جست‌وجوی استاد و پژوهشگر

Ron H.J. Peerlingsمشاهده پروفایل

دانشیار

• Micromechanics
• Micro-plasticity
• Multiscale modelling
• +۷ مورد دیگر

Ron H.J. Peerlings is Associate Professor in the Department of Mechanical Engineering at Eindhoven University of Technology (TU/e) , where he leads the Mechanics of Materials research group. Promoted to Associate Professor in 2007 after joining as Assistant Professor in 2000, he has built an extensive portfolio in theoretical and computational mechanics of materials. Education: PhD (1999) – Eindhoven University of Technology, thesis: Enhanced damage modelling for fracture and fatigue Post-doctoral research (1999–2000) – University of Cambridge, Engineering Department Research interests revolve around micromechanics , micro-plasticity , multiscale modelling , homogenisation , damage and fracture , and enriched continuum theories . His work spans advanced high-strength steels, composites, paper and fibrous networks, with strong emphasis on coupling rigorous theoretical developments to industrially motivated problems. His recent publications (2023-2025) demonstrate a clear trajectory towards integrating advanced experimental techniques (e.g., digital image correlation, micro-mechanical testing) with high-fidelity computational frameworks such as crystal-plasticity finite-element modelling, FFT-based solvers and micromorphic homogenisation. Dominant themes include: Deformation and fracture in lath martensite and dual-phase steels Hygro-mechanics of paper and fibrous networks Pattern-transforming mechanical metamaterials Discrete-to-continuum scale bridging methods Scientific awards are not explicitly listed in the provided material; however, his prolific output (294 research items, >6500 citations) attests to significant peer recognition. Teaching & supervision: He delivers courses on Computational Mechanics – Numerical Methods for Fluids and Solids and Fracture Mechanics – Theory and Application , and has supervised >80 student works and numerous PhD candidates whose names appear on joint publications. Laboratory & teams: He heads the Group Peerlings within the Mechanics of Materials cluster, maintaining close collaboration with the Mechanics of Materials Group Geers and extensive national/international experimental and computational networks.

• Solid Mechanics
• Micromechanics
• Dislocation Plasticity
• +۳ مورد دیگر

Professor Dan Balint is the Head of the Mechanics of Materials Division in the Department of Mechanical Engineering at Imperial College London. He holds a Ph.D. in Engineering Sciences from Harvard University (2003), an S.M. in Applied Mathematics from Harvard (2001), and a B.S. in Engineering Mechanics from Michigan State University (1998). Prior to joining Imperial in 2006, he was a Research Associate at the Cambridge Centre for Micromechanics. His research spans theoretical and computational solid mechanics, with focus areas including: Micromechanics of crystalline materials (metals/ceramics) Dislocation-defect interactions and failure mechanisms Discrete dislocation plasticity methods Nuclear cladding materials and zirconium hydrides Thin film failure and metal forming processes Fracture mechanics and material size effects Recent publications (2022-2025) predominantly explore dislocation dynamics, zirconium alloy behavior under nuclear conditions, computational modeling of microstructural stresses, and machine learning applications in materials science. Common themes include thermomechanical degradation, crack initiation mechanisms, and multi-scale modeling approaches. Professor Balint serves as Associate Editor of the European Journal of Mechanics - A/Solids and consults for industrial partners including Rolls Royce, BP, and the US Air Force.

Grethe Wintherمشاهده پروفایل

استاد

• Microstructure of Metals
• Dislocation Structures
• Plastic Deformation
• +۷ مورد دیگر

Grethe Winther is a Professor and Head of Section in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), specializing in Materials and Surface Engineering. Her research is centered on the analysis and modeling of microstructure and mechanical properties of metals, with a strong emphasis on dislocation structures, deformation textures, and recrystallization processes. Her research interests include: Dislocation structures and boundary analysis in deformed metals Crystal plasticity modeling using synchrotron data (3DXRD) Orientation relationships in recrystallization Prediction of mechanical properties in industrial metal forming Multiscale modeling of plastic deformation and surface roughening The recent articles (2025) highlight a consistent focus on advanced characterization techniques like dark-field X-ray microscopy and discrete dislocation dynamics simulations. These works explore the formation of geometrically necessary boundaries, dislocation cell evolution, and multiscale surface deformation, reflecting a strong integration of experimental and computational methods in materials science. Key themes include plastic deformation mechanisms, microstructure evolution, and predictive modeling in metallic systems. Grethe Winther actively supervises multiple PhD projects, including those on dislocation dynamics, X-ray microscopy, and ductile failure simulations. She collaborates extensively with researchers such as H.F. Poulsen and C.V. Nielsen. Her work is supported by ongoing research projects at DTU, focusing on fundamental and applied aspects of metal deformation and microstructure. She is affiliated with the Materials and Surface Engineering section at DTU, where she leads research efforts combining advanced experimental techniques with theoretical modeling to understand and predict metal behavior under deformation.

