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Nicole A. Benedek is an Associate Professor in the Department of Materials Science and Engineering at Cornell University, part of the College of Engineering. Her research group focuses on theoretical and computational approaches to understanding and designing functional materials, particularly complex oxides and perovskites. She integrates principles of crystal chemistry, symmetry, and density functional theory to uncover mechanisms underlying material properties and to guide the discovery of new materials with targeted functionalities. Her research interests include nonlinear phononics, ultrafast optical control of lattice dynamics, ferroelectricity, magnetism, and thermal transport in materials. She is particularly interested in how materials behave out of equilibrium and how external stimuli such as light can induce dramatic changes in their properties. This work has implications for low-power electronics, data storage, and dynamic optical devices. The recent publications from her group reflect a strong trend in controlling material symmetries and properties using light, especially through infrared and Raman resonant excitation. Her work bridges theory and experiment, often in collaboration with synthetic chemists, to validate predictions and discover new polar and multiferroic materials. She has made key contributions to understanding negative thermal expansion, light-induced phase transitions, and hybrid improper ferroelectricity. Scientific Awards: NSF CAREER Award, National Science Foundation (2015) Ralph E. Powe Junior Faculty Enhancement Award (2014) Journal of Materials Chemistry Emerging Investigator (2016) Australian Postgraduate Award (2003) Dr. Benedek advises graduate students in materials science and engineering and has mentored PhD candidates such as Ethan T. Ritz and Tucker Swenson. Her research is supported by the National Science Foundation (including the MRSEC program), the Department of Energy, and the Cornell Center for Materials Research. She leads the Benedek Group, which develops theoretical frameworks to explain and predict material behavior, emphasizing design rules for next-generation functional materials. The Benedek Group collaborates extensively with experimentalists, notably with Michael A. Hayward at Oxford University, to synthesize and characterize predicted materials. Their joint work has led to the discovery of new ferroelectric Dion-Jacobson phases and a deeper understanding of polar distortions in layered perovskites. The group combines computational modeling with physical insight to push the boundaries of materials design.

• Materials Theory
• Computational Materials Science
• Complex Oxides
• +9 more

Filip Vostal is a senior researcher at the Institute of Philosophy of the Czech Academy of Sciences with a PhD in sociology from the University of Bristol (2013). He teaches Science & Technology Studies (STS) courses at Charles University and serves on the editorial board of Time & Society . As an active member of EASST and 4S professional organizations, his work bridges academic research with practical applications across multiple disciplines. Dr. Vostal's research primarily focuses on the sociology of time, examining how temporal structures shape academic work and scientific research. His notable book Accelerating Academia: The Changing Structure of Academic Time (Palgrave, 2016) established him as a leading scholar in academic temporality studies. His current research investigates the temporality of knowledge production in x-ray free electron laser experiments, exploring the epistemic role of speed in time-resolved structural biology methods including "single particle imagining" and "serial femtosecond crystallography". His recent publications reveal a strong thematic focus on time, acceleration, and temporal structures across academic and scientific contexts. The articles demonstrate expertise spanning theoretical examinations of social acceleration to practical analyses of time in fusion research and even numismatics (the study of currency). His interdisciplinary approach connects temporal studies with science & technology studies and critical social theory. Among his scientific contributions, Vostal serves on the editorial board of Time & Society and has received research support through Czech Science Foundation grants including GA ČR(CZ) GJ16-18371Y and GA ČR(CZ) GA19-15511S. He is currently a project (co-)investigator on the TIMED project ("TIMe experience in Europe's Digital age") running from 2022-2025. Dr. Vostal maintains an active research profile with numerous publications in sociology, STS, and interdisciplinary journals. His work demonstrates consistent engagement with both theoretical frameworks and empirical investigations of time structures in contemporary academic and scientific practices.

