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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.

• Micromechanics
• Micro-plasticity
• Multiscale modelling
• +7 more

Anthony Rollett is a Professor in the Department of Materials Science and Engineering at Carnegie Mellon University , where he has been a faculty member since 1995. He serves as the Principal Investigator and Co-Director of the NASA-supported Institute for Model-Based Qualification & Certification of Additive Manufacturing (IMQCAM) and co-director of the Next Manufacturing Center . Prior to CMU, he held leadership roles at Los Alamos National Laboratory (1991-1995). Education: Ph.D., Materials Engineering, Drexel University (1987) MA, Metallurgy and Materials Science, Cambridge University (1977) Research Interests: Rollett’s work focuses on microstructural evolution and microstructure-property relationships in 3D using experiments and simulations. His expertise spans additive manufacturing , metal 3D printing , materials for energy systems , grain growth , recrystallization , and stereology , with techniques like high-energy diffraction microscopy (HEDM) and dynamic x-ray radiography (DXR) . Scientific Contributions: He has over 320 peer-reviewed publications and an h-index >80 . His recent articles highlight machine learning for laser processing , fatigue analysis of additively manufactured alloys, and design optimization for heat exchangers in supercritical CO2 and solar thermal applications . Scientific Awards: Fellow of ASM International (1996) Fellow of the Institute of Physics (UK) (2004) Fellow of The Minerals, Metals & Materials Society (TMS) (2011) Cyril Stanley Smith Award (TMS, 2014) Member of Honor, French Metallurgical Society (2015) US Steel Professor (2017) Francqui International Professor (2020-2021) International FAME Award (2023) Leadership & Impact: Rollett co-led the development of a NASA Space Technology Research Institute for additive manufacturing and established a new master’s program in additive manufacturing (2018). His research group is funded by industry , federal agencies , and Pennsylvania state grants . He also serves on the Basic Energy Science Advisory Committee and Defense Programs Advisory Committee for the Department of Energy.

• Additive Manufacturing
• Advanced Materials Processing and Manufacturing
• Digital Twins
• +6 more

Prof. Prita Pant is a faculty member in the Department of Metallurgical Engineering and Materials Science at the Indian Institute of Technology Bombay (IIT Bombay). She holds a Ph.D. and M.S. in Materials Science from Cornell University and a B.E. in Metallurgical Engineering from Roorkee University. Her research focuses on the mechanical behavior of advanced materials, particularly thin films and shape memory alloys. B.E., Metallurgical Engineering, Roorkee University (1997) M.S., Materials Science, Cornell University (2001) Ph.D., Materials Science, Cornell University (2004) Her research interests include mechanical behavior of thin films , dislocation dynamics , nanoindentation studies , simulation of deformation processes , and Ni-Ti based shape memory materials . She employs both experimental and computational techniques to investigate microstructural evolution and deformation mechanisms in metals. The available publications indicate a strong focus on thin film mechanics , dislocation behavior , and microstructure-property relationships , particularly under mechanical loading. Her work bridges computational modeling and experimental characterization, with applications in structural and functional materials. There are no scientific awards explicitly mentioned in the provided text. While no specific students are listed, Prof. Pant leads the Computational Mechanics and Experimental Group (CMEG@IITB) , indicating active supervision of graduate students and involvement in research grants. Her research group website suggests ongoing funded projects and collaborative work. She is affiliated with the Computational Mechanics and Experimental Group (CMEG@IITB) , which conducts research on multiscale mechanics of materials, combining simulation and experimentation to understand deformation phenomena.

• Mechanical Behavior of Thin Films
• Dislocation Dynamics
• Nanoindentation
• +7 more

Dr. KN Sasidhar is a Researcher in the Department of Microstructure Physics and Alloy Design at Heinrich Heine University Düsseldorf. His work focuses on advanced materials science, particularly corrosion mechanisms, alloy design, and nanoscale structural analysis. He employs cutting-edge techniques like in situ synchrotron investigations and deep learning frameworks to study material behavior under extreme conditions. Current research emphasizes corrosion resistance in stainless steels, phase transformations during nitriding, and radiation effects on coatings. Key achievements include pioneering studies on nanoscale amorphization in metallic systems, data-centric approaches for materials discovery, and the development of predictive models for alloy performance. His work bridges experimental materials characterization with computational methods, addressing challenges in energy and aerospace applications. Publications span corrosion analysis, microstructural evolution under irradiation, and phase separation phenomena. Collaborative projects involve synchrotron facilities and interdisciplinary teams focusing on materials informatics. No formal awards or grants are explicitly listed in the provided texts, though his prolific publication record indicates active academic engagement.

