جستجوی استاد راهنمای دانشگاهی

Dr. Bastian Pfau serves as Department Head of the “Imaging and Coherent X-rays” (B2) division and Project Coordinator for “Transient Structures and Imaging with X-rays” at the Max Born Institute in Berlin, where he has conducted postdoctoral research since 2016. His work pioneers nanoscale magnetic imaging using coherent X-ray techniques, with significant contributions to ultrafast magnetization dynamics and topological spin structures. His academic foundation includes a Dr. rer. nat. (PhD) in Physics from Technical University Berlin (2013) with thesis “Imaging magnetic nanostructures using soft x-ray Fourier transform holography,” and a Diplom (MSc) in Physics from Technical University Dresden (2006) focused on “Combining photon correlation spectroscopy and fluctuation analysis for investigating diffusion dynamics.” Additional research experience spans Lund University (2014-2015), Technical University Berlin (2010-2013), and Helmholtz Center Berlin (2006-2010). Dr. Pfau’s research centers on developing and applying X-ray holography and coherent diffraction imaging to visualize magnetic nanostructures at nanometer-femtosecond scales. His group specializes in ultrafast magnetization dynamics , skyrmion imaging , and element-specific magnetic probing using soft X-rays. Key innovations include achieving 5 nm resolution magnetic imaging and demonstrating all-optical helicity-independent switching via plasmonic nanostructures, with applications in next-generation spintronic devices and magnetic storage technologies. Analysis of his 15 most recent publications reveals dominant themes in nanoscale magnetic imaging (particularly skyrmions and topological textures), ultrafast opto-magnetic effects using extreme ultraviolet radiation, and advanced X-ray methodologies for capturing transient magnetic states. His work consistently bridges fundamental physics with practical instrumentation development, as evidenced by contributions to laser-driven plasma sources and tabletop X-ray setups. As Department Head of B2, Dr. Pfau leads a multidisciplinary team operating cutting-edge X-ray microscopy facilities at MBI. The group maintains strong collaborations with international synchrotron facilities (including BESSY II) and free-electron laser centers, focusing on developing MHz-repetition-rate pump-probe capabilities and high-resolution magnetic imaging techniques. Current projects emphasize real-time visualization of light-induced phase transitions and magnetic switching phenomena in functional materials.

• X-ray Holography
• Magnetic Imaging
• Ultrafast Dynamics
• +۵ مورد دیگر

Flora Meilleur serves as a Neutron Scattering Scientist at Oak Ridge National Laboratory (ORNL) working on the IMAGINE and MaNDi diffractometers (HFIR CG-4D and SNS BL-11B), and holds a joint appointment as Associate Professor in the Biochemistry Department at North Carolina State University since 2007. She joined ORNL in 2005 after completing her PhD and has been instrumental in developing neutron scattering capabilities for structural biology research. Dr. Meilleur earned her Ph.D. in Structural Biology from the European Molecular Biology Laboratory (EMBL) and Université Grenoble Alpes (Grenoble, France) in 2004. Prior to joining ORNL, she served as an instrument scientist at the Institut Laue Langevin (ILL) on the LADI diffractometer. She was promoted to Associate Professor at NCSU in 2015 and established a university consortium that secured NSF funding to build the IMAGINE instrument at HFIR in 2009, serving as lead scientist for this project from 2009-2017. Her research focuses on applying neutron scattering techniques to understand enzymatic mechanisms, particularly in cellulose-degrading enzymes including lytic polysaccharide monooxygenases. She leads projects on cellulose deconstruction for biofuel production, nylon depolymerization, and enzyme immobilization in biopolymer matrices. Her laboratory employs a multidisciplinary approach combining X-ray and neutron diffraction and scattering, DFT calculations, and isotopic labeling techniques to study protein structure, dynamics, and function. Current research includes characterizing nylon hydrolases in collaboration with Dr. Josh Michener and studying biopolymer matrices as part of the BIG collaboration funded by the Novo Nordisk Foundation. Analysis of Dr. Meilleur's recent publications reveals a consistent focus on advancing neutron scattering methodologies for structural biology, with particular emphasis on enzymatic mechanisms in biomass degradation. Her work spans fundamental method development (beamline instrumentation, sample environments) to biological applications (viral proteins, polymer-degrading enzymes). A notable trend is the expansion of neutron techniques to study challenging biological questions, including time-resolved studies and complex enzyme systems, with increasing applications to viral research as evidenced by her SARS-CoV-2 related publications. 2013 ORNL Significant Event Award (Team award for construction and commissioning of CG4-D beamline and IMAGINE instrument; Role: Science lead) Dr. Meilleur has mentored numerous graduate students and post-doctoral fellows who utilize small angle X-ray/neutron scattering, X-ray/neutron crystallography, and computational methods in their research. She serves as Editor for the Journal of Applied Crystallography (2015-present) and was appointed as a main editor in 2021. She also mentors for the IUCr Early Career Board (2025-present) and previously served as Secretary of the Neutron Scattering Society of America (2019-2022). She has organized and led the annual 'Neutrons in Structural Biology' workshop at ORNL since 2010, fostering community development in this specialized field. Dr. Meilleur leads the Meilleur lab at NC State which focuses on structural enzymology using neutron scattering techniques. Her laboratory collaborates extensively with researchers at ORNL's High Flux Isotope Reactor and Spallation Neutron Source facilities. She has served on multiple professional committees including the SNS/HFIR user committee (SHUG) from 2007-2009 and as a member-at-large of the NSSA between 2008-2012, demonstrating sustained leadership in the neutron scattering community.

