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Thomas Walz, PhD, is a Professor at The Rockefeller University and Head of the Laboratory of Molecular Electron Microscopy. Previously, he held positions as Assistant, Associate, and Professor at Harvard Medical School (1999–2015) and was an Investigator at the Howard Hughes Medical Institute (2008–2015). He earned his PhD and BS in biophysics from the University of Basel, Switzerland, and completed postdoctoral research at the University of Sheffield. Walz completed his education at the Biozentrum, University of Basel, Switzerland, where he received his Diploma in Biophysics (1992) and PhD in Biophysics (1996). He furthered his training as a postdoctoral researcher at the University of Sheffield (1996–1999). His research focuses on understanding membrane-related processes and the structural biology of membrane proteins in lipid environments. Utilizing cryo-electron microscopy and nanodisc technology, he investigates how lipid bilayers influence membrane protein structure and function. Key areas include mechanosensitive channels, T-cell receptor dynamics, and telomere maintenance mechanisms. Collaborations with the de Lange lab explore the CST-Polα/primase complex's role in telomere regulation. Walz has been recognized with the Genzyme Award for Outstanding Achievement in Biomedical Sciences (2004) and continues to contribute to advancements in structural biology and membrane protein research. While specific student advisees are not listed, Walz actively mentors through his roles in the David Rockefeller Graduate Program and Tri-Institutional programs. His research is supported by grants and institutional funding, though specific grants are not detailed here. He directs the Laboratory of Molecular Electron Microscopy at Rockefeller, a hub for innovative structural biology and membrane protein studies. The lab collaborates widely, integrating cryo-EM with electrophysiology and molecular dynamics simulations.

• Membrane Biology
• Structural Biology
• Cryo-electron Microscopy
• +5 more

Aditi Das is a Full Professor in the School of Chemistry and Biochemistry at the Georgia Institute of Technology, College of Sciences. She leads the Das Laboratory, which focuses on the biochemistry and chemical biology of lipids, particularly studying cytochrome P450 enzymes and their role in lipid metabolism, endocannabinoid systems, and inflammatory pathways. Her educational background includes: B.Sc. in Chemistry from St. Stephen's College M.Sc. in Chemistry from Indian Institute of Technology, Kanpur (I.I.T) Ph.D. in Chemistry from Princeton University Postdoctoral research at Northwestern University (NSF-NSEC fellow) and Beckman Institute for Advanced Science and Technology, University of Illinois UC Professor Das's research interests center around understanding the physiological role of lipids in sustaining homeostasis and their implications in disease states such as neurodegenerative disorders, cancer, and cardiovascular diseases. Her laboratory specializes in: Enzymology of cytochrome P450s, particularly CYP2J2 epoxygenase Metabolism of ω-3 and ω-6 fatty acids and their derivatives Minor cannabinoid metabolism by cytochrome P450 enzymes Discovery of novel anti-inflammatory lipid metabolites and endocannabinoids Mechanistic studies of membrane proteins using nanodisc technology Her work bridges biochemistry, chemical biology, and pharmacology to uncover novel therapeutic targets related to lipid signaling pathways. Analysis of Professor Das's recent publications (2023-2025) reveals a strong focus on cannabinoid metabolism by cytochrome P450 enzymes, with particular emphasis on how these metabolic processes generate bioactive compounds that interact with the endocannabinoid system. Her research increasingly explores the therapeutic potential of omega-3 derived endocannabinoid epoxides in inflammatory and neurodegenerative conditions. The use of nanodisc technology for studying membrane proteins in near-native environments remains a consistent methodological thread throughout her work, enabling detailed mechanistic insights into enzyme function. Professor Das has received numerous prestigious awards recognizing her research excellence and teaching: 2024 NIH Outstanding Researcher Award (MIRA R35) for established investigators 2024 Vasser Woolley Faculty Fellowship 2023 Plenary Lecture at the International Society of the Study of Xenobiotics (ISSX) 2021 E.L.R. Stokstad Award 2019-2021 List of Teachers Ranked as Excellent 2019 Eicosanoid Research Foundation Young Investigator Award 2019 Zoetis Research Excellence Award 2019 Mary Swartz Rose Young Investigator Award 2015 National Scientist Development Award from the American Heart Association 2022 El Sohly Award from the American Chemical Society Professor Das actively mentors a diverse group of students and postdoctoral researchers, with several former lab members now holding faculty positions or working at prestigious institutions. Her laboratory has secured significant funding from NIH, NSF, and other sources to support research on lipid metabolism, cannabinoid pharmacology, and membrane protein biochemistry. Notable grants include an NIH R35 Outstanding Investigator Award (MIRA), an NIH R21 grant from NIDA, and multiple collaborative grants with other research groups. The Das Laboratory operates within the Petit Institute of Bioengineering and Biosciences (IBB) at Georgia Tech, utilizing state-of-the-art facilities for biochemical and biophysical studies. The lab specializes in nanodisc technology to study membrane proteins in near-native environments, with particular expertise in cytochrome P450 enzymes and their interactions with lipid substrates. Recent work has expanded into collaborative projects involving lipidomics, structural biology, and translational applications of lipid signaling research.

