Dr. Katrin J Svensson is an Associate Professor of Pathology at Stanford University and Affinity Group Leader at the Stanford Diabetes Research Center. She received her Ph.D. from Lund University (2012) and completed postdoctoral training at Harvard Medical School/Dana-Farber Cancer Institute (2017). Her research focuses on discovering circulating factors and peptide hormones that regulate metabolism through computational, proteomic, and physiological approaches. Key discoveries: Isthmin-1 (glucose/lipid homeostasis), BRINP2-related peptide (anti-obesity effects), ANGPTL3 (fructose metabolism) Academic Affiliations: Bio-X, Cardiovascular Institute, Wu Tsai Human Performance Alliance, MCHRI Faculty Fellow Research Highlights: Mapping tissue-specific peptide secretion to identify orphan ligands Characterizing receptors like GPR151 for glucose regulation Developing mitochondria-targeted therapies for cancer and metabolic diseases Investigating dietary sugar impacts on systemic metabolism Scientific Awards: Churg Research Award (2019) McCormick and Gabilan Award (2018) NIH K99/R00 Pathway to Independence Award (2016-2021) SRC International Postdoctoral Fellowship (2013-2016) Teaching & Mentorship: Leads Advanced Cell Biology courses (BIO 214/BIOC 224/MCP 221) and mentors graduate students/postdoctoral researchers in Biochemistry, Biophysics, and Cancer Biology programs.
Bradford G. Orr is the Arthur F. Thurnau Professor of Physics in the College of Literature, Science, and the Arts at the University of Michigan , where he also serves as Associate Vice President for Research (Science & Engineering) . His group uses scanning probe microscopies and molecular-beam epitaxy to explore surface-controlled phenomena in nanoscale semiconductors and, in parallel, engineers multifunctional dendrimer nanoparticles for targeted cancer therapy. Education Ph.D. Physics, University of Minnesota, 1985 B.S. Physics, University of Minnesota, 1980 Research Interests Professor Orr’s work sits at the intersection of condensed-matter physics , surface science , and nanomedicine . He investigates: Surface & Interface Physics: atomically-resolved structures of Si/SiO₂ interfaces, self-assembled monolayers on Au, and composition-modulated compound-semiconductor superlattices. Nanobiotechnology: functional poly(amidoamine) dendrimers as drug-delivery vehicles, lipid-membrane interactions, and real-time AFM imaging of cancer-cell apoptosis. Cross-disciplinary Collaboration: active partnerships with Chemistry, Materials Science, the Medical School, and the Center for Biologic Nanotechnology. Scientific Awards Arthur F. Thurnau Professorship (endowed chair) Grants & Advising While specific grant numbers are not listed, his sustained publication output from 1994 through 2021, coupled with leadership roles in university-wide research administration, indicates continuous federal and institutional funding. The group trains a steady stream of graduate students and postdoctoral researchers, though individual advisee names are not provided in the text. Labs & Facilities Research is conducted in the Randall Lab and Homer A. Neal Lab within the Department of Physics, 450 Church Street, Ann Arbor, MI, and leverages shared instrumentation across the University of Michigan nanofabrication and biological imaging cores.
Professor Richard J. Payne (FAA, FRSC, FRSN, FRACI) is the NHMRC Investigator Leadership Fellow and Deputy Director of the ARC Centre of Excellence for Innovations in Peptide and Protein Science at The University of Sydney. He earned a BSc (1st class honours) from the University of Canterbury (2002) and a PhD from the University of Cambridge under the late Professor Chris Abell (2003-2007). After postdoctoral work at The Scripps Research Institute with Professor Chi-Huey Wong (2007-2008), he joined The University of Sydney as a Lecturer in Organic Chemistry. His research focuses on chemical synthesis of biomolecules to address biological and medical challenges, particularly in anti-infectives , vaccine development , and glycopeptide engineering . His lab pioneered diselenide-selenoester ligation and selenocysteine-based modification techniques for constructing complex peptides and proteins. Current projects target pathogens like Mycobacterium tuberculosis , Plasmodium falciparum , and SARS-CoV-2 through inhibitor design , anticoagulant discovery , and LYTAC development . His 15 most recent publications span 2025-2021 and reflect multidisciplinary work at the chemistry-biology interface , including antiviral peptides , glycoprotein assembly , and supramolecular anticoagulants . Notably, 2025 articles address C-terminal bromodomain inhibitors and on-demand reversible anticoagulants , while 2024 studies focus on PROTAC-based proteostasis disruption and mycobacterial chaperone targeting . Awards & Honors 2016 Malcolm McIntosh Prime Minister's Prize 2023 Australian Academy of Science Fellowship 2014 Le Fèvre Memorial Prize & Edgeworth David Medal 2018 A.J. Birch Medal He supervises 8 active research students and leads collaborations with The Payne Research Group , Charles Perkins Centre , and Sydney Nano Institute . His work aligns with the University of Sydney's research strengths in Molecules to Materials and Next Generation Therapeutics .
