جست‌وجوی استاد و پژوهشگر

• Calculus of Variations
• Partial Differential Equations
• Homogenisation
• +۹ مورد دیگر

Lucia Scardia is an Associate Professor in the Department of Mathematics at Heriot-Watt University (Edinburgh EH14 4AS). Her research focuses on calculus of variations, partial differential equations, homogenisation (deterministic and stochastic), and harmonic analysis, with applications in material science including plasticity, dislocations, non-local aggregation problems, nonlinear elasticity, and fracture theories. Research Focus Primary research domains include: Variational methods for PDEs and homogenisation Mathematical modeling of dislocations and plasticity Stochastic analysis of material defects Nonlocal interaction problems and fracture mechanics Anisotropic energy minimization Publication Trends Recent publications (2019-2025) demonstrate strong focus on: Homogenisation techniques in stochastic/perforated domains; variational analysis of anisotropic/nonlocal energies; explicit minimisers for Coulomb/Riesz interactions; free-discontinuity problems; and mathematical descriptions of dislocation patterns. Work consistently employs Gamma-convergence and variational methods. Student Supervision & Grants Supervised 18+ students including PhD candidate Xavier Pellet (2015-2019) and numerous Bachelor/Master projects on variational methods, dislocations, and PDEs. Major grants include: EPSRC EP/V00204X/1: Mathematical Theory of polycrystalline materials (£576,848, 2021-2024) EPSRC EP/V008897/1: Generalised Solutions of Nonlinear PDEs (£35,960, 2021-2024) EPSRC First Grant EP/N035631/1: Dislocation Patterns beyond equilibrium (£95,699, 2016) Academic Leadership Organizes major conferences including 'Optimal Transport and Calculus of Variations' (ICMS 2023) and 'Polycrystals: Microstructure and Plasticity' (ICMS 2022). Co-founder of the 'One World PDE seminar' (2021-present).

Emanuel Larssonمشاهده پروفایل

پژوهشگر

• X-ray Tomography
• Neutron Tomography
• Synchrotron Imaging
• +۵ مورد دیگر

Emanuel Larsson serves as a Researcher at Lund University's Department of Experimental Medical Science within the Faculty of Medicine. He holds dual institutional roles as Assistant Director at LINXS (Institute of Advanced Neutron and X-ray Science) and as a staff member at MAX IV Laboratory. His operational framework spans national infrastructure coordination including CIPA (Correlative Image Processing and Analysis), InfraVis (National Research Infrastructure for Data Visualization), and HALRIC (Hanseatic Life Science Research Infrastructure Consortium). His research centers on advanced tomographic imaging techniques , specializing in X-ray and neutron tomography for multiscale materials characterization. Key application areas include food science (starch foams), nanomaterials (photonic crystals, nanoporous gold), and biomedical engineering. His work integrates synchrotron radiation methods with machine learning approaches for 3D microstructure analysis, contributing to UN Sustainable Development Goals through materials innovation. Analysis of his 32 publications reveals dominant themes in materials microstructure visualization across food systems, nanocomposites, and reference standards development. His imaging methodologies bridge physics, engineering, and life sciences with emphasis on correlative techniques that combine multiple imaging modalities for comprehensive material analysis. Larsson actively leads infrastructure development through current projects including CIPA (2020-2027), Marine Centre Simrishamn, and MICROMORPH (2026-2028). His organizational roles include coordinating the 2024 SynchroMage hackathon focused on environmental/climate applications of tomography. He manages critical research infrastructure including Correlative Image Processing and Analysis and InfraVis national visualization systems. His laboratory ecosystem operates at the intersection of MAX IV Laboratory's synchrotron facilities, LINXS neutron science infrastructure, and Lund University's medical research environment. Current initiatives involve µCT machine learning integration for morphological diversity analysis and correlative X-ray tomography for membrane studies in food processing applications.

