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.

Helen Byrneمشاهده پروفایل

استاد

• Mathematical Biology
• Computational Biology
• Tumour Modeling
• +۵ مورد دیگر

Helen Byrne is a Professor of Applied Mathematics at the University of Oxford and a Tutorial Fellow at Keble College. Her academic roles include former Examiner for Final Honour School Mathematics, Associate Head of Department for Planning and Equality and Diversity, and Director of Equality and Diversity in the university’s MPLS Division. DPhil MSc BA/MA Her research focuses on developing mathematical and computational models to study biomedical systems, particularly solid tumours, wound healing, and tissue engineering. She aims to uncover mechanisms behind biological phenomena and derive novel mathematical insights from these models. Recent publications highlight her work in tumor-immune interactions, atherosclerosis, antibody dynamics, and radiation therapy, employing techniques like spatial modeling, agent-based simulations, and multiscale approaches. Her research bridges theoretical mathematics and practical biomedical challenges. 2019: Leah Edelstein-Keshet Prize (Senior Award), Society for Mathematical Biology 2020: Fellow of the Society for Mathematical Biology Helen Byrne has supervised numerous students and researchers, contributing to mathematical biology and biomedical modeling. Her teaching includes courses on multivariable calculus, applied partial differential equations, and advanced mathematical biology.

Joe Alexandersenمشاهده پروفایل

دانشیار

• Computational Mechanics
• Topology Optimization
• Fluid Dynamics
• +۵ مورد دیگر

Joe Alexandersen is an Associate Professor in the Department of Mechanical Engineering at the University of Southern Denmark (SDU), affiliated with the Institute of Mechanical and Electrical Engineering. His research spans structural optimization, heat transfer, fluid dynamics, and high-performance computing, with applications in heat sink design, microfluidic devices, and additive manufacturing. Research Interests Topology and shape optimization Conjugate heat transfer Navier-Stokes flow modeling Finite element methods High-performance computing Scientific Awards 2022 Fluids 2020 Best Paper Award 2017 DTU Young Researcher Award 2015 ISSMO/Springer Prize for Young Scientist Key Projects HiHeaT: Topology optimization for high heat flux components (2024–2027) Structural Analysis of Large Modular Vessels (2025–2027)

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.

Andres Galvis Rodriguezمشاهده پروفایل

مدرس ارشد

• Lithium-ion Battery Degradation
• Multiscale Modelling
• Micromechanical Modelling
• +۴ مورد دیگر

Andres Galvis Rodriguez is a Senior Lecturer at the School of Electrical and Mechanical Engineering, University of Portsmouth. He specializes in multiscale modelling, lithium-ion battery degradation, and micromechanical analysis of heterogeneous materials. His research involves developing novel mathematical models and computational tools, including the BESLE software for boundary element analysis of heterogeneous materials. He collaborates with Brazilian researchers on advancing thermo-elasticity modules for BESLE. Teaching responsibilities include coordinating modules in Solid Mechanics & Dynamics and Engineering Mathematics. His work focuses on finite element and boundary element methods, with applications to battery systems, composite materials, and bone structures. The BESLE software, co-developed by Dr. Galvis Rodriguez, is a pioneering open-source tool for simulating anisotropic and isotropic materials using parallel computing. Current research emphasizes the mechanical behavior of lithium-ion electrodes via homogenization techniques and fatigue analysis in composite-repaired structures. His contributions bridge computational mechanics and materials science, addressing challenges in energy storage and structural integrity.