David Hyten, Jr. serves as the Haskins Professor of Plant Genetics within the Department of Agronomy & Horticulture at the University of Nebraska-Lincoln, where he leads research advancing soybean genomics and breeding methodologies for global food security. Education: Ph.D., University of Maryland, 2005 M.S., University of Tennessee, 2002 B.A., Southern Illinois University, 1999 Research Focus: Dr. Hyten's program integrates high-throughput genotyping with quantitative genetics to dissect complex traits including disease resistance (cyst nematode, stem borer), seed composition (protein/oil), and yield stability. His work pioneers genomic selection pipelines and recombination hotspot analysis to accelerate breeding cycles, with emphasis on translating genomic discoveries into practical cultivar development through marker-assisted selection and predictive modeling. Publication Trends: Recent outputs (2021-2025) reveal evolving emphasis from foundational genomics (recombination mapping, QTL identification) toward applied breeding solutions, including cost-effective DNA extraction methods, pedigree-based imputation techniques, and community strategic planning for soybean genomics. His work increasingly addresses genotype-environment interactions and stability of key traits across diverse production systems.
Demian Cazalla is an Associate Professor in the Department of Biochemistry at the University of Utah, focusing on the functional roles of non-coding RNAs (ncRNAs) in gene expression regulation. He is affiliated with the Molecular Biology Program and Biological Chemistry Program, contributing to interdisciplinary research in RNA biology. Education: M.Sc., University of Buenos Aires, Argentina Ph.D., Open University/MRC Human Genetics Unit, Edinburgh, Scotland Dr. Cazalla's research investigates how ncRNAs, particularly those expressed by oncogenic herpesviruses like Herpesvirus saimiri (HVS), regulate gene expression. His lab explores the structural and molecular mechanisms of viral ncRNAs (HSURs), their interactions with host miRNAs, and their role in viral oncogenesis through miRNA degradation and mRNA targeting. Current projects involve biochemical analysis of RNA-protein complexes and high-throughput sequencing to identify RNA targets. His recent publications highlight viral miRNA biogenesis pathways, ncRNA structural dynamics, and RNA-based regulatory networks. The work spans molecular virology, RNA biochemistry, and gene expression control in complex organisms.
Dr. Wolfgang Hübner is a Researcher at the Faculty of Physics at University of Bielefeld, Germany, affiliated with the Biomolecular Photonics Group. His work focuses on advanced optical imaging techniques applied to cellular and molecular structures. He maintains an active research program as evidenced by numerous publications from 2023-2025. His research interests center on photonics, biophotonics, optical microscopy, super-resolution imaging techniques, cellular biophysics, and molecular imaging. Dr. Hübner's work bridges physics and biology, developing and applying cutting-edge microscopy methods to address biological questions at the nanoscale level. His recent publications demonstrate a strong focus on super-resolution microscopy techniques, particularly structured illumination microscopy, fluorescence lifetime imaging, and correlative imaging approaches. His research investigates cellular structures like liver sinusoidal endothelial cells, dystroglycan mutants, and mitochondrial dynamics, revealing how advanced optical methods can visualize biological processes at unprecedented resolution. Dr. Hübner's research shows consistent development in both methodological advances in optical imaging and biological applications. His work spans from fundamental optical engineering to biomedical applications, demonstrating interdisciplinary expertise across physics, engineering, and cell biology.