Michele Terzanoمشاهده پروفایل

پژوهشگر

• Biomechanics
• Cardiovascular Engineering
• Computational Modeling
• +۴ مورد دیگر

Michele Terzano is a University Assistant at the Institute of Biomechanics , Graz University of Technology, Austria. Previously, he held postdoctoral positions at Graz (2021-2023) and the University of Parma (2020-2021), with academic visitor roles at Imperial College London (2019-2021). Ph.D. in Civil Engineering (2020), University of Parma M.Sc. in Civil Engineering (2016), University of Parma B.Sc. in Civil Engineering (2016), University of Parma His research spans biomechanics of soft tissues and synthetic polymers , focusing on damage/fracture mechanisms , computational modeling , and robotics in neurosurgery . Key applications include cardiovascular interventions, brain tissue simulation, and tissue engineering hydrogels. The 15 most recent publications reflect trends in multiscale biomechanical modeling (e.g., atherosclerotic arteries, abdominal aortic aneurysms), soft tissue characterization (e.g., SHG microscopy for skin mechanics), and biomaterials development (e.g., poro-viscoelastic hydrogels for brain tissue mimicry). These works integrate experimental data with computational frameworks to address clinical challenges. Scientific awards include a 2020 postdoctoral fellowship at the University of Parma and collaboration on EU-funded Horizon 2020 projects. He teaches Biomedical Engineering courses in Graz while maintaining active research in computational fracture mechanics and bioinspired materials.

• Materials Science
• Mechanical Engineering
• Finite Element Analysis
• +۳ مورد دیگر

Mariana Dimitrova Ichkova is a Lecturer at the Technical University - Gabrovo , affiliated with the Faculty of Mechanical Engineering and Instrument Making and the Department of Materials Science and Mechanics of Materials . Email: ichkova@tugab.bg Her research focuses on residual stress analysis , finite element modeling of cold working processes, and mechanical behavior of aluminum and steel alloys . Key areas include surface treatment optimization, thermo-mechanical simulations, and strengthening techniques for fastener holes. Over the past decade, her work has emphasized finite element simulations for residual stress modeling, cold expansion of holes, and creep behavior in aluminum alloys. Publications span both Bulgarian and international journals, with a strong focus on materials processing and structural integrity applications.

• Materials Physics
• Porous Media
• X-ray Tomography
• +۲ مورد دیگر

Dr. Mahyar Madadi is a Research Fellow at the Australian National University , affiliated with the Materials Physics department. His work focuses on computational analysis of porous and granular materials using advanced imaging techniques like X-ray tomography. Research Interests Dr. Madadi's research spans multiple disciplines including Materials Physics , Geophysics , and Computational Modeling . Key areas of investigation include pore-scale fluid dynamics, elastic properties of granular media, and microstructural analysis of carbonates and foams. Publications His work demonstrates strong expertise in digital rock physics and computational materials science , with significant contributions to understanding relationships between microstructure and macroscopic properties in diverse systems from geological formations to synthetic foams.

• X-ray Tomography
• Materials Physics
• Granular Materials
• +۳ مورد دیگر

Dr. Mohammad Saadatfar is a Research Fellow in the Department of Materials Physics at the Australian National University, where he contributes significantly to the X-ray tomography and applications research group. With a PhD qualification and over 80 publications spanning two decades, his research focuses on advanced imaging techniques and materials characterization, particularly in complex material systems. Dr. Saadatfar's research interests center on X-ray tomography applications in materials science, with particular expertise in: Granular materials and foam structures characterization Computational modeling of material deformation and failure In-situ imaging of dynamic processes in geomaterials Biomimetic materials design and analysis Micro-CT applications for failure analysis His recent publications demonstrate a strong focus on applying advanced X-ray micro-CT techniques to study complex material behaviors across multiple domains. Key trends include investigating texture-breakage coupling in copper ores, wettability alteration in sandstone for carbon sequestration applications, and the mechanical properties of biomimetic and foam structures. His work bridges fundamental materials science with practical engineering applications through detailed 3D analysis of material responses under various loading conditions. As an active member of the X-ray tomography and applications research group, Dr. Saadatfar collaborates with researchers across disciplines to advance imaging methodologies and their applications in materials characterization. His laboratory work leverages state-of-the-art microtomography systems for in-situ studies of material failure and fragmentation processes in diverse material systems ranging from metallic foams to geological formations.