Jean Lagacéمشاهده پروفایل

مدرس

• Spectral Geometry
• Geometric Shape Optimisation
• Eigenvalue Asymptotics
• +۴ مورد دیگر

Dr Jean Lagacé is a Lecturer in Pure Mathematics at King's College London, affiliated with the Department of Mathematics within the Faculty of Natural, Mathematical & Engineering Sciences. He joined King's in January 2022 after postdoctoral positions at University College London and the University of Bristol. He completed his PhD in Pure Mathematics at Université de Montréal under Iosif Polterovich, focusing on spectral asymptotics and the geometry of numbers. Research Interests : Spectral geometry, geometric shape optimisation, eigenvalue asymptotics, homogenisation theory, elliptic PDEs, and mathematical physics. His work bridges analysis, geometry, and number theory, addressing problems involving multiple asymptotic parameters and their effects on spectral properties. Key Contributions : Contributions include Weyl's Law for Steklov problems on rough surfaces, homogenisation techniques for eigenvalue mimicking, and spectral analysis of Dirichlet-to-Neumann operators. He co-organises the 'Spectral Geometry in the Clouds' seminar, fostering global collaboration in spectral geometry and geometric analysis.

Martin Dutkoمشاهده پروفایل

پژوهشگر ارشد

• Mechanical Engineering
• Geomechanics
• Fluid Dynamics
• +۳ مورد دیگر

Martin Dutko is an Honorary Research Fellow in the Department of Mathematics at Aberystwyth University. His research focuses on hydraulic fracture mechanics, material heterogeneity, and computational modeling of fracture propagation in complex geological systems. He has led projects funded by the Royal Academy of Engineering, including a 2021-2023 initiative on high-performance models for fluid-driven fractures. Education: Not explicitly stated in text Key research interests include: Toughness homogenisation in heterogeneous materials Crack front dynamics in hydraulic fracturing Elasto-plastic material behavior under hydraulic pressure Development of coupled hydro-mechanical simulation techniques His recent work emphasizes: Averaging methods for fracture toughness analysis Pressure decline patterns in complex media Integration of microseismic data with fracture models Grants & Projects: Principal Investigator (PI) for 'High Performance Models for Fluid Driven Fracture Evolution' (2021-2023) Labs/Teams: Collaborations involve multi-disciplinary teams focused on computational fracture mechanics and reservoir engineering applications.

• Applied Mathematics
• Numerical and Computational Mathematics
• Fractional Calculus
• +۵ مورد دیگر

Libo Feng is a Researcher in the School of Mathematical Sciences at the Faculty of Science, Queensland University of Technology (QUT). His research focuses on applied mathematics, numerical methods, and fractional calculus with applications to fluid dynamics, heat transfer, and heterogeneous media. He holds a Doctor of Philosophy from QUT. Key research interests include: Development and analysis of fractional-order models for viscoelastic fluids and nanofluids Computational homogenization of heterogeneous media with memory effects Numerical simulation of anomalous diffusion in comb structures Magnetohydrodynamic (MHD) flow dynamics with non-Newtonian constitutive relationships His recent work emphasizes novel boundary condition techniques for fractional differential equations, with publications in high-impact journals like Journal of Computational Physics and Physics of Fluids . Research has practical applications in solar energy systems, biological tissues, and agricultural product mechanics. Notable contributions include: Advancements in fractional integrodifferential equation solvers Innovative finite volume methods for irregular domains Analysis of transient viscoelastic nanofluid behaviors Current research explores distributed-order fractional models and their applications in multi-layered systems.

• Composite Materials
• Additive Manufacturing
• Finite Element Analysis
• +۳ مورد دیگر

Joris J.C. Remmers is an Associate Professor of Composite Materials at the Department of Mechanical Engineering, Eindhoven University of Technology (TU/e). He is also affiliated with the EAISI High Tech Systems and leads the Mechanics of Materials research group. His academic journey includes a MSc in Aerospace Engineering (TU Delft, 1998) and a PhD in Computational Mechanics (TU Delft, 2006). Remmers' research focuses on composite materials and additive manufacturing, particularly the relationship between manufacturing processes, microstructure, and mechanical properties. He employs advanced numerical techniques to study multi-physics phenomena across scales. Research Themes: Composite materials and fiber-reinforced systems 3D printing and additive manufacturing processes Numerical methods (e.g., finite element analysis, model order reduction) Micromechanical modeling of material behavior Grants and Projects: Project Manager for Innovation test bed for development and production of nanomaterials for lightweight embedded electronics (2019–2023) Awards: Emerging DMD Based Systems and Applications Best Paper Award (2025) Teaching: Leads courses on advanced manufacturing, computational mechanics, and data-driven approaches in engineering, including Advanced and Additive Manufacturing and AI-assisted innovation in portable plasma technology . Labs/Teams: Active in the Mechanics of Materials group, collaborating on multi-scale mechanics, damage modeling, and material failure analysis.