Dmitri Davydov is a Research Professor in the Department of Chemistry at Washington State University. His research focuses on enzymology and biophysics, particularly cytochrome P450 mechanisms, protein conformational dynamics, and systems biochemistry of drug metabolism. He has over 40 years of experience in molecular enzymology and high-pressure bioscience. Education: Research Fellow (Biophysics), 1991-1993, Institut de Biologie Physico-Chimique, Paris, France Ph.D. in Biochemistry, 1987, Russian State Medical University, Moscow M.S. in Biochemistry, 1978, Lomonosov Moscow State University Research Interests: Dr. Davydov investigates protein-protein interactions in cytochromes P450, functional integration in drug metabolism ensembles, and high-pressure adaptations of enzymes. His work integrates biochemical experiments with advanced techniques like mass spectrometry, proteomics, and structural biology. Articles Trends: Recent studies explore non-additive enzyme interactions in hepatic drug metabolism, alcohol-induced changes in cytochrome P450 abundance, and structural-functional relationships in plant and deep-sea enzymes. Key themes include systems-level enzyme network analysis and translational applications in pharmacology. Advising & Grants: No formal advisees listed; however, collaborative projects involve proteomics and structural biology. Research supported by grants focusing on drug metabolism and enzyme adaptation mechanisms. Labs & Teams: Works within WSU Chemistry's biochemistry group, collaborating on interdisciplinary projects involving enzyme dynamics and systems biology. Engages in international partnerships studying marine enzymes and plant P450 systems.
Tracy Brooks is the Chair and Associate Professor of Pharmaceutical Sciences at Binghamton University's School of Pharmacy and Pharmaceutical Sciences, holding the Menner Family Endowed Faculty Fellowship. She specializes in oncology and anti-cancer therapeutics, focusing on drug target development through DNA and protein interactions. Her research emphasizes G-quadruplex stabilization in oncogene promoters to regulate transcription, with applications in pancreatic, prostate, and breast cancers. Education: Bachelor of Science (BS) from the University of Rochester Doctor of Philosophy (PhD) from the University at Buffalo (SUNY) Research Interests: Tracy's work centers on developing novel therapies targeting oncogenes like KRAS and MYC. She explores G-quadruplex structures in promoter regions to inhibit cancer cell proliferation, leveraging small molecules and oligonucleotides. Her lab also investigates nucleic acid delivery systems and the role of epigenetic modifications (e.g., 5-hydroxymethylcytosine) in DNA structure stability. Recent Article Trends: Her publications (2020–2025) highlight advancements in G-quadruplex ligand design, antibody-drug conjugates (ADCs), and combinatorial therapies targeting KRAS/MYC pathways. Key themes include optimizing ADC stability, validating G-quadruplex-based approaches for pancreatic cancer, and exploring transcriptional control mechanisms. Awards: Inaugural Menner Family Endowed Faculty Fellow (2017) Advising & Grants: While specific grant details are not listed, her research has consistently addressed translational oncology challenges. She advises students on projects involving molecular pharmacology and drug delivery, emphasizing cross-disciplinary approaches. Labs & Teams: Her lab focuses on translational cancer research, collaborating with institutions like the University of Arizona and University of Mississippi on drug development and mechanistic studies.
Amrinder Nain is a Professor in the Department of Mechanical Engineering at Virginia Tech. His research focuses on bio-inspired engineering, nanotechnology, and mechanobiology, with emphasis on understanding cellular interactions with fibrous environments. He leads the Spinneret-based Tunable Engineered Parameters (STEP) Lab, developing advanced materials and biomaterials for biomedical applications. Nain holds a Ph.D. in Mechanical Engineering from Carnegie Mellon University (2007) and has held faculty positions at Virginia Tech since 2009. Education: Ph.D., Mechanical Engineering, Carnegie Mellon University, 2007 M.S., Chemical Engineering, Carnegie Mellon University, 2007 B.E., Mechanical Engineering, Manipal Institute of Technology, 1990 Research Interests: Cellular dynamics and tissue engineering Nanofiber-based biomaterials Biomechanics of cancer and cellular migration Organ-on-a-chip technologies Advanced manufacturing of fibrous scaffolds Awards & Collaborations: John Jones Faculty Fellowship NIH-funded collaborations on blood-brain barrier models and cancer cell migration Global partnerships with institutions like Weizmann Institute of Science and Nara Institute of Science and Technology Labs & Teams: The STEP Lab pioneers nanofiber platforms to study cell-fiber interactions, with applications in drug testing and tissue engineering. Current projects include coiling dynamics of cellular protrusions, mitotic spindle orientation, and ultra-thin nanofiber mimics of biological membranes.