• Biochemistry and Chemical biology of Lipids
• Mechanism of Membrane proteins in Nanodiscs
• Enzymology of metalloproteins
• +5 more

Dr. Hillel Adesnik is a Professor in the Department of Neuroscience at the University of California, Berkeley, and a leading researcher in the neural basis of sensory perception. His lab focuses on cortical microcircuits, optogenetics, and neural coding, with emphasis on visual processing and memory formation. Key Research Areas: Cortical Microcircuits Optogenetic Tools Gamma Band Rhythms Neural Coding Mechanisms Dr. Adesnik has pioneered high-speed optical methods like 3D-MAP and 3D-SHOT to manipulate neural activity. His work spans cortical dynamics, synaptic plasticity, and cortical layer interactions, with applications in understanding learning algorithms and sensory inference. Selected Trends from Publications: Recent preprints and papers highlight advancements in cortical VIP neuron function, channelrhodopsin structures, and inter-areal computations. His team utilizes two-photon holography, cryo-EM, and computational modeling to decode perception-related neural codes. Scientific Awards: NIH Director's New Innovator Award (2013) Dr. Adesnik's lab collaborates with institutions like NIH and develops tools for awake animal studies. Funding includes grants from the Beckman Young Investigator Program and NIH.

• Neuroscience
• Neural Circuits
• Optogenetics
• +6 more

Henry Liang, Ph.D., is a Professor in the Department of Cell Physiology and Molecular Biophysics at Texas Tech University Health Sciences Center (TTUHSC), with adjunct appointments in Chemical Engineering and Chemistry at Texas Tech University. His lab focuses on bridging biology with synthetic systems through membrane biophysics and bioengineering. Research Interests: Dr. Liang's work spans membrane protein reconstitution, nanodisc technology, antimicrobial nanoparticles, blood-brain barrier targeting, and immunotherapy platforms. Key areas include: Design of synthetic proteomembranes for protein function studies Development of environmentally responsive nanoantibiotics Nanoparticle-based theranostic systems for cancer Light-driven energy transduction in biohybrid materials Publication Trends: His 15 most recent articles (2011-2023) demonstrate consistent focus on nanotechnology solutions for biomedical challenges, with evolving emphasis on antimicrobial nanostructures (35%), membrane protein platforms (30%), cancer nanomedicine (20%), and sustainable nanomaterials (15%). Methodological strengths include polymer synthesis, X-ray scattering, and biomimetic system design. Training: The Liang Lab actively recruits graduate students and postdoctoral researchers for projects in membrane biophysics and bioengineering. Current research infrastructure includes capabilities for synchrotron small-angle X-ray scattering, molecular dynamics simulations, and nanomaterial characterization.

