Kristina Edström is a Professor at Uppsala University, specifically affiliated with the Department of Chemistry, Structural Chemistry unit at Ångström Laboratory. She is a leading expert in battery technology and electrochemistry, with extensive research on lithium-ion and sodium-ion batteries, solid-state electrolytes, and surface chemistry of battery components. Current research focuses on battery interfaces (SEI/CEI), polymer-ceramic composite electrolytes, and sustainable battery materials Key methodologies include X-ray photoelectron spectroscopy (XPS), neutron diffraction, and molecular dynamics modeling Recent publications (2024-2025) investigate: boron-modified solid electrolytes, self-healing polymer electrolytes, aqueous Li-ion systems, and manufacturing sustainability for batteries. Her work shows strong emphasis on improving battery safety, efficiency, and environmental impact. Leadership roles include participation in Battery 2030+ research initiatives and NordBatt conferences. She has contributed to developing standardized experimental workflows combining neutron/synchrotron techniques with AI-driven battery research.
Jens Dittmer is a Professor at Le Mans University, affiliated with the Institute of Molecules and Materials of Le Mans (IMMM). His research focuses on advanced solid-state NMR techniques for studying paramagnetic systems, ion conductors, hybrid perovskites, and polymer degradation. Key projects include developing NMR methods for paramagnetic materials, analyzing lithium garnets for battery applications, and collaborating with Pratt Institute on art conservation using NMR. Primary Affiliation: Institute of Molecules and Materials of Le Mans (IMMM), Le Mans University Research Highlights: Paramagnetic Solid-State NMR, Ion Mobility in Garnets, Hybrid Perovskite Photovoltaics, Polymer Degradation in Art Conservation His work bridges fundamental NMR physics with applied material science, particularly in energy and cultural heritage sectors. Collaborations span international institutions including University of Rennes, ParisTech, and Pratt Institute. Current projects emphasize sustainable material design and non-invasive analytical techniques.
Huck Beng Chew is a Professor in the Department of Aerospace Engineering at the University of Illinois at Urbana-Champaign (UIUC). His research focuses on materials science, mechanical engineering, and nanocomposite interfaces, with a particular emphasis on grain boundary dynamics, molecular dynamics simulation, and fracture mechanics. He leads studies on advanced materials such as titanium composites, boron nitride nanotubes, and magnesium alloys, investigating their deformation mechanisms, fatigue behavior, and interfacial strengthening. Chew’s work bridges experimental and computational approaches, utilizing techniques like synchrotron X-ray diffraction, molecular dynamics modeling, and physics-informed neural networks. His research addresses challenges in additive manufacturing, fracture toughness, and ion-beam interactions with materials. Collaborations span interdisciplinary fields, including aerospace engineering, plasma physics, and nanotechnology. Notable contributions include studies on cohesive zone laws for fatigue cracks, microvoiding damage modeling, and interfacial mechanics in nanolayered alloys. His work has been published in high-impact journals such as Acta Materialia , Journal of the Mechanics and Physics of Solids , and Materialia . Chew’s research is supported by grants focusing on nanocomposite mechanics and 3D-printed ceramics. His findings advance material design for high-strength applications in aerospace, energy storage systems, and thermal protection materials.