• Protein Chemistry
• Neutron Crystallography
• Cellulose Degrading Enzymes
• +۵ مورد دیگر

Danae Polsin is an Assistant Professor in the Department of Mechanical Engineering at the Hajim School of Engineering & Applied Sciences, University of Rochester. Her research focuses on high-energy-density physics, shock wave dynamics, and x-ray diffraction techniques. She investigates material behavior under extreme conditions such as laser-driven compression, inertial confinement fusion, and multimegabar pressures. Dr. Polsin’s work addresses fundamental questions in condensed matter physics, including phase transitions, metallurgical transformations, and electronic structure evolution under extreme pressures and temperatures. Her research leverages cutting-edge facilities like the National Ignition Facility (NIF) and OMEGA Laser, where she develops diagnostic tools such as time-resolved x-ray diffraction systems to study warm dense matter and shock-compressed materials. Her recent studies include isostructural phase transitions in materials under laser shock, melt dynamics in nickel and iron compounds, and the structural complexity of sodium at high pressures. She collaborates on inertial confinement fusion projects, validating implosion models and advancing fusion energy systems through experimental design and multimessenger measurements. Danae Polsin’s research emphasizes bridging experimental observations with theoretical models, contributing to our understanding of material behavior at terapascal pressures and informing applications in energy systems and advanced materials science.

• X-ray Diffraction and Crystallography
• Shock Waves
• Inertial Confinement Fusion
• +۳ مورد دیگر

Prof. Thomas Fennel is a faculty member at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy, leading the department A1: Strong Field Processes at Extreme Wavelengths. His research focuses on ultrafast phenomena in strong-field physics, nanoplasma dynamics, and quantum coherent imaging. He has pioneered work on attosecond electron emission, laser-driven nanoplasma expansion, and light-induced dynamics in nanoscale systems. His educational background includes advanced studies in physics and optics, though specific degrees are not detailed here. His lab specializes in experimental and theoretical investigations of extreme light-matter interactions, particularly at the nanoscale. Key techniques include time-resolved spectroscopy, diffraction imaging, and ultrafast laser systems. Recent publications explore topics like subcycle metallization of nanoparticles, attosecond electron emission from metal tips, and quantum coherence in nanostructures. These contributions highlight his leadership in advancing ultrafast science and nanoscale optics. No awards are explicitly mentioned, though his prolific publication record indicates significant contributions to the field. He collaborates extensively with international teams on projects involving femtosecond imaging, plasma dynamics, and strong-field ionization. His work bridges fundamental physics with applications in nanotechnology and quantum photonics, positioning him as a key figure in modern ultrafast science.

