Find Academic Supervisors

Maureen A. KaneView profile

Professor

• Mass Spectrometry
• Retinoid Metabolism
• Biomarker Development
• +3 more

Maureen A. Kane, PhD, is a Professor and Executive Director of the Mass Spectrometry Center at the University of Maryland School of Pharmacy, Department of Pharmaceutical Sciences. She holds leadership roles in analytical chemistry, biomarker discovery, and translational research. Dr. Kane’s research focuses on mass spectrometry-based methodologies, retinoid metabolism, and radiation injury biomarkers. Education & Experience: BS in Chemistry, Canisius College (1995) PhD in Chemistry, University at Buffalo (2002) Postdoctoral Fellow, University of California, Berkeley (2003–2009) Assistant Professor (2009–2015), Associate Professor (2015–2022), and Professor (2022–present), University of Maryland School of Pharmacy Executive Director, Mass Spectrometry Center (2015–present) Research Interests: Dr. Kane’s work integrates advanced mass spectrometry techniques with biochemical studies to address disease mechanisms. Key areas include retinoid signaling in development and reproduction, radiation injury biomarkers, and pharmaceutical analysis. Her lab develops novel methods for metabolomics, lipidomics, and imaging mass spectrometry. Biomarker Research Highlights: Her team identifies biomarkers for radiation exposure outcomes, prenatal alcohol exposure, and traumatic brain injury. Collaborations with MCART (Medical Countermeasures Against Radiological Threat) consortium advance medical countermeasure development. Awards: Champions of Excellence Award (2018) Teacher of the Year (2011–2012) Waters Center of Innovation (2013–present) Grants & Advising: Dr. Kane leads NIH-funded projects on retinoid metabolism and radiation biomarkers. She mentors over 20 graduate students and postdocs, with many alumni in academic and industry roles. Lab & Facilities: The Mass Spectrometry Center, directed by Dr. Kane, provides cutting-edge instrumentation for proteomics, lipidomics, and MALDI-MSI. It supports collaborative research across disciplines.

• Chromatography
• Separation Science
• Analytical Chemistry
• +3 more

Ken Broeckhoven holds a prominent academic position at Vrije Universiteit Brussel (VUB) as a Professor in the Department of Bio-engineering Sciences, within the Chemical Engineering and Industrial Chemistry school. His roles include leadership in research groups and administrative positions such as Dean and Department Chair. Specializing in chromatography and separation science, his work focuses on advancing techniques like liquid chromatography, supercritical fluid chromatography, and hydrophobic interaction chromatography for applications in protein analysis and biotherapeutics. He has authored over 236 research outputs and secured 13 major projects, including ones on column performance and sustainable chemical technologies. His contributions have earned 20 scientific awards, including top poster prizes and innovation recognitions. Broeckhoven actively participates in PhD committees and international conferences, emphasizing collaborative research and cutting-edge instrumentation development. Education: Not explicitly detailed in the provided text. Research Interests: Chromatography systems optimization, diffusion dynamics, column design, and analytical method development for complex biological samples. His work bridges theoretical modeling with practical applications in separation science. Recent Research Trends: Recent articles emphasize overcoming extracolumn band broadening, advancing HIC methods, and leveraging computational fluid dynamics (CFD) to enhance column efficiency. His studies often integrate experimental and numerical approaches to dissect separation mechanics. Awards: Includes 1st Prize Poster Award (HPLC 2008), Analytical Science Advances Best Poster (2020), and recognition for master’s thesis supervision (2012). Grants & Activities: Leads projects like the OZR Basisfinanciering voor Grote Onderzoeksgroepen (2024–2029) and participates in over 105 professional activities, including talks at global conferences. Supervises 12 students, including Timothy Januarius (2024) and T. Swier (2015).

