Prof. Ilse Dewachter is the head of the Biomed Neuroscience research group at Hasselt University (UHasselt), specializing in Alzheimer’s therapy and prevention for over 25 years. Her work focuses on multi-targeted therapies targeting tau, inflammation, and ApoE, alongside pioneering research into disease prevention via blood-based biomarkers. Recent studies explore a protective APOE3ch mutation that halted Alzheimer’s progression in a patient, offering hope for new treatments. Research Interests: - Alzheimer’s disease mechanisms (Abeta, tau, inflammation) - Multi-target therapies and biomarker development - Neurodegenerative disease prevention strategies - Genetic mutations impacting disease progression Articles Overview: Her most recent work (2025-2022) addresses neuroinflammation, tau propagation models, and AI-driven neuroimaging. Key themes include APOE genetics, blood-brain barrier dynamics, and exercise impacts on cognition. Funding & Grants: Current projects require significant investment for advanced biomarker equipment and clinical trials. A notable €300,000 grant funded research on brain lipid metabolism’s role in Alzheimer’s. Labs & Teams: Leads the BIOMED Neuroscience group at UHasselt, collaborating internationally on preclinical models and drug development.
Professor Ingrid Undeland leads the Marine research group at the Division of Food and Nutrition Science, Department of Life Sciences at Chalmers University of Technology. She is a distinguished researcher with expertise spanning marine food science, lipid chemistry, and blue biorefining, having established herself as a leading figure in sustainable seafood research and marine biotechnology. Her educational background includes food science studies from Linnaeus University and a PhD in bioscience from Chalmers University of Technology and SIK (now RISE). Between 1999-2002, she was a post-doctoral fellow at University of Massachusetts Marine Station, which significantly shaped her research trajectory in marine food science. Professor Undeland's research focuses on pioneering next-generation seafood through innovative value chains from seaweed, small pelagic fish, fish side streams, mussels, and microalgae. Her specialized expertise lies in marine lipids and proteins, particularly their stabilization, isolation from complex sources, and nutritional properties including digestibility. She has extensive experience with antioxidant strategies using plant-derived side streams or extracts and fundamental studies of fish hemoglobins as pro-oxidants. Her work also encompasses innovative technologies for biomass fractionation and nutrient recycling to build blue biorefineries, along with in vitro digestion models and general seafood analytics. Beyond marine research, she explores filamentous fungi as sustainable alternative food protein sources. The trends in her recent publications reveal a strong emphasis on valorizing marine resources through advanced processing techniques. Her work increasingly focuses on sustainable extraction methods for seaweed proteins, particularly Ulva fenestrata, and developing antioxidant strategies using berry side streams to stabilize fish proteins. There's a growing interest in understanding the nutritional properties and digestibility of alternative marine proteins, along with environmental assessments of processing technologies. Her research consistently bridges fundamental science with practical applications for creating sustainable seafood value chains. Swedish representative in Nordic Lipidforum, WEFTA, and EuCheMS Editorial board member of Journal of the Aquatic Food Product Technology Member of the National Committee for Nutrition and Food Science at the Royal Swedish Academy of Sciences Co-founder of the startup company AquaFood H-index of 47 according to Google Scholar Professor Undeland has an extensive record of academic mentorship, having supervised or currently supervising 23 PhD students, 14 postdoctoral researchers, and examining over 25 MSc students. Her research is supported by numerous grants, including the WaSeaBi Project which focuses on valorizing seafood side-streams through holistic value chain design. She collaborates with various industry partners and academic institutions across Europe. Her laboratory includes technicians Dr. Karin Larsson and Dr. Rikard Fristedt, and she leads a dynamic research team working on multiple projects related to marine biorefining and sustainable seafood development. Her research group operates within well-equipped facilities at Chalmers University, with specialized laboratories for marine food analysis, protein extraction, lipid oxidation studies, and in vitro digestion modeling. The team also maintains cultivation systems for seaweed and filamentous fungi, enabling integrated research from raw material production to final product development.