• Membrane Biophysics
• Bioengineering
• Nanotechnology
• +7 more

Lan Guan is a Professor at Texas Tech University Health Sciences Center in the Department of Cell Physiology and Molecular Biophysics within the School of Medicine. He also serves as Co-Director of the Center for Membrane Protein Research. His research focuses on membrane proteins, which constitute approximately 30% of all eukaryotic proteins and play crucial roles in many aspects of cell function. Dr. Guan's research seeks to understand the mechanisms of solute transport and lay the foundation for advances in disease treatment and human health. He employs an integrated approach including cryo-EM single-particle analysis, X-ray crystallography, ligand binding, molecular dynamics simulations, thermodynamics, genetic engineering, novel amphiphiles, and many other biochemical & biophysical analyses. His current research focuses on cation-coupled bacterial and human transporters. Dr. Guan is currently supported by an NIGMS MIRA R35 Award (2024). His publication record demonstrates expertise in membrane protein structure and function, particularly with melibiose transporters (MelB) and their mechanisms. His work spans structural biology, biochemistry, and biophysics, with significant contributions to understanding membrane transport mechanisms. His research has led to important insights into membrane protein structure-function relationships, particularly in sugar transporters. Dr. Guan's work has implications for understanding fundamental biological processes and potential therapeutic applications related to membrane transport. NIGMS MIRA R35 Award 2024 Dr. Guan actively collaborates with researchers across disciplines and institutions, as evidenced by his extensive publication record with numerous co-authors. His work bridges structural biology, biochemistry, and biophysics to advance our understanding of membrane protein function. He is affiliated with the Center for Membrane Protein Research, where he contributes to advancing methodologies for studying these challenging but critically important biological molecules. His work on novel amphiphiles and detergent design has helped overcome technical barriers in membrane protein research.

• Membrane transport
• Membrane proteins
• Solute transport mechanisms
• +6 more

Paul W. K. Rothemund is a Visiting Associate in the Department of Computing and Mathematical Sciences and the Computation and Neural Systems program at the California Institute of Technology (Caltech), a position he has held since 2023 with appointment through 2026. Previously, he served as a Research Professor at Caltech from 2015 to 2023, Senior Research Associate from 2008 to 2015, and Senior Research Fellow in Computation and Neural Systems and Computer Science from 2004 to 2008. Rothemund received his B.S. from Caltech in 1994 and his Ph.D. from the University of Southern California in 2001. Following his doctoral studies, he was a Beckman Senior Research Fellow from 2001 to 2004. Dr. Rothemund leads the Rothemund Lab at Caltech, which is part of the Biology and Biological Engineering, Computing + Mathematical Science, and Computation & Neural Systems divisions. His research focuses on DNA nanotechnology, particularly the development and application of DNA origami techniques for creating programmable nanoscale structures. The lab's work bridges computer science, molecular biology, and nanotechnology, exploring how molecular systems can be designed and programmed like computational systems. Analysis of Dr. Rothemund's recent publications reveals a strong focus on advancing DNA nanotechnology for practical applications. His work spans from fundamental techniques for DNA and RNA origami to applications in nanophotonics, lipid bilayer engineering, and single-molecule manipulation. A notable trend is the increasing sophistication of DNA-based nanostructures and their integration with other biomolecular systems and physical phenomena. Scientific Recognition: Beckman Senior Research Fellow Dr. Rothemund has advised several doctoral students to completion, including Anya Mitskovets, who defended her thesis on 'Using DNA origami to create hybrid nanophotonic architectures for single-photon emitters,' and Tyler Ross, who defended his PhD thesis and subsequently joined the lab as a postdoc. His research has been supported by various grants that enable the interdisciplinary work at the intersection of computer science, molecular biology, and nanotechnology. The Rothemund Lab forms a 'DNA nanotechnology supergroup' at Caltech and frequently collaborates with the Winfree and Qian labs. This collaborative environment fosters innovation at the interface of computation, molecular programming, and nanoscale engineering, positioning the lab at the forefront of programmable matter research.