• sociology of time
• science & technology studies
• critical social science
• +5 more

Carolin Müller is a Juniorprofessor for the Theory of Electronically Excited States at the Friedrich-Alexander University Erlangen-Nuremberg since November 2023. Previously, she was a Feodor Lynen Postdoctoral Researcher at the University of Luxembourg (June 2022-October 2023) and a Postdoctoral Researcher at Friedrich Schiller University Jena (March 2021-May 2022). Dr. Müller received her B.Sc. (2016) and M.Sc. (2018) in Chemistry from Friedrich Schiller University Jena, followed by her Ph.D. (Dr. rer. nat) in 2021 from the same institution. Her doctoral research focused on "Towards Operando Spectroscopy of Supramolecular Photocatalysts – A Case Study on Ru-dppz-derived Systems" under the supervision of Prof. B. Dietzek-Ivanšić. Dr. Müller's research focuses on the theoretical understanding of photoinduced processes in molecules and materials. Her group (CPC Group) investigates electron transfer processes, isomerization reactions, and excited-state dynamics with the goal of controlling and optimizing light-driven processes for increased reactivity and efficiency. Her work combines computational chemistry, spectroscopy, and machine learning approaches, specifically utilizing methods like TD-DFT, CASSCF, molecular/quantum dynamics, and cheminformatics techniques including SVD, MCR, and global/target lifetime analysis. Her recent publications demonstrate a strong interdisciplinary approach spanning computational chemistry, spectroscopy, and machine learning. Key themes include nonadiabatic molecular dynamics, excited-state simulations, photoswitch design, photocatalysis, and the development of computational tools like KiMoPack for kinetic modeling. Her work often bridges theoretical predictions with experimental validation through close collaboration with spectroscopy research groups. Feodor Lynen Research Fellowship (Alexander von Humboldt Foundation) Thuringian Research Award 2023 for Applied Research Albert-Weller Award (German Chemical Society) Dissertation Award (Faculty of Chemistry and Earth Sciences) FCI Kekulé PhD fellowship As a Juniorprofessor, Dr. Müller leads the CPC Group at FAU, where she mentors students in computational chemistry research. She has developed expertise in combining spectroscopic techniques (resonance Raman, transient absorption, and time-resolved emission spectroscopy) with computational methods and cheminformatics approaches. She also actively contributes to the scientific community through service roles including co-organizing the ESTML 2023 Workshop and serving as an active member in the yPC organization of the German Bunsen Society. Dr. Müller is actively developing the CPC Group research program at the Computer Chemistry Center, focusing on light-induced physical processes and chemical reactions. Her group combines quantum chemistry, chemoinformatics, and experimental spectroscopy to reveal mechanisms behind photoinduced phenomena and optimize light-driven processes.

• Computational Chemistry
• Molecular Dynamics
• Machine Learning
• +7 more

Daniel W Armstrong is a Professor at the University of Texas at Arlington in the Department of Chemistry and Biochemistry. With over 35 years of experience, he is a pioneering figure in chiral recognition, enantiomeric separations, and the biological relevance of D-amino acids. His work has led to over 740 publications, 35 patents, and 560 invited seminars worldwide. Developed first chiral recognition mechanism by cyclodextrins First to use macrocyclic antibiotics as chiral selectors Synthesized most new ionic liquids (ILs) globally Created ultra-fast separation techniques now standard in analytical chemistry Contributed to FDA 1992 guidelines on chiral drug separation His research focuses on chiral separations, ionic liquids, and the role of D-amino acids in biological systems. He has commercialized over 30 HPLC and GC columns, transforming analytical chemistry and pharmaceutical analysis. Recent publications demonstrate continued innovation in chiral chromatography, biomarker analysis, and AI-driven separation optimization. His grants include industry collaborations with Merck, Alcon, and Sigma-Aldrich, emphasizing practical applications of his work. Scientific honors include multiple lifetime achievement awards, fellowships in the Royal Society of Chemistry and American Chemical Society, the Chirality Medal, and induction into the National Academy of Inventors. He has mentored over 100 PhD students, many from first-generation college backgrounds.