• Materials Science
• Corrosion Engineering
• Alloy Design
• +3 more

Dr. Wenwu Xu is an Associate Professor in the Department of Mechanical Engineering at San Diego State University (SDSU), affiliated with the College of Engineering. His research focuses on advanced materials science, nanotechnology, and computational modeling of material behavior. He specializes in investigating dislocation dynamics, electric field effects on materials, and the development of novel processing techniques for metallic and ceramic composites. His work spans topics such as hydrogen embrittlement, nanocrystalline material properties, and 3D printing of bioinspired structures. He employs molecular dynamics simulations, atomistic modeling, and experimental validation to study material deformation, sintering mechanisms, and phase stability. Xu’s contributions include pioneering quasi-instantaneous materials processing via high-intensity electrical nano-pulsing and designing recyclable piezoelectric composites for wearable sensors. His research has been published in over 40 peer-reviewed articles since 2007, reflecting a sustained focus on nanoscale material behavior, thermodynamic stability, and industrial applications. While no awards are explicitly listed, his extensive publication record underscores his expertise in materials engineering and computational methods. Dr. Xu’s lab (via mmm.sdsu.edu ) likely explores cutting-edge materials processing and characterization techniques, though specific grants or advising roles are not detailed in the provided text.

• Materials Science
• Nanotechnology
• Mechanical Engineering
• +6 more

Andreas Mortensen is a full Professor at École Polytechnique Fédérale de Lausanne (EPFL) in Switzerland, where he leads research at the Mechanical Metallurgy Laboratory (LMM) within the School of Engineering. His office is located in building MXD at EPFL's main campus in Lausanne. Institution: École Polytechnique Fédérale de Lausanne (EPFL) School: School of Engineering (STI) Department: Mechanical Metallurgy Laboratory (LMM) Position: Professor Professor Mortensen's research focuses on the mechanical properties of materials, particularly metal matrix composites, microcellular materials, and the fundamental aspects of metallurgy. His work spans from theoretical modeling to practical applications in materials processing and characterization. He has made significant contributions to understanding infiltration processes, fracture mechanics, and the behavior of materials at micro and nano scales. Analysis of Professor Mortensen's recent publications (2022-2025) reveals a continued focus on advanced materials characterization techniques, particularly nanoindentation and micro-scale mechanical testing. His research shows increasing attention to additive manufacturing processes, multi-scale material behavior, and the development of novel composite structures. The work spans fundamental investigations of dislocation dynamics and slip phenomena to applied research on brazing technologies and investment casting methods. Throughout his extensive career, Professor Mortensen has supervised numerous students and collaborated with researchers worldwide, contributing to the advancement of materials science and engineering. His laboratory has been instrumental in developing methodologies for characterizing material behavior across multiple length scales, from nano to macro.

• Metal Matrix Composites
• Mechanical Properties of Materials
• Metallurgy
• +7 more

Professor Howard Stone is a faculty member at the University of Cambridge, affiliated with the Department of Materials Science and Metallurgy. He has progressed through academic ranks, including Professor of Metallurgy (2021), Reader in Metallurgy (2017), and Lecturer in Metallurgy (2012). PhD (University of Cambridge, 2000) MA (University of Cambridge, 1995) His research focuses on metallurgy and materials science , particularly Nickel-Based Superalloys , High-Entropy Alloys , and Titanium Alloys . Key areas include microstructural evolution under thermal stress, oxidation resistance, and additive manufacturing techniques like laser powder bed fusion. Professor Stone’s recent publications highlight trends in superalloy design , phase stability , and additive manufacturing . Topics include gamma prime precipitation, lattice misfit analysis, and oxidation behavior modification. He is associated with the Rolls-Royce UTC (University Technology Centre) at Cambridge, which focuses on advanced metallurgical research and industrial collaboration.

