جست‌وجوی استاد و پژوهشگر

• Materials Science
• Solid Mechanics
• Advanced Manufacturing
• +۵ مورد دیگر

Michael Sangid is the Reilly Professor of Aeronautics and Astronautics and Professor of Materials Engineering at Purdue University. His academic roles include being a University Faculty Scholar (2022–2027) and Executive Director of the Hypersonics Advanced Manufacturing Technology Center. He holds dual appointments as a Professor in the School of Aeronautics and Astronautics and a courtesy Professor in the School of Materials Engineering. Dr. Sangid earned his B.S., M.S., and Ph.D. in Mechanical Engineering from the University of Illinois, Urbana-Champaign (2002–2010). His research integrates materials science, solid mechanics, and advanced manufacturing to develop physics-based models for structural materials, including high-temperature alloys, composites, and additive manufacturing processes. His ACME Laboratory focuses on microstructure-sensitive modeling, defect analysis, and experimental validation using advanced techniques like synchrotron X-ray diffraction and in-situ imaging. Key research interests include fatigue crack propagation, microstructural defect characterization, and computational tools for material lifing. He leads projects on rotating detonation rocket engines, ceramic matrix composites, and damage tolerance in aerospace materials. Notable awards include the NSF CAREER Award (2017) and DARPA Director’s Award (2016). Education: B.S. Mechanical Engineering, UIUC, 2002 M.S. Mechanical Engineering, UIUC, 2005 Ph.D. Mechanical Engineering, UIUC, 2010 Lab & Teams: Advanced Computational Materials and Experimental Evaluation (ACME) Lab, focusing on integrated computational and experimental approaches. Awards: NSF CAREER, DARPA Director’s Award, TMS Early Career Fellow, ASME Orr Award, and Purdue University Faculty Scholar.

Michael Preussمشاهده پروفایل

استاد

• Metallurgy
• Materials Science
• Materials Engineering
• +۲۳ مورد دیگر

Professor Michael Preuss is a leading academic in the Department of Materials Science & Engineering at Monash University, Faculty of Engineering, where he joined in August 2020. He also holds a 20% continuing position at the University of Manchester, UK, where he previously served in multiple leadership roles. His research focuses on the relationship between manufacturing, processing, and performance of structural materials, particularly titanium and zirconium alloys, nickel-base superalloys, and steels for high-temperature and nuclear applications. First Degree: Technical University Berlin, Germany PhD: Technical University Hamburg-Harburg, Germany Michael Preuss’s research interests lie at the intersection of materials processing and performance prediction. He investigates how microstructural evolution during manufacturing affects mechanical behavior, with a focus on reducing safety margins in safety-critical components such as aeroengine parts and nuclear fuel claddings. His work emphasizes in-situ characterisation using advanced tools like synchrotron X-ray , neutron diffraction , digital image correlation , and 3D X-ray tomography . The research is highly interdisciplinary, combining experimental data with modelling to understand degradation mechanisms under stress, temperature, and irradiation. The recent publications highlight a strong focus on irradiation damage in zirconium alloys , plasticity in Ni-base superalloys , and advanced alloy development . These works employ cutting-edge diffraction and imaging techniques to probe dislocation structures, phase evolution, and mechanical onset at micro scales, reflecting a trend toward physically based lifetime prediction models. His work is closely tied to large-scale facilities and national initiatives like the European Spallation Source and the Sir Henry Royce Institute. Scientific awards include: Grunfeld Memorial Medal (IOM3, 2013) ASTM Kroll Medal (lifetime achievement in zirconium research) EPSRC Leadership Fellowship (2011) Fellow of Materials, Minerals and Mining (2016) MWA Research Activation Fund (2024) Michael Preuss actively supervises PhD students and leads major research projects, including those funded by EPSRC and focused on fuel cladding (MIDAS) and advanced manufacturing. He collaborates extensively with researchers across institutions and industries. He chairs the Scientific Advisory Committee of the European Spallation Source and serves on panels for neutron facilities like ILL and ISIS. His labs and research teams are equipped for solid-state additive manufacturing, in-operando micromechanical testing, and advanced microstructural analysis, forming a robust ecosystem for materials innovation.

