Find Academic Supervisors

Daniel A. SchersonView profile

Professor

• Electrochemistry
• Physical Electrochemistry
• Spectroscopy
• +4 more

Daniel A. Scherson serves as the Frank Hovorka Professor of Chemistry and Director of the Ernest B. Yeager Center for Electrochemical Sciences at Case Western Reserve University. His research bridges fundamental electrochemical phenomena with practical energy storage applications through advanced spectroscopic methodologies. His academic foundation includes: Licenciado en Quimica from University of Chile (1974) PhD in Chemistry from University of California at Davis (1979) Postdoctoral Research Associate at Case Center for Electrochemical Sciences (1981-82) Senior Research Associate at Case Center for Electrochemical Sciences (1981-82) Scherson's work centers on physical electrochemistry and in situ spectroscopy , investigating how submonolayer adsorbates modify electrode reactivity. His group pioneers techniques including Raman spectroscopy , X-ray absorption , and second harmonic generation to probe dynamic electrode-electrolyte interfaces, with significant implications for electrocatalysis and energy storage systems . Current research emphasizes real-time characterization of battery electrode processes. Publications from 2003-2004 reveal a concentrated focus on spectroscopic interrogation of battery materials, particularly lithium-ion and zinc electrode systems, demonstrating methodological innovations in spatially resolved in situ analysis of operational electrochemical cells. His exceptional contributions have earned prestigious international recognition: Faraday Medal of the Royal Chemical Society (2004) David C. Grahame Award (ECS, 2000) Alexander von Humboldt Senior Fellowship (2002) Japan Society for Promotion of Science Fellowship (1993-94) IBM Faculty Development Award (1983) Vittorio de Nora Postdoctoral Fellowship (1981) As Director of the Ernest B. Yeager Center, Scherson leads interdisciplinary research initiatives advancing electrochemical science while mentoring the next generation of scientists through collaborative projects and specialized instrumentation development.

José Ricardo Cardoso de AndradeView profile

Researcher

• Nonlinear Optics
• Ultrafast Lasers
• Short Pulse Spectroscopy
• +3 more

Dr. José Ricardo Cardoso de Andrade is a Researcher at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy, affiliated with the department of Ultrafast Lasers and Nonlinear Optics. His work focuses on cutting-edge research in nonlinear optics, ultrafast laser technologies, and short-pulse spectroscopy, with applications in photoluminescence, materials characterization, and quantum phenomena. He has contributed to advancements in optical parametric oscillators and attosecond-scale physics. Research interests include exploring laser-matter interactions under extreme conditions, developing novel spectroscopic techniques, and advancing ultrafast laser systems. His recent work highlights innovations in attoclock imaging of quantum tunneling dynamics and real-time Raman spectroscopy using non-collinear optical parametric oscillators. Publications span high-impact journals like Nature Physics and Optics Express , reflecting expertise in ultrafast phenomena, nonlinear optics, and quantum imaging. While no awards are explicitly listed, his active research group at MBI drives experimental and theoretical work in frontier areas of laser science. His affiliation with the A3 group at MBI positions him at the forefront of ultrafast laser technology development. Collaborations include international teams working on attosecond science and coherent control of light-matter interactions.

Prasenjit GuptasarmaView profile

Professor

• Condensed Matter Physics
• Materials Science
• Superconductivity
• +7 more

Prasenjit Guptasarma is a Professor in the Department of Physics and serves as Associate Dean for Academic Affairs in the College of Engineering & Applied Science (CEAS) at the University of Wisconsin-Milwaukee (UWM). He holds an adjunct appointment in the Department of Electrical Engineering and Computer Sciences. His academic leadership roles include former Chair of the Physics Department (2015–2019), Special Assistant to the UWM Chancellor (2021–2022), and current full-time faculty member since 2000. Dr. Guptasarma earned his PhD from the Tata Institute of Fundamental Research, followed by postdoctoral work at Argonne National Laboratory and visiting positions at institutions in Italy. His research focuses on condensed matter physics, materials science, and energy-related materials, with funding from NSF and DoD grants. His group explores superconductors, magnetic materials, topological insulators, and advanced battery cathodes, employing techniques like X-ray spectroscopy, Raman scattering, and nanoscale characterization. His teaching contributions include advocating for learner-centered pedagogy and serving as a Wisconsin Teaching Scholar. Awards include the NSF Career Award (2005), UWM Research Excellence Award (2008), and Research Fellow Award (2012). He has published over 130 articles, serves on the editorial board of Advances in Condensed Matter Physics , and collaborates internationally. His research group trains graduate students, postdocs, and undergraduates in interdisciplinary materials research.