Caterina Ida Zeppieriمشاهده پروفایل

دانشیار

• Calculus of Variations
• Partial Differential Equations
• Material Science
• +۳ مورد دیگر

Professor Caterina Ida Zeppieri is an Associate Professor at the Institute for Numerical and Applied Mathematics , University of Münster, Germany. Her research focuses on homogenization theory, calculus of variations, and applications in material science. She leads the Analysis and Modelling Research Group , which explores variational methods and their computational implications. Research Interests: Her work centers on stochastic and deterministic homogenization of free-discontinuity problems, Γ-convergence, and the analysis of heterogeneous materials. She investigates mathematical models for fracture mechanics, phase transitions, and plasticity, often employing advanced techniques from calculus of variations and partial differential equations. Recent Contributions: Recent articles address topics such as strong approximation of SBV functions (2025), stochastic homogenization in perforated domains (2024), and gradient damage models (2022). These studies emphasize rigorous mathematical analysis with applications to real-world material behavior. Grants & Collaborations: Zeppieri’s research is supported by grants from the German Research Foundation (DFG), including projects within the Cluster of Excellence 2044 (e.g., C1: Evolution and Asymptotics). She collaborates with institutions globally, advancing interdisciplinary approaches to material modeling. Teaching: She teaches advanced courses like Applied Functional Analysis and Calculus of Variations , and mentors students through seminars and thesis supervision. Her group hosts regular colloquia and workshops, fostering academic exchange in applied mathematics.

Johan Pieter Maria Hoefnagelsمشاهده پروفایل

دانشیار

• Micromechanics of materials
• Ductile damage and fracture
• Interface mechanics and delamination
• +۶ مورد دیگر

Johan Pieter Maria Hoefnagels is Associate Professor of Micromechanics of Materials at Eindhoven University of Technology (TU/e), Department of Mechanical Engineering, where he leads the independent Hoefnagels group and the strategic Multi-Scale Laboratory dedicated to integrated micro-mechanical testing. Education: MSc (2000) and PhD (2005) in Applied Physics, Eindhoven University of Technology – thesis on “A novel diagnostic approach for studying silicon thin film growth” . International research visits to IMEC (Belgium), SUNY Albany (USA), NIST (USA), Harvard University (USA), Colorado School of Mines (USA), and KAUST. Research Focus: His group integrates advanced micro-mechanical testing, high-resolution microscopy (SEM, EBSD, AFM, µCT, DIC) and numerical modelling to understand and control micro-scale damage and failure mechanisms in pursuit of durable, sustainable materials. Ductile damage and fracture in metals Interface delamination and adhesion in stretchable electronics Size effects in miniaturised components and thin films Crystal plasticity and martensite/ferrite interface mechanics Hybrid and multi-phase material systems Research Output & Trends: Since 2019 his work has concentrated on multi-scale experimental–numerical studies of advanced steels (martensite/ferrite interfaces, dual-phase steels), additive manufacturing (wire-arc 316L), stretchable electronics (Cu/rubber delamination), and cellulose fibre networks. Recent articles reveal a strong emphasis on high-resolution digital image correlation, automated slip-system identification, and coupled hygro-thermo-mechanical testing. Scientific Awards & Recognition: NWO VIDI (2012), VENI (2008), RUBICON (2005) personal grants – totalling ~€10 M Editor-in-Chief, Strain – An International Journal for Experimental Mechanics (IF 2.2) Dutch representative, European Structural Integrity Society (ESIS) >150 invited/keynote conference presentations; organiser of 20+ international symposia Acta Materialia & Scripta Materialia 2019 Excellence in Reviewing award; Top Reviewer 2011, Engineering Fracture Mechanics PhD Advising & Grants: Principal supervisor of 27 PhD students and 18 post-docs/EngDs; co-author of 24 granted research proposals and 8 equipment investment proposals. The Multi-Scale Laboratory hosts state-of-the-art micro-mechanical testers and microscopes, serving departments across TU/e.