• Strong-Field Physics
• Ultrafast Processes
• Nanoplasma Dynamics
• +۳ 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.

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

Zhenxing Feng is an Associate Professor in the School of Chemical, Biological, and Environmental Engineering at Oregon State University (OSU). He leads the Feng Research Group, focusing on energy storage and conversion systems, including lithium-ion batteries, aqueous metal-ion batteries, fuel cells, and electrocatalysts for water splitting and CO₂ reduction. His work integrates advanced synchrotron X-ray techniques for in situ, time-resolved studies of material behavior under operational conditions. Education: Ph.D. in Materials Science and Engineering, Northwestern University (2011) M.S. in Physics, McGill University (2006) B.S. in Physics, Peking University (2004) His research interests span thin film synthesis, electrochemical testing, and advanced X-ray characterization techniques such as surface X-ray diffraction, X-ray absorption spectroscopy, and imaging. He has received notable awards, including the 2023 ONR Summer Fellowship and the 2021 Action Research Scholar award. His group actively explores novel materials for sustainable energy systems and has published extensively on topics like solid-state battery interfaces and atomically dispersed catalysts. Recent projects include developing durable aqueous sodium-ion batteries, improving oxygen evolution reaction (OER) catalysts, and studying interfacial processes in energy storage devices using synchrotron-based methods. He mentors graduate and undergraduate students in experimental and theoretical aspects of materials science and electrochemistry. Feng collaborates with institutions like Argonne National Laboratory and MIT, contributing to initiatives in renewable hydrogen and energy storage. His lab emphasizes interdisciplinary approaches, combining computational modeling, synthesis, and advanced characterization to innovate in sustainable energy technologies.

• Energy Storage Systems
• Electrochemical Energy Conversion
• Catalysis
• +۵ مورد دیگر

Toh-Ming Lu is a Professor in the Department of Physics, Applied Physics & Astronomy at Rensselaer Polytechnic Institute (RPI). He joined RPI in 1982 and served as Department Chairman from 1992 to 1997. His research focuses on novel materials for advanced electronics and energy applications, particularly thin-film epitaxy of semiconductors. Ph.D. in Physics from the University of Wisconsin, Madison His research spans epitaxy of 3D semiconductors on 2D substrates, thermal conductivity in boron arsenide, and flexible solar cells using antimony selenide. Publications highlight applications of van der Waals epitaxy, graphene interfaces, and defect-engineered materials. Recent work trends include scalable synthesis of semiconductor films, interfacial strain management, and characterization techniques like azimuthal RHEED and X-ray diffraction. His team has explored both inorganic and hybrid perovskite materials for optoelectronic applications. 2004 Materials Research Society Medal Award 2005 SRC Faculty Leadership Award Fellow of four major scientific societies

• Physics
• Materials Science
• Semiconductor Research
• +۴ مورد دیگر

Ryan Hurley is an Associate Professor in the Department of Mechanical Engineering at Johns Hopkins University's Whiting School of Engineering, with a secondary appointment in the Department of Civil and Systems Engineering. He is a Fellow of the Hopkins Extreme Materials Institute (HEMI) and leads a research group focused on the mechanics of granular and geologic materials, multiscale modeling, and 3D materials characterization. PhD, California Institute of Technology (Caltech), 2015 Postdoctoral Research, Lawrence Livermore National Laboratory (LLNL), 2015–2017 Joined JHU Faculty, 2018 His research interests center on understanding the mechanical behavior and failure mechanisms of granular materials, rocks, concrete, and ceramics through novel experiments and numerical models. He specializes in in-situ X-ray imaging and diffraction to observe deformation at micro and mesoscales. Key areas include impact physics, wave propagation, and rapid compaction, with applications in asteroid deflection and structural safety. His group develops digital twin models to simulate material behavior across scales. The research publications reveal a strong trend in multiscale experimental mechanics of geomaterials, combining high-resolution imaging with computational modeling. His work frequently appears in top journals such as Journal of the Mechanics and Physics of Solids , Proceedings of the National Academy of Sciences , and International Journal of Solids and Structures , focusing on granular dynamics, fracture, compaction, and constitutive modeling. Scientific awards include: NSF CAREER Award (2020) AFOSR Young Investigator Program (YIP) Award (2022) AEOP Mentor of the Year (2021) Department of Energy Secretary’s Appreciation Award (2017) Hurley has secured significant research funding from NSF, AFOSR, ARL, DOE, and DTRA . He actively mentors PhD, postdoctoral, and undergraduate students, and his group has produced numerous publications. He serves as co-editor of Open Geomechanics and has reviewed for major journals and funding agencies. Since 2021, he has chaired the annual Mach Conference. His research group operates within the Hopkins Extreme Materials Institute (HEMI) and utilizes advanced facilities including synchrotron X-ray sources and high-speed imaging systems for impact experiments.