• Materials Science
• Metallurgy
• Additive Manufacturing
• +۳ مورد دیگر

Greta Lindwall is a Lecturer at the Royal Institute of Technology (KTH), specializing in materials science and additive manufacturing. She teaches courses such as Metallic Materials, Powder Metallurgy, and Materials in Design and Product Development. Her roles include examiner, course coordinator, and teacher for several advanced programs. Her research focuses on solidification processes in additive manufacturing, particularly using high-energy X-ray techniques and synchrotron imaging to study material behavior during electron beam and laser powder bed fusion. She has contributed to understanding microstructural evolution in steels, grain refinement mechanisms, and process optimization for materials like tool steels and stainless steel. Her work integrates experimental methods with computational modeling, including CALPHAD-based approaches for phase equilibria and microstructural prediction. Key research areas include real-time tracking of solidification, smoke mechanisms in electron beam processes, and the development of novel alloys for AM applications. Lindwall collaborates with initiatives like the LIGHTer Academy and has published extensively on topics such as phase transformations, material properties under AM conditions, and process monitoring technologies. Her contributions bridge fundamental materials science with advanced manufacturing techniques, aiming to improve material performance and process reliability.

Jianxiong Liمشاهده پروفایل

استادیار

• Advanced Manufacturing
• Cold Spray Additive Manufacturing
• Extreme Mechanics
• +۵ مورد دیگر

Jianxiong Li serves as an Assistant Professor in the Department of Mechanical Engineering at Texas A&M University's College of Engineering, where he leads research in advanced manufacturing and materials mechanics. His work bridges fundamental materials science with practical engineering applications in aerospace, biomedical devices, and energy systems. Educational Background: Ph.D. in Welding Engineering, Ohio State University (2022) M.Eng. in Materials Processing Engineering, Tianjin University (2017) B.E. in Materials Shaping and Controlling Engineering, Tianjin University (2014) Research Focus: Dr. Li's investigations span Cold Spray Additive Manufacturing , Extreme Mechanics , and Dynamic Mechanical Testing of nanocrystalline alloys and metal matrix composites. His lab develops novel solid-state joining techniques like impact welding for dissimilar materials, with emphasis on microstructural evolution under high strain rates (up to $10^9$ s$^{-1}$) and interfacial phenomena in biomedical-grade joints. Current projects explore chemical strengthening of glass powders, refractory high-entropy alloy coatings, and synchrotron-based load transfer analysis in composites. Publication Trends: Analysis of his 15 most recent publications (2020-2025) reveals three dominant themes: (1) Biomedical applications of microwelded NiTi-stainless steel joints with interfacial liquid control, (2) Fundamental studies of dislocation dynamics in nanocrystalline alloys at extreme strain rates, and (3) Process development for vaporizing foil actuator and laser-augmented impact welding of challenging material combinations. His work increasingly integrates advanced imaging techniques with mechanical testing. Scientific Recognition: Ohio State University Presidential Fellowship (2021) Research Infrastructure: Dr. Li directs the IM3D Lab (Imaging and Mechanics for Multi-scale Manufacturing), which specializes in high-speed imaging, synchrotron characterization, and mechanical testing of materials under extreme conditions. His group collaborates with national laboratories on vaporizing foil actuator technology and develops manufacturing solutions for next-generation biomedical devices and structural components.

• Materials Science and Engineering
• Mechanical Deformation Behavior of Materials
• Nanomechanics
• +۴ مورد دیگر

Gaurav Mohanty is an Assistant Professor at Tampere University's Materials Science and Environmental Engineering department within the Faculty of Engineering and Natural Sciences. His research focuses on deformation mechanisms of engineering materials at micro/nano scales using in-situ micromechanical testing in SEM environments. Key techniques include FIB-milled micropillars and cantilevers for studying mechanical properties under extreme conditions (cryogenic to ultra-high temperatures, strain rates from 0.0001 to 10,000/s). He explores transient plasticity, high-cycle fatigue, and combinatorial materials science across metals, ceramics, semiconductors, and thin films. Funding sources include the Academy of Finland, MATINE, and SAFIR. His work contributes to novel testing methodologies for small-scale materials and understanding deformation mechanisms. Research highlights include high-temperature nanoindentation systems, fracture studies in tungsten, and interfacial fracture toughness in dental prostheses. His research group emphasizes interdisciplinary collaborations, leveraging synchrotron X-ray diffraction and advanced EBSD analysis. Current projects address challenges in microscale fracture, high-rate deformation, and material design through combinatorial libraries.