Jaafar El-Awadyمشاهده پروفایل

استاد

• Multiscale Materials Modeling
• Mechanics of Materials
• Deformation and Fracture Mechanics
• +۴ مورد دیگر

Jaafar El-Awady is a Professor in the Department of Mechanical Engineering at the Whiting School of Engineering, Johns Hopkins University (JHU). He serves as Chair of JHU’s Engineering for Professionals’ Mechanical Engineering Graduate Program, founder/director of the Computational and Experimental Materials Engineering Laboratory (CEMEL), and associate director of the Center on Artificial Intelligence for Materials in Extreme Environments (CAIMEE) and the Center for Integrated Structure-Materials Modeling and Simulations (CISMMS). His secondary appointment in the Department of Materials Science and Engineering underscores his interdisciplinary focus.

Amine Benzergaمشاهده پروفایل

استاد

• Materials Science and Engineering
• Mechanics of Materials
• High-Performance Computing
• +۵ مورد دیگر

Amine Benzerga is a Professor of Aerospace Engineering and Materials Science & Engineering at Texas A&M University, holding the General Dynamics endowed chair. As Director of the Center for Intelligent Materials and Structures (CiMMS), he leads cutting-edge research in smart material systems. He is affiliated with the Department of Aerospace Engineering within the College of Engineering, and his work integrates computational and experimental approaches to advance materials science. Education: Ph.D., Material Science & Engineering, École des Mines de Paris, France (2000) M.Sc., Mechanical Engineering, Université Paul Sabatier, Toulouse (1995) B.Sc., Aerospace Engineering, Sup'Aero, Toulouse (1995) Classes Préparatoires, Physics, Lycée Masséna, Nice (1989-1992) Research Interests: His work focuses on Mechanics of Materials , High-Performance Computing , and Anisotropy in Plasticity and Fracture . He explores Ductile Fracture mechanisms, Discrete Dislocation Plasticity , and Macromolecular Mechanics of Polymers . Recent studies include stress triaxiality effects on fracture behavior in magnesium alloys and polymer composites, failure under severe shear, and computational modeling of spall dynamics during hypervelocity impacts. Awards & Honors: Faculty Fellow, Texas Engineering Experiment Station (2014) Select Young Faculty Award, Texas Engineering Experiment Station (2009) National Science Foundation CAREER Award (2008) Highest Honors for Ph.D. Dissertation Work (École des Mines de Paris, 2000) Grants & Advising: Amine has led grants such as the 2019 Multiscale Modeling of Damage Tolerance in Hexagonal Materials and the 2018 CyberTraining: CIC Computational Materials Science Summer School . His advisory work includes supervising experimental and computational studies on void coalescence and plasticity in metals and polymers. Labs & Teams: As CiMMS Director, he oversees interdisciplinary projects in intelligent materials, including shape memory alloys and damage detection via sensory particles. His team collaborates on topics like texture effects in magnesium alloys and fracture locus path-dependence.

• plasticity
• material damage
• multiscale simulations (MD, DDD, FEM)
• +۴ مورد دیگر

Dr. Yi Hu is a researcher at the Max Planck Institute for Sustainable Materials , affiliated with the Department of Microstructure Physics and Alloy Design within the Theory and Simulation research group. His work focuses on computational materials science and multiscale modeling of structural materials. Research interests include: Plasticity and material damage mechanisms Multiscale simulations (Molecular Dynamics, Discrete Dislocation Dynamics, Finite Element Method) Computational methods like topology optimization, machine learning, and phase field modeling Development of DAMASK (Düsseldorf Advanced MAterial Simulation Kit) Recent publications highlight his expertise in precipitate strengthening of aluminum alloys, dislocation dynamics, and multiscale modeling. He collaborates on code development and has contributed to advancing computational frameworks for material simulations. Key affiliations: Max Planck Institute for Sustainable Materials, Düsseldorf, Germany.

Seok-Woo Leeمشاهده پروفایل

دانشیار

• Mechanical behavior of advanced structural materials
• In-situ nanomechanics
• Dislocation dynamics simulations
• +۴ مورد دیگر

Seok-Woo Lee is an Associate Professor at the University of Connecticut 's College of Engineering , serving as the Director for Undergraduate Studies in the Department of Materials Science & Engineering. He earned his Ph.D. from Stanford University in 2011. Mechanical behavior of advanced structural materials In-situ nanomechanics (nanoindentation, micropillar compression) Dislocation simulations (molecular dynamics, discrete dislocation dynamics) Single crystal growth and laser lithography High strain-rate deformation and polymer nanocomposites Recent publications highlight work in biomedical nanomaterials, cold spray technology, and crystal deformation mechanisms. His research frequently involves collaborations with undergraduate researchers. Castleman Term Professor in Engineering Innovation (2020) Mentorship Excellence Award (2019) MSE Teaching Excellence of the Year (2018, 2017) NASA Early Career Faculty Award (2016) He has received multiple university-level awards for teaching, service, and research excellence, including multiple MSE Faculty of the Year and Research Excellence recognitions. His research has been supported by NASA and university fellowships.

