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Dorota KopećView profile

Lecturer

• Analytical Chemistry
• Environmental Analytics
• Bioanalytics
• +2 more

Dorota Kopeć is a Lecturer at the Department of Chemical Technology and Environmental Analytics within the Faculty of Chemical Engineering and Technology at Tadeusz Kościuszko Cracow University of Technology. She holds a Doctor of Engineering degree and maintains active research and teaching responsibilities in analytical chemistry disciplines. Her educational qualifications include: M.Sc. from University of Gdańsk, Faculty of Chemistry (2005) Engineer degree from Gdańsk University of Technology, Faculty of Chemistry, Chemical Technology, Light organic synthesis (2008) Doctorate from University of Gdańsk, Faculty of Chemistry (2011) Dr. Kopeć's research centers on Analytical Chemistry with specialization in Environmental Analytics, Bioanalytics, Chromatography, and Natural Products Analysis. Her work emphasizes method development for analyzing biological samples, natural compounds, and sugars using liquid chromatography techniques, particularly focusing on preparatory and analytical applications. Her scientific recognition includes: Honorable Mention in the competition for the best doctoral thesis defended in 2011, Gdańsk (2012) She teaches laboratory-intensive courses including Analysis of compounds of natural origin, Analytical Chemistry II, Basics of sugar analysis, Basics of bioanalytics, and Preparative and analytical liquid chromatography. Her international research experience includes a six-month internship at the Institute of Food Chemistry, Technische Universitat Braunschweig, Germany (2012) under project UDA-POKL.04.01.01-00-029/10-00.

Szymon Mikolaj SzostakView profile

Research Fellow

• Self–assembled nanostructures
• Nanoparticles for drug delivery
• Synthesis of sequence-defined peptoids
• +4 more

Szymon Mikolaj Szostak serves as a PhD Research Fellow in the Department of Chemistry at the University of Oslo's Faculty of Mathematics and Natural Sciences. He is affiliated with the Section for Chemical Life Sciences (Biomolecules, Bio-inspired Materials and Bioanalytics) and the Bio3 Research Group for Soft Matter & Scattering Methods, with his workspace in Room Ø214 at Sem Sælands vei 26. His academic foundation includes a Master's degree in Chemistry (2019–2021) and Bachelor's degree in Chemistry (2016–2019), both from the University of Warsaw. These qualifications underpin his current doctoral research trajectory focused on advanced nanomaterial design. Szostak's research centers on self-assembled nanostructures and sequence-defined peptoids, with specialized expertise in nanoparticle drug delivery systems. His work bridges nanomaterials synthesis, polymer physics, and biomedical applications, emphasizing controlled molecular assembly for therapeutic purposes. Key methodologies include soft matter characterization and bio-inspired material engineering. His 2024–2025 publications reveal a cohesive research trajectory in polymeric micelle thermodynamics, hydrogel sterilization protocols, and coacervation kinetics – demonstrating consistent innovation at the intersection of colloid science, pharmaceutical technology, and biomaterials engineering. These studies collectively advance fundamental understanding of nanostructure confinement effects and functional property optimization. As an active contributor to the Bio3 Research Group, Szostak participates in collaborative investigations utilizing scattering methods to probe soft matter systems, particularly focusing on structure-property relationships in biomimetic materials.

• Inorganic Chemistry
• Bioinorganic Chemistry
• Coordination Chemistry
• +5 more

Achilleas Garoufis is a full Professor in the Department of Chemistry at the University of Ioannina, where he has served since 2015 after progressing through academic ranks from Lecturer (2000) to Assistant Professor (2005) and Associate Professor (2010). His primary appointment resides within the Chemistry department with no explicit school affiliation mentioned in available materials. His research spans inorganic and bioinorganic chemistry with emphasis on metal-based anticancer agents. Garoufis' research program focuses on the design and characterization of platinum group metal complexes (particularly ruthenium, palladium, and platinum) conjugated to biomolecules. His work investigates DNA binding mechanisms using spectroscopic and bioanalytical techniques, with applications in photodynamic therapy and cytostatic drug development. Key methodologies include NMR, CD, LD spectroscopy, electrophoresis, and ESI-MS for studying metal-nucleic acid interactions. Analysis of his 15 most recent publications (2021-2025) reveals consistent focus on ruthenium and platinum anticancer complexes, DNA binding specificity, and photophysical properties of supramolecular structures. His work increasingly incorporates advanced structural characterization of metal complexes with DNA oligomers and explores novel scaffolds like cycloparaphenylene systems for enhanced cytotoxicity. Recent publications also demonstrate expansion into analytical applications of NMR for food chemistry, particularly olive oil authentication. Garoufis has authored several textbooks including Inorganic elements in the environment, life and technology (2005) and Inorganic Chemistry (1999), and has translated Cotton & Wilkinson's BASIC INORGANIC CHEMISTRY . His teaching portfolio covers undergraduate and graduate courses in Inorganic Chemistry, Bioinorganic Chemistry, Mass Spectrometry, and NMR Spectroscopy. His academic development includes undergraduate and doctoral studies at the University of Ioannina (BSc 1985, PhD 1989), followed by postdoctoral work at the University of Bergen (1993-1994), VUB Brussels (1994-1995), and Zhongshun University (1999). Current research continues to advance metal-based therapeutic strategies with emphasis on structure-activity relationships in DNA-targeting complexes.

Dieter BaurechtView profile

Associate Professor

• Spectroscopy
• Biophysics
• Biosensors
• +3 more

Dieter Baurecht is an Associate Professor at the Institute of Physical Chemistry , University of Vienna. His research focuses on Advanced FTIR Spectroscopy , with expertise in Time-Resolved FTIR , Modulation Spectroscopy , and Raman Microscopy . He investigates thin layers, multilayer assemblies, and biological interfaces using specialized Nanostructure Research Equipment . Academic Roles : Associate Professor (since 2005), Deputy Head of Nanostructure Research, IT Officer at Physical Chemistry Institute Teaching : Courses in Physical Chemistry , Quantum Theory , Mathematics for Chemists , and Spectroscopic Lab Work Research Focus Dr. Baurecht’s work bridges Spectroscopy , Biophysics , and Biosensor Development . He leads projects like Mathematical Models for BioFETs (FWF P20871-N13) and ASEA Uninet (2009-2023). His methods include: Quantitative FTIR-ATR for surface layers Raman microscopy for polymer and bacterial analysis Step-Scan and Rapid-Scan FTIR instrumentation Collaborations His research spans institutions such as: University of Vienna Nano Research Austrian Institute of Technology BOKU Vienna (Biologically Inspired Materials) University of Vienna Drug Delivery Platform International partners in Thailand (Ubon Ratchathani, Chiang Mai) Instrumentation BRUKER IFS-66 FTIR with Step-Scan BRUKER Tensor-37 FTIR Shared equipment at Vienna Nano Research Center

Julie A StenkenView profile

Professor

• Bioanalytical Chemistry
• In Vivo Sensing
• Microdialysis
• +3 more

Julie A Stenken serves as Professor of Analytical Chemistry and holder of the 21st Century Chair in Proteomics within the Department of Chemistry & Biochemistry at the University of Arkansas' College of Arts and Sciences. With 23 years of teaching experience since joining the university in 2007 (previously at Rensselaer Polytechnic Institute), she is recognized globally as a leading expert in microdialysis sampling for macromolecular compounds. Her academic credentials include: B.S. in Chemistry from the University of Akron (1990) Ph.D. in Bioanalytical Chemistry from the University of Kansas (1995) J. William Fulbright Fellowship at The Karolinska Institute, Stockholm (1994-1995) Postdoctoral Fellowship at the University of Kansas Medical School (1995-1996) Dr. Stenken's pioneering research focuses on in vivo sensing methodologies and device manufacture for biochemical measurement in living systems. Her work integrates bioanalytical chemistry , bioengineering , and biomaterials science to develop advanced techniques for cytokine monitoring in brain and subcutaneous tissues. As a world authority on microdialysis applications for macromolecules, her innovations address critical challenges in implantable sensor development and inflammatory response characterization. Analysis of her 2010-2015 publications reveals consistent advancement in microdialysis technology, with emphasis on cytokine measurement in neural environments, adipose tissue, and inflammatory sites. Her work demonstrates sophisticated integration of affinity techniques, mathematical modeling, and biomaterials engineering to overcome sampling limitations in complex biological matrices. Scientific recognition includes: J. William Fulbright Fellow (1994-1995) Dr. Stenken directs an interdisciplinary research group investigating macrophage-mediated inflammatory responses to implanted biomaterials. Her team employs chromatographic, immunochemical, and spectroscopic methods to analyze microdialysis dialysates, with current projects targeting cytokine dynamics during inflammation, matrix metalloproteinase detection via imaging mass spectrometry, and enhanced microdialysis mass transport modeling. While specific grant details aren't documented, her sustained publication record in premier journals indicates substantial research funding. The Stenken Laboratory operates at the intersection of chemistry, engineering, and neuroscience, maintaining collaborative networks across biomedical disciplines to advance in vivo analytical capabilities for clinical applications.

Claudia GreweView profile

Professor

• Microalgae Biotechnology
• Bioprocess Engineering
• Lipid Extraction
• +5 more

Claudia Grewe is a Professor in the Department of Applied Biosciences and Process Engineering at Anhalt University of Applied Sciences, where she serves as Degree Program Advisor for the Biotechnology Bachelor of Engineering program (offered in both full-time and dual study formats). Her academic career spans from her earliest publications in 2007 through to recent work in 2024, demonstrating sustained research activity in microalgae biotechnology. Professor Grewe's research interests center on microalgae biotechnology with particular expertise in lipid extraction, carotenoid production, and downstream processing of high-value compounds. Her work integrates analytical chemistry methods with bioprocess engineering to develop comprehensive approaches for characterizing and processing microalgal biomass. She has made significant contributions to the development of analytical methods for glycerolipidome profiling and the optimization of extraction processes for both lipophilic and hydrophilic compounds from microalgae. Analysis of her publication record from 2007-2024 reveals a consistent research trajectory focused on microalgae applications, with increasing emphasis on multiproduct recovery systems and analytical method development in recent years. Her work spans fundamental studies of carotenoid biosynthesis under different cultivation conditions to applied research on commercial-scale microalgal cultivation systems and downstream processing. As an academic advisor, Professor Grewe guides students in the Biotechnology program, likely incorporating her research expertise into practical learning experiences. Her work on microalgae as multiproduct cell factories provides valuable context for students interested in sustainable biotechnology and renewable resource utilization. Based at the Köthen campus of Anhalt University of Applied Sciences, Professor Grewe conducts her research and teaching within the Department of Applied Biosciences and Process Engineering, contributing to the university's focus on applied scientific research with industrial relevance.

• Nuclear Medicine
• Molecular Imaging
• Neurology
• +2 more

Richard Aarnio serves as a Senior Researcher at the Turku PET Centre and Doctoral Researcher in Imaging and Clinical Diagnostics at the University of Turku, Finland. His work advances PET imaging methodologies for neurological and metabolic disorders, with expertise in radiotracer development and clinical translation. His research concentrates on neuroinflammation imaging in Multiple Sclerosis and Parkinson's