research focuses on atmospheric modeling, particularly at the interface between atmospheric processes and continental surfaces, with emphasis on urban environments and climate change mitigation. Education & Career: 3rd post-doctorate (CRC, Biogéosciences, Dijon): Modeling urban heat islands during heatwaves and +2°C climate scenarios. 2nd post-doctorate (CRC, Biogéosciences, Dijon): Atmospheric modeling of low cloud formation in West Equatorial Africa's dry season. 1st post-doctorate (CRC, Biogéosciences, Dijon): Kilometric-scale climate simulations on Mont Blanc massif variability (1974–2014). Doctorate (LAERO, Toulouse): Multiscale aerosol chemistry and cloud processes. Research Interests: Berger specializes in improving atmospheric-land surface interaction models. His work explores canopy dynamics in urban, peri-urban, and rural settings to address urban greening, heat island mitigation, air quality, and global climate impacts. He employs high-resolution modeling to study phenomena like aerosol formation, cloud microphysics, and climatic variability. Professional Affiliations: Active in the CRC team at Biogéosciences, focusing on environmental and climate research. LinkedIn profile: LinkedIn .

Carmelo De MariaView profile

Associate Professor

• Bioengineering
• Biomedical Engineering
• Tissue Engineering
• +5 more

Carmelo De Maria is an Associate Professor in Bioengineering at the Department of Information Engineering, University of Pisa. His research focuses on biofabrication, 3D/4D printing of sustainable biomaterials, and development of advanced medical devices for regenerative medicine. He leads projects in the Enrico Piaggio Research Center, emphasizing applications in tissue engineering, biomedical instrumentation, and low-resource healthcare solutions. Key research areas include: Bioprinting of self-deployable scaffolds for endoluminal tissue regeneration Development of in vitro microphysiological systems for disease modeling Sustainable biomaterials from biomass-derived polymers Open-source medical technologies for global health equity Recent work includes innovations in robotic-based in situ bioprinting, mechanical stimulation of cell cultures, and defect detection in additive manufacturing. His interdisciplinary approach bridges robotics, materials science, and clinical applications to address challenges in musculoskeletal, cardiovascular, and neural tissue engineering. Collaborative projects focus on international cooperation to enhance access to safe, affordable medical technologies in low-resource settings. He actively publishes in high-impact journals and contributes to regulatory frameworks for open-source medical devices.

Ellen LuckinsView profile

Lecturer

• Applied Mathematics
• Fluid Mechanics
• Continuum Mechanics
• +7 more

Dr. Ellen Luckins is a Warwick Zeeman Lecturer and Leverhulme Early Career Fellow at the University of Warwick's Mathematics Institute. Her research focuses on fluid and continuum mechanics, particularly in industrial and environmental applications involving porous media, phase changes, and free-boundary problems. She employs homogenization techniques, asymptotic analysis, and multi-scale modeling to study evaporation, decontamination processes, and material science challenges. Recent work includes modeling impurity deposition during evaporation in porous materials and the dynamics of mushy zones in binary alloys. Education includes a DPhil (PhD) from the University of Oxford's InFoMM CDT, with a thesis on silicon production processes in submerged arc furnaces. She has contributed to study groups on industrial mathematics, addressing problems like energy harvesting and chocolate processing. Her teaching includes advanced fluid mechanics courses at Warwick. Awards include the prestigious Leverhulme Early Career Fellowship, supporting her research in applied mathematics. Her work bridges theoretical modeling with real-world applications, often collaborating with industry partners like Elkem. Key research themes include mathematical decontamination of porous materials, thermal-electrical interactions in metallurgical processes, and evaporation-driven flows in environmental systems.