• Chiral Recognition
• Enantiomeric Separations
• Ionic Liquids
• +5 more

Dr. Manish Garg is the Head of the Research Group 'Quantum Microscopy and Dynamics' at the Max Planck Institute for Solid State Research in Stuttgart, Germany. He holds a Group Leader (W2) position since 2024, having previously served as a Research Group Leader from 2020-2023 in the Department of Nanoscale Science. His research integrates attosecond science, scanning tunneling microscopy, and ultrafast Raman spectroscopy to develop a four-dimensional quantum microscope capable of capturing electrons and atoms in action at fundamental space-time limits. PhD (Dr. rer. nat.) in Physics from LMU Munich, Germany (2012-2017) Integrated B.S.-M.S. from Indian Institute of Science Education and Research, Kolkata, India (2007-2012) Dr. Garg's research focuses on developing techniques to observe and control quantum phenomena at the atomic scale. His group has pioneered methods to visualize electron dynamics with attosecond temporal resolution and sub-Ångström spatial resolution, enabling unprecedented insights into molecular processes. Recent breakthroughs include selective excitation of molecular vibrations, real-time tracking of electron oscillations in nanodevices, and imaging coherent phonon wave packets in graphene nanoribbons. His publication record shows a consistent trajectory of high-impact research in leading journals including Nature, Science, and Nature Communications. The work demonstrates expertise across multiple disciplines including attosecond physics, nanoscale imaging, quantum dynamics, and ultrafast spectroscopy, with applications ranging from fundamental quantum mechanics to potential light-wave electronics. Rudolf-Kaiser Preis (2023) Max-Auwärter Award (2022) IMPRS Advanced Photon Science Graduate Fellowship (2012-2016) INSPIRE Fellowship, DST India (2007-2012) Dr. Garg leads a research group comprising postdocs and PhD students working on cutting-edge quantum microscopy techniques. His group has secured significant recognition for developing methods to directly measure electron oscillations in quantum nanodevices and visualize atomic motion in single molecules. Current research focuses on advancing four-dimensional quantum microscopy to capture electronic and atomic dynamics in molecules, two-dimensional materials, and superconductors at fundamental space-time limits. The Quantum Microscopy and Dynamics group operates within specialized facilities at the Max Planck Institute for Solid State Research, utilizing low-temperature scanning tunneling microscopes operating in ultrahigh-vacuum conditions. Their work on picocavities and nonlinear optical spectroscopy at atomic length scales represents the frontier of quantum measurement science.

• Attosecond Science
• Quantum Microscopy
• Ultrafast Spectroscopy
• +7 more

Dr. Yves Kayser is a Researcher and Project Leader at the Max Planck Institute for Chemical Energy Conversion (MPI CEC), leading the In-house X-ray Spectroscopy group since 2022. His work focuses on developing advanced X-ray spectroscopic techniques for studying catalytic materials and energy storage systems. He holds a B.Sc., M.Sc., and Ph.D. in Physics from the University of Fribourg, Switzerland, followed by postdoctoral research at the University of Fribourg, Paul Scherrer Institut (Switzerland), and the Physikalisch-Technische Bundesanstalt (Germany). Affiliations: Max Planck Institute for Chemical Energy Conversion (MPI CEC) Research Interests: X-ray absorption spectroscopy (XAS), X-ray emission spectroscopy (XES), high-energy-resolution spectroscopy for catalytic materials, in situ/operando analysis, and instrumentation development. Dr. Kayser’s research emphasizes leveraging X-ray techniques to probe electronic and geometric structures of catalytic materials. His group develops stand-alone laboratory instruments for high-energy-resolution studies, including laser plasma sources and von Hamos spectrometers. Key contributions include advancing grazing incidence X-ray fluorescence (GIXRF) for nanostructure analysis and integrating time-resolved experiments for catalytic reaction monitoring. His recent publications explore topics such as differential scattering coefficients for metals, semiconductor nanostructure metrology, and TiO₂ doping effects. He received the 2018 Young Scientist Award from the European X-ray Spectrometry Association for his contributions to instrumentation and methodology. Awards: Young Scientist Award (2018) Students: Advising John Carl Camayang (PhD). Lab Infrastructure: In-house X-ray spectrometers for transmission XAS, EXAFS, and XES, including laser plasma and von Hamos setups.

• X-ray Spectroscopy
• Catalysis
• Inorganic Chemistry
• +3 more

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
• +5 more

Professor Holger Dau, Ph.D. in Physics, leads the Biophysics and Photosynthesis group at Freie Universität Berlin's Department of Physics. His research focuses on biological and artificial solar energy conversion, particularly water oxidation in photosynthesis and electrocatalysis for solar fuels. Current affiliation: Freie Universität Berlin Research areas: Photosynthesis, Solar Energy, Electrocatalysis, Artificial Photosynthesis, Nanomaterials Recent publications highlight his work on: Electrocatalyst design for oxygen evolution Time-resolved spectroscopy in photosynthetic systems Biologically inspired metal complexes for energy conversion Stability of heterostructures in catalytic environments Phosphorus-doped nanostructures for hydrogen production His group employs advanced techniques including X-ray absorption, Raman spectroscopy, and molecular precursor approaches to study catalytic mechanisms and materials optimization.