• Metallurgy
• Materials Science
• Nickel-Based Superalloys
• +7 more

Hamouda Ghonem is a Professor in the Department of Mechanical, Industrial and Systems Engineering at the University of Rhode Island . He established the Mechanics of Materials Research Laboratory (MMRL) in 1981, focusing on experimental and computational studies of deformation and damage in advanced engineering materials under extreme conditions. Education: Ph.D., Mechanical Engineering, McGill University (1978) M.S., Mechanical Engineering, McGill University (1976) B.Sc., Nuclear Engineering, University of Alexandria (1969) Research Interests span high-temperature deformation of metallic alloys, creep-fatigue-environment interactions, dislocation-precipitate interactions, grain boundary mechanics, and ultrafine grain manufacturing. His work quantifies microstructural effects on material failure and develops predictive models for damage evolution in aerospace and nuclear materials. Scientific Awards include: Fellow of ASME Sabbatical appointments at European universities and aerospace research centers Laboratory Facilities at MMRL include: MTS servohydraulic testing machines Creep and high-strain rate (Split Hopkinson Bar, gas gun) systems Computational modeling with Abaqus, MATLAB, and in-house codes Microstructural analysis via SEM and optical microscopy Vacuum and high-temperature (-196°C to 1200°C) testing environments

• High Temperature Deformation
• Metallic Alloys
• Creep-Fatigue-Environment Interactions
• +5 more

Xiaoqing Pan is a Professor and Henry Samueli Endowed Chair in Engineering at the University of California, Irvine, with dual appointments in the Department of Materials Science and Engineering and the Department of Physics and Astronomy. He serves as Director of the Irvine Materials Research Institute (IMRI) and the Center for Complex and Active Materials (NSF MRSEC). A renowned electron microscopy expert, Pan has developed advanced transmission electron microscopy (TEM) techniques for atomic-scale material characterization. Ph.D., Universität des Saarlandes, Germany (1991) His research focuses on atomic-scale structure-property relationships in oxide heterostructures, ferroelectrics, nanocatalysts, and 2D functional materials. Pan leads development of novel 4D-STEM and momentum-resolved vibrational electron microscopy methods to study single-atom catalysts and complex oxides. With over 400 high-impact publications in Nature , Science , and Nature Materials , his work has been recognized by major fellowships and awards from the American Ceramic Society, American Physical Society, and National Science Foundation. Pan's recent work includes: Atomic-scale analysis of grain boundary phonon anisotropy Advances in FeSe/SrTiO 3 interface electron-phonon coupling Plastic waste upcycling through carbon intermediate interception Control of metal-support interactions in photocatalysts Strain engineering in high-entropy oxide films His laboratory at UCI represents the forefront of materials characterization technology development.

• Materials Science
• Electron Microscopy
• Atomic-scale Characterization
• +6 more

Mohsen Taheri Andani is an Assistant Professor in the Department of Mechanical Engineering at Texas A&M University. He holds a Ph.D. in Mechanical Engineering from the University of Michigan (2022), an M.Sc. in Materials Science and Engineering from the University of Michigan (2018), an M.Sc. in Mechanical Engineering from the University of Toledo (2015), and a B.Sc. in Mechanical Engineering from Isfahan University of Technology (2012). His research focuses on the processing-structure-properties relationships of advanced materials, additive manufacturing, physical/ mechanical metallurgy, and mechanical behavior of materials, with a particular emphasis on grain boundary engineering and crystallographic texture control in metals processed via additive manufacturing methods. Dr. Andani has received prestigious awards including the 2022 Robert M. Caddell Memorial Award for Research, the 2021 Richard and Eleanor Towner Prize for Outstanding Ph.D. Research, and the 2020 Ivor K. McIvor Award, all from the University of Michigan. His work bridges fundamental materials science with advanced manufacturing technologies, aiming to optimize material performance through multiscale control of microstructures. His research group, the Multiscale Manufacturing and Mechanics of Materials (M4) Lab, explores the interface between additive manufacturing and materials mechanics. Current projects include the Center for Scientific Machine Learning for Material Sciences (AFSOR), reducing qualification time in additive manufacturing (America Makes), and structural evaluation via non-contact sensors (DARPA). He actively seeks motivated Ph.D. students for Fall 2025 and welcomes undergraduate/master’s students to join his team. Dr. Andani’s publications emphasize experimental and computational studies of microstructural evolution in additively manufactured metals, including grain boundary effects on dislocation dynamics, crystallographic texture control in NiTi alloys, and thermomechanical property optimization of materials like 316L stainless steel and Cu-Cr-Zr alloys. His work integrates in situ characterization techniques with advanced modeling to predict and enhance material performance.