Giuseppe SansoneView profile

Professor

• Attosecond Spectroscopy
• Ultrafast Molecular Dynamics
• Free-Electron Lasers
• +4 more

Giuseppe Sansone is a full professor of experimental physics at the University of Freiburg, leading the Attosecond and Strong Field Physics group. He holds an Internal Senior Fellow position (Sep 2024–Apr 2025) and previously held postdoctoral fellowships at RIKEN (Japan) and the Max-Planck-Institute (Germany). His work focuses on attosecond metrology at free-electron lasers and ultrafast molecular dynamics using coincidence spectroscopy. Key contributions include the development of the Extreme Light Infrastructure Attosecond Light Pulse Source (ELI-ALPS) in Hungary. His research spans attosecond pulse characterization, quantum control in extreme UV domains, and coherent control mechanisms in molecular systems. Education: PhD in Physics (2004, Politecnico Milano), career progression from assistant to associate professor at Politecnico Milano before joining Freiburg in 2016. Research interests include: attosecond temporal structure analysis, nonlinear XUV applications, wave-packet manipulation in Rydberg states, and femtosecond polarization shaping. His experimental setups leverage seeded free-electron lasers and advanced spectroscopic techniques. Publications highlight advancements in photoelectron interferometry, resonance dynamics, and ultrafast nuclear motion studies. His work bridges atomic/molecular physics with cutting-edge laser technologies. Awards: JSPS Short-Term Postdoc Fellowship (2007), Alexander von Humboldt Fellowship (2009-2010). Lab leadership: Director of the Attosecond and Strong Field Physics group at Freiburg, contributing to ELI-ALPS infrastructure development. His team focuses on time-resolved XUV-IR coincidence spectroscopy and novel attosecond timing tools.

Alexander CowanView profile

Professor

• Renewable Fuel Synthesis
• Electrochemical CO2 Reduction
• Photocatalysis
• +5 more

Professor Alexander Cowan is a faculty member in the Department of Chemistry and Stephenson Institute for Renewable Energy at the University of Liverpool. His research focuses on developing catalytic systems for sustainable fuel production using CO2, H2O, and solar energy. He obtained his PhD in Chemistry from the University of Nottingham (2007) and completed postdoctoral work at Imperial College London. PhD: University of Nottingham (2007) Postdoc: Imperial College London His research spans four key areas: electrocatalytic CO2 reduction (gold catalysts, surfactant effects), photochemical systems (polymer photocatalysts, dibenzo[b,d]thiophene sulfone materials), spectroscopic studies (SFG, time-resolved Raman), and water splitting catalysts (high-entropy alloys, nanoframes). His group emphasizes operando spectroscopy for mechanistic insights. Recent publications highlight breakthroughs in spin-polarized electrocatalysis , facet-controlled high-entropy alloy catalysts , and surfactant-mediated CO2 reduction . His work aligns with industrial applications, including gas diffusion electrodes and bipolar membrane electrolysers. Scientific awards include EPSRC fellowships (2012, 2017) and the IChemE Global Sustainability Award (2023). He directs the UK Solar Fuels Network (2019-2022) and UK Solar Chemicals Network (2023-). He leads multidisciplinary grants such as C-Circ (CO2 electrolysers), Zero-Chem (bipolar membrane electrolysis), and SEAFUEL (green hydrogen from seawater). His teaching includes modules on electrochemical energy systems and innovative chemistry for materials.

Alan I. TaubView profile

Professor

• Automotive Lightweighting
• Composite Materials
• Advanced Manufacturing
• +6 more