• Photosynthesis
• Solar Energy
• Electrocatalysis
• +4 more

Samuel A. Bryan serves as a Lab Fellow and Chemist at Pacific Northwest National Laboratory (PNNL), where he pioneers spectroelectrochemical sensor development for measuring chemical species in highly complex nuclear systems. His innovations have resolved critical Department of Energy safety issues, particularly regarding ferrocyanide concentration determination in nuclear waste and hydrogen flammability in Hanford waste tanks. Dr. Bryan earned his B.S. in Chemistry from Boise State University (1979), followed by M.S. and Ph.D. degrees in Inorganic Chemistry from Washington State University (1983, 1985). His educational background established the foundation for his expertise in complex chemical systems analysis. His research focuses on real-time spectroscopic monitoring methodologies for nuclear applications. Key contributions include developing the first-ever luminescence detection from technetium complexes, creating sensors for nuclear waste analysis, and establishing predictive models for hydrogen gas generation that continue to inform Hanford Waste Treatment Plant safety designs 25 years later. His work bridges fundamental chemistry with practical nuclear engineering solutions. Analysis of his recent publications reveals strong emphasis on multi-modal spectroscopy (Raman, UV-Visible, NIR) combined with chemometric analysis for nuclear applications. His research spans from fundamental sensor development to practical implementation in nuclear fuel recycling, waste treatment, and safeguards verification. Fellow of the American Chemical Society Chair of Richland Section of the ACS (1998 and 2004) Fitzner-Eberhardt Award for Outstanding Contributions to Science and Engineering Education PNNL Laboratory Director's award (2005) ACS ChemLuminary Award for Outstanding Performance by Richland Section (2004) Dr. Bryan's technical leadership extends to mentoring junior scientists and contributing to national initiatives in nuclear safeguards. His current research focuses on microfluidic sensor systems, multi-modal spectroscopy approaches, and advanced data analysis techniques for nuclear applications, continuing to address critical challenges in nuclear waste management and national security.

• Spectroelectrochemical Sensors
• Nuclear Waste Analysis
• Real-time Process Monitoring
• +3 more

Jun Yan is an Associate Professor in the Department of Physics at the University of Massachusetts Amherst, College of Natural Sciences. His research focuses on experimental condensed matter physics, particularly exploring quantum materials, 2D materials, and nanoelectronics. He holds a Ph.D. from Columbia University (2009) and has contributed to advancements in valleytronics, excitonics, and topological materials. His work emphasizes phenomena such as valley polarization in heterojunctions, magnetophonon resonance in graphene systems, and pressure-induced phase transitions in novel materials. Recognized for award-winning teaching, Yan’s research also spans experimental techniques like Raman spectroscopy and ultrastrong light-matter coupling. Key themes include quantum transport in low-dimensional systems and the interplay between electronic, magnetic, and optical properties in emerging materials. Research interests extend to exploring excitonic states in twisted bilayer graphene, interfacial effects in heterostructures, and the development of novel detectors for terahertz and optical frequencies. His studies often address fundamental questions in condensed matter physics with implications for next-generation electronics and optoelectronics. Awards highlight both his research and pedagogical contributions to the field.