Professor Markus Braden is a distinguished faculty member at the University of Cologne's Institute of Physics, where he leads the X-ray and Neutron Scattering Group. His research focuses on understanding the structural and magnetic properties of complex materials using advanced scattering techniques, with particular emphasis on strongly correlated electron systems and quantum materials. Braden's research interests span condensed matter physics, with special focus on unconventional superconductors, materials exhibiting strong spin-orbit coupling, and multiferroic compounds. His group employs both X-ray and neutron scattering methods to investigate crystal structures and excitation spectra in transition metal compounds, particularly those with 4d and 5d elements like ruthenates and iridates. The group has made significant contributions to understanding the magnetic interactions in α-RuCl3 as a candidate for Kitaev physics, the magnetic properties of Sr2RuO4 as a potential unconventional superconductor, and the complex behavior of multiferroic materials where magnetic order couples with ferroelectric polarization. Recent publications reveal Braden's leadership in polarized neutron scattering techniques, particularly in studying magnetic excitations with chiral properties and directional dependencies. His work on ruthenates has demonstrated how spin-orbit coupling creates highly anisotropic magnetic interactions, while research on multiferroics has revealed novel domain dynamics and electric field control mechanisms. The group frequently collaborates with international neutron facilities including MLZ in Garching and ILL in Grenoble. Braden supervises multiple PhD students and postdoctoral researchers, fostering expertise in neutron and X-ray techniques. His laboratory utilizes advanced instrumentation including the KOMPASS spectrometer, a cold triple-axis neutron spectrometer optimized for polarization analysis developed in collaboration with Prof. Böni's group, as well as X-ray diffractometers and crystal growth facilities for sample preparation.
Associate Professor Christopher Wensrich is a faculty member in the School of Engineering at the University of Newcastle, Australia, specializing in Mechanical Engineering. He has a strong background in applied mechanics from both computational and experimental perspectives, with significant expertise in granular mechanics, neutron diffraction strain measurement, and Bragg-edge transmission strain tomography. Education: PhD, University of Newcastle Bachelor of Mathematics, University of Newcastle Bachelor of Engineering, University of Newcastle Professor Wensrich's research focuses on several interconnected areas within mechanical engineering and materials science. His primary expertise lies in granular mechanics, spanning from micromechanics and homogenization of granular systems to analytical modeling of granular dynamics (particularly the silo quaking problem) and computational modeling using the Discrete Element Method (DEM). He is also a pioneer in applying neutron diffraction strain scanning techniques to granular systems. In the broader field of applied mechanics, he has made significant contributions to neutron diffraction-based strain measurement, including breakthroughs in Bragg-edge Transmission Strain Tomography, where he demonstrated the world's first practical application outside of simple axisymmetric systems. His publication record demonstrates a consistent focus on developing and applying advanced techniques for strain measurement and reconstruction in granular and composite materials. His recent work has centered on tomographic reconstruction methods using neutron diffraction, with particular emphasis on Bragg-edge techniques for 2D and 3D strain field reconstruction. His research bridges theoretical mathematics, computational methods, and experimental validation, creating a robust framework for non-destructive stress measurement in complex materials. Professional Recognition: President of the Australian Neutron Beam User Group (ANBUG) since December 2022 Member of the ACNS Program Advisory Team at ANSTO (Australian Nuclear Science and Technology Organisation) since March 2019 Visiting Fellow at Clare Hall College, Cambridge University (January-June 2023) Visiting Researcher at Isaac Newton Institute for Mathematical Sciences (January-June 2023) Professor Wensrich has secured substantial research funding, with a total of $5,478,793 across 42 grants. His funding portfolio includes projects from the Australian Research Council (ARC), ANSTO, and international partners like Oakridge National Laboratory and Japan Proton Accelerator Research Complex. He has successfully supervised 11 PhD and Masters students to completion, with research topics spanning granular mechanics, conveyor systems, and neutron strain tomography. His current research involves collaborations with institutions worldwide, focusing on advanced strain measurement techniques and their application to complex material systems.
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.