Professor Gideon James Grogan is a distinguished academic at the University of York, holding a position in the Department of Chemistry within the Faculty of Sciences. With expertise spanning structural and applied enzymology, he leads research at the intersection of chemistry and biology, developing novel biocatalysts for sustainable chemical synthesis and pharmaceutical applications. Professor Grogan's research focuses on the identification, characterization, and application of enzymes with biotechnological potential. His work encompasses: Oxygenases including P450s, flavoprotein monooxygenases, and peroxygenases Reductases such as ketoreductases (KREDs), imine reductases (IREDs), and reductive aminases (RedAms) Lyases catalyzing asymmetric hydration of alkenes Ligases for amide bond formation His multidisciplinary approach integrates synthetic chemistry, microbiology, molecular biology, and X-ray crystallography to engineer enzymes using in vitro evolution techniques. Recent research has yielded significant advances in biocatalytic pathways for chiral pharmaceutical precursors and renewable material processing. Professor Grogan's publication record demonstrates consistent innovation in biocatalysis, with recent work focusing on peroxygenase applications, reductive amination technologies, and enzyme engineering for improved catalytic properties. His research shows strong trends in developing sustainable enzymatic routes for pharmaceutical synthesis, with particular emphasis on stereoselective transformations and cascade reactions. Professor Grogan has received significant research funding through major grants from: BBSRC (Biotechnology and Biological Sciences Research Council) EPSRC (Engineering and Physical Sciences Research Council) He actively supervises PhD students and collaborates extensively both within the University of York and internationally. His work bridges the Departments of Chemistry and the York Structural Biology Laboratory (YSBL), leveraging state-of-the-art facilities for organic synthesis, protein expression, and structural analysis. Professor Grogan maintains strong industry connections, translating fundamental research into practical applications for pharmaceutical and chemical manufacturing. His current projects include sustainable production of menthol enantiomers, development of native amine dehydrogenases for chiral amine synthesis, and discovery of securinine alkaloid biosynthesis pathways.
Christopher Lawson is an Assistant Professor in the Department of Chemical Engineering and Applied Chemistry at the University of Toronto, affiliated with the Faculty of Applied Science and Engineering. He serves as Principal Investigator of the Microbiome Engineering Lab and is part of BioZone – the Centre for Applied Bioscience and Bioengineering. His research focuses on engineering anaerobic microbiomes for resource recovery from waste streams using systems biology, synthetic biology, and machine learning approaches. B.A.Sc., M.A.Sc. (University of British Columbia) Ph.D. (University of Wisconsin-Madison) Postdoctoral Training (Berkeley Lab) Lawson's work addresses the challenge of controlling complex microbial interactions in engineered systems to enable scalable biotechnologies for renewable energy, chemicals, and materials. His lab develops high-throughput methods integrating automation and computational tools to optimize microbiome assembly and metabolic fluxes. Recent publications highlight advancements in metabolic modeling , isotope tracing , and systems-level analysis of anaerobic microbiomes, with applications in wastewater treatment , anammox granules , and bioenergy production . His research bridges fundamental microbiology with industrial-scale bioprocess engineering. Scientific Awards ISME/IWA BioCluster Rising Star Award (2022) Jacobs Engineering Group/AEESP Outstanding Doctoral Dissertation Award (2020) Wesley Eckenfelder Graduate Research Award (2019) WEF Canham Graduate Studies Scholarship (2018) NSERC Post-Graduate Scholarship – Doctoral (2014) Lawson actively mentors students and postdocs, emphasizing technical rigor, communication skills, and independence. His lab collaborates within BioZone and with industry partners to advance "team science" principles. Current projects focus on creating engineered microbiomes for commercial-scale waste valorization.