• Mechanics of Structurally Complex Materials
• Granular and Geologic Materials
• Multiscale Materials Modeling
• +۱۲ مورد دیگر

Paul Evans is a Professor in the Department of Materials Science & Engineering at the University of Wisconsin-Madison, College of Engineering. His research focuses on nanoscale materials synthesis, ultrafast dynamics, and advanced X-ray characterization techniques. PhD, Harvard University (2000) MS, Harvard University (1996) BS, Cornell University (1994) Evans investigates solid-phase epitaxy of complex oxides, strain imaging in acoustic devices, and optically driven phase transitions. His work combines experimental and computational approaches, including deep learning for diffraction data analysis. His recent publications highlight breakthroughs in nanoscale crystallization, ultrafast magnetization dynamics, and hybrid magnon-phonon systems. Awards include the Bascom Professorship and Vilas Mid-Career Award. Surface Science and Technology Bascom Professorship (2022) Vilas Associate Award (2019) Polygon Engineering Outstanding Instructor Award (2006) Evans teaches courses in materials structure, advanced X-ray methods, and thesis research. His lab enables scalable synthesis of perovskites and defect-minimized oxide heterostructures.

• Materials Science
• Solid-State Physics
• X-ray Diffraction
• +۳ مورد دیگر

Claus M. Schneider is a Professor at the Faculty of Physics, University of Duisburg-Essen, and director of the Peter Grünberg Institute (PGI-6) at Forschungszentrum Jülich. His research focuses on the electronic structure of quantum materials, particularly correlated electron systems, using advanced photoelectron spectroscopy techniques. Current affiliations: University of Duisburg-Essen, Forschungszentrum Jülich Key experimental facilities: Synchrotron radiation sources DELTA (Dortmund), BESSY (Berlin), ELETTRA (Trieste) His work investigates the fundamental connections between electronic structure and physical properties like superconductivity, magnetism, and giant magnetoresistance. Techniques include high-resolution photoelectron spectroscopy with laboratory sources and synchrotron-based nanospectroscopy, enabling energy, spatial, and temporal resolution at atomic scales. Recent research highlights include the discovery of tunable orbital angular momentum in crystals and the production of the first 2D semimetal with spin-selective conductivity. His group operates specialized equipment such as a microwave-excited rare gas lamp system for photoemission and a hemispherical analyzer with spin-polarization analysis capabilities. The group's experimental infrastructure spans laboratory-based ARPES systems and synchrotron beamlines optimized for angle- and spin-resolved studies of magnetic multilayers, interfaces, and topological materials. All experiments are conducted under ultra-high vacuum conditions, with integrated surface preparation and characterization tools.