Jared M. Allred is an Associate Professor at the University of Alabama in the Department of Chemistry and Biochemistry , affiliated with the College of Arts and Sciences. His research focuses on solid state chemistry, inorganic materials, and magnetic systems, utilizing advanced x-ray and neutron diffraction techniques to explore structure-property relationships. Education: BS from Case Western Reserve University (2007), PhD from Princeton University (2012), Postdoctoral work at Argonne National Laboratory (2012-2015). Research Interests: The Allred group investigates inorganic materials with functional properties, particularly magnetic and multiferroic systems. They emphasize atomic-scale characterization to guide synthesis of materials with tailored electronic, magnetic, and structural behaviors. Recent work includes studies on 1D superconductors, layered chalcogenides, and transition metal oxides. Scientific Contributions: His publications span high-impact journals like Nature Physics and Physical Review Letters , addressing topics in superconductivity, magnetic ordering, and structural transitions. Emerging themes include materials engineering across localized-delocalized electron boundaries and geometric frustration effects. Students: Advisees include PhD graduates Matt Davenport and Tyra Douglas , and current student Nolan Stager . News Highlights: • June 2022: Shared educational resources on scientific image formats. • Jan 2022: Published work on geometric frustration in Journal of Physical Chemistry C . • July 2021: Physical Review Letters publication on fragile 3D ordering in V1-xMoxO2 under extreme conditions.
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.
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.
Dr. Adèle Carradò is a Full Professor in Solid State Physics at the University of Strasbourg (UNISTRA), affiliated with the Institute of Physics and Chemistry of Materials (IPCMS). Her research focuses on bioactive coatings, surface characterization of metallic and multi-layer systems, and mechanical properties of hybrid materials. PhD in Mechanics and Material Science (University of Reims, 2001) HDR (University of Strasbourg, 2004) Research Assistant (University of Ancona, 1997-1998) Post-doc (CEA Saclay, 2002) Her work includes over 70 original articles, two patents, and 50+ invited lectures. She specializes in: Residual stress analysis via neutron and synchrotron radiation Functional thin films for biomedical applications Mechanical behavior of metal/polymer/metal systems 3-layered sandwich structures for lightweight design Zn-Mg alloys for orthopedic implants Surface grafting techniques for biomaterials Recent publications highlight advancements in: Biodegradable Zn-Mg alloys with PMMA coatings ATUM-SEM for bone microstructure analysis Forming mechanics of steel-glass fiber-reinforced composites Residual stress optimization in extruded and drawn materials She actively participates in international conferences and serves on executive committees for biomedical materials symposia.
Björgvin Hjörvarsson is a Professor in Physics at Uppsala University's Department of Physics and Astronomy, specifically within the Materials Physics division where he served as Head until 2024. He is Principal Investigator of the Super ADAM project, Sweden's national neutron facility, and an elected member of both the Royal Academy of Sciences and the Royal Society of Sciences in Uppsala. His research spans low-dimensional aspects of phase transitions, particularly in magnetism and hydrogen in metals. His work has evolved to emphasize finite size effects on structural and magnetic ordering, additive manufacturing, and energy storage and transformation. His research methodology heavily relies on neutron scattering techniques and international collaborations across experimental and theoretical physics. Hjörvarsson's recent publications (2022-2025) reveal a strong focus on metallic glasses produced via additive manufacturing, artificial spin ice systems, magnetic superlattices, and advanced characterization techniques. His work bridges fundamental physics with practical applications in energy storage, materials engineering, and biomedical technologies. Vattenfalls Energistipendium (1985) Liljewalchs scholarship (1989) Good-Guy Award from Fysiska Sällskapet (1990) Idée award from Uppsala University (1995) Benzelius award from Royal Society of Sciences of Uppsala (1995) Letterstedtska award from Royal Swedish Academy of Sciences (2003) Hjörvarsson has supervised 27 PhD students to completion, 1 licenciate student, and currently guides 9 PhD students while supervising 2-3 master's students annually. His research is supported by significant infrastructure including the Super ADAM neutron facility at ILL, Grenoble, which he initiated and developed as Sweden's national neutron scattering infrastructure. Beyond traditional research, he's known for innovative outreach efforts including educational videos on neutron science. Hjörvarsson leads the Materials Physics research group, which maintains strong international collaborations and focuses on experimental condensed matter physics with connections to engineering applications. His team operates specialized laboratories for thin film growth, magnetic characterization, and neutron scattering experiments, supporting both fundamental research and industrial applications.
