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Marius SchmidtView profile

Professor

• Biophysics
• Structural Biology
• Macromolecular Crystallography
• +3 more

Marius Schmidt is a Professor of Physics at the University of Wisconsin-Milwaukee (UWM), affiliated with the Biophysics Faculty. He holds a Dipl. in Biology from Johannes-Gutenberg-University, Mainz (1990), a Dr. rer. Nat. in Experimental Physics from Technische Universität München (1996), and habilitations in Experimental Physics (2004) and Theoretical, Physical, and Analytical Chemistry (2008). His research focuses on applying physical methods to study biological molecules, particularly using static and time-resolved macromolecular crystallography to investigate protein structure, dynamics, and kinetics. He also develops software for analyzing time-resolved X-ray data and employs spectroscopic methods to corroborate findings. From 1996–2007, Schmidt held positions at Technische Universität München and the University of Chicago before joining UWM in 2007. His work has led to groundbreaking studies on protein dynamics, including femtosecond observation of conical intersections and structural analysis of phytochrome photocycles. His research leverages cutting-edge technologies like X-ray free electron lasers (XFEL) to capture molecular processes at unprecedented speeds and resolutions. Key contributions include structural enzymology studies, membrane protein analysis at XFEL facilities, and the development of mix-and-inject serial crystallography techniques. Despite no explicitly listed awards, his publications reflect significant contributions to biophysics and structural biology. His advising and grants are not detailed in the text, though collaborations with institutions like the University of Chicago and international XFEL facilities suggest extensive network engagement. His affiliation with UWM’s Biophysics Faculty emphasizes interdisciplinary research bridging physics and biology.

Emmanuelle DeleporteView profile

Professor

• Nanophotonics
• Hybrid Halide Perovskites
• Light-Matter Interaction
• +3 more

Emmanuelle Deleporte is a Professor of Physics at Ecole Normale Supérieure Paris-Saclay since 2002, affiliated with the Lumière, Matière et Interfaces (LuMIn) laboratory. She previously worked at Laboratoire Aimé Cotton (2013–2019) and Laboratoire de Photonique Quantique et Moléculaire (2002–2012). Her research spans multi-scale light-matter interactions in semiconductor heterostructures and hybrid halide perovskites for optoelectronics and photovoltaics. PhD in Quantum Physics (1988), Ecole Normale Supérieure de Paris (1986–1990) Research Focus: Optical spectroscopy of hybrid organic-inorganic semiconductors, quantum confinement effects, exciton-polariton physics, and synthesis of low-dimensional perovskites. Her work bridges fundamental studies of material properties and applied device development for solar cells and light-emitting technologies. Article Trends: Recent publications emphasize exciton dynamics in 2D perovskites strong coupling regimes in microcavities phonon-electron interactions photovoltaic efficiency optimization photoluminescence tuning via defects synthesis of stable hybrid materials Scientific Leadership: She co-founded the French Halide Perovskites Think Tank (HPERO) and leads the Friedel-Jacquinot federation. She organizes international conferences and summer schools on perovskite materials. Advising: Supervised 15+ PhD students/postdocs, including Hugo Levy-Falk (2020–2023) and Thomas Campos (2019–2022). Her team includes physicists and chemists across multiple laboratories. Grants: Funded by ANR, Labex Charmmmat, IPVF, DGA, and European projects like GOTSOLAR and HYTEC, covering photovoltaics, microcavity lasers, and material synthesis. Labs: Leads research at LuMIn (Ecole Normale Supérieure Paris-Saclay) and collaborates with international institutions. Her experimental facilities include UV-Vis-IR spectrometers, spin-coating systems, and cryogenic optical setups.