Premila P. Samuel Russell is an Assistant Professor of Chemistry at Saint Louis University (SLU), within the School of Science and Engineering. Her research focuses on computational modeling of human cell environments to study biomolecular dynamics and hidden states inaccessible via traditional experiments. She integrates in silico simulations with experimental assays for validation. Education: B.A. in Chemistry, Berea College, Kentucky, 2012 Ph.D. in Biochemistry, Rice University, Texas, 2017 Research Interests: Computational Chemistry: Developing atomistic models of cytoplasmic environments to simulate protein behavior. Biophysics: Exploring protein folding, misfolding, and interactions in cellular contexts. Protein Dynamics: Investigating enzyme choreography and metabolon formation through all-atom simulations. Drug Design: Analyzing hemoglobin structure for therapeutic applications like Voxelotor. Her recent work emphasizes 'cells-on-computers' simulations and high-throughput experimental assays, addressing limitations in spatial-temporal resolution of conventional methods. Awards: Cooley’s Anemia Foundation Research Fellowship (2023) D.E. Shaw Research Women’s Fellowship (2021) Rice University’s George J. Schroepfer Awards for Thesis and Research Excellence (2017–2018) Her lab (Premila Research Group) bridges computational and experimental approaches to advance understanding of biomolecular systems. Contact: premila.russell@slu.edu at Monsanto Hall, SLU.
John K. Walker is an Associate Professor in the Department of Chemistry at Saint Louis University's School of Science and Engineering, with research affiliations in Pharmacology & Physiology. His work focuses on medicinal chemistry approaches to develop novel bioactive molecules targeting critical biological challenges. B.S. in Chemistry, Southern Illinois University at Edwardsville (1990) M.S. in Chemistry, Southern Illinois University at Edwardsville (1992) Ph.D. in Chemistry, Indiana University (1997) Research in the Walker Lab centers on medicinal chemistry , synthetic organic chemistry , and chemical biology , with particular emphasis on: Designing and synthesizing novel bioactive molecules Computational methods including molecular modeling and docking Bacterial efflux pump inhibitors to combat antibiotic resistance GPCR modulators for pain signaling pathways Development of tool compounds for biological studies Recent publications highlight his work in: Efflux pump inhibition mechanisms (2024-2025) Nuclear receptor agonist development (2024) GPCR signaling in pain pathways (2025) Antibiotic permeation modeling (2024) Metabolic disease therapeutics (2023-2024)
Robert Batey is a Full Professor in the Department of Chemistry at the University of Toronto, serving as Co-Director of the Acceleration Consortium's Medicinal Chemistry Self-Driving Lab (SDL) and former Chair of the Department (2013–2023). His research focuses on organic synthesis, medicinal chemistry, and applications in drug discovery, with a particular emphasis on organoboron chemistry and protease inhibitors. He holds a B.A. from Oxford University and a Ph.D. from Imperial College London. His work bridges synthetic methods, structural analysis, and computational science, including collaborations on machine learning-driven molecule design. Key research areas include: synthetic methods using organoboron compounds, combinatorial chemistry, hetero Diels-Alder reactions, and the development of small molecules targeting ClpP proteases and ubiquitin pathways. His group has synthesized natural products like himeic acid A, kitastatin, and martinelline, as well as novel antibiotics and PROTACs. Recent publications highlight advancements in AI-driven drug design (e.g., GFlowNets for molecular generation), structure-based antibiotics development, and PROTAC complex structure prediction. Awards include the CSC Merck-Frosst Award and multiple teaching/research accolades. Awards: CSC Merck-Frosst Award, Merck Academic Development Award, Bio-Méga/Boehringer Ingelheim Young Investigator Award, and teaching excellence recognition. Advising: Active mentorship of graduate students and postdocs in organic chemistry, with a focus on independent research and problem-solving. Labs: Located in Lash Miller Building (3rd floor), including North Lab (LM 371) and South Lab (LM 370).