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.
David Turner is an Associate Professor in the School of Chemistry at Monash University, specializing in supramolecular and coordination chemistry. His research focuses on chiral coordination polymers, metal-organic frameworks, and hydrogen-bonding networks for applications in enantiomeric separations and gas capture. He holds a PhD from King's College London (2004) and has been recognized with prestigious awards including the ARC Future Fellowship (2013) and Victorian Young Tall Poppy Science Award (2011). He leads the Turner Group, offering PhD projects in chiral supramolecular cages, coordination polymers, and crystal engineering. His community service includes outreach with the Australian Synchrotron and roles as Secretary of SCANZ and former President of the Victorian RACI branch. Recent research highlights include developing amine-based MOFs for precious metal remediation and sustainable phase change materials. Key collaborations involve neutron diffraction studies and advanced radiochemical technologies. His work aligns with UN Sustainable Development Goals related to clean energy and responsible consumption. Grants: ARC Training Centre for Advanced Radiochemical Technologies, Metallosupramolecular Cages for Enantioselective Applications Key Projects: Chiral hydrogen-bonding materials, magnetometry facility development Labs/Teams: The Turner Group at Monash University, collaborating with international partners in crystallography and materials science.
Dmitry Pushin is an Associate Professor at the University of Waterloo and a Faculty member of the Institute for Quantum Computing (IQC). He holds a PhD in Physics from MIT (2006), and prior degrees from Moscow Institute of Physics and Technology (BSc 1995, MSc 1997). His research focuses on advancing neutron interferometry to address fundamental physics questions, including quantum information science, condensed matter physics, and dark energy studies. He explores applications like magnetic material characterization and spintronics development, with recent work on chameleon scalar field constraints via neutron experiments. Teaching includes courses such as MNS 321 (Electrical/Optical Properties of Materials), MNS 410 (Special Topics in Solid-State Materials), and graduate courses in Quantum Information Processing (QIC 890). His experimental work leverages neutron optics to study quantum coherence effects at macroscopic scales, with contributions to structured neutron waves and precision measurements. Key research areas include quantum information processing, magnetic materials, and fundamental physics inquiries like Born’s Rule verification. His team pioneered methods for neutron orbital angular momentum (OAM) generation and applied interferometry to study novel materials. Recent advancements include high-precision silicon interferometer fabrication and PROSPECT experiment contributions in antineutrino physics. Notable collaborations involve the PROSPECT reactor antineutrino experiment, focusing on short-baseline oscillations and dark matter limits. He also explores human perception of structured light phenomena, linking quantum optics to vision science.
John W. Brady is a Professor in the Department of Food Science at Cornell University's College of Agriculture and Life Sciences (CALS) in Ithaca, NY. He joined Cornell in 1983 after completing postdoctoral work at Harvard University under Martin Karplus. His educational background includes a PhD in Chemistry from SUNY Stony Brook (1980) and a BS in Chemistry from UNC Chapel Hill (1975). Research Focus: Brady's work centers on computational modeling of biological systems, with emphasis on: Dynamics and hydration of biopolymers Structure-function relationships in proteins and enzymes Molecular mechanisms of cellulose degradation Computational approaches to rational drug design Food carbohydrate chemistry and functional properties Primary methodologies include molecular dynamics simulations, energy minimization calculations, and neutron diffraction studies. Teaching: Brady teaches core courses in food chemistry and carbohydrate chemistry, including the department's required food chemistry course and commodity food chemistry supervision. Awards & Honors: Outstanding Career Accomplishment Award (Cornell CALS, 2018) Hayashi Jisuke Award (Japanese Cellulose Society, 2012) Computational Infrastructure: Leads research utilizing advanced molecular modeling techniques to investigate: Cellulose insolubility mechanisms Glucose-peptide interactions Ion aggregation in electrolyte solutions Cryoprotectant functionality