Alan I. Taub is a Professor in the Departments of Materials Science and Engineering (MSE) and Mechanical Engineering (ME) at the University of Michigan, where he also holds the Robert H. Lurie Professor of Engineering chair. He is the Director of the Michigan Materials Research Institute (MMRI) and actively contributes to the Global CO2 Initiative. Prior to joining the University of Michigan in 2012, Taub served as Vice President of Global Research & Development at General Motors (2001-2012) and held leadership roles at Ford Motor Company (1993-2001) and General Electric (1979-1993). B.S. in Materials Engineering from Brown University (1976) M.S. and Ph.D. in Applied Physics from Harvard University (1977, 1979) Taub’s research focuses on advanced materials and processing for automotive lightweighting, composite materials, and sustainable manufacturing. His work spans metal matrix composites, polymer nanocomposites, and innovative forming processes, with significant contributions to electric vehicle technologies and CO2 emission reduction strategies. His publications highlight advancements in ultrasonic-assisted forming, carbon nanotube alignment, and in situ composite synthesis. Key trends include lightweighting for fuel efficiency, electromagnetic interference (EMI) shielding, and digital manufacturing techniques like metamorphic processing. TMS Application to Practice Award (2020) Acta Materialia Materials & Society Award (2011) Charles S. Barrett Medal (2010) TMS Laureate Lecture (2007) Materials Research Society Special Recognition Award (2004) Brown University Engineering Alumni Medal (2002) Taub has advised numerous researchers through his roles and collaborations, particularly in automotive materials and manufacturing. He has supported major grants and initiatives, including the LIFT institute (Lightweight Innovations for Tomorrow) and the Global CO2 Initiative. His leadership extends to advisory roles on the Visiting Committee on Advanced Technology at NIST and boards of MIT, Northwestern, and UC Davis/Berkeley. The Taub Research Group at the University of Michigan specializes in enabling transformative manufacturing research, particularly for lightweight materials and electric vehicles. Their work includes composite development, advanced forming processes, and sustainable materials innovation.

• Physical chemistry
• Vibrational spectroscopy
• Organic–inorganic hybrid perovskites
• +7 more

Yukio Furukawa is Professor of Chemistry at Waseda University’s Faculty of Science and Engineering, where he has led a vibrant research program in physical chemistry and advanced materials since 1997. After earning his Doctor of Science from the University of Tokyo in 1988 he successively held faculty appointments at Tohoku University, the University of Tokyo, and since 1997 Waseda University, directing spectroscopic investigations of organic–inorganic hybrid perovskites, organic semiconductors, ferroelectric polymers, and CO₂-capture media. Education: B.Sc. & M.Sc. (University of Tokyo, 1979–1982); Ph.D. (University of Tokyo, 1988) His core research couples femtosecond-to-steady-state vibrational spectroscopy (Raman & IR) with device physics to unravel structure–property relationships in π-conjugated and hybrid materials. Major themes include charge-carrier dynamics in low-band-gap polymers, bipolaron vs polaron transport in ionic-liquid-gated transistors, ferroelectric switching of nylon and PVDF copolymers, and pKa-controlled CO₂ absorption/desorption in alkanolamine systems. Across 179 peer-reviewed papers (h-index 42, >7 000 citations) his work reveals universal trends: alternating donor–acceptor polymers undergo ultrafast charge separation without structural reorganization; bipolaron formation limits mobility in doped polythiophenes; hybrid perovskites exhibit phase stability windows correlating with halide and pseudohalide substitution; and amide-group inversion underlies ferroelectricity in odd-nylons. Scientific awards: BCSJ Awards (2002, 2007, 2009, 2010, 2013, 2016); Spectroscopic Society of Japan Award (2016) He serves on executive boards of the Spectroscopical Society of Japan (past vice-president & president) and is an active member of the American Chemical Society, Society for Applied Spectroscopy, and Japan Society of Applied Physics. His laboratory hosts international collaborators and maintains state-of-the-art Raman/FT-IR facilities for operando measurements of transistors, solar cells, and CO₂ scrubbers.

Howard JacksonView profile

Professor

• Semiconductor Physics
• Quantum Dots
• Optical Spectroscopy
• +3 more

Howard Jackson is a Professor at the University of Cincinnati, specializing in semiconductor physics and nanomaterials. His research focuses on low-dimensional semiconductors, quantum dots, and advanced optical techniques like photoluminescence and Raman scattering. He has pioneered studies on II-VI quantum dots, near-field microscopy, and ultrafast laser systems. Jackson has secured substantial funding from the National Science Foundation (NSF) and other agencies, including grants totaling over $7 million for nanotechnology and education initiatives. His research interests span semiconductor nanowires, topological materials (e.g., Weyl semimetals like NbIrTe4 and Bi2Se3), and optoelectronic devices. Notable projects include developing mid-infrared microscopes and nanoscale biosensors. Jackson has also led interdisciplinary STEM education reforms, such as the Cincinnati Engineering Enhanced Mathematics and Science (CEEMS) program. Scientific achievements include being a Fellow of the American Physical Society and a recipient of the University of Cincinnati Graduate School Fellowship. His work bridges fundamental physics and applied technologies, with collaborations across materials science, electrical engineering, and biomedicine.