• Ceramics
• Coatings
• Crystallographic Texture
• +۷ مورد دیگر

Luca Lutterotti is an Associate Professor at the University of Trento , Department of Industrial Engineering, specializing in material characterization techniques. His expertise spans X-ray diffraction (XRD) , X-ray fluorescence (XRF) , and electron diffraction , with a focus on nanomaterials , functional materials , and crystallographic texture . He developed the widely used MAUD software for Rietveld refinement and texture analysis, with over 30 daily downloads since 2000. Education : Laurea in Materials Engineering (1988, University of Trento, Italy), HDR in Fundamental Sciences (2010, Université de Caen-Basse Normandie) His research interests include micromechanics , residual stress analysis , quantitative phase analysis , and archeometry . He has led international projects like EIT Raw Materials Paired-X (2018-2021) and coordinated the SOLSA H2020 project (2016-2020), which introduced automated core analysis systems for mining. His work has secured €1.5 million in European funding. Recent publications emphasize combined XRD-XRF methodologies , neutron diffraction , and automated material analysis , particularly in mining and recycling. Key tools include MILK (Python interface for MAUD) and advanced detectors for portable systems. Scientific Awards : HDR (2010), Chaire of Excellence (2012-2014) He has held visiting positions at UC Berkeley , Université du Maine , and JAEA (Japan Atomic Energy Agency) , contributing to global collaborations in material science and mining technologies.

Claudia Rawnمشاهده پروفایل

استاد پژوهشی

• Neutron and X-ray diffraction
• Ceramic synthesis
• Structure-property relations
• +۶ مورد دیگر

Claudia Rawn is a Research Professor and Joint Faculty Member in the Department of Materials Science and Engineering at the University of Tennessee, Knoxville (UTK), affiliated with the Tickle College of Engineering. She is also a Senior Research Staff Member at Oak Ridge National Laboratory (ORNL). Her research focuses on neutron and X-ray diffraction techniques, ceramic synthesis, crystal structure analysis, and thermophysical properties of materials, with notable contributions to gas hydrates, biomaterials, and phase transition studies. Education: PhD in Materials Science and Engineering, University of Arizona (1995) MSc in Chemistry, George Mason University (1991) BSc in Materials Engineering, Virginia Tech (1986) Research Interests: Dr. Rawn’s work integrates experimental and computational methods to explore material behavior. Key areas include: Neutron/X-ray diffraction for in-situ structural analysis Phase transitions in ceramics and metallic alloys Biomimetic synthesis of nanomaterials (e.g., hydroxyapatite composites) Gas hydrate formation/decomposition mechanisms Thermal expansion and microstructural evolution in additively manufactured materials Awards: 2019, 2013, 2012 MSE Excellence in Service Award 2017 TCE Outstanding Faculty Advisor 2006 UTK Outstanding Young Researcher (Materials Science) ASM International Fellow Advising & Grants: Advises graduate students in materials science and collaborates on projects funded by DOE, NASA, and NSF. Leads educational outreach through the UT Materials Advantage Chapter and co-organizes ASM’s annual Materials Camp for K-12 students. Labs & Collaborations: Active in ORNL’s Materials Science and Technology Division, focusing on neutron scattering and advanced characterization. Serves on editorial boards for crystallography journals and professional committees.

• Crystal structure determination
• Powder X-ray diffraction
• Solid-state NMR spectroscopy
• +۶ مورد دیگر

Professor Kenneth Harris is a Distinguished Research Professor in the School of Chemistry at Cardiff University, specializing in the fundamental properties of solids and the development of advanced experimental techniques for materials characterization. His work bridges the gap between traditional crystallography and modern analytical methodologies, with a particular focus on overcoming limitations in structural analysis of complex materials. His research spans three primary interconnected themes: the development of techniques for determining crystal structures of organic solids directly from powder X-ray diffraction data; the advancement of in-situ solid-state NMR strategies for monitoring crystallization processes in real time; and the investigation of structural properties of anisotropic materials using polarized X-ray beam techniques, including the pioneering development of X-ray Birefringence Imaging (XBI). This work has significant implications for pharmaceutical development, materials science, and understanding biological crystallization processes. Analysis of his recent publications reveals a consistent trajectory toward increasingly sophisticated multi-technique approaches to materials characterization. His work increasingly integrates 3D electron diffraction, powder XRD, solid-state NMR, and computational methods like DFT calculations to solve previously intractable structural problems. A notable trend is the application of these methods to biologically relevant molecules (xanthine, riboflavin, L-tyrosine) and the development of techniques to monitor dynamic processes like crystallization and phase transitions in real time. His research demonstrates a shift from purely structural determination toward understanding the dynamic processes that govern material formation and transformation. Distinguished Research Professor title at Cardiff University Key contributor to the development of X-ray Birefringence Imaging Significant contributions to NMR crystallography methodologies Extensive publication record in top chemistry and materials science journals Professor Harris leads a research group focused on developing and applying cutting-edge techniques for materials characterization. His work has significant implications for pharmaceutical development, where understanding crystal structure and polymorphism is critical for drug efficacy and safety. His group has developed innovative approaches to monitor crystallization processes in real time, which has applications in both industrial manufacturing and understanding natural biomineralization processes. The group maintains strong collaborations with researchers across multiple disciplines, including physics, biology, and engineering, reflecting the interdisciplinary nature of modern materials science research.