• Materials Science
• Metallurgy
• Alloy Design
• +۶ مورد دیگر

Dr. Felicity Worsnop is a Researcher at the Max Planck Institute for Sustainable Materials, affiliated with the Department of Microstructure Physics and Alloy Design. Her work focuses on understanding microstructural behaviors in advanced alloys, particularly titanium and copper alloys, with emphasis on hydrogen embrittlement, fatigue mechanisms, and precipitation phenomena. She employs cutting-edge characterization techniques like APT, TEM, and SAXS to analyze nanoscale precipitates and microstructural defects. Her research interests span materials science and metallurgy, addressing challenges such as slip intermittency in titanium alloys, composition-dependent plasticity in Co-based alloys, and oxygen-induced degradation in α-Ti. She has contributed to improving the integrity of titanium alloys through failure analysis and environmental fatigue studies. Recent investigations include the role of dissolved nitrogen in Ti-6Al-4V fatigue behavior and the crystallographic ordering of Al/Sn in α-Ti. Her interdisciplinary approach integrates computational modeling and experimental validation to advance alloy design principles.

Christian Motzمشاهده پروفایل

استاد

• Materials Science
• Micro- and Nanomechanics
• Nanocrystalline Materials
• +۷ مورد دیگر

Prof. Dr. Christian Motz is a Professor in the Department of Materials Science at Saarland University, within the Faculty of Natural Sciences and Technology. He leads the research group focused on the Experimental Methodology of Materials Science, specializing in the investigation of structure-mechanical property relationships across macro, micro, and nanoscales. His research centers on advanced characterization techniques, particularly atomic force microscopy (AFM), scanning electron microscopy (SEM), and light microscopy, enabling precise topographic and mechanical analysis of materials. Key research areas include: Micro- and nanomechanics under varying defect structures, temperatures, and environments Fatigue and fracture behavior of complex materials Structure, stability, and mechanical performance of nanocrystalline materials Discrete dislocation dynamics simulations for modeling plasticity The group leverages a suite of microscopy tools to extract multi-scale information, overcoming limitations of conventional imaging methods by using AFM for true 3D surface topography with high resolution. This enables accurate assessment of surface features critical to material performance. Prof. Motz collaborates within a multidisciplinary environment and contributes to advancing experimental methodologies for materials characterization. No specific scientific awards or student advisement details were mentioned in the provided text.

Erik van der Giessenمشاهده پروفایل

استاد

• Mechanical behavior at micro and nanoscales
• Biophysics
• Discrete dislocation plasticity
• +۵ مورد دیگر

Prof. Dr. Ir. Erik van der Giessen is a Professor at the University of Groningen, leading the Micromechanics group within the Zernike Institute for Advanced Materials. His research spans multiple disciplines including mechanical engineering, materials science, biophysics, and computational modeling, with a focus on mechanical behavior at micro and nanoscales. Van der Giessen's research primarily focuses on three interconnected areas: biophysics (particularly nuclear pore complex and cellular mechanics), discrete dislocation plasticity, and polymer blends and nano-composites. His work in biophysics, conducted in collaboration with the Onck group, investigates fundamental cellular processes including transport through the nuclear pore complex, cytoskeleton structure-property relations, protein aggregation in neurodegenerative diseases, and viral fusion mechanisms. His discrete dislocation plasticity research provides size-dependent descriptions of plastic deformation at microscales, studying phenomena in thin films, micro/nano pillars, surface contact and friction, and fracture processes. His polymer research examines deformation mechanisms and fracture processes in polymer composites with micrometer or nanometer fillers. A common theme across all research areas is size dependence, with the principle that "smaller is harder" in mechanical behavior at reduced scales. The group employs computational techniques including molecular dynamics, dislocation dynamics, Monte Carlo methods, and finite element methods. Recent publications (2022-2025) show continued innovation in applying machine learning to materials science, investigating nuclear transport mechanisms in neurodegenerative diseases, and advancing fundamental understanding of size effects in mechanical properties. Van der Giessen has mentored numerous PhD students who have established successful academic careers, including L. Nicola (University of Padova), S.S. Shishvan (University of Tabriz), and H. Song (Johns Hopkins University). His research has been supported by various national and international collaborations, including significant work with Harvard University researchers on thin film mechanics. The Van der Giessen group maintains strong interdisciplinary connections, creating a research environment that bridges engineering, physics, and biology. Their computational approaches have provided physical understanding for size effects observed in experiments and have generated predictive models for various mechanical phenomena at micro and nanoscales.