• Nanomechanics
• Nanomaterials
• Low Dimensional Materials
• +11 more

Dr. Travis Shihao Hu is an Associate Professor in the Department of Mechanical Engineering at California State University, Los Angeles, within the College of Engineering, Computer Science, and Technology. His career includes prior roles as a Teaching Assistant Professor at the University of Denver and postdoctoral research at Case Western Reserve University, University of Florida, and University of Delaware. He leads the Bio-Nano Materials and Interfaces Lab, focusing on bio-inspired design of multifunctional materials for energy, biomedical, and environmental applications. Affiliation : California State University, Los Angeles Previous Roles : University of Denver (Teaching Assistant Professor), Case Western Reserve University, University of Florida, University of Delaware (Postdoctoral Researcher) Lab : Bio-Nano Materials and Interfaces Lab Dr. Hu’s research spans Bio-/Nano-Materials and Mechanics , Multifunctional Energy Materials and Devices , and Nanotechnology , emphasizing bio-inspired design, structure-function relationships, interfacial interactions, and multiscale modeling. His work aims to solve engineering problems using biological models, creating stimuli-responsive materials like switchable adhesives and self-healing coatings for renewable energy and defense sectors. Recent publications highlight his expertise in 2D materials , quantum dots , and bimimetic robotics . Despite no explicitly listed scientific awards, his research is supported by major grants including NSF DMR BMAT, DoD DURIP (ARO), La Kretz Environment Endowment, and NSF-CREST/PREM centers. Teaching interests include Statics, Fracture Mechanics, Nanomaterials, and Molecular Dynamics simulations.

• Physics of Biopolymers
• Directed Assembly of Soft Matter
• Soft Matter in Confinement
• +2 more

Prof. Dr. Arash Nikoubashman is the Head of the Department 'Theory of Biologically Inspired Polymers' at the Leibniz Institute of Polymer Research Dresden (IPF). His research focuses on the physics of (bio)polymers, directed assembly of soft matter, soft matter in confinement, and the development of multiscale methods and machine learning techniques. He holds a dual background in Physics and Computer Science. Education: BSc in Physics, Heinrich Heine University Düsseldorf (2007) MSc in Physics, Heinrich Heine University Düsseldorf (2009) BSc in Computer Science, Heinrich Heine University Düsseldorf (2010) PhD in Physics, Vienna University of Technology (2012) Research Interests: Nikoubashman's work bridges theoretical modeling and computational approaches to study complex polymer systems. Key areas include biomolecular condensates, nanoparticle self-assembly under flow, polymer phase behavior in confinement, and machine learning applications for predicting material properties. His group develops advanced simulation techniques to understand fundamental principles governing soft matter organization. Publications: Recent articles (2024-2025) predominantly explore biomolecular condensates, nanoparticle-polymer composites, and anisotropic soft matter systems. Computational methods like coarse-grained simulations and machine learning are consistently applied to investigate phase transitions, interfacial phenomena, and dynamic processes in confined geometries. Awards and Honors: Emmy Noether Research Group Leader Fellowship (2015-2022) Heisenberg Research Group Leader Fellowship (2022-2023) Editor's Choice award of The Journal of Chemical Physics (2018, 2019) Soft Matter Hot Paper (2015) Leadership: Leads the 'Theory of Biologically Inspired Polymers' department, coordinating fundamental research on polymer physics and mentoring early-career researchers. Maintains collaborations with Princeton University, Keio University, and other global institutions.

• Organic Electronics
• Photovoltaics
• Material Science
• +6 more

Christoph Kirsch is a Researcher at the ZHAW School of Engineering's Department of Organic Electronics & Photovoltaics. His work focuses on interdisciplinary research spanning organic electronics, photovoltaics, materials science, and biomedical engineering. He holds a PhD in Applied Mathematics from the University of Basel (2005) and an MSc in Mathematics from ETH Zurich (2001). His research emphasizes advanced modeling techniques for semiconductor devices, thermal imaging systems, and porous media processes. Key projects include: Advanced Imaging and Machine Learning for PV Quality Assurance Advanced Materials and Characterization Tools for Quantum-Dot Enhanced Displays Skinobi – Affordable Sensor for Skin Condition Tracking Research interests include OLED device simulation, solar cell characterization, and thermal properties of biological tissues. Recent work explores non-invasive skin thermal diffusivity measurement and charge transport modeling in organic semiconductors. His publications reflect a strong focus on multiscale modeling and experimental validation across materials science and biomedical applications. Notable contributions include: Electrothermal modeling of large-area semiconductor devices Development of mathematical models for intradermal drainage quantification Lock-in thermal imaging setups for nanoparticle detection Currently leads the Organic Electronics & Photovoltaics research group at ZHAW, collaborating with industry partners on applied materials science and device optimization projects.