Xiangming Zhouمشاهده پروفایل

استاد

• Cement and Concrete Technology
• 3D Printing and Additive Manufacturing
• Low Carbon Cementitious Materials
• +۱۱ مورد دیگر

Professor Xiangming Zhou is Professor (Chair) and Head of Department of Civil & Environmental Engineering at Brunel University of London's College of Engineering, Design and Physical Sciences. He joined Brunel in October 2008 as a lecturer, progressing to Senior Lecturer (2011), Reader (2016), and Professor (2018). Previously, he was a Lecturer/Senior Lecturer at the University of Greenwich (2007-2008) and conducted post-doctoral research at Hong Kong University of Science and Technology and Hong Kong Polytechnic University (2005-2007). His educational background includes: PhD in Civil Engineering from Hong Kong University of Science and Technology (2004) MEng (Res) in Structural Engineering from Tongji University (2000) BEng in Civil & Structural Engineering from Tongji University (1997) PGCE from University of Greenwich (2009) Zhou's research spans construction materials and structural engineering with focus on cement and concrete technology, low-carbon materials, 3D printing, valorization of construction waste, and seismic design of structures. His work integrates fundamental material science with practical engineering applications, particularly in sustainable construction materials and structural resilience. He developed the elliptical ring test method for assessing concrete cracking tendency, which has gained significant academic and industry recognition. His recent publications (2023-2024) demonstrate strong focus on magnesium-based cements, carbon capture through cementitious materials, 3D printing technologies, and waste valorization. These works appear in top journals like Construction and Building Materials, Cement and Concrete Research, and Journal of Cleaner Production, reflecting his leadership in sustainable construction materials research. Among his notable recognitions: 1st Class Natural Sciences Award from Chinese Ministry of Education for research on Seismic Effects on Building Structures Zhou has secured substantial research funding as Principal Investigator/Coordinator from major bodies including EPSRC, European Commission (Horizon 2020/2025), Royal Society, and British Council. His leadership includes coordinating the €5 million Green INSTRUCT project and managing multiple international research consortia. He serves on editorial boards of several journals and has extensive experience as external examiner for PhD theses at numerous universities worldwide. He leads the Resilient Structures and Construction Materials Research Group at Brunel, fostering collaboration between academia and industry to develop innovative solutions for sustainable infrastructure.

• Mechanical Engineering
• Additive Manufacturing
• Materials Science
• +۵ مورد دیگر

Mattia Utzeri is a Researcher in the Department of Industrial Engineering and Mathematical Sciences at Università Politecnica delle Marche (UNIVPM) in Italy. His work focuses on mechanical design, machine construction, and advanced materials research, with particular expertise in additive manufacturing, mechanical testing, and computational modeling of advanced structures. Dr. Utzeri's research interests span multiple areas of mechanical engineering and materials science: Mechanical design and machine construction Additive manufacturing technologies and applications High strain rate material characterization Lattice and architected materials Piezoresistive and smart materials Multiscale mechanical analysis Dynamic testing methodologies His publication record demonstrates significant contributions to the understanding of mechanical behavior in advanced materials, particularly in the areas of 3D printed structures, high strain rate phenomena, and multiscale modeling. His recent work has focused on developing innovative testing methodologies like the 90-meter split Hopkinson tension-torsion bar and exploring the potential of topology-engineered piezoresistive lattices for sensing applications. The research trends show increasing focus on autonomous sensing capabilities and the integration of mechanical properties with electrical response in architected materials. Dr. Utzeri maintains regular office hours on Fridays at 11:00 in office Q180 at Via Brecce Bianche - Monte Dago campus, and can be contacted at m.utzeri@staff.univpm.it or by phone at 071 220 4488.

• Structural Mechanics
• Nonlinear Dynamics
• Finite Element Analysis
• +۲ مورد دیگر

Dr. NÉMETH Róbert is an Associate Professor and Head of the Department of Structural Mechanics at the Budapest University of Technology and Economics . With a PhD in Civil Engineering (2004), he has contributed significantly to nonlinear structural mechanics, particularly in elastic rod analysis and finite element modeling. Current roles: Associate Professor, Department Head Key affiliations: Budapest University of Technology and Economics, Cornell University (visiting scientist) His research focuses on nonlinear dynamics of elastic systems, with applications to: Nonlinear normal modes Free vibration analysis Seismic response of masonry structures Elastic filament networks Continuum mechanics Finite element modeling Article trends show a consistent exploration of piecewise linear systems and cracked structures across decades, combining analytical and numerical approaches. Scientific awards include: DAAD Scholarships (1999, 2001) Dr. Imre Korányi Civil Engineering Scholarship (2004-2005) He has taught courses in structural dynamics, finite element methods, and mechanics in Hungarian, German, and English, while also serving on university committees.