Daniel Peckمشاهده پروفایل

پژوهشگر ارشد

• Fracture Mechanics
• Hydraulic Fracturing
• Material Toughness
• +۳ مورد دیگر

Roles & Affiliations: Daniel Peck is a Research Fellow in the Department of Mathematics at Aberystwyth University. He specializes in fracture mechanics, hydraulic fracturing, and computational modeling of material behavior under stress. Education Background: Peck completed his Doctor of Philosophy (PhD) in 2018 under the supervision of Prof. Gennady Mishuris at Aberystwyth University, focusing on axisymmetric fracture problems with moving boundaries. Research Interests: Peck's work centers on hydraulic fracture propagation in heterogeneous media, material toughness homogenization, and fluid-structure interaction. He employs advanced numerical methods and FEM-based algorithms to model fracture evolution and analyze crack dynamics. Recent Trends in Publications: His recent articles (2022–2025) emphasize temporal averaging techniques for toughness heterogeneity, crack front tracing in inhomogeneous media, and simulation algorithms for hydraulic fractures in elasto-plastic materials. Key themes include improving accuracy in fracture modeling and understanding energy distribution in complex systems. Projects: Co-Investigator in the Innovate UK-funded project Geothermal Ukraine - an Empowering Change for Good (2024–2026). Grants: Not explicitly listed but implied through project involvement. Labs/Teams: Active in collaboration with teams at Aberystwyth and international institutions, focusing on geomechanics and computational fracture mechanics.

Elissa Eggenweilerمشاهده پروفایل

پژوهشگر

• Homogenisation
• Boundary Layer Theory
• Coupling Free-Flow and Porous-Medium Systems
• +۳ مورد دیگر

Elissa Eggenweiler holds the position of Researcher at the University of Stuttgart, affiliated with the Institute of Applied Analysis and Numerical Simulation under the Chair of Applied Mathematics. She specializes in multiscale problems, particularly in homogenization, boundary layer theory, and the coupling of free-flow and porous-medium systems. Her work bridges theoretical analysis and numerical simulation techniques. Her research focuses on interface conditions for fluid-porous medium interactions, with applications in Stokes-Darcy systems and uncertainty quantification. Notable contributions include modifications to classical boundary conditions (e.g., Beavers-Joseph) and Bayesian validation frameworks for coupled flow systems. Eggenweiler’s publications (2020–2023) emphasize rigorous mathematical analysis and computational methods for multiscale phenomena. While no explicit awards are listed, her involvement in projects like the validation of pore-scale resolved models highlights her collaborative and applied research ethos. Currently, she contributes to the development of effective coupling conditions and numerical frameworks at the Institute, with a focus on advancing porous-medium and free-flow system modeling.

• Structural Adhesives
• Composite Materials
• Joining Technology
• +۱۲ مورد دیگر