Yang Liuمشاهده پروفایل

مدرس

• Computational Materials Science
• Crystal Plasticity Modeling
• Fatigue and Creep Analysis
• +۴ مورد دیگر

Dr. Yang Liu is a Lecturer in Mechanical Engineering at the University of Leicester, joining in February 2024. Prior to this, he held a postdoctoral position at Imperial College London, focusing on fatigue, creep-fatigue, and hydrogen-related issues in aerospace and nuclear industries. His research integrates micro-mechanical experiments with computational models to address industrial challenges in materials science and engineering. His academic background includes extensive work on crystal plasticity modeling, hydrogen embrittlement in zirconium alloys, and the mechanical behavior of advanced materials under extreme conditions. Key focus areas include the development of multiscale models to predict material responses to thermomechanical loading, irradiation damage, and environmental effects. Dr. Liu's recent publications highlight advancements in understanding hydride precipitation mechanisms, strain rate sensitivity in zirconium alloys, and fatigue nucleation in titanium alloys. His work bridges fundamental material science with practical industrial applications, particularly in aerospace and nuclear sectors. His research is characterized by a strong emphasis on combining experimental data with advanced computational techniques, such as crystal plasticity finite element modeling and uncertainty quantification. Collaborations with industry stakeholders ensure his findings address real-world challenges in material design and performance optimization.

• Phase-Field Modelling
• Dislocation Dynamics
• Crystal Plasticity
• +۳ مورد دیگر

Dr. Tushar Jogi is a Researcher at the Max Planck Institute for Sustainable Materials, specializing in computational materials science. His research focuses on Phase-Field modeling, Discrete Dislocation Dynamics (DDD), and Multi-Physics Crystal Plasticity. He holds a PhD in Materials Science and Metallurgical Engineering from IIT Hyderabad (2021), with a thesis on computational modeling of Ni-base superalloys. His work bridges theoretical simulations and practical applications in metals and alloys, addressing issues like phase transformations, plasticity, and domain switching in ferroelectric systems. Education: PhD in Materials Science and Metallurgical Engineering (2021), IIT Hyderabad His research interests span advanced modeling techniques for materials behavior, including domain dynamics in ferroelectrics, dislocation networks in alloys, and multi-physics approaches to crystal plasticity. Recent studies highlight innovations in ontology-based workflows for steel industries and dislocation cartography using machine learning. His contributions to phase-field simulations have advanced understanding of superalloy instability and ferroelectric domain engineering. Dr. Jogi collaborates on interdisciplinary projects, such as StahlDigital, integrating computational tools for industrial applications. His work emphasizes sustainable materials development through precise microstructural control and high-performance alloy design.

• Nuclear Materials
• Fracture Mechanics
• Hydrogen Embrittlement
• +۲ مورد دیگر

Professor Mark Wenman is a Professor in Nuclear Materials at the Department of Materials, Faculty of Engineering, Imperial College London. He leads the EPSRC Centre for Doctoral Training in Nuclear Energy Futures and co-directs the Centre for Nuclear Engineering. His research focuses on nuclear engineering materials including fracture mechanisms, hydrogen embrittlement, irradiation damage, and multi-scale modeling of nuclear fuels and structural materials. His research interests span: Micromechanisms of fracture in nuclear materials Hydrogen embrittlement and corrosion mechanisms Irradiation damage in zirconium alloys and steels Multi-scale modeling from atomic to continuum scales Nuclear fuel performance and cladding integrity Professor Wenman's recent publications demonstrate a strong focus on computational materials science approaches to nuclear material degradation, including phase-field modeling of corrosion, discrete dislocation plasticity of hydride formation, and machine learning applications for materials characterization. His work consistently addresses fundamental mechanisms of material degradation in nuclear environments. He directs multiple research centers and consults for technical advisory groups including TAGSI, Core Materials Working Group, and the Fuels Working Group for the European Jules Horowitz reactor project.