Holger KohlmannView profile

Professor

• Solid-State Chemistry
• Functional Materials
• Hydrogen Storage
• +3 more

Prof. Dr. Holger Kohlmann is a W2-Professor of Inorganic Chemistry - Functional Materials at the Faculty of Chemistry and Mineralogy, Leipzig University. His research group focuses on solid-state chemistry with an emphasis on hydrogen storage materials , metal hydrides , and in situ neutron/X-ray diffraction techniques. Current Roles : Vice Dean (since 2022), Ombudsperson (since 2021), and Laser Safety Officer Research Topics : Solid-gas reactions, Zintl phase hydrides, magnetic materials, luminescent compounds, and crystal chemistry under extreme conditions The group has developed sapphire single-crystal gas-pressure cells for neutron diffraction studies and investigates reaction pathways through time-resolved in situ methods . They also explore applications in green steel production and hydrogen economy . Notable Scientific Awards : Rudolf-Hoppe-Lecture (2024) Supervisor Award (2023) Will-Kleber Commemorative Coin (2022) His team includes PhD students such as Florian Gehlhaar, Simon Keilholz, and Nicolas Zapp, with recent publications covering oxyfluoride materials , hydridosilicates , and uranium sulfides .

• Nanospectroscopy
• DNA Nanotechnology
• Luminescent Nanomaterials
• +3 more

Professor Tom André Jos Vosch is affiliated with the Department of Chemistry at the University of Copenhagen's Faculty of Science. His research focuses on DNA-templated nanomaterials and optical spectroscopy, with significant contributions to understanding luminescent silver nanoclusters. His research interests center on Nanospectroscopy and DNA Nanotechnology , particularly the synthesis and characterization of DNA-stabilized silver nanoclusters for biomedical imaging applications. Current work explores near-infrared emission mechanisms, anti-Stokes processes, and atomic-level structural analysis of nanoclusters ranging from Ag 11 to Ag 28 systems. Analysis of recent publications (2024-2025) reveals consistent focus on Atomic-resolution structural characterization Near-infrared optical properties Quantum yield optimization DNA-nanocluster interaction mechanisms Novel analytical methodologies Applications in bioimaging While no specific awards or students are listed in available materials, his 139 research outputs demonstrate sustained productivity in nanomaterials science. His laboratory operates within the Nanospectroscopy group at the University of Copenhagen, as indicated by his research website.

• Molecular Beam Epitaxy
• Semiconductor Materials
• Infrared Detectors
• +3 more

Dr. Renjie Gu is a Research Fellow at the University of Western Australia (UWA), affiliated with the Microelectronic Research Group (MRG) in the School of Electrical, Electronic and Computer Engineering. He holds an ARC Super Science Fellowship and specializes in molecular beam epitaxy (MBE) growth of semiconductor materials for infrared detectors, lasers, and solar cells. His work contributes to UN Sustainable Development Goals related to affordable and clean energy. Education: PhD in Semiconductor Materials (Chinese Academy of Sciences, 2012). Research focuses on MBE epitaxial growth, thin film characterization, and applications in optoelectronic devices. His recent publications (2024) highlight advancements in HgCdTe film growth, terahertz spectroscopy for carrier mobility analysis, and infrared sensing technologies. Awards: ARC Super Science Fellow (Microelectronic Research Group) Collaborations: Active research networks in Australia and globally, focusing on infrared materials and sensor technologies. Labs/Teams: Core member of UWA's Microelectronic Research Group (MRG), leading MBE-based semiconductor research initiatives.

Drew MarquardtView profile

Associate Professor

• Biophysics
• Membrane Biology
• Lipid Dynamics
• +7 more

Dr. Drew Marquardt is an Associate Professor in the Department of Chemistry and Biochemistry at the University of Windsor. His research focuses on biomembrane structure and dynamics, particularly using neutron and X-ray scattering techniques. He holds a PhD in Physics from Brock University (2014) and completed postdoctoral training at the University of Graz (Austria) and Oak Ridge National Laboratory (USA). Research Interests : Biomembrane mimetics, lipid-small molecule interactions, pulmonary surfactant function, and compact accelerator-based neutron sources (CANS). His work bridges physics, chemistry, and biology to address fundamental questions in health and disease, including vitamin E's antioxidant role and vaping-related lung injury mechanisms. Selected Projects : Development of asymmetric lipid vesicles for realistic membrane models Biophysical mechanisms of vitamin E in lipid membranes Neutron scattering-based studies of lipid dynamics and domain formation Pulmonary surfactant stability under vaping toxin exposure Design of a Canadian CANS facility for neutron research Collaborations : Industry partnerships with Catalent Inc. for lipid-based drug delivery systems. Active in national neutron science initiatives, including the Canadian Institute for Neutron Scattering.