Professor James G Broughton is a Professor and Research Lead in Engineering at Oxford Brookes University, affiliated with the School of Engineering, Computing and Mathematics. He leads research in joining technology and composite materials, with a strong focus on sustainability, disassembly, and industrial applications across aerospace, automotive, and civil engineering sectors. Professor & Research Lead in Engineering School of Engineering, Computing and Mathematics Oxford Brookes University Email: jgbroughton@brookes.ac.uk His research interests revolve around structural adhesives, bonded composite materials, design for disassembly (DfD), recycling of multi-material structures, surface treatments for timber and composites, and durability of bonded joints. He has led significant projects in sustainable engineering, including the development of disbondable adhesives and recyclable wind turbine blades (ECORE WINDS project). His work bridges fundamental mechanics with industrial implementation, particularly in adhesion science and composite repair. The recent publications highlight a consistent trend in adhesion mechanics , composite durability , and recycling-focused design . Keywords across articles include composite materials, mechanical testing, computational modeling, and sustainable engineering. Subfields such as particle debonding, cohesive zone modeling, strain-rate sensitivity, and surface activation reflect a deep engagement with both theoretical and applied aspects of material interfaces and joint performance. Innovate UK Research Excellence Award 2014 JEC Manufacturing Production Winner 2011 (full-composite nodal trusses) Professor Broughton has supervised multiple PhD and MSc students and serves as a volunteer peer research mentor at the university. He has led major research initiatives including the Joining Technology Research Centre (JTRC) and participates in knowledge transfer through consultancy, training, and industrial collaboration. His projects often involve funding from Innovate UK and European programs, with applications in YASA Motors, 3M, Bostik, and the National Composites Centre. He led the Joining Technology Research Centre (JTRC) , now integrated into the Materials Processing and Modelling (MPM) group, and is part of the Mechanics, Materials and Design (MMD) research group. These labs support interdisciplinary research in adhesives, composite manufacturing, and structural analysis, serving both academic and industrial partners.

• 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).

• structural optimisation
• computational mechanics
• high performance computing
• +۷ مورد دیگر

Associate Professor Vivien Challis is a leading academic in Applied and Computational Mathematics at Queensland University of Technology (QUT), affiliated with the Faculty of Science and the School of Mathematical Sciences . She earned her PhD in Mathematics from The University of Queensland in 2009 and has since built an international reputation in structural optimisation, computational mechanics, and high-performance computing. Her research focuses on piezoelectric metamaterials , topology optimization , and GPU-accelerated computational methods , with recent work advancing robotics applications and biomedical prosthetics. She leads the 2022 Australian Research Council Discovery Project DP220102759 on optimising piezoelectric materials for robotics and contributed to ARC projects DP240102104 and DP170104307. 2025: GridapTopOpt.jl (Julia toolbox for level set optimization) 2025: Wave power absorption by floating plates (piezoelectric energy harvesting) 2025: FF-PINNTO framework (neural network-based optimization) In 2024, she received the JH Michell Medal from ANZIAM, recognizing her contributions to industrial and applied mathematics. Her teaching includes first-year calculus (MXB105) and second-year computational mathematics (MXB226), and she directed QUT's Mathematics Summer School (2022-2024).

• Materials Science
• Mechanical Engineering
• Biomechanics
• +۳ مورد دیگر

Wenjin Xing is a Researcher at the College of Science and Engineering, Flinders University, and a member of the Flinders Institute for Nanoscale Science and Technology. Their work spans interdisciplinary domains including composite materials, biomechanics, and vortex fluidics. Role: Researcher and Casual Academic Institution: Flinders University Key Affiliation: Flinders Institute for Nanoscale Science and Technology Research Focus: Wenjin Xing's research addresses advanced materials and structures through computational and experimental approaches. Key areas include cortical bone mechanics, composite helical springs, vortex fluidic processes, and self-powered wave sensing technologies. Composite Materials: Investigates mechanical properties of epoxy laminates and braided springs Biomechanics: Computational modeling of bone tissue cohesive responses Fluidics: Vortex-based enhancement of chemical reactions for cosmetic applications Energy Systems: Development of hybrid electromagnetic wave sensors Recent Trends: From 2020-2025, Xing's work demonstrates growing emphasis on sustainable materials and energy solutions with applications in biomedical engineering, structural mechanics, and green chemistry. Laboratory Affiliation: The Flinders Institute for Nanoscale Science and Technology provides a multidisciplinary platform for Xing's research activities in nanoscale materials and mechanics.