Andrivo RusydiView profile

Associate Professor

• Condensed Matter Physics
• Materials Science
• Nanotechnology
• +3 more

Dr. Andrivo Rusydi is an Associate Professor at the National University of Singapore. His office is located at S13-02-01, and he can be contacted at +65 6516 4897 / 8931. His research focuses on the interplay of spin, charge, orbital, and lattice degrees of freedom at interfaces and surfaces of complex systems, including magnetic materials, high-temperature superconductors, and molecular electronics. He specializes in developing and applying advanced in-situ synchrotron-based characterization techniques such as resonant soft X-ray magnetic scattering, spectral generalized magneto-optical spectroscopic ellipsometry (from mid-infrared to vacuum-ultraviolet), and angular resolved photoemission spectroscopy. His work also involves atomically controlled film growth using molecular beam epitaxy at the Singapore Synchrotron Light Source. Analysis of his selected publications reveals a focus on oxide interfaces (LaAlO3/SrTiO3), spintronic materials, superconductivity dynamics, and electronic structure modifications in correlated systems. Key methodologies include synchrotron radiation studies, optical conductivity analysis, and time-resolved spectroscopy.

• Radiation Chemistry
• Ionic Liquids
• Molten Salts
• +5 more

James F. Wishart is a Distinguished Chemist and Director of the Molten Salts in Extreme Environments Energy Frontier Research Center at Brookhaven National Laboratory. He serves as Group Leader of the Electron- and Photo-Induced Processes (EPIP) Group within the Chemistry Division. His work focuses on radiation chemistry, ionic liquids, molten salts, and electron transfer processes, with applications in nuclear energy, sustainable chemistry, and advanced materials development. Education: S.B. in Chemistry, Massachusetts Institute of Technology, 1979 Ph.D. in Inorganic Chemistry, Stanford University, 1985 (with Henry Taube) Dr. Wishart's research spans multiple interconnected areas in physical and radiation chemistry. His primary focus is on understanding fundamental processes in ionic liquids and molten salts, particularly under radiation and extreme conditions. He investigates electron transfer mechanisms, radiation-induced reactions, and the physical chemistry of these media using advanced techniques including high-pressure studies and pulse radiolysis. His work has significant implications for nuclear energy applications, particularly in developing safer molten salt reactors and understanding materials behavior in extreme environments. He has pioneered new detection techniques in pulse radiolysis and developed novel accelerators for studying ultrafast phenomena. Analysis of Dr. Wishart's recent publications (2021-2023) reveals a strong focus on molten salt chemistry for nuclear applications, radiation effects in ionic media, and advanced characterization techniques. His research shows increasing emphasis on in situ and operando methods to study materials under extreme conditions, particularly using synchrotron-based techniques. The work bridges fundamental physical chemistry with practical applications in energy and nuclear technology, demonstrating consistent growth in complexity from molecular-level studies to system-level understanding of molten salt environments. Scientific Awards: Maria Sklodowska-Curie Medal, Polish Radiation Research Society (2019) 16th Conférence Jean Perrin Lecturer, Division de Chimie Physique of the Société Chimque de France (2017) 25th QUILL Lecturer, Queens University Ionic Liquid Laboratory, Belfast (2012) New York City Lewis Stokes Alliance for Minority Participation Keeper of the Alliance Flame (2010) DOE Office of Science Undergraduate Research Programs Outstanding Mentor Award (2006) Throughout his career, Dr. Wishart has been an active mentor, receiving recognition for his work with undergraduate researchers. He has secured significant funding through the Department of Energy, including leading the Molten Salts in Extreme Environments Energy Frontier Research Center. His collaborative approach is evident in the extensive co-authorship networks across his publications, working with researchers from multiple national laboratories, universities, and international institutions. He has organized numerous conferences and symposia, fostering community development in radiation chemistry and ionic liquids research. Dr. Wishart leads the Electron- and Photo-Induced Processes (EPIP) Group at Brookhaven National Laboratory, which operates the LEAF (Laser-Electron Accelerator Facility) picosecond pulse radiolysis facility. His team includes researchers specializing in radiation chemistry, physical chemistry, materials science, and nuclear engineering. The group collaborates extensively with other divisions at Brookhaven and with external partners on projects related to molten salt reactors, radiation effects, and sustainable chemistry applications.