Virginia Davis is the Dr. Daniel F. and Josephine Breeden Professor in the Department of Chemical Engineering at Auburn University's College of Engineering. She holds a Ph.D. in Chemical and Biomolecular Engineering from Rice University, and M.S. and B.S. degrees in Chemical Engineering from Tulane University. Research Focus: Self-assembly of nanomaterials, rheology, lyotropic liquid crystals, additive manufacturing, polymers, nanocomposites, and biosensors Key Projects: USDA-funded agricultural outreach, NSF grant for MXene dispersion studies, Alabama STEM Council member Her recent publications explore cellulose nanocrystals, MXene 3D printing, and sustainable polymer recycling. Davis has received multiple honors including the Breeden Professorship, AIChE Fellowship, and Auburn University Faculty Awards for research and mentorship. Research Trends: Dominated by bio-based nanomaterials (cellulose nanocrystals, MXenes), with applications in additive manufacturing, environmental remediation (PFAS adsorption), biosensors (carbofuran detection, cancer biomarkers), and agricultural delivery systems. Scientific Awards Auburn University Faculty Awards (2023, 2025) AIChE Fellow (2023) Dr. Daniel F. and Josephine Breeden Professorship Davis leads outreach initiatives like the Tomorrow’s Community Innovators camp and collaborates with interdisciplinary teams on plastic recycling innovations. Her work emphasizes both fundamental material science and practical applications addressing environmental and agricultural challenges.
Henrik Rasmus Andersen is a Professor at the Department of Environmental and Resource Engineering, Water Technology & Processes at the Technical University of Denmark (DTU). His research focuses on water treatment processes, particularly the occurrence, transformation, and removal of micropollutants like pharmaceuticals and hormones. Key Research Areas: Chemical analysis, bioassays, ozonation, biofilter optimization, by-product profiling, and advanced oxidation processes. Projects: Leads initiatives like BIZON (ozone technology for fish farms) and Sustainable Industrial Laundry Wastewater Treatment , emphasizing sustainable solutions. Collaborations: Works with institutions such as University of Copenhagen and industry partners on municipal and industrial wastewater challenges. Education: Master of Science in Environmental Chemistry from Copenhagen University (1998).
Charles J. Taylor is Professor of Chemistry and Chair of the Chemistry Department at Pomona College, where he has served since 2002. An analytical chemist specializing in instrumental techniques for volatile organic compound (VOC) analysis, his work bridges medical diagnostics, environmental monitoring, and chemical sensing applications. His educational background includes: Ph.D. from University of Minnesota Bachelor of Arts from Macalester College Taylor's research focuses on developing rapid diagnostic methods through VOC analysis, leveraging microhotplate arrays, Raman spectroscopy, and polymer-carbon composites. His work spans biological systems (nematode chemotaxis, wine fermentation flavor compounds) and environmental applications (trace element profiling in coffee beans). Students in his lab gain hands-on experience with advanced analytical instrumentation and multivariate data analysis. Analysis of his publications reveals consistent themes in chemical sensing materials development, with strong emphasis on microsensor arrays, NASA-collaborative electronic nose projects, and applications in medical/environmental diagnostics. His work demonstrates interdisciplinary integration of materials science, analytical chemistry, and data analysis. His scientific achievements have been recognized with: NASA Board Award for Copolymers for Sensors (2013) NASA Board Award for SO 2 Detection (2012) Provisional U.S. Patent #60/861-617 (2007) Multiple NASA Tech Brief Awards (2007) Taylor actively mentors undergraduate researchers, with students co-authoring publications on diverse projects from medical diagnostics to environmental trace analysis. His teaching includes Advanced Analytical Chemistry, Environmental Chemistry, and General Chemistry, emphasizing practical laboratory experience. Research funding has supported instrumentation development and NASA-collaborative sensor projects. His laboratory focuses on chemical sensing materials development, particularly microhotplate-based sensor arrays and VOC analysis systems, with ongoing collaborations with NASA's Jet Propulsion Laboratory for electronic nose applications and environmental monitoring solutions.