• Condensed Matter Experiment
• Quantum Materials
• Nanoelectronics
• +3 more

Toșa Nicoleta Ioana is a senior researcher at the National Institute for Research and Development of Isotopic and Molecular Technologies (INCDTIM) in Cluj-Napoca, Romania, where she is affiliated with the Department of Isotopic and Molecular Technologies and the Laser Induced Processes research team. She obtained her PhD in Chemistry from Babeș-Bolyai University in 2009 and has been actively contributing to advanced materials and laser-based technologies research since 2006. Education: MSc in Heterocyclic Chemistry, Babeș-Bolyai University, Cluj-Napoca (1995) PhD in Chemistry, Babeș-Bolyai University, Cluj-Napoca (2009) Her research focuses on laser nanofabrication, plasmonics, spectroscopy, and functional materials , with applications spanning biosensing, environmental monitoring, and biomedical technologies. She specializes in photochemical synthesis of noble metal nanoparticles, direct laser writing, surface-enhanced Raman spectroscopy (SERS), and structural characterization in solid and solution phases. Her work bridges chemistry, physics, and engineering to develop innovative sensing platforms and nanomaterials. The recent articles highlight a strong trend in advanced optical sensing and nanofabrication , particularly in dual-mode biosensors (SERS/electrochemical), ultrafast photonics, high-density data storage, and supramolecular systems. Her projects often integrate simulation, nanofabrication, and spectroscopic validation to address challenges in healthcare and environmental science. Scientific Awards: No specific awards listed in the provided text. Dr. Toșa has played a key role in numerous national and international research projects, serving as a key expert in areas such as plasmonic biosensing, EUV photonics, and environmental pollutant detection, and as a partner team leader in projects on optical nanofabrication and petabyte-scale optical storage. She has secured significant research funding and collaborated with institutions across Romania and Europe. Her laboratory and research team focus on laser-induced processes and nanostructured materials , utilizing advanced facilities for optical characterization and nanofabrication within INCDTIM.

• Chemistry
• Physical Chemistry
• Organic Chemistry
• +17 more

Dr. Darryl Jones is a Senior Research Fellow at Flinders University's College of Science and Engineering and the Flinders Institute for Nanoscale Science and Technology. His research focuses on experimental and theoretical studies of electron and photon collisions with atoms, molecules, and condensed matter systems. His educational background includes a Doctor of Philosophy from Flinders University (2008) and a Japanese Society for the Promotion of Science Post-Doctoral Fellowship at Tohoku University, Japan (2008-2010). Dr. Jones' research interests span electron collisions with applications in medical radiation therapies and plasma processing technologies. His work involves experimental studies of electron-impact excitation, ionization, and fragmentation processes, combined with quantum chemical computations to describe atomic and molecular phenomena. He has specialized in photon- and electron-impact processes and has developed novel chemical processing platforms for materials synthesis. Most recently, he managed a Photoemission Electron Microscopy (PEEM) facility within Flinders Microscopy and Microanalysis (2020-2022). His recent publications demonstrate a strong focus on electron-molecule interactions, materials characterization, and scattering cross-section measurements, with applications spanning from fundamental physics to practical technological implementations. ARC Future Fellowship (FT210100264) - Molecular movies using time-resolved momentum spectroscopies ARC Linkage Infrastructure and Equipment Fund (LE240100073) - A femtosecond beamline for time-resolved momentum microscopy Australia's Spectroscopy & Molecular Physics Research Field Leader (2018) Flinders Prize in Theoretical Physics (2003) The Max Clark Prize in Science and Engineering (2003) Dr. Jones has secured significant research funding including multiple ARC grants totaling millions of dollars. He serves on the editorial boards of international journals Atoms and the European Physical Journal D , and is currently vice-chair of the SA Branch of the Australian Institute of Physics (AIP). His research contributes to UN Sustainable Development Goals, particularly in the areas of clean energy and advanced materials development. He has established collaborative networks with researchers across multiple countries, with recent external collaborations spanning Australia, Japan, and Europe.

• Electron collisions
• Molecular physics
• Spectroscopy
• +5 more

Denis L. Rousseau is Professor of Biochemistry at Albert Einstein College of Medicine, where his research focuses on cytochrome c oxidase structure, function, and dynamics. This 400 kDa membrane-bound enzyme serves as the terminal component of the mitochondrial electron transfer chain, responsible for over 90% of biological oxygen consumption. His research interests include: Structural mechanisms of membrane-bound enzymes Time-resolved resonance Raman spectroscopy Serial Femtosecond X-ray Crystallography (SFX) Cryo-electron microscopy of catalytic intermediates Proton translocation coupling mechanisms Dr. Rousseau's laboratory employs an integrated approach combining rapid-mixing techniques, laser spectroscopy, and advanced structural methods at national facilities including SLAC's Linac Coherent Light Source and the New York Structural Biology Center. His team embeds cytochrome c oxidase in nanodiscs for cryo-EM studies and captures transient catalytic states using femtosecond X-ray pulses. Recent publications (2015-2023) reveal structural insights into oxidized states, CO-bound configurations, oxygen intermediates, and temperature-dependent transitions in cytochrome c oxidase. This work establishes molecular foundations for understanding bioenergetic processes critical to cellular respiration. His laboratory maintains active collaborations with structural biology facilities nationwide to advance research on one of biochemistry's most fundamental enzymatic processes.