• DNA Nanotechnology
• Molecular Programming
• DNA Origami
• +3 more

Olivia C. Fiebig is an Assistant Professor of Chemistry at Smith College, where she conducts interdisciplinary research at the intersection of biophysics and membrane science. Her work combines biochemical, spectroscopic, and physical methodologies to investigate fundamental membrane behaviors with implications for biological systems. Her educational background includes: Ph.D. in Chemistry from the Massachusetts Institute of Technology B.S. and B.A. from Rowan University Dr. Fiebig's research centers on membrane biophysics , specifically examining how lipids and proteins interact within cell membranes to influence biological processes. She employs model membrane systems such as vesicles and nanodiscs to study lipid behavior, protein-lipid interactions, and the physical properties governing membrane assembly. A significant portion of her work focuses on photosynthetic light-harvesting complexes in purple bacteria, utilizing ultrafast spectroscopy to probe energy transfer dynamics under varying environmental conditions. Analysis of her recent publications reveals consistent emphasis on optimizing model membrane systems to replicate biological complexity, with particular attention to photosynthetic acclimation strategies and the effects of ionic environments on membrane and protein stability. Her work bridges fundamental biophysical principles with practical applications in understanding biological membrane function. Her notable recognition includes: Eberly Postdoctoral Research Fellow Dr. Fiebig leads an active research laboratory that trains students in advanced biophysical techniques while advancing understanding of membrane organization and function. Her group's work on near-native membrane systems represents a significant methodological contribution to the field.

• Membrane Biophysics
• Lipid-Protein Interactions
• Photosynthesis
• +3 more

Ingeborg Schmidt-Krey is an Associate Professor in the Department of Biology at Georgia Institute of Technology. Her research focuses on the structure and function of eukaryotic membrane proteins, which are critical drug targets in biomedical research. She utilizes electron crystallography, cryo-EM, and 2D crystallization techniques to advance structural studies of these proteins. Education: B.S. in Biochemistry from Mississippi State University (1991) Ph.D. in Biophysics and Structural Biology from Karolinska Institute (1999) Research Interests: Ingeborg Schmidt-Krey investigates eukaryotic membrane proteins, particularly their structural determination via electron crystallography. Her work includes developing screening methods for 2D crystallization and improving cryo-EM data collection. Recent articles highlight advancements in nanodisc-reconstitution, lipid-dependent oligomerization studies, and refined sample preparation techniques like the Peel-Blot method. Scientific Awards: German Research Foundation Young Investigator Class of 1969 Teaching Fellow EMBO/EMBL/CERN Women in Science Ambassador EMBO long-term fellow Her laboratory’s efforts are directed toward understanding the biophysics of membrane proteins and their role in diseases such as inflammation and cancer.

• Structure & function of eukaryotic membrane proteins
• membrane protein complexes
• biophysics
• +6 more

Ilya Levental is a Professor in the Department of Molecular Physiology and Biological Physics at the University of Virginia School of Medicine , where he leads the Levental Laboratory of Membrane Biology . His research investigates how membranes and dietary lipids regulate cell physiology , with the goal of identifying therapeutic targets for human diseases. Education: BS in Chemical Engineering, Georgia Institute of Technology PhD in Bioengineering, University of Pennsylvania Postdoctoral Fellowship, Max Planck Institute for Cell Biology and Genetics, Dresden, Germany Research Interests: Levental's work focuses on the composition, biophysics, and physiology of cellular membranes . His lab employs a multidisciplinary approach combining molecular and cell biology, membrane biophysics, protein biochemistry, and synthetic biology . Key areas include lipid rafts, membrane domain stability, protein-lipid interactions, and dietary lipid impacts on membrane function . Notable projects explore membrane phase behaviors in HIV entry, lipid asymmetry effects, and membrane regulation of signal transduction . Publication Trends: Articles span biophysics, cell biology, and lipid biology , with a focus on membrane domain partitioning, cholesterol dynamics, and phase separation in disease . Collaborations with institutions like Karolinska Institute, University of Michigan, and UT Health Science Center highlight the interdisciplinary nature of his work. Labs and Collaborations: The Levental Lab moved to the University of Virginia and is affiliated with the Center for Membrane and Cell Physiology . Current projects involve partnerships with researchers in Sweden, Germany, and the United States , utilizing computational modeling, cryo-EM, and synthetic biology to study membrane organization.