Gustavo M. Silva is the Jack H. Neely Associate Professor of Biology at Duke University's Trinity College of Arts & Sciences, a position he has held since 2025. Previously, he served as Associate Professor of Biology (2024-present) and Assistant Professor of Cell Biology (2022-present) at Duke. His research is conducted through the Silva Lab (sites.duke.edu/silvalab), which focuses on molecular mechanisms of cellular stress response. Education: Ph.D. from University of Sao Paulo (Brazil), 2010 B.Sc. from University of Sao Paulo (Brazil), 2004 Dr. Silva's research centers on understanding how gene expression is regulated at transcriptional and translational levels during cellular stress. His lab specifically investigates how the ubiquitin system controls protein synthesis and degradation dynamics under stress conditions, which are critical for cellular physiology. His work has significant implications for understanding disease mechanisms where protein homeostasis is disrupted. The research combines biochemical, genetic, and proteomic approaches to dissect these complex regulatory networks. His publication record demonstrates a clear evolution from fundamental studies on redox regulation and proteasome function to more complex investigations of ubiquitin signaling in translation control and stress response. Recent work increasingly focuses on K63-linked ubiquitination's role in ribosome function and translation regulation, with growing emphasis on the clinical implications of these mechanisms in disease contexts including cancer. Scientific Awards & Recognition: Paul T. Englund Emerging Scholar Award (Johns Hopkins School of Medicine, 2024) Dean's Award for Excellence in Mentoring (Duke Graduate School, 2023) Science Diversity Leadership Award (Chan Zuckerberg Initiative, 2022) Best Professor Award (Vanderbilt Basic Sciences Juneteenth Committee, 2022) 100 inspiring Black scientists in America (CellPress, 2020) Dr. Silva actively mentors students at multiple levels, as evidenced by his Dean's Award for Excellence in Mentoring. His research is supported by substantial funding including NIH grants such as the Tri-Institutional Molecular Mycology and Pathogenesis Training Program (2024-2029) and 'Stalling cancer at the ribosome' from the V Foundation for Cancer Research (2025-2028). He also serves as Principal Investigator on multiple R01 grants focused on ubiquitin's role in translation control and stress response. The Silva Lab maintains strong collaborative relationships with institutions including the Chan Zuckerberg Initiative and ETH Zurich, and participates in several interdisciplinary training programs at Duke that support underrepresented students in biomedical sciences.
Professor Howard Stone is a faculty member at the University of Cambridge, affiliated with the Department of Materials Science and Metallurgy. He has progressed through academic ranks, including Professor of Metallurgy (2021), Reader in Metallurgy (2017), and Lecturer in Metallurgy (2012). PhD (University of Cambridge, 2000) MA (University of Cambridge, 1995) His research focuses on metallurgy and materials science , particularly Nickel-Based Superalloys , High-Entropy Alloys , and Titanium Alloys . Key areas include microstructural evolution under thermal stress, oxidation resistance, and additive manufacturing techniques like laser powder bed fusion. Professor Stone’s recent publications highlight trends in superalloy design , phase stability , and additive manufacturing . Topics include gamma prime precipitation, lattice misfit analysis, and oxidation behavior modification. He is associated with the Rolls-Royce UTC (University Technology Centre) at Cambridge, which focuses on advanced metallurgical research and industrial collaboration.
Prof. Dr. Helma Wennemers serves as a Full Professor at ETH Zurich's Department of Chemistry and Applied Biosciences, leading the Laboratory for Organic Chemistry. Her research group operates from HCI H 313 at Vladimir Prelog Way 1-5/10 in Zurich, Switzerland, with active teaching responsibilities including Organic Chemistry I and Chemical Biology - Peptides for the Fall 2025 semester. Her research program centers on the intersection of organic chemistry and chemical biology , with particular emphasis on collagen triple helix engineering , peptide-catalyzed asymmetric synthesis , and development of chemical tools for tissue remodeling diagnostics . Key focus areas include designing hyperstable collagen heterotrimers for fibrosis monitoring, creating fluorophore-based probes for collagen cross-linking visualization, and pioneering organocatalytic methodologies for complex heterocycle synthesis. Her group actively explores how hydrophobic modifications and proline derivatives influence collagen stability and cellular uptake mechanisms. Analysis of her 15 most recent publications (2024-2025) reveals three dominant research trajectories: (1) collagen structural engineering for biomedical applications, (2) innovative peptide/organocatalysis enabling stereoselective transformations, and (3) chemical probe development targeting tissue remodeling processes. These works consistently integrate synthetic chemistry with biological validation, demonstrating translational potential in fibrosis diagnostics and regenerative medicine. While specific grant details aren't provided in available sources, her research program clearly supports advanced laboratory infrastructure including peptide synthesis facilities and photochemical reaction systems like the ETHos photoreactor. Her group maintains strong industry and clinical collaborations evident in applications targeting liver cancer cells and prostate cancer diagnostics. The Laboratory for Organic Chemistry functions as an interdisciplinary hub where synthetic organic chemists collaborate with biologists to develop collagen-based diagnostic platforms and catalytic systems. Current projects focus on lysyl oxidase-responsive probes for real-time tissue monitoring and engineered peptide catalysts for sustainable chemical synthesis under environmentally relevant conditions.