Qibin ZhangView profile

Professor

• Analytical Biochemistry
• Biological Mass Spectrometry
• Proteomics
• +3 more

Qibin Zhang is a Professor of Chemistry and Co-Director of the Center for Translational Biomedical Research at the University of North Carolina at Greensboro (UNCG), where he leads the Zhang Research Group in the Department of Chemistry & Biochemistry within the College of Arts and Sciences. His laboratory develops cutting-edge mass spectrometry technologies for proteomics, lipidomics, and metabolomics with applications in disease biomarker discovery and clinical diagnostics. Dr. Zhang's primary research interests focus on developing more accurate, sensitive, and higher throughput measurement capabilities for biomolecules. His work centers on three main areas: Proteomics : Temporal plasma proteomics for Type 1 diabetes progression, cell-specific and spatial tissue proteomics, immunopeptidome analysis for novel T1D autoantigens, antimicrobial peptides, and glycated proteome in diabetic complications Lipidomics : Tissue-specific global lipidomics, high-resolution ozone-induced dissociation mass spectrometry, advanced analysis of glycosphingolipids, and lipid glycation in diabetes Metabolomics : Tryptophan catabolism, oxylipins and inflammation, fatty acid and energy metabolism, and chemical isotope labeling-based metabolomics Analysis of Dr. Zhang's recent publications (2022-2024) reveals a strong focus on translational biomedical applications, particularly in diabetes research and exercise physiology. His work demonstrates expertise in both method development (improved mass spectrometry techniques, data processing software) and biological applications (disease mechanisms, nutritional interventions). The research consistently bridges analytical chemistry with clinical applications, showing particular strength in spatial proteomics and lipidomics approaches. Dr. Zhang teaches advanced analytical chemistry courses including CHE 632/732 Advanced Analytical Chemistry, CHE 633/733 Bioanalytical Chemistry, and CHE 431/531 Instrumental Analysis. His laboratory is equipped with state-of-the-art instrumentation including Thermo QExactive HF, TSQ Quantiva, LTQ-Orbitrap with ETD, nano-LC and UPLC systems, and a Leco GC-TOF mass spectrometer. The Zhang Research Group currently includes four postdoctoral research fellows working across various aspects of proteomics, lipidomics, and metabolomics research.

Hanne Røberg-LarsenView profile

Associate Professor

• Bioanalytical Chemistry
• Liquid Chromatography–Mass Spectrometry (LC-MS)
• Oxysterol Analysis
• +6 more

Hanne Røberg-Larsen is an Associate Professor at the University of Oslo, positioned within the Section for Chemical Life Sciences – Biomolecules, Bio-Inspired Materials and Bioanalytical Chemistry. Her work sits at the intersection of advanced analytical chemistry and biomedical research, where she develops and applies cutting-edge LC-MS technologies to address complex biological questions. Research Focus: Bioanalytical method development using nano- and capillary-LC–MS Oxysterol biology and lipid signalling in cancer and metabolic disease Single-cell and ultra-small sample omics Organoid and organ-on-chip analytics Automated sample preparation and microfluidic integration Across more than 40 peer-reviewed papers (2012-2025), her group has progressively pushed sensitivity limits for detecting metabolites, hormones and drugs in miniaturised systems. Recent trends reveal a strong emphasis on in vitro microphysiological models—combining organoids, organ-on-chip devices and tailored LC-MS workflows—to study metabolic crosstalk and therapeutic responses under controlled conditions. Particular attention is given to cholesterol-derived signalling molecules (oxysterols) and their impact on breast cancer chemoresistance and non-alcoholic fatty liver disease. Collaborative Environment: She participates in the strategic research initiative “Integrated technologies for tracking organoid morphogenesis (ITOM)” and is affiliated with the Bio3 research group “Chemical Life Sciences – Biomolecules, Bio-Inspired Materials and Bioanalytical Chemistry”. The group fosters interdisciplinary collaborations bridging chemistry, biology and engineering. No explicit funding details, awards or student lists were present in the supplied material.

Jeffrey NasonView profile

Professor

• Water Quality and Treatment
• Environmental Engineering
• Aquatic Chemistry
• +4 more

Jeffrey Nason is a tenured Professor and current Head of the School of Chemical, Biological, and Environmental Engineering at Oregon State University's College of Engineering. With degrees in civil, environmental, and chemical engineering from Cornell University and the University of Texas, he has been a faculty member since 2007 and was promoted to full professor in 2021. His leadership extends beyond research to graduate program administration, where he served eight years as Associate Head for Graduate Programs. Ph.D. Civil Engineering - University of Texas, 2006 M.S. Environmental Engineering - Cornell University, 2002 B.S. Chemical Engineering - Cornell University, 1997 Research spans two primary domains: water quality engineering examining copper removal from stormwater using Apatite II™ and compost, and nanomaterial environmental fate investigating heteroaggregation dynamics of engineered nanoparticles with natural colloids. Key projects include NSF-funded studies on traceable nanoparticles and virtual laboratory effectiveness in engineering education. Recent publications focus on epistemic practice development in digital learning environments and metal speciation analysis in complex matrices. NSF CAREER Award (2013) NSF Grant #13 (for traceable nanomaterials research) Advising over 18 graduate and undergraduate students, his lab has produced significant work on nano-particle interactions , stormwater treatment technologies , and educational methodology . Collaborative efforts with Oregon Department of Transportation and National Science Foundation demonstrate institutional impact. Safety protocols emphasize strict adherence to OSU's Chemical Hygiene Plan with specialized SOPs for nanomaterial handling and metal analysis.