• Spectroscopy
• Nanomaterials
• Quantum Materials
• +6 more

Dr. Freddy Rabouw is an Associate Professor at Utrecht University's Faculty of Science, affiliated with the Debye Institute for Nanomaterials Science. His research focuses on energy, charge, and mass transport in nanostructured materials, with applications in sustainability, catalysis, and photonics. Expertise: Spectroscopy, Nanomaterials, Quantum Materials Soft Condensed Matter research sub-unit He employs time-resolved optical microscopy/spectroscopy and mathematical modeling to study individual nanocrystals and catalyst systems. Recent work includes: Energy-transfer pathways in rare-earth-doped materials Single-nanocrystal property variations Molecular diffusion in heterogeneous catalysts His 15 most recent publications span quantum dots, luminescence thermometry, and catalysis, emphasizing energy transfer mechanisms and operando analysis of dynamic systems. Media coverage includes articles in Trouw and Het Parool about quantum cutting and nanocrystal-based light generation.

Leonid BrownView profile

Professor

• Biophysics
• Membrane proteins
• Spectroscopy
• +7 more

Leonid Brown is a full Professor in the Department of Physics at the University of Guelph, Canada, specializing in biophysics with a focus on membrane proteins. His research integrates molecular biology with advanced biophysical techniques to study the structure and function of light-sensitive proteins. Dr. Brown's primary research interests include biophysics of membrane proteins , particularly microbial rhodopsins and aquaporins. His work combines molecular biology with modern biophysical methods including time-resolved spectroscopy in the visible range, Fourier-transform infrared spectroscopy, nuclear magnetic resonance, and Raman spectroscopy. His research specifically focuses on exploring novel microbial rhodopsins for optogenetic applications and studying protein-lipid interactions in membrane proteins. His recent publications (2022-2025) demonstrate a strong focus on understanding the structural foundations of ion selectivity in channelrhodopsins, proton transfer mechanisms in light-driven pumps, and the role of hydrogen-bonding networks in membrane protein function. These studies employ advanced techniques including cryo-electron microscopy, solid-state NMR, and computational modeling to elucidate atomic-level details of protein structure and function. Member of Editorial Board of the Biophysical Journal (2009-2015 and 2024) Premier's Research Excellence Award (2003) Research Innovation Award (2003) Member of the Canadian Biophysical Society Executive (2019-2022) DAAD and Ontario-Baden-Württemberg scholarships (2016) Dr. Brown has established collaborative research partnerships with institutions worldwide, including Nagoya Institute of Technology in Japan and Sogang University in Korea. His laboratory develops and utilizes high-end instrumentation including time-resolved vacuum infrared spectrometers, Raman/FTIR combination spectrometers, and time-resolved visible range laser spectrometers. His research has significant implications for optogenetics and potential medical applications, with media coverage in outlets like The Scientist and Health Canal for discoveries related to heart disease treatment.

• Semiconductor Spectroscopy
• Optical Spectroscopy
• Time-resolved Spectroscopy
• +9 more

Professor Wolfram Heimbrodt is a distinguished physicist at Philipps University of Marburg, where he leads the Semiconductor Spectroscopy Group (also known as Gerhard's Group) within the Physics Department. His research focuses on advanced optical spectroscopy techniques applied to semiconductor materials, particularly examining the fundamental properties of semiconductors through various spectroscopic methods. Prof. Heimbrodt's research interests span multiple areas of semiconductor physics, with particular emphasis on time-resolved spectroscopy , magnetic spectroscopy , excitation-dependent spectroscopy , and Raman spectroscopy . His work investigates the optical properties of semiconductor heterostructures, quantum dots, and 2D materials, with applications in photovoltaics, optoelectronics, and quantum technologies. The research group explores fundamental questions about charge transfer mechanisms, exciton dynamics, and spin-valley coupling in novel semiconductor systems. Analysis of Prof. Heimbrodt's recent publications reveals a strong focus on 2D materials (particularly transition metal dichalcogenides like WS 2 and WSe 2 ), semiconductor heterostructures, and quantum dot systems. His work spans fundamental physics investigations of spin-valley phenomena in 2D materials to applied research on dye-sensitized solar cells and semiconductor interfaces. The consistent thread through these diverse topics is the application of sophisticated optical spectroscopy techniques to understand material properties at the nanoscale. Prof. Heimbrodt actively mentors students and researchers, with several documented advisees including Johannes Röder, Luise Rost, Nico Hofeditz, and Mikko Wilhelm. His group encourages both Marburg students and external candidates to pursue bachelor's and master's theses on topics related to practical physics challenges in semiconductor research. Current projects involve investigating organic-inorganic semiconductor interfaces, functionalization of semiconductors for IR laser development, and time-resolved photoluminescence studies of quantum dot systems. The Heimbrodt Research Group maintains specialized laboratories for time-resolved, modulated, magnetic, excitation-dependent, and Raman spectroscopy, enabling comprehensive characterization of semiconductor materials. Their work contributes significantly to understanding the fundamental physics of semiconductor materials while exploring applications in energy conversion and quantum technologies.