• Timber Engineering
• Wood Mechanics
• Structural Engineering
• +۵ مورد دیگر

Min Hu is a Lecturer in the Department of Building Technology at Linnaeus University's Faculty of Technology. With a PhD in Building Technology completed in 2018, Dr. Hu has established a research program focused on improving machine strength grading of structural timber through advanced analysis of fiber orientation and local bending stiffness related to knots in sawn timber. Dr. Hu's research interests center on timber engineering, wood mechanics, and structural analysis, with particular expertise in non-destructive testing methods including laser scanning and X-ray computed tomography. Their work bridges computational modeling with practical applications in wood construction, developing sophisticated models to predict mechanical properties of timber based on internal structure. The publication record demonstrates a consistent focus on understanding fiber orientation in Norway spruce and other timber species, with recent work expanding into Cross-Laminated Timber (CLT) applications. The research shows progression from fundamental studies of wood microstructure to practical engineering applications for improving timber grading and construction systems. Dr. Hu actively supervises bachelor's and master's degree projects while teaching courses in Structural Mechanics, Construction Technology, and the Finite Element Method. Their pedagogical approach emphasizes creating an encouraging environment that conveys the joy of learning and inspires critical thinking. Department of Building Technology Faculty of Technology Linnaeus University Dr. Hu leads research within multiple collaborative frameworks including the Linnaeus University Centre for Competitive Timber Structures (Lnuc TiSt) and participates in several ongoing research projects focused on sustainable wood construction, detection of internal timber properties, and improving CLT-based building systems through engineering design.

Hermann Tempelمشاهده پروفایل

استاد

• solid state batteries
• post-lithium batteries
• sodium ion batteries
• +۴ مورد دیگر

Dr. Hermann Tempel, Acting Department Head of Functional Materials and Components at Jülich Research Centre, Germany, is a leading researcher in advanced electrochemical energy systems. Affiliated with the Institute of Energy Technologies (IET) , specifically the Fundamentals of Electrochemistry (IET-1) department, he focuses on next-generation battery and electrolysis technologies. His research explores solid-state batteries post-lithium chemistries (sodium-, aluminum-ion) CO2, wastewater, and alkaline water electrolysis nanoscale material properties with emphasis on industrial scalability and technoeconomic viability. Recent publications highlight trends in 3D carbon fiber interlayers for metal anodes high-entropy halide battery materials CO2 electroreduction catalysts and systems solid-state electrolyte microstructural optimization via advanced electrochemical modeling, operando microscopy, and industrial process engineering. His work addresses critical challenges in energy storage and conversion, particularly through in situ characterization techniques double-layer capacitance analysis solid electrolyte interphase (SEI) engineering electrochemical system design to enable sustainable energy technologies.

Shicheng Yuمشاهده پروفایل

پژوهشگر

• Solid-State Battery Technology
• Electrochemistry
• Energy Storage Materials
• +۴ مورد دیگر

Dr. Shicheng Yu is a researcher at the Research Center Jülich GmbH , affiliated with the Institute of Energy Technologies (IET) under the Fundamentals of Electrochemistry (IET-1) department. His work focuses on solid-state battery technologies, electrochemical stability, and advanced energy storage materials. Research Interests Dr. Yu’s research spans Solid-State Battery Engineering Electrochemical Interface Design Ion Transport Mechanisms Material Degradation Analysis Hybrid Energy Systems with a particular emphasis on lithium/sodium metal batteries and computational electrochemistry. Scientific Contributions His recent publications (2023-2025) highlight innovations in 3D Electrode Architectures Garnet/LATP Electrolyte Optimization Non-Radiative Recombination Suppression Nano-Scale Interface Engineering for next-generation energy storage solutions.