• Biochemistry
• Biophysics
• Molecular Physiology
• +4 more

Erhu Cao is an Associate Professor in the Department of Biochemistry at the University of Utah , specializing in the structural and functional analysis of membrane proteins, particularly ion channels and transporters. His work focuses on elucidating atomic-scale mechanisms under normal and diseased states using multidisciplinary approaches. Research Interests : Understanding ion channel and transporter dynamics in physiological processes Investigating structural bases for drug interactions and channel inhibition Studying polycystin complexes in renal disease Advancing cryo-EM and X-ray crystallography techniques Exploring lipid regulation of membrane protein function Decoding molecular mechanisms of transient receptor potential (TRP) channels Publications reveal a focus on cryo-EM structures of ion channels and transporters (TRPV1, PKD2, NKCC1, KCC1), diuretic drug mechanisms, polycystin activation by oxysterols, and conformational changes in channel gating. His work bridges structural biology with pharmacological targeting of membrane proteins. Laboratory : Dr. Cao leads a multidisciplinary lab employing molecular biology, protein biochemistry, electrophysiology, and advanced imaging techniques to study membrane protein function. His research has implications for drug development in renal disease and ion channelopathies.

• Membrane Protein Biophysics
• Ion Channel Function
• Structural Biology
• +3 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

Michael Marty is an Associate Professor in the Department of Chemistry and Biochemistry at the University of Arizona. His research focuses on developing novel mass spectrometry methods to study membrane proteins and their interactions with lipid bilayers. He leads the Marty Lab, which combines analytical chemistry innovations with biochemical questions to address challenges in drug discovery and structural biology. Education: B.A. in Chemistry, St. Olaf College (2010) Ph.D. in Chemistry, University of Illinois at Urbana-Champaign (2013) Postdoctoral Researcher, University of Oxford (2013-2016) Research Interests: Membrane proteins are critical drug targets but remain difficult to analyze due to their hydrophobic nature and low expression levels. Dr. Marty’s work addresses this through innovations like lipid exchange-mass spectrometry, nanodisc technology, and software tools (e.g., UniDec) for data analysis. His lab explores lipid-protein interactions, antimicrobial peptide mechanisms, and SARS-CoV-2 protease inhibitors. Grants & Collaborations: NSF CAREER Award for nanodisc native MS development NIH-funded projects on membrane protein-lipid interactions Labs & Teams: The Marty Lab develops open-source software (UniDec, UniChromCD) and collaborates globally on biotherapeutic targets and structural biology. Their work bridges analytical chemistry with biomedical applications.

• Bioanalytical Chemistry
• Biophysics
• Chemical Biology
• +6 more

Navid Bavi is an Assistant Professor in the Department of Physiology at the University of California, Los Angeles (UCLA) David Geffen School of Medicine. His research focuses on mechanobiology, bioengineering, and structural biology, with expertise in ion channels, lipid bilayer mechanics, and mechanosensory transduction. He holds a PhD from the Martinac Lab and has conducted postdoctoral training at the Poole Lab and Perozo Lab, where he earned a Chicago Fellowship. His research integrates multi-scale modeling, cryo-electron microscopy, and patch-clamp electrophysiology to study force-from-lipids principles, Prestin motor proteins in hearing mechanisms, and mechanosensitive channels (e.g., MscS, PIEZO1). Notable projects include cryo-EM structural analysis of Prestin and investigations into substrate mechanics' influence on ion channel function. Key contributions include elucidating lipid bilayer deformations in MscS channel gating, asymmetric effects of amphipathic molecules, and MyoD-family protein regulation of Piezo channels. His work bridges molecular mechanisms to in vivo physiology, with applications in hearing restoration and infectious disease diagnostics. Professional awards include the Chicago Fellowship at the Perozo Lab (2018–present). He leads a lab dedicated to advancing mechanobiological understanding and translational applications.