Brian PetersonView profile

Professor

• Combustion
• Laser Diagnostics
• Thermofluids
• +4 more

Brian Peterson holds the position of Personal Chair of Advanced Laser Diagnostics within the School of Engineering at the University of Edinburgh, where he serves as a Professor in the Department of Mechanical Engineering. His research focuses on advanced experimental techniques for combustion and thermofluids, with particular emphasis on flame-wall interactions, turbulent flow dynamics, and pyrolysis processes. He actively supervises PhD students and leads multiple high-impact research projects funded by major international bodies. Research Expertise: Professor Peterson specializes in cutting-edge laser diagnostics including Particle Image Velocimetry (PIV), phosphor thermometry, and wavelet-based optical flow velocimetry (wOFV). His work investigates fundamental combustion phenomena in internal combustion engines, fire safety applications, and biomass combustion systems. Key contributions include high-speed measurements of flame-vortex interactions, pyrolysis front tracking in solid fuels, and surface temperature mapping during flame-wall quenching events. Publication Trends: Recent publications (2022-2025) demonstrate a strong focus on high-speed diagnostics for resolving transient combustion phenomena in narrow passages and turbulent boundary layers. His work integrates combustion science, fluid dynamics, and thermofluids to address challenges in engine efficiency, fire safety, and hydrogen combustion. The research consistently emphasizes experimental validation through advanced optical techniques capable of kHz-rate measurements. Research Leadership: Professor Peterson serves as Principal Investigator on multiple funded projects including: Unresolved fluid mechanics at liquid/gas interfaces for atomizing sprays (UKRI, 2023-2028) Premixed flame-wall interaction in turbulent boundary layers (EPSRC, 2021-2025) EPIC: Energy transfer Processes at gas/wall Interfaces under extreme Conditions (European Commission, 2017-2023) He has secured funding from EPSRC, UKRI, European Commission, and industry partners for combustion diagnostics and thermofluids research. Facilities and Collaborations: Based in the James Clerk Maxwell Building (Room 2.2415), he contributes to the Multiscale Thermofluids Research group and has developed specialized datasets on aerosol dispersion for virus transmission risk mitigation. His work involves international collaborations with institutions in Germany (Technical University of Darmstadt) and industry partners in automotive and energy sectors.

Jens M. WalterView profile

Researcher

• Structural Geology
• Neutron Diffraction
• Texture Analysis
• +4 more

Jens M. Walter is a Researcher at the Georg-August-University Göttingen in the Department of Structural Geology and Geothermal Energy . He has been actively involved in neutron diffraction research since 2007 and co-founded the MASA Institute GmbH in 2013. His work spans structural geology, archaeometry, and advanced materials analysis. Education: Doctorate in Geology (2000-2004) and Post-Doc (2004-2006) at University of Bonn Research Interests: Focus on in-situ deformation experiments , texture analysis , and recrystallization processes using neutron diffraction at POWTEX. Also specializes in archaeometric ceramic provenance and graphite characterization via Raman spectroscopy. Recent Article Trends: Publications emphasize neutron-based strain monitoring , critical metal analysis , and quantitative textural studies across geological and archaeological contexts. Key collaborations include institutions in Germany, Austria, and Italy. Instrumentation Leadership: Instrumental in designing sample environments for POWTEX Neutron Diffractometer at FRM II research reactor. Developed automated pole figure measurement systems for geological materials. Labs & Teams: Works with Geoscience Center (GZG) and co-manages MASA Institute GmbH , a university spin-off focused on material analysis and cultural heritage studies.