David Collinsمشاهده پروفایل

دانشیار

• Materials Science
• Metallurgy
• Superalloys
• +۴ مورد دیگر

Dr David Collins serves as the Mike Ashby Associate Professor in Materials Science at the Department of Materials Science and Metallurgy, University of Cambridge, and is a core member of the Rolls-Royce University Technology Centre (UTC) focused on advanced aerospace materials. His research spans superalloys , titanium alloys , and high-entropy alloys , with expertise in phase transformations , high-temperature deformation , and microstructural evolution . He pioneers advanced characterization techniques including in-situ synchrotron X-ray diffraction , electron backscatter diffraction (EBSD) , and three-dimensional X-ray diffraction (3DXRD) to investigate grain-scale stress interactions and failure mechanisms under extreme conditions. Analysis of his 2023-2025 publications reveals dominant trends in additive manufacturing validation , oxidation/corrosion resistance of superalloys , and grain-resolved mechanical behavior using coupled experimental-computational approaches. His work frequently addresses Rolls-Royce-relevant challenges in jet engine materials, particularly nickel-based superalloy performance under cyclic thermal-mechanical loading. No specific scientific awards for Dr Collins are mentioned in available departmental communications, though the Rolls-Royce UTC recently celebrated prizes for other researchers. Details regarding student supervision and grant funding are not publicly specified, but his position within the EPSRC- and Rolls-Royce-funded UTC indicates active involvement in large-scale collaborative research projects. As part of the Rolls-Royce UTC infrastructure, Dr Collins utilizes specialized facilities including electro-thermal mechanical testing rigs, cyclic oxidation test systems, and synchrotron beamline partnerships for real-time microstructural analysis during deformation and phase transformations.

• X-ray Diffraction
• Crystallography
• Materials Science
• +۶ مورد دیگر

Prof. Radomír Kužel is a distinguished physicist at the Department of Condensed Matter Physics within the Faculty of Mathematics and Physics at Charles University . With a career spanning over three decades, he has made significant contributions to X-ray diffraction analysis and materials science. 1975: Secondary Education at Gymnasium Čakovice 1980: RNDr. in Solid State Physics, Charles University 1989: Ph.D. (CSc.) in X-ray Diffraction Analysis 2001: Docent Title 2015: Professor Appointment by the Czech Republic President His research focuses on X-ray diffraction studies of polycrystalline materials, thin films, and nanomaterials. Key areas include dislocation dynamics, residual stress analysis, texture development, and microstructural characterization using advanced diffraction techniques. He pioneered methods for dislocation type determination from line broadening and developed analytical approaches for microstructural parameters in nitrides and oxides. Recent publications highlight his work on TiO₂ thin films , hexaferrite synthesis , and ECAP-processed metals , demonstrating expertise in structure-property relationships and thermal stability of nanomaterials. His 2021 study on W-type hexaferrite thin films exemplifies his ongoing innovation in magnetic materials. Prague Convention Bureau Hybrid Congress Award (2022) Prof. Kužel has organized major international conferences, including the 25th IUCr Congress (2021) and multiple European Powder Diffraction Conferences . He serves on editorial boards (e.g., Materials Structure ) and leads the Czech Crystallographic Society.

Florencia Malamudمشاهده پروفایل

پژوهشگر

• Neutron Imaging
• Materials Science
• Crystallography
• +۳ مورد دیگر

Florencia Malamud is a Researcher and Instrument Scientist at the Paul Scherrer Institute (PSI), leading the POLDI instrument in the Laboratory for Neutron Scattering and Imaging. Her work focuses on advanced neutron-based techniques for material characterization, including Bragg edge imaging, diffraction contrast imaging, and texture analysis. She specializes in studying crystallographic structures, phase transformations, and mechanical behaviors in materials such as high-Mn steels, superalloys, and superconductors. Her research integrates experimental methods like neutron diffraction and tomography to investigate industrial materials (e.g., additive manufacturing components) and historical artifacts (e.g., Napoleonic-era copper bolts). Key areas include optimizing material properties through composition and processing, and understanding deformation mechanisms in metallic materials. Malamud’s publications span materials science, metallurgy, and neutron scattering applications. She collaborates on projects involving nuclear-grade materials, aerospace alloys, and archaeological metallurgy. Her work emphasizes bridging fundamental physics with applied engineering challenges. No scientific awards are explicitly mentioned. Her advising and grants are not detailed in the provided texts. She is affiliated with PSI’s neutron scattering laboratory and contributes to instrumentation development for advanced materials research.