Yishu WangView profile

Assistant Professor

• Quantum Materials
• Condensed Matter Physics
• Quantum Magnetism
• +5 more

Yishu Wang is an Assistant Professor in the Department of Materials Science and Engineering at the University of Tennessee Knoxville, holding a joint appointment in the Department of Physics and Astronomy. She joined the university in August 2022 after serving as a Postdoctoral Fellow at the Institute for Quantum Matter, Johns Hopkins University. Her research program bridges experimental physics and materials engineering with strong ties to national laboratories including Oak Ridge National Lab (ORNL), National Institute of Standards and Technology (NIST), and Argonne National Lab (ANL). Dr. Wang earned her PhD in Physics from Caltech (2018), MS in Physics from the University of Chicago (2014), and BS in Engineering Physics from Tsinghua University, China (2013). Her educational background reflects a deep foundation in both theoretical frameworks and experimental methodologies essential for quantum materials research. Her primary research investigates emergent phenomena in quantum spin systems through advanced experimental techniques. Key focus areas include spin fluctuations across electronic phase transitions (superconductivity, metal-insulator transitions), quantum criticality in strong-coupling regimes, and quasiparticle behavior in frustrated magnets. She pioneers methods such as time-resolved neutron scattering, high-pressure x-ray magnetic diffraction, and sub-millikelvin transport measurements to probe quantum states under extreme conditions. Analysis of her 14 publications (2015-2024) reveals consistent exploration of quantum phase transitions in correlated electron systems. Dominant themes include Kitaev materials physics, spin ice dynamics, pressure-induced superconductivity, and exotic magnetotransport phenomena. Her work demonstrates methodological innovation in combining high-pressure techniques with neutron/x-ray scattering to resolve quantum critical points and emergent quasiparticles. No scientific awards or fellowships are documented in the provided materials. Dr. Wang's research program involves extensive collaboration with national laboratory facilities but specific grant details or student advisement records are not disclosed in the source text. Her experimental approach requires sophisticated instrumentation typically supported through federal grants and institutional partnerships. Her laboratory operations span on-campus facilities at UT Knoxville and major national user facilities. The ORNL Partnership enables access to neutron sources for time-resolved studies, while collaborations with NIST and ANL support high-pressure x-ray diffraction and magnetotransport characterization. Her work on spintronic devices for one-dimensional spin-chain systems indicates specialized on-campus experimental capabilities.

• Nonlinear Optics and Spectroscopy
• Ultrafast Crystallography
• Structural Biology
• +3 more

Dr. Christopher Hutchison is a Researcher in the Department of Life Sciences at Imperial College London, managing the Laser Lab within the Faculty of Natural Sciences. His research focuses on ultrafast spectroscopic techniques, nonlinear optics, and structural biology. He is affiliated with the Frontiers of Ultrafast Measurement initiative, advancing methodologies in femtosecond crystallography and laser-based instrumentation. His work bridges chemistry and physics, with key contributions to understanding photoactive protein dynamics, chromophore interactions, and high-order harmonic generation in plasmas. Notable projects include XFEL beamline development for ultrafast science and the application of serial femtosecond crystallography to study light-driven biological processes. Publications highlight innovations in ultrafast structural dynamics, laser-induced temperature-jump spectroscopy of zeolites, and optical control of protein systems. Hutchison’s research emphasizes interdisciplinary collaboration, particularly in developing cutting-edge instrumentation for time-resolved studies.

Jasper van ThorView profile

Professor

• Molecular Biophysics
• Ultrafast Spectroscopy
• X-ray Crystallography
• +4 more