Matthias Zeisbergerمشاهده پروفایل

پژوهشگر

• Nanophotonics
• Optical Fiber Technology
• 3D Nanoprinting
• +۷ مورد دیگر

Dr. Matthias Zeisberger is a researcher at the Leibniz Institute of Photonic Technology (IPHT) , working in the Fiber Photonics department. His research focuses on advanced photonic device engineering through 3D nanoprinting, with particular expertise in optical fiber functionalization, hollow-core waveguide design, and metasurface integration for enhanced light manipulation. His work addresses critical challenges in Nanophotonics , Optical Fiber Technology , and Integrated Photonics through innovations like: Nanostructured fiber tips for broad-angle light coupling 3D holograms on multicore fibers for remote focus control Optofluidic platforms for nanoparticle tracking Phase-modulated hollow-core waveguides for higher-order mode excitation Key applications span Quantum Technologies , Biophotonics , and Environmental Monitoring . While his publications demonstrate leadership in experimental and computational photonics, no formal advising roles or scientific awards are mentioned in the available texts.

• Quantum Physics
• Superconductivity
• Nanowire Devices
• +۳ مورد دیگر

Yu Liu is a researcher at the Center for Quantum Devices within the Niels Bohr Institute at the University of Copenhagen. The Center for Quantum Devices focuses on cutting-edge research in quantum physics, particularly in areas related to spin qubits, topological quantum systems, novel devices, superconducting qubits, and quantum materials. Dr. Liu's research spans multiple disciplines within quantum physics and condensed matter. His primary focus appears to be on quantum devices, particularly investigating superconductivity in hybrid nanowire systems with ferromagnetic components. His work explores spin-split superconductivity, supercurrent transport, and spin-polarized bound states in semiconductor-superconductor-ferromagnetic-insulator hybrid structures. Beyond quantum physics, Dr. Liu has also published work in computer vision, mathematics, particle physics, transportation studies, and medical imaging, demonstrating remarkable interdisciplinary breadth. His recent publications (2021-2025) show a strong focus on quantum transport phenomena in hybrid nanostructures, particularly examining the interplay between superconductivity, ferromagnetism, and spin-orbit coupling in nanowire systems. These investigations have important implications for the development of topological quantum computing platforms and novel quantum devices. The observed phenomena include supercurrent reversal near coercive fields of ferromagnetic insulators, spin-splitting exceeding induced superconducting gaps, and percolative supercurrent flow in bilayer systems. Dr. Liu has collaborated extensively with researchers at the Center for Quantum Devices, including P. Krogstrup, S. Vaitiekėnas, C. M. Marcus, M. Leijnse, and R. Seoane Souto. His work often involves experimental measurements combined with theoretical modeling to explain observed phenomena in quantum transport systems, bridging the gap between fundamental physics and potential quantum technology applications.

• Computational Mechanics
• Multiscale Modeling
• Residual Stress Analysis
• +۵ مورد دیگر

Dominik Brands is a researcher at the Institute of Mechanics , University of Duisburg-Essen , specializing in computational mechanics and multiscale modeling of heterogeneous materials. He holds a doctoral degree (Dr.-Ing.) from the same university (2012), with a dissertation titled "Geometrical Modeling and Numerical Simulation of Heterogeneous Materials". Department of Civil Sciences, Faculty of Engineering Board member of the Center for Computational Sciences and Simulation since 2013 Research assistant in the Scientific Computing Support Team since 2015 Research Interests: Dominik's work focuses on Multiscale simulation of dual-phase steels Residual stress analysis in hot bulk forming Numerical modeling of high-performance concrete Phase-field approaches for fracture and fatigue Computational biomechanics of arterial walls Statistically similar representative volume elements (SSRVEs) Publications highlight trends in finite element methods for materials with complex microstructures, particularly steel and concrete systems, with recent work extending to electromechanical coupling in nanocomposites. His scientific contributions span 2012–2025, emphasizing multiscale approaches and advanced numerical techniques. Teaching includes lectures on computational mechanics, coupled problems, and engineering mechanics. He has supervised 8 thesis students (2008–2018) in topics ranging from arterial simulations to phase transformations and concrete mechanics.