Prof. Markus Valtiner is a Professor at TU Wien's Department of Applied Interface Physics, focusing on interfacial processes, corrosion science, and electrochemistry. His research combines experimental and theoretical approaches to study solid-liquid interfaces, surface chemistry, and material degradation mechanisms. He leads a team investigating high entropy alloys, passive film structures, and biomimetic membrane systems. Education: Dipl.-Ing. (Diplom-Ingenieur) in Engineering, Dr.techn. (Doctor of Engineering) from TU Wien. Research Interests: Corrosion mechanisms, electrochemical analysis, surface modification, and thin film characterization. His work spans applications in automotive materials, protective coatings, and biomedical systems. Recent Trends: Articles emphasize real-time visualization of ion dynamics, advanced surface analysis via LEIS and AFM, and sustainable material treatments. Studies on hydration layers and superlubrication highlight innovative solutions for friction reduction in confined spaces. Awards: None explicitly mentioned. Advising & Grants: Advised 19 thesis students (2018–2023) on topics like electrochemical functionalization, corrosion protection, and nanophotonic materials. Grant activities focus on interdisciplinary collaborations between physics, chemistry, and engineering. Labs & Teams: Leads the Network Lab at TU Wien, specializing in interfacial physics and advanced materials characterization using cutting-edge microscopy and spectroscopy techniques.
Dr. Pushan Bag is a Postdoctoral Researcher at the University of Oxford's Jarvis Lab, supported by a Human Frontiers Science Program Long-term Fellowship. His research focuses on understanding plastid protein translocation machinery and photosynthetic acclimation in coniferous plants. Previously, he earned his PhD from the Umeå Plant Science Centre in Sweden (2022), studying overwintering photosynthetic mechanisms in conifers. Research Interests: Photosynthetic acclimation, plastid protein transport, thylakoid membrane biochemistry, leaf senescence regulation, and evolutionary aspects of plant stress responses. Techniques include chlorophyll fluorescence spectroscopy, membrane protein solubilization, and transcriptomic analysis. Key Achievements: Developed the ChloroSpec spectrometer for in vivo chlorophyll fluorescence analysis, identified LHCSR3's role in algal osmotic stress responses, and elucidated flavodiiron-mediated photoprotection in conifers. His work bridges fundamental plant biology with biotechnological applications in membrane protein research. Professional Network: Active on ResearchGate and Google Scholar; affiliated with the Oxford Mosaic interdisciplinary platform. Engages in open science initiatives through preprint sharing and methodological tool development.
Ilja K. Voets is a Full Professor at Eindhoven University of Technology (TU/e) in the Department of Chemical Engineering and Chemistry, leading the Self-Organizing Soft Matter research group. She is also a Core member of the Institute for Complex Molecular Systems (ICMS). Her academic journey began at Wageningen University & Research where she earned her PhD cum laude in 2008, followed by postdoctoral research at the Aldolphe Merkle Institute in Switzerland. Since 2011, she has been at TU/e, becoming a full professor in 2018. Her educational background includes Molecular Sciences at Wageningen University & Research, with a PhD focusing on micellisation in dilute aqueous solutions of oppositely charged double hydrophilic block copolymers. She was supervised by dr. Arie de Keizer and prof. Martien A. Cohen Stuart. Professor Voets leads an interdisciplinary team of chemists, physicists, biologists, and engineers studying self-assembly processes in biological soft matter. Her research focuses on colloidal self-organization, polymer assembly and folding, and protein biophysics, with particular interest in ice-binding proteins that help organisms survive in extreme cold environments. She investigates how to control intra- and intermolecular copolymer assembly to develop novel functional soft materials, artificial enzymes, and strategies to enhance colloidal stability. A key challenge in her work involves orchestrating colloidal self-assembly with remote cues such as light and temperature. Her recent publications reveal a strong focus on antifreeze proteins, colloidal assembly, and nanoparticle technology, with significant contributions to understanding ice-binding mechanisms and developing novel soft materials. The research demonstrates consistent high-impact output across prestigious journals including PNAS, Angewandte Chemie, and Biomacromolecules. Ambizione Award (2010) : Recognizing early-career research excellence DMS Science and Technology Award (2009) : For significant contributions to materials science ERC Consolidator Grant (2021) : Supporting advanced research in ice-binding protein-polymers Ice-binding protein-polymers project (2016) : Focused on control over ice growth in soft materials Innovative peptide system award (2019) : For novel drug targeting approaches Professor Voets supervises numerous research projects and students, teaching courses including Biological Physics, Physical Chemistry, and Experimental Soft Matter. Her research group is affiliated with the Institute for Complex Molecular Systems, Eindhoven Polymer Laboratories, and the Gravity Program Functional Molecular Systems. Industry collaborations include DSM, Kemetyl, and Unilever, demonstrating the practical applications of her fundamental research. Her work contributes significantly to UN Sustainable Development Goals related to responsible consumption, climate action, and life below water.