Stephen A. Boyd is a University Distinguished Professor in the Department of Plant, Soil and Microbial Sciences within Michigan State University's College of Agriculture and Natural Resources. His research spans environmental chemistry and microbiology with a focus on soil systems. His educational background includes a B.S. in Chemistry from Central Michigan University (1975), and M.S. and Ph.D. in Soil Chemistry from Purdue University (1978, 1980). Dr. Boyd's research investigates organic contaminant movement in soil, microbial/catalytic degradation mechanisms, and remediation technologies for contaminated soils/sediments. His work features innovative approaches including chemically modified clays for contaminant sorption and degradation, mechanistic studies of toxicant interactions with natural/modified clays, and development of in-situ soil modification technologies. He extensively examines biodegradation of xenobiotics (particularly PCB reductive dechlorination) and bioavailability of soil-bound contaminants to degrading bacteria. His 15 most recent publications reveal strong trends in clay-based contaminant immobilization, pharmaceutical/water pollutant interactions, dioxin chemistry, and nanomaterial applications for environmental remediation, with dominant fields being environmental chemistry, soil science, and contaminant toxicology. University Distinguished Professor (MSU, 2005) Jackson Award in Soil Science (SSSA, 2004) Highly Cited Researcher (Institute for Scientific Information, 2002) Distinguished Faculty Award (MSU, 2001) Soil Science Research Award (SSSA, 1999) Dr. Boyd has secured significant research funding including a recent $750K USDA grant (2022) for PFAS mitigation research. His laboratory focuses on clay chemistry applications for environmental remediation, with notable breakthroughs in soil cleansing technologies and biochar applications. Current work emphasizes advanced contaminant degradation pathways and practical field applications of his soil modification technologies.
Martin Jastroch is a Professor at Stockholm University's Department of Molecular Biosciences, The Wenner-Gren Institute. His research focuses on the physiology and molecular mechanisms of energy metabolism from organism to molecule level. His primary research interests include: Energy metabolism physiology and molecular mechanisms Obesity and metabolic aspects Adipose tissue biology Mitochondrial mechanisms Thermogenesis and brown fat function Metabolic regulation in health and disease Professor Jastroch's research spans multiple disciplines, connecting molecular mechanisms with whole-organism physiology. His work on mitochondrial bioenergetics and thermogenesis has contributed significantly to understanding how energy metabolism is regulated across different biological scales. Recent publications show a growing interest in the evolutionary aspects of thermogenesis and the role of brown adipose tissue in metabolic diseases, with particular focus on UCP1 function, mitochondrial adaptations, and metabolic reprogramming in disease states. His scientific contributions include important findings on: UCP1 (Uncoupling Protein 1) function and regulation Mitochondrial bioenergetics in different tissue types Evolutionary aspects of mammalian thermogenesis Metabolic regulation in obesity and related disorders Links between mitochondrial dysfunction and neurodegenerative diseases Professor Jastroch leads 'Group Jastroch' at Stockholm University, where his team investigates the complex interplay between cellular energy metabolism and whole-body physiology, with implications for understanding and treating metabolic disorders.