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.

Eric Colletمشاهده پروفایل

استاد

• Functional materials
• Ultrafast photoinduced phase transitions
• Spin crossover
• +۵ مورد دیگر

Eric Collet is an Exceptional Class Professor at the University of Rennes and Senior Member of the Institut Universitaire de France (IUF). He leads the Materials and Light Department at the Institut de Physique de Rennes (IPR) and co-directs the CNRS-funded International Research Laboratory DYNACOM with Prof. S. Ohkoshi. His research focuses on ultrafast photo-induced phase transitions, spin crossover phenomena, and symmetry-breaking dynamics in functional materials, leveraging advanced techniques like femtosecond spectroscopy and X-ray free-electron lasers. Collet investigates coupled electronic-structural dynamics, elastic cooperativity, and light-driven phase transitions. His work bridges condensed matter physics, materials chemistry, and ultrafast science, with themes including: Ultrafast photo-switching of spin states Charge-transfer-driven lattice reorganization Non-equilibrium material responses Coherent structural control using light/THz excitation His publications emphasize ultrafast structural dynamics, spin crossover cooperativity, and photo-magnetic switching, frequently utilizing synchrotron/X-FEL facilities to resolve femtosecond-scale processes. Major scientific awards include: CNRS Silver Medal (2020) for research originality Louis Ancel Prize (2017) for condensed matter physics breakthroughs Alajos Kálmán Prize (2022) from the European Crystallographic Association Senior IUF Chair (2022–2027) He directs international collaborations (e.g., France-Japan DYNACOM) and oversees ANR/JSPS-funded projects. No student advisees are listed in available data.

• Porous Materials Chemistry
• Ionothermal Synthesis
• Metal-Organic Frameworks (MOFs)
• +۳ مورد دیگر

Prof Russell Morris is the Bishop Wardlaw Professor at the School of Chemistry, University of St Andrews. His research focuses on porous materials, ionothermal synthesis, metal-organic frameworks (MOFs), and their applications in medicine and energy storage. He pioneered the ADOR principle for synthesizing 'unfeasible' porous materials and ionothermal methods for creating novel materials, including quantum spin liquids. Morris has spun out companies like Zeomedix and MOFgen to commercialize his work. Research Interests: Development of ADOR methodology for zeolite synthesis Ionothermal synthesis of functional materials Medical gas delivery via MOFs and zeolites Characterization via X-ray diffraction and NMR His work bridges chemistry, biology, and materials science, with notable achievements like first demonstrations of anti-thrombosis activity in MOFs and NO delivery systems. Morris has been recognized with awards such as the Royal Society Brian Mercer Award and holds eight of the top-cited ionothermal synthesis papers. Awards: Donald Breck Award nomination Royal Society Brian Mercer Award GEMI Award Royal Society of Chemistry Applied Inorganic Chemistry Award Morris advises PhD students in materials chemistry and collaborates with industry through roles like Royal Society Industry Fellow with Sasol Technology UK. His research groups focus on sustainable synthesis, energy storage materials, and advanced characterization techniques.

Yu U. Wangمشاهده پروفایل

استاد

• Phase Transforming Materials
• In-Situ Synchrotron X-Ray Diffraction
• Neutron Scattering
• +۵ مورد دیگر

Yu U. Wang is a Professor in the Department of Materials Science and Engineering at the College of Engineering, Michigan Technological University. His research integrates experimental characterization and computational modeling to advance functional materials science, with a focus on phase transformations and microstructure-property relationships. Dr. Wang's educational background includes: PhD in Mechanical and Aerospace Engineering from Rutgers University BS in Mechanical Engineering from the University of Science and Technology of China His research spans phase transforming materials, in-situ synchrotron X-ray and neutron scattering techniques, diffuse scattering analysis, ferroelectric/magnetoelectric composites, colloidal self-assembly systems, and computational microstructure modeling. This work bridges fundamental materials physics with applications in energy harvesting, sensing, and advanced ceramics, emphasizing the interplay between nanoscale phenomena and macroscopic properties. Analysis of Dr. Wang's publications reveals a sustained focus on computational materials science, particularly phase field modeling applied to ferroelectric and shape-memory systems. His research consistently combines theoretical frameworks with experimental validation through diffraction techniques, targeting high-strain piezoelectrics, magnetoelectric composites, and nanodomain engineering for next-generation functional materials. Scientific awards received by Dr. Wang are not specified in the available documentation. Details regarding graduate student advising, research grants, and laboratory facilities are not provided in the source material, though his extensive publication record indicates active research supervision and project leadership.