• Mechanobiology
• Bioengineering
• Biophysics
• +5 more

Eric A. Appel is an Associate Professor of Materials Science and Engineering at Stanford University, a Senior Fellow at the Woods Institute for the Environment, and holds courtesy appointments in Pediatrics (Endocrinology) and Bioengineering. His interdisciplinary research bridges materials science, bioengineering, and medicine to develop advanced polymeric systems for healthcare and environmental applications. Education: Ph.D. in Chemistry, University of Cambridge (2012) M.S. in Polymer Science, Cal Poly, San Luis Obispo (2008) B.S. in Chemistry, Cal Poly, San Luis Obispo (2008) Postdoctoral Fellowship in Bioengineering, MIT Research Focus: Dr. Appel’s laboratory engineers biomimetic polymeric materials that serve as tools to study fundamental biological processes and create next-generation therapeutic solutions. His team specializes in injectable hydrogels , drug-delivery depots , and vaccine technologies . These materials are designed to provide sustained release of biologics ranging from GLP-1 receptor agonists for diabetes to broadly neutralizing antibodies against infectious diseases. Recent work leverages supramolecular chemistry to create shear-thinning, self-healing hydrogels that can be delivered with minimal invasiveness yet persist in vivo for months. The group also develops polymer excipients that stabilize ultra-high-concentration biologics, enabling easier storage and administration. Environmental applications include intumescent hydrogels that expand into protective aerogels during wildfires, shielding critical infrastructure. Scientific Awards: Jon Weaver PhD Prize, Royal Society of Chemistry Materials Research Society Graduate Student Award National Research Service Award, NIH NIBIB Margaret A. Cunningham Immune Mechanisms in Cancer Research Award Hellman Scholars Fund Young Faculty Award American Diabetes Association Young Faculty Award American Cancer Society Young Faculty Award PhRMA Foundation Young Faculty Award IUPAC Hanwha-Total Young Polymer Scientist Award (2022) Society for Biomaterials Young Investigator Award (2023) Biomaterials Science Lectureship Award, Royal Society of Chemistry (2023) Impact & Translation: Dr. Appel’s innovations have yielded 35+ patents and served as the foundation for three start-up companies , translating hydrogel and excipient technologies toward clinical and commercial use. His laboratory collaborates extensively with clinicians at Stanford School of Medicine and industry partners to accelerate the path from bench to bedside. Laboratory & Teams: The Appel Lab is a multidisciplinary team comprising materials scientists, chemical engineers, bioengineers, and translational scientists. The group is housed within the Stanford School of Engineering and maintains strong ties to the Woods Institute for the Environment , fostering collaborations that extend from fundamental polymer physics to global health initiatives.

• Biomimetic polymeric materials
• Drug delivery
• Tissue engineering
• +6 more

William Weis was a distinguished Professor of Structural Biology, Molecular and Cellular Physiology, and Photon Science at Stanford University's School of Medicine, holding the endowed William M. Hume Professorship. He served as Chair of the Structural Biology Department before taking medical leave due to glioblastoma. His 30-year career at Stanford Medicine was marked by groundbreaking contributions to understanding protein structures and developing advanced imaging techniques such as X-ray crystallography and cryo-electron microscopy (cryo-EM). Education: A.B. in Biochemical Sciences from Princeton University (1981). Research Interests: Weis pioneered studies on cadherin-catenin complexes, force-dependent interactions in cell adhesion, and the structural basis of cell signaling pathways like Wnt/β-catenin. He advanced methodologies for visualizing protein structures under physiological conditions, including micropatterning techniques for cryo-ET and high-resolution cryo-EM. His work elucidated mechanisms behind cell-cell communication, tissue integrity, and the role of mechanical forces in cellular processes. Key Innovations: Developed X-ray crystallography methods to enhance protein structure resolution and cryo-EM grid micropatterning for cellular imaging. His research on catenins and actin-binding proteins revealed critical insights into tissue architecture and disease mechanisms. Awards and Legacy: While no named prizes are cited, his endowed chair reflects institutional recognition. Colleagues praised his mentorship and interdisciplinary approach, bridging biology, physics, and engineering to advance structural biology and biomedicine. Labs and Collaborations: Conducted research at Stanford and SLAC National Accelerator Laboratory, leveraging photon science facilities for advanced imaging. His work supported drug discovery efforts targeting protein interactions and structural vulnerabilities.

• Structural Biology
• Cell Biology
• Biophysics
• +3 more