Seth Herzon is the Milton Harris '29 Ph.D. Professor of Chemistry at Yale University, with joint appointments in the Departments of Pharmacology and Therapeutic Radiology at the Yale School of Medicine. He is also a Member of the Yale Cancer Center and co-founder of Modifi Biosciences, which was acquired by Merck in Fall 2024. Herzon joined Yale in 2008 after completing his PhD at Harvard University and an NIH postdoctoral fellowship at the University of Illinois, Urbana-Champaign. Her research focuses on organic synthesis with an emphasis on the molecular mechanisms of action of DNA-damaging compounds, particularly anticancer and microbiome-derived natural products. His laboratory has made significant contributions to understanding colibactin, a gut microbiome metabolite that induces colorectal cancer, and has developed novel chemotherapies targeting DNA repair defects in tumors. His work spans synthetic chemistry, chemical biology, and translational medicine, with projects ranging from total synthesis of complex natural products to developing antibacterial agents. His recent publications reveal a strong trend toward microbiome-cancer interactions, particularly focusing on colibactin's role in carcinogenesis, alongside continued innovation in synthetic methodology and therapeutic development for drug-resistant cancers. His work bridges fundamental chemistry with clinical applications, particularly in cancer therapeutics. Among his numerous accolades are the NSF CAREER Award, Searle Scholar Award, Packard Fellowship, Sloan Fellowship, Arthur C. Cope Scholar Award, and the 2024 Yale Cancer Center Class of '61 Cancer Research Award. He served as Associate Editor for The Journal of Organic Chemistry from 2018-2023 and was a member of the United States Defense Science Study Group from 2018-2019. Herzon has mentored numerous PhD students and postdoctoral researchers who have gone on to successful careers in academia and industry. His laboratory at Yale continues to be at the forefront of chemical research with significant translational impact, particularly in cancer drug discovery. The lab maintains active collaborations with researchers across Yale, including in pharmacology, radiobiology, and cancer biology.
Professor David R. Clarke is the inaugural Extended Tarr Family Professor of Materials at Harvard School of Engineering and Applied Sciences. He is a Senior Fellow of the Hong Kong Institute for Advanced Study (HKIAS) and member of the US National Academy of Engineering. PhD in Physics (University of Cambridge) B.Sc. in Applied Sciences (Sussex University) ScD (University of Cambridge) His research spans fundamentals and applications of ceramics, metals, semiconductors, and polymers, focusing on mechanical properties, thermal barrier coatings, dielectric elastomers, oxidation fundamentals, and microelectronics reliability. Recent work explores electro-adhesive forces and nanopore evolution in yttria-stabilized zirconia. With over 500 publications in journals like Nature and Advanced Materials, Clarke's work has been cited >50,000 times (h-index 107). He holds 13 patents and has advised students across MIT, UC Berkeley, and Harvard. 2008 Japanese NIMS Award 1993 Humboldt Senior Scientist Award Distinguished Life Member, American Ceramic Society Teaching includes undergraduate courses on heat transfer and materials design, plus graduate courses on dislocations and composites. His lab recently worked on quantum dot displays and fatigue crack sensing technologies.
Yu Xia is a Post Doc at the Department of Chemistry, Stockholm University, Sweden. He is affiliated with the Tom Willhammar Research Group, focusing on advanced electron microscopy and diffraction techniques for structural characterization of materials. PhD (2019–2023) from a joint program between the University of Birmingham (UK) and the Southern University of Science and Technology (China). Research emphasizes fabrication of metallic nanoparticles with non-equilibrium structures and shapes using gas-phase condensation and thermal shock methods. Specializes in scanning transmission electron microscopy (STEM), in-situ heating experiments, and electron energy loss spectroscopy (EELS) for nanoparticle analysis. Current work prioritizes 4DSTEM imaging for electron beam-sensitive materials and Python-based post-processing of electron microscopy datasets. Yu Xia's research spans Materials Science , Nanotechnology , and Electrocatalysis , with applications in photocatalytic hydrogen evolution , graphene composites , and advanced electron microscopy techniques . His work often integrates computational image processing with structural characterization to optimize material properties. Publications highlight innovations in heterostructure engineering , metallic alloy catalysts , and electron beam-sensitive material imaging . No scientific awards are explicitly mentioned in the provided text. Yu Xia's technical expertise includes Python scripting for image analysis, in-situ electron microscopy , and multifunctional graphene-based materials .