Frank PetersView profile

Associate Professor

• Multiphase Flow Modeling
• Computational Fluid Dynamics (CFD)
• Polymer Science
• +3 more

Frank Peters is an Associate Professor in the Department of Chemical Engineering and Chemistry at Eindhoven University of Technology (TU/e). He specializes in multiscale modeling of multiphase flows, focusing on reactor design, porous media dynamics, and computational fluid dynamics (CFD). His academic background includes a PhD from TU Delft and postdoctoral research at Nagoya University and the University of Amsterdam. Education: MSc in Applied Physics, TU/e (1995) PhD in Rheology, TU Delft (2000, cum laude) Research Interests: Peters' work revolves around advanced reactor models for industrial multiphase systems, including viscoelastic and immiscible mixtures in porous media. He explores hydrodynamics, mass/heat transfer in catalytic fluid-solid systems (e.g., packed/fluidized beds) and employs techniques like CFD, mesoscale modeling, and molecular/coarse-grained simulations. His expertise also spans (non-equilibrium) thermodynamics and statistical mechanics. Recent Research Trends: His articles emphasize multiphase flow simulations in porous media, fluid-particle interactions, and drying processes in fluidized beds. Key themes include improving CFD-DEM methods, analyzing solute dispersion in reactors, and studying gas-liquid flows in complex geometries. Awards: 2018 NWO Prize for research on reactive gas-liquid two-phase flow in porous media Advising & Grants: Supervised 77 theses and contributed to grants focusing on multiscale modeling, fluidization, and energy-efficient processes. His research aligns with UN Sustainable Development Goals related to clean energy and industrial innovation. Labs & Teams: Leads the Multi-scale Modelling of Multiphase Flows group, collaborating on projects involving experimental validation (e.g., MRI particle tracking) and numerical methods (e.g., immersed boundary techniques).

José María Fernández-PalaciosView profile

Professor

• Island ecology and biogeography
• Forest dynamics
• Holocene climate change
• +4 more

Prof. José María Fernández-Palacios is a Professor of Ecology at the University of La Laguna (Tenerife, Canary Islands) and leader of the ULL Island Ecology and Biogeography Group. With 38 years of professional experience, his expertise spans island ecology, biogeography, and conservation, focusing on laurel forests, paleoecology, and ecological restoration. He has supervised 12 PhD theses and over 50 undergraduate/master students, and has secured €1.2 million in research grants over the last decade. His work bridges academia and conservation, involving roles in governmental commissions (e.g., Anaga Biosphere Reserve Management Board) and science communication through media and outreach. Research interests include human impact on island ecosystems, Holocene climate change, and biodiversity conservation. He teaches Ecology, Ecological Restoration, and Island Biogeography across multiple programs, including international collaborations with universities like Oxford and Exeter. Notable contributions include the influential textbook Island Biogeography (2nd Ed.), cited over 2,700 times. Awards include membership in the Academy of Europe (2021). His work integrates field studies with policy, leading restoration projects under the EU’s LIFE Programme. Current projects address carbon sequestration in invasive species, climate change impacts on island plant species, and biodiversity vulnerability frameworks.

John H. CushmanView profile

Professor

• Fluid Dynamics
• Porous Media Physics
• Environmental Engineering
• +6 more

John H. Cushman is a University Distinguished Professor at Purdue University, holding appointments in both the Department of Earth and Atmospheric Sciences and the Department of Mathematics . With a Ph.D. in Mathematics and Soil Physics from Iowa State University (1978), his career spans over four decades of research and teaching. Educational Background: B.S. in Mathematics (1975), Iowa State University M.S. in Mathematics and Soil Physics (1976), Iowa State University Ph.D. in Mathematics and Soil Physics (1978), Iowa State University Cushman’s research focuses on the physics of fluids in porous media across scales from picoseconds/angstroms to years/miles. Key areas include species separation in micropores , non-Markovian dispersion theories , swelling biopolymer systems , environmental contaminant transport , and gene transconjugation in microbial populations . Recent work explores Lagrangian trajectory analysis and micromorphic continuum theories for plate tectonics. Publication Trends show expertise in stochastic hydrology , anomalous diffusion , and multiscale modeling . His articles frequently bridge statistical mechanics , porous media physics , and environmental applications , with a strong emphasis on Levy processes , nonlocal transport , and swelling systems . Awards and Recognitions: University Distinguished Professor (2005) Fellow, American Geophysical Union (1996) Herbert Newby McCoy Award (1995) Graduate Mentor Award (2006) Cushman has advised numerous graduate students (e.g., M. Park , N. Kleinfelter , M. Moroni ) and received continuous NSF and institutional research support . His work impacts environmental engineering , nanofluidics , and geophysics , with applications to groundwater contamination , food drying , and biomedical systems .