• Analytical Chemistry
• Separation Methods
• Pharmaceutical Analysis
• +4 more

Şule DİNÇ ZOR is an Associate Professor in the Department of Chemistry at Yildiz Technical University's Faculty of Arts & Science, specializing in Analytical Chemistry. Her research integrates chromatographic methods (HPLC, GC-MS), electrochemical sensor development, and chemometric optimization for pharmaceutical and food analysis. Education: Post Doctorate (2015-2016): Università degli Studi di Roma Tor Vergata, Italy Ph.D. (2008-2013): Yildiz Technical University, Turkey M.S. (2005-2008): Yildiz Technical University, Turkey B.S. (2002-2005): Yildiz Technical University, Turkey Associate Degree (1997-1999): Marmara University, Turkey Research Focus: Her work spans separation science, pharmaceutical method validation, electrochemical biosensors, and green extraction techniques. She extensively applies experimental design to optimize analytical protocols for complex matrices like drugs, food additives, and environmental contaminants. Recent projects emphasize nanomaterials for sensor platforms and sustainability-driven extraction of bioactive compounds. Publication Trends: Her 95+ publications demonstrate a progression from fundamental chromatographic method development toward advanced electrochemical sensors and multi-analyte detection systems. Recent articles (2020-2025) highlight nano-engineered electrodes for pharmaceutical sensing and eco-friendly extraction methods, reflecting interdisciplinary integration of materials science with analytical chemistry. Academic Contributions: She has advised 11 theses and led 13 research projects. Professional development includes certifications in quality management (ISO 9001), project writing, and advanced analytical techniques from institutions like TÜBİTAK and Yıldız Teknik Üniversitesi.

Donald F. HuntView profile

Professor

• Analytical Biochemistry
• Mass Spectrometry
• Proteomics
• +5 more

Donald F. Hunt is Professor of Chemistry at the University of Virginia, College of Arts and Sciences, where he leads a research program that pioneers ultra-sensitive mass spectrometry methods for protein characterization and immunopeptidomics. Research Focus: Development of nanoflow HPLC-microelectrospray ionization techniques coupled to ion-trap and Fourier-transform mass spectrometers. Structural analysis of proteins and post-translational modifications at femtomole/attomole sensitivity. Discovery of peptide antigens presented via MHC molecules on cancerous or infected cells for vaccine development. Large-scale differential proteomics to compare healthy vs diseased states, drug treatments, and secreted proteins. Identification of phosphoproteins, protein-protein and protein-DNA interactions. Recent Publications: All five 2017 papers leverage advanced mass-spectrometry workflows to dissect antigen presentation, MHC-peptide specificity, phosphorylation-dependent antigens, and high-resolution intact protein fragmentation. Laboratory & Facilities: The Hunt laboratory occupies Room 188B in the Chemistry Building at the University of Virginia, equipped with state-of-the-art ion-trap and FT-ICR mass spectrometers optimized for nano-LC-ESI-MS/MS analyses.

Ankit RochaniView profile

Visiting Assistant Professor

• Pharmaceutical Sciences
• Nanoformulation Development
• Drug Delivery Systems
• +5 more

Ankit Rochani is a Visiting Assistant Professor at St. John Fisher University's Department of Pharmacy/Pharmaceutical Sciences. He holds a Ph.D. from Toyo University, Japan, with postdoctoral fellowships at Toyo University and Thomas Jefferson University in Philadelphia. His research focuses on developing semisolid and nanoformulations using sustainable green biomaterials, particularly in cancer therapy and maternal-fetal pharmacology. He specializes in HPLC and LC-MS/MS method development for drug stability analysis and has contributed to studies on aspirin pharmacokinetics in pregnancy and targeted drug delivery via ultrasound-sensitive oxygen microbubbles. His work supports clinical pharmacies and compounding facilities through stability data generation. Dr. Rochani has received significant awards, including the Japanese Government Scholarship (MEXT) and grants from St. John Fisher University (SIG, FIDG, FRAP). His publications span 2010 to 2025, addressing drug formulation, nanomedicine, and clinical trials. He collaborates with prominent researchers like Gagan Kaushal and Walter Kraft on projects ranging from cancer nanotherapy to obstetric drug safety. Additionally, he integrates innovative lab-based compounding courses into online PharmD programs, emphasizing practical skills for future pharmacists. His research interests also include theranostics in nanomedicine and biomaterials for tissue engineering. He has presented at conferences such as AAPS-Northeast Regional Discussion Group, where he received a Short Topic Presentation Award, and contributed to book chapters on nanomedicine and cancer therapy. His interdisciplinary work bridges pharmacy, materials science, and clinical practice, aiming to enhance personalized drug delivery and patient outcomes.

• Analytical Chemistry
• Environmental Chemistry
• Toxicology
• +3 more

Jovana S. Ajdacic is a Researcher at the Department of Organic Chemistry, University of Belgrade’s Faculty of Chemistry. She holds a BSc (2016) and MSc (2017) in Chemistry from the same institution. Her research focuses on analytical chemistry methods for environmental and toxicological applications, particularly in collaboration with international organizations like the OPCW and EU frameworks. She has contributed to projects addressing chemical weapons compliance, microplastic toxicity assessment, and advanced analytical platforms for environmental contamination analysis. Education: BSc (2012–2016), MSc (2016–2017), University of Belgrade – Faculty of Chemistry Her work emphasizes the development of GC-MS/LC-MS methods for on-site analysis, micro-extraction techniques (MEPS), and untargeted metabolomics to study chemical exposure effects. She collaborates with the Center for Instrumental Analysis (CIA) and participates in Horizon 2020-funded initiatives. Research projects include MECWA FCUB CIA (OPCW-funded, 2017–2021) and IMPTOX (EU Horizon 2020, 2021–2025), focusing on environmental contaminants and allergic disease risks. She is a member of the Serbian Chemical Society since 2018 and has co-authored publications in International Journal of Energy Research and RSC Advances . Her expertise spans chemical warfare agent analysis, eco-toxicology, and advanced analytical instrumentation.

Bezhan ChankvetadzeView profile

Professor

• Clinical drug monitoring
• Capillary electrophoresis
• Environmental analysis
• +7 more

Bezhan Chankvetadze is a Georgian chemist serving as Full Professor and Head of the Department of Physical and Analytical Chemistry at Tbilisi State University, where he also directs the Institute of Physical and Analytical Chemistry. His career spans multiple roles including academic leadership, industrial consulting at Phenomenex, and entrepreneurial ventures through Enantiosep GmbH. He serves as editor for the Journal of Pharmaceutical and Biomedical Sciences and maintains active collaborations with international research groups. Education : Bachelor in Chemistry (1979), Tbilisi State University Master in Physical Chemistry (1979) with distinction PhD in Physical Chemistry (1985), Soviet Academy of Sciences Habilitation in Physical Chemistry (1998) on capillary electrophoresis in chiral analysis Research Focus : Specializing in chiral separation science, his work addresses enantioselective pharmaceutical analysis , isotope effects in chromatography , and cyclodextrin-based recognition mechanisms . His methodological innovations span supercritical fluid chromatography , nano-LC , and capillary electrochromatography , with applications in forensic toxicology and environmental monitoring . Publication Trends : Recent works demonstrate advancements in separating isotopomers and enantiomers of amphetamine derivatives , chiral triazoles , and bioactive ferrocenes . Methodologies emphasize chiral column comparison , molecular modeling integration , and mechanistic studies involving halogen bonding and dispersion forces . Scientific Recognition : Three-time recipient of Journal of Chromatography Top Cited Article Award Georgian National Academy of Sciences member (2013) Shota Rustaveli National Science Foundation's Scientist of the Year (2016) Csaba Horvath Award (2017) Honorary Professor at Xi’an Jiaotong University (2019) Technical Contributions : Developed chiral separation protocols for new psychoactive substances , antiviral agents , and environmental pollutants . His work bridges instrumental development with computational modeling to enhance chiral discrimination mechanisms.

Derek DeeView profile

Assistant Professor

• Protein folding
• Protein aggregation
• Amyloid fibrils
• +9 more

Derek Dee is an Assistant Professor in Food, Nutrition and Health (Food Science) at the Faculty of Land and Food Systems, University of British Columbia (UBC). His research focuses on understanding protein structure and function, with applications in food, biomaterials, and medicine. Dr. Dee leads the Food Protein Biophysics Laboratory, where he applies biophysical tools and protein engineering to study protein folding and aggregation, particularly amyloid fibrils (also known as nanofibrils). Dr. Dee's educational background includes: Postdoctoral Fellow, Department of Physics, University of Alberta PhD in Biophysics, University of Guelph MSc in Food Science, University of Guelph Bachelor's (Honors) in Food Science, University of Saskatchewan Dr. Dee's research centers on protein folding, aggregation, and the engineering of amyloid-like nanomaterials. His work examines how to control the self-assembly of food proteins into nanofibrils with varying functional properties, while assessing their safety for food applications. A key focus is converting plant proteins (particularly from legumes like soy, pea, lentil, and chickpea) into nanofibrils for use as meat analogues. His research also involves using novel bioconjugate chemistry and molecular biology tools to engineer proteins with non-standard amino acids, which can be targeted for specific labeling or to create functionalized nanofibrils. This work bridges food science and biophysics, combining biochemical, molecular biology, and biophysical approaches to better understand and utilize food proteins and enzymes. Analysis of Dr. Dee's recent publications reveals a strong focus on plant protein nanofibrils, particularly from legumes like lentils and peas. His research explores the structural properties, formation kinetics, and functional applications of these nanofibrils in food systems. There's also significant work on understanding protein folding mechanisms, amyloid formation, and the application of high-pressure processing in food science. His research increasingly addresses sustainability in food production, with growing attention to cellular agriculture and recombinant protein expression as future food sources. Dr. Dee has received several prestigious awards and fellowships: Alberta Innovates Health Solutions Postdoctoral Fellowship Ontario Graduate Scholarship Natural Sciences and Engineering Research Council (NSERC) Post Graduate Scholarship Dr. Dee actively mentors graduate students interested in applying fundamental concepts from biophysics, biochemistry, molecular biology, bioinformatics, or molecular dynamics to understand proteins for food or health applications. His laboratory, the Food Protein Biophysics Laboratory, provides a training environment that blends basic and applied sciences. Current research projects include the conversion of plant proteins into nanofibrils for meat analogues and the use of bioconjugation to create functionalized nanofibrils. His work has potential applications as adhesives, cell-culture scaffolding, biosensors, encapsulants, and food ingredients. Dr. Dee collaborates with food scientists, physicists, and computer simulation specialists, and his research is supported by various funding sources focused on sustainable food systems and protein engineering. The Food Protein Biophysics Laboratory utilizes advanced techniques including single-molecule force spectroscopy with optical tweezers, proteomics (LC-MS/MS), and various biochemical and biophysical methods to study protein structure and function. The lab collaborates with the National Research Council (NRC) in Saskatchewan on pea protein research and works on developing novel food ingredients from plant proteins to create sustainable alternatives to animal-based products.

• Molecular Simulation
• Soft Matter Physics
• Porous and Nano-porous Materials
• +3 more

Dr. Damian Mooney is an Associate Professor and Programme Director in the School of Chemical and Bioprocess Engineering at University College Dublin (UCD). He holds a BE (Chemical) from UCD (1992) and a PhD from UCD (1996), followed by postdoctoral research at the Max-Planck-Institut für Polymerforschung (1996–1998). Before joining UCD in 2003, he worked as a Senior Process Engineer at Unifi Inc. and held academic positions at Queen's University Belfast and UCD's Department of Chemical Engineering. His research focuses on molecular simulation, environmental contaminants, and materials science, with notable contributions to CO₂ fixation, nanoporous materials, and veterinary drug residue analysis. He has secured grants from Science Foundation Ireland and coordinates multiple engineering modules emphasizing reflective teaching and professional development. Education: BE (UCD, 1992), PhD (UCD, 1996) Key Roles: Programme Director (ME Chemical & Bioprocess Engineering), Module Coordinator for Process Control and Advanced Process Design Research Interests: Molecular Simulation, Porous Materials, Ionic Liquids, Environmental Monitoring His research combines computational modeling and experimental techniques to address challenges in separation processes, sustainable materials, and environmental chemistry. Recent work includes studies on groundwater contamination by veterinary drugs and CO₂ fixation in biomimetic systems.

• Analytical Chemistry
• Biomedical Engineering
• Nanotechnology
• +3 more

Professor Tony Cass is a Professor of Chemical Biology at Imperial College London's Department of Chemistry and Institute of Biomedical Engineering. He is a Fellow of the Royal Society of Chemistry and Society of Biology. His research focuses on analytical biotechnology, biosensors, and microfabricated devices, with applications in clinical and environmental analysis. Key projects include pioneering electronic blood glucose measurement systems (commercialized by Abbott Diagnostics) and developing microneedle-based biosensors for real-time drug monitoring and diagnostics. Education: Degrees from the Universities of York and Oxford in chemistry. Affiliations include the Agri Futures Lab, CDT in Chemical Biology, CRUK Convergence Science Centre, and Institute of Chemical Biology. He has founded Bio Nano Consulting Ltd. and AquAffirm, and advises companies like PlastiCell and SabiliTech. Over 150 papers and 3 books to date, with editorial roles in Nanobioscience and IET Proceedings Nanobiotechnology . Research interests span engineered proteins/nucleic acids in nanomaterials, antimicrobial optimization, and sensor-driven healthcare. Awards include the Royal Society Mullard Medal (with Prof. Hill and Dr. Green) and Chemical Landmark Award.

• Analytical Chemistry
• Liquid Chromatography Optimization
• Chromatographic Fingerprint Analysis
• +3 more

Jose Antonio Navarro Huerta is a Researcher at the Department of Analytical Chemistry, Universitat de València. He obtained his Doctorate in 2021 with the thesis "Design of strategies for optimisation in liquid chromatography," advised by Dr. José Ramón Torres-Lapasio and Dr. Mª Celia García Alvarez-Coque. His research focuses on advancing analytical chemistry methodologies, particularly in liquid chromatography optimization, retention modeling, and experimental design applications. He specializes in developing strategies for efficient separation methods in LC, including mobile phase optimization, peak capacity estimation, and chromatographic fingerprint analysis of natural extracts and therapeutic proteins. His work trends emphasize improving analytical precision through algorithmic approaches (e.g., BEADS baseline subtraction), validating new column technologies (e.g., ultra-short ion-exchange columns), and applying global modeling techniques to predict chromatographic behaviors. His publications span from fundamental studies on secondary chemical equilibria to applied analyses of herbal extracts and biopharmaceuticals. No scientific awards or grants are explicitly mentioned in the provided information. He has not listed advisees, though his own doctoral training indicates expertise in mentorship within chromatography research. His research actively engages with cutting-edge topics like 2D-LC for polyphenol profiling, micellar LC optimization under extended solvent conditions, and nano-HPLC with monolithic columns. While no specific lab affiliations are noted, his work aligns with modern analytical chemistry infrastructure needs.

Xavier Ortiz AlmirallView profile

Assistant Professor

• Environmental Chemistry
• Toxicology
• Analytical Chemistry
• +4 more

Xavier Ortiz Almirall is an Assistant Professor in the Department of Analytical and Applied Chemistry at the IQS School of Engineering, Ramon Llull University. His research focuses on environmental chemistry, toxicology, and analytical methodologies for detecting pollutants in aquatic systems. He leads work on cyanotoxins, persistent organic pollutants, and their impacts on ecosystems and human health. Key projects include monitoring pharmaceuticals in wastewater, assessing PCB contamination, and studying neurotoxic effects of cyanotoxins in zebrafish. Ortiz Almirall collaborates with interdisciplinary teams on projects like CHEMIPARK (passive sampling methodologies) and GESPA (environmental process engineering). His lab develops advanced analytical techniques such as GC-FID methods for fatty acid analysis and LC-QTOF MS for microcystin quantification. He has contributed to over 35 peer-reviewed articles, addressing topics ranging from microplastic toxin interactions to fire extinguishing contaminant formation. His research emphasizes real-world applications, including ensuring fish safety amid algal blooms and mitigating toxin accumulation in food systems. Current projects extend to 2027, focusing on environmental pollutant responses and sustainable water management strategies.