• Condensed Matter Physics
• Electronic Structure of Materials
• Spintronics
• +۵ مورد دیگر

Vitali Goussev is a Distinguished Professor at Le Mans Université, France, working at the Laboratory of Acoustics of the University of Maine (LAUM), a joint research unit with CNRS. He has been a professor at the École Nationale Supérieure d'Ingénieurs du Mans (ENSIM) since 1998, contributing significantly to the fields of acoustics, laser ultrasonics, and photoacoustics. Professor Goussev earned his PhD in physics and mathematics (laser physics) in 1982 from Moscow State University, Russia, followed by habilitations in mathematics and physics (acoustics) at Moscow University in 1992 and at Le Mans University in 1997. His academic journey spans institutions in Russia, France, Japan, Germany, and Canada through various prestigious fellowships. His research focuses on nonlinear acoustics, thermo-acoustics, laser ultrasonics, photoacoustics, interaction of laser radiation with matter, laser-induced ultrafast phenomena, physics of semiconductors and nanomaterials, and acoustic metamaterials . His work has significantly advanced our understanding of acoustic wave propagation in complex media, particularly granular materials and nanostructures. His recent research emphasizes time-domain Brillouin scattering applications for imaging, nonlinear laser ultrasound, acoustics of granular media, and non-destructive testing and evaluation of nanomaterials. Analysis of his 15 most recent publications reveals a strong trend toward advanced imaging techniques, particularly using time-domain Brillouin scattering for nanoscale characterization. His work bridges fundamental physics with practical applications in materials science, semiconductor technology, and non-destructive testing. A significant portion of his recent research focuses on understanding acoustic phenomena in complex materials like granular media, ice phases, and ferroelectric nanostructures. 2024: Gerald J. Diebold Prize in Theoretical Photoacoustics and Photothermics 2023: VEBLEO Fellow 2016: Fellow of the American Physical Society 2013: Fellow of the Acoustical Society of America 2010: Gay Lussac – Humboldt Research Award 2009: Knight in the Order of Academic Palms 2007: French Medal of the French Acoustical Society 2006: Senior Member of the Institute of French Universities (IUF) 2004: Senior Prize of International Photoacoustic and Photothermal Association Professor Goussev has served on numerous scientific committees including the International Advisory Board of the International Congress on Ultrasonics and the Advisory Committee of the International Conferences on Photoacoustic and Photothermal Phenomena. He is also a member of editorial boards for international journals including "Applied Sciences," "Scientific Reports," and "Photoacoustics." His laboratory, part of the Laboratoire d'Acoustique de l'Université du Mans (LAUM), conducts cutting-edge research in materials acoustics, opto-acoustics, ultrasonics, and related fields, with a strong focus on both theoretical and experimental approaches.

• Nonlinear acoustics
• Thermo-acoustics
• Laser ultrasonics
• +۶ مورد دیگر

Dr. Adi Natan is a Staff Scientist at SLAC National Accelerator Laboratory and Principal Investigator at Stanford PULSE Institute, Stanford University. His research focuses on imaging ultrafast atomic motion and quantum dynamics in complex systems using X-ray free-electron lasers (LCLS) and advanced computational tools. Education: PhD in Physics, Weizmann Institute of Science M.Sc. in Biological Physics, Weizmann Institute B.Sc. in Physics, Hebrew University Dr. Natan’s work uncovers light-matter interactions at atomic scales, particularly in strong-field environments and transition metal catalysis . His team develops real-space inversion and super-resolution methods to bypass traditional diffraction limits, enabling spatiotemporal imaging of molecular processes like photodissociation , non-adiabatic transitions , and electron delays . Key findings include: Observing Fe(CO)₅ photodissociation dynamics and energy redistribution. Characterizing deformational isomers in bridged metal complexes using ultrafast X-ray solution scattering. Mapping sub-femtosecond molecular vibrations and attosecond electron motion . His methodologies integrate X-ray scattering , Legendre decomposition , and Fourier analysis to resolve quantum processes in real space , advancing applications in catalysis , quantum control , and ultrafast chemistry . Dr. Natan’s group at PULSE includes postdoctoral researchers , graduate students , and collaborators , focusing on experimental and computational protocols for emerging X-ray facilities like LCLS-II.

• Ultrafast X-ray Imaging
• Quantum Dynamics
• Light-Matter Interaction
• +۵ 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.

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

• Materials Science
• Metallurgy
• Superalloys
• +۴ 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.

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