• Biochemistry
• Structural Biology
• Biophysics
• +5 more

Iwan Schie serves as Working Group Leader at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany, where he leads the Spectroscopy / Imaging Multimodal Instrumentation research group. His work bridges analytical chemistry, biomedical engineering, and clinical applications with a focus on developing Raman spectroscopy-based diagnostic tools. Dr. Schie maintains an active research program with numerous publications in high-impact journals across multiple disciplines. Dr. Schie's research centers on Raman spectroscopy applications in medical diagnostics and environmental monitoring. His work demonstrates particular expertise in developing multimodal imaging systems that combine Raman spectroscopy with complementary techniques like optical coherence tomography and fluorescence imaging. His research spans both fundamental methodological development and clinical translation, with several studies focusing on cancer diagnostics across multiple organ systems including head and neck, bladder, and colon cancers. The environmental applications of his work include microplastic detection and pollen analysis. Analysis of Dr. Schie's publication record reveals a clear trajectory toward clinical implementation of Raman spectroscopy technologies. His recent work increasingly focuses on regulatory-compliant medical device development, with multiple studies conducted in accordance with European Medical Device Regulation standards. The publications demonstrate progression from ex vivo validation studies to in vivo clinical applications, with particular emphasis on workflow integration within surgical settings. His collaborative approach is evident through extensive co-authorship networks spanning physics, engineering, and clinical medicine. Dr. Schie has made significant contributions to advancing Raman spectroscopy methodology, with publications addressing critical challenges in device stability, spectral analysis, and multimodal integration. His work on establishing clinical workflows represents important steps toward routine clinical adoption of these technologies. The practical impact of his research is demonstrated through development of systems like the invaScope Raman endoscopy platform for bladder tumor diagnosis. As Working Group Leader at Leibniz-IPHT, Dr. Schie oversees research activities in spectroscopy and multimodal imaging instrumentation. His team develops advanced optical systems for biomedical applications with particular focus on real-time tissue characterization during surgical procedures. The research environment supports both fundamental methodological development and applied clinical translation, with strong emphasis on regulatory compliance for medical device development.

• Raman Spectroscopy
• Biomedical Imaging
• Cancer Diagnostics
• +3 more

Leonid S. Brown is a full Professor in the Department of Physics at the University of Guelph and serves as Associate Dean (Research & Graduate Studies) for the College of Engineering and Physical Sciences. His research focuses on light-activated membrane proteins important in bioenergetics and vision, particularly microbial rhodopsins. Dr. Brown obtained his PhD in Biology (Biophysics) from Moscow State University in 1991 and joined the University of Guelph in 2002. His work combines modern biophysics with molecular biology and biochemistry techniques to study retinal-binding proteins. His research primarily investigates three major areas: exploring novel microbial rhodopsins for bioenergetics and sensory transduction; studying protein-lipid interactions and folding using NMR spectroscopy; and developing methods for structural characterization of medically important membrane proteins. His recent publications show a strong focus on channelrhodopsins for optogenetics applications, membrane protein structure determination using advanced NMR techniques, and the molecular mechanisms of proton and ion transport in various rhodopsin families. Premier's Research Excellence Award (2003) Research Innovation Award (2003) Member of Editorial Board of the Biophysical Journal (2009-2015) DAAD and Ontario-Baden-Württemberg scholarships (2016) Visiting Professorships at Nagoya Institute of Technology (2015) and Sogang University (2009) Dr. Brown leads the Photobiophysics Group and collaborates extensively with researchers worldwide. His laboratory utilizes advanced instrumentation including high-end time-resolved vacuum infrared spectrometers, Raman/FTIR combination spectrometers, and time-resolved visible range laser spectrometers. The group specializes in membrane protein expression, isotope labeling, purification, lipid reconstitution, and spectroscopic characterization of biomolecules. His research has received international recognition, particularly for discovering the first eukaryotic rhodopsin that functions as a light-driven transmembrane proton pump.

• Biophysics
• Biochemistry
• Membrane proteins
• +6 more