• Advanced Materials
• Additive Manufacturing
• Materials Science
• +5 more

Roy Johnsen is a Professor in the Department of Mechanical and Industrial Engineering at the Norwegian University of Science and Technology (NTNU), specializing in corrosion and surface technology. With a Dr.ing. degree from NTH (1984), he has extensive industry experience from Statoil Research Centre (1985-1991) and CorrOcean (1991-2004), where he expanded the company globally. His current research focuses on hydrogen embrittlement, corrosion protection, and integrity management in offshore systems, with collaborations across Europe, Asia, and the Americas.

• Corrosion and Surface Technology
• Hydrogen Embrittlement of Metals
• Material Technology for the Oil Industry
• +4 more

Professor Iwona M. Jasiuk is a multi-disciplinary academic affiliated with the University of Illinois, holding professorships in Mechanical Science and Engineering, Biomedical and Translational Sciences, Bioengineering, Aerospace Engineering, and other departments. She is also affiliated with the National Center for Supercomputing Applications (NCSA), Beckman Institute for Advanced Science and Technology, and the Carl R. Woese Institute for Genomic Biology. Her research focuses on composite materials, bio-inspired structures, additive manufacturing, and computational mechanics, with a strong emphasis on integrating artificial intelligence into materials science. Her work spans topics such as material characterization, metamaterials design, and radiation effects on materials. Notable research areas include thin-ply composites, lattice structures derived from geometric principles, and the mechanical properties of bio-inspired systems like equine hoof walls. She has pioneered the use of deep learning networks for predicting material behavior in complex systems. Professor Jasiuk has received prestigious awards, including the ASME Fellow, SES Fellow, and Vebleo Scientist Award. Her research is supported by collaborations across engineering, biology, and computational fields, leveraging advanced facilities like NCSA for high-performance computing.

• Composite Materials
• Materials Science
• Biomedical Engineering
• +4 more

Hamid Abdolvand is an Associate Professor and Tier-2 Canada Research Chair in Advanced Materials for Low-Emission Energies in the Department of Mechanical and Materials Engineering at Western University's Faculty of Engineering. He earned his PhD in Mechanical and Materials Engineering from Queen's University in 2012, followed by a three-year postdoctoral position at the University of Oxford focusing on electron and synchrotron x-ray diffraction analysis. Prior to Oxford, he developed finite element codes for Rolls-Royce Plc and AMEC-Europe at the University of Manchester. His research integrates computational and experimental approaches across multiple scales, with core expertise in: Deformation and failure mechanisms of engineering materials Fatigue, fracture, and (irradiation) creep phenomena Finite element, crystal plasticity, and dislocation dynamics modeling Synchrotron x-ray, neutron, and electron diffraction/tomography techniques Dr. Abdolvand's Tier-2 Canada Research Chair recognizes his leadership in developing advanced materials for sustainable energy applications, bridging industrial collaboration with fundamental materials science. He leads an active research group utilizing multi-scale methodologies to address critical challenges in material behavior under extreme conditions, with strong connections to national facilities and industry partners.

• Mechanics of Materials
• Fatigue, Fracture, and Creep
• Computational Mechanics
• +3 more

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.

• Microstructure of Metals
• Dislocation Structures
• Plastic Deformation
• +7 more

Eralp Demir is a Post-Doctoral Researcher at the Department of Engineering Science, University of Oxford. His research focuses on materials mechanics, crystal plasticity, and finite element methods. He holds a PhD from RWTH Aachen University and has conducted research at institutions including Carnegie Mellon University, Max Planck Institute, and Cornell University. His current work involves developing the OXFORD-UMAT framework for fusion energy materials in collaboration with UKAEA. He specializes in in-house finite element code development and commercial software integration (e.g., Abaqus, MSC Marc). His expertise spans computational materials modeling, microstructural analysis, and experimental validation using techniques like 3D XRD. Education: PhD in Engineering Science, RWTH Aachen University Advanced Studies at Carnegie Mellon University (Mechanical Engineering), Cornell University (MAE), and others Research Interests: Crystal plasticity modeling, fusion energy materials, finite element method development, microstructural mechanics, and additive manufacturing. His work bridges computational simulations with experimental techniques to understand material behavior under extreme conditions. Labs/Teams: Collaborates with the Tarleton Research Group at Oxford and UKAEA on fusion energy projects. Active in developing open-source tools for material modeling.

• Materials Science
• Mechanical Engineering
• Finite Element Analysis
• +3 more