Professor Jasper van Thor is a faculty member at Imperial College London's Department of Life Sciences, part of the Faculty of Natural Sciences. He holds the title of Professor of Molecular Biophysics and leads the Ultrafast Spectroscopy Laboratory and Molecular Biophysics group. His research focuses on ultrafast molecular dynamics using techniques like femtosecond crystallography and spectroscopy, particularly studying light-sensitive proteins such as photoreceptors, fluorescent proteins, and photosynthetic systems. He has pioneered work on structural dynamics using X-ray free electron lasers (XFELs) and developed open-source software tools like the Ultrafast Spectroscopy Modelling Toolbox and PyLDM for data analysis. Education: MSc (1993) and PhD (1999) in Chemistry from the University of Amsterdam, followed by postdoctoral research at the University of Oxford under Dame Louise Johnson, supported by EMBO and HFSP fellowships. He joined Imperial College in 2007, establishing the Ultrafast Spectroscopy Lab. Research Interests: Ultrafast structural changes in proteins, photoactivation mechanisms, coherent vibrational dynamics, XFEL applications in biology, and theoretical modeling of population dynamics. His work bridges molecular biophysics, chemistry, and materials science, with contributions to understanding photosynthesis and protein signaling. Key Achievements: Director of Imperial's Frontiers of Ultrafast Measurement network and PI of the LUXD lab. Developed novel methods for femtosecond infrared crystallography and revealed mechanisms like the 'hula-twist' isomerization in fluorescent proteins. Authored influential papers on protein structural dynamics and spectroscopic analysis tools. Awards: EMBO Research Fellowship (2000), HFSP Long-Term Fellowship (2000), Royal Society University Research Fellowship (2002). Recognized for contributions to ultrafast structural biology. Grants & Labs: Active in XFEL collaborations globally (LCLS, SACLA, European XFEL). Oversees the Electron Microscopy Centre and Energy Futures Lab affiliations. His lab develops open-source software for data analysis, emphasizing reproducibility and accessibility.

Ruaridh ForbesView profile

Assistant Professor

• Photochemistry
• Ultrafast Laser Spectroscopy
• Reaction Dynamics
• +4 more

Ruaridh Forbes is an Assistant Professor at the University of California, Davis, Department of Chemistry. He leads the Forbes lab, which focuses on ultrafast laser sources to study photochemical reaction dynamics on femtosecond timescales. His research explores nuclear structures far from equilibrium and electronic energy flow in molecules during reactions, aiming to control chemical and biological processes. The lab conducts experiments at global X-ray light sources and tabletop setups. Forbes has held roles at SLAC National Accelerator Laboratory since 2020, including Lead Scientist (2024), Staff Scientist (2022–2023), and Associate Staff Scientist (2021–2022). He earned a Ph.D. in Atomic, Molecular, and Optical Physics from University College London (2018) and a M.S. in Chemical Physics from the University of Edinburgh (2014). Research Interests: Ultrafast laser spectroscopy Femtosecond/X-ray scattering techniques Photochemical reaction dynamics Electronic energy transfer mechanisms Molecular imaging via Coulomb explosion and covariance analysis Control of chemical reactions through light-matter interactions Publications: His recent work includes studies on X-ray-induced electron rearrangement, time-resolved Auger spectroscopy, and ultrafast electron diffraction imaging. These publications emphasize multi-channel dynamics analysis and novel laser-based methodologies. Labs/Teams: The Forbes Lab collaborates with global institutions like SLAC and utilizes cutting-edge X-ray facilities to advance real-time molecular imaging.

Philip BinghamView profile

Researcher

• Computational Sensing
• Image Processing
• Machine Learning
• +6 more

Dr. Philip Bingham serves as Division Director for the Electrification and Energy Infrastructures Division at Oak Ridge National Laboratory (ORNL), where he leads initiatives to enhance the nation’s electric grid, storage systems, and renewable energy integration. With over two decades of experience at ORNL, he has pioneered computational sensing technologies combining image/signal processing and machine learning for industrial inspection and national security applications. Education: PhD and MS in Electrical and Computer Engineering from Georgia Institute of Technology; BS in Electrical and Computer Engineering from University of Tennessee, Knoxville Key Projects: High-resolution neutron radiography using coded-source imaging, multi-lab air cargo security threat detection, data science for defense nuclear nonproliferation Expertise: Electromagnetic sensing, X-ray/neutron radiography, multi-scale imaging sensors, and analytics His research in CAD-driven deep learning for X-ray CT reconstruction (e.g., Simurgh framework, PickerXL model) and neutron transmission simulations has produced over 15 patents. Recent publications focus on artifact reduction in industrial CT, neutron imaging of shale formations, and explainable AI for security applications. Scientific Awards: Battelle Distinguished Inventor Award National Federal Laboratory Consortium Award for Technology Transfer Exceptional Service Award (2024) from U.S. Government for nuclear nonproliferation analytics

Eleni Myrto AsimakopoulouView profile

Researcher

• X-ray Physics
• Synchrotron Radiation
• Crystal Optics
• +6 more

Eleni Myrto Asimakopoulou is a Researcher and Postdoctoral fellow specializing in synchrotron radiation research at MAX IV Laboratory, which is closely affiliated with Lund University in Sweden. She holds multiple affiliations within Lund University's research ecosystem, including membership in NanoLund: Centre for Nanoscience, LTH Profile Area: Nanoscience and Semiconductor Technology, LTH Profile Area: Photon Science and Technology, and LU Profile Area: Light and Materials. Her research focuses on advanced X-ray imaging techniques, with expertise spanning X-ray physics, crystal optics, phase contrast imaging, and high-resolution imaging systems. Dr. Asimakopoulou's work primarily addresses challenges in synchrotron radiation applications, with particular emphasis on developing novel imaging methodologies for scientific investigation. Analysis of her recent publications reveals a strong focus on cutting-edge imaging technologies, particularly in the development of MHz X-ray phase contrast imaging, crystal optics for multi-projection imaging, time-resolved imaging techniques using diffraction-limited storage rings, and high-resolution volumetric imaging systems. Her research demonstrates a consistent trajectory toward improving imaging speed, resolution, and capabilities for materials science and structural analysis applications. Dr. Asimakopoulou has received significant attention for her work, with multiple publications garnering readership on academic platforms like Mendeley and social media mentions on platforms like X (formerly Twitter). Her collaborative approach is evident through her extensive co-authorship networks across international research institutions. As a researcher at MAX IV's Science division, she contributes to advancing the capabilities of one of Europe's premier synchrotron radiation facilities, with particular focus on developing next-generation imaging techniques that push the boundaries of what's possible in materials characterization and structural analysis.

• X-ray Imaging
• Magnetism
• Coherent Optics
• +3 more

Michael Schneider is a researcher at the Max Born Institute for Nonlinear Optics and Short Pulse Spectroscopy , affiliated with the B2: Imaging and Coherent X-rays department. His work focuses on advanced imaging techniques using coherent X-ray and extreme-ultraviolet radiation, with applications in studying magnetic materials, nanostructures, and ultrafast dynamics. Key research interests include: Coherent X-ray magnetic imaging at sub-10 nm resolution Control of magnetic skyrmions via optical and ion-based methods Development of high-repetition-rate X-ray scattering techniques at XFEL facilities Investigation of spin-wave solitons and topological phase transitions Applications of plasmonic nanostructures for all-optical magnetization control Recent work demonstrates innovative approaches to resolving fluctuating states of matter and achieving real-time spatial characterization of X-ray beams. His research leverages cutting-edge facilities like the European XFEL and free-electron lasers to explore ultrafast phenomena in condensed matter systems.

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.

• Quantum Engineering
• Extreme Ultraviolet (EUV) Physics
• High-Harmonic Generation
• +5 more

Henry Kapteyn is a Professor of Physics at the University of Colorado, specializing in ultrafast laser science and quantum engineering. His research focuses on high-harmonic generation, extreme ultraviolet (EUV) photonics, and the characterization of nanoscale materials. He leads efforts in developing advanced coherent light sources and imaging techniques for studying spin dynamics, topological materials, and nanostructure metrology. His work bridges fundamental physics with applied technologies, including the creation of tabletop EUV reflectometers, attosecond pulse generation, and vector ptychography for 3D magnetic imaging. Key applications include studying quantum materials, ultrafast spin phenomena in magnetic alloys, and thermal transport in semiconductor nanosystems. Kapteyn collaborates with institutions like JILA, where his lab (Office: JILA A703) develops mid-IR laser technologies for driving secondary light sources. Research highlights include: nanoscale heat flow confinement, topological skyrmion imaging, and ultrafast spin reorientation studies. His EUV-based techniques enable high-resolution measurements of magnetic textures and semiconductor properties, advancing fields like spintronics, quantum computing, and nanofabrication metrology. Despite extensive contributions, no formal student advisement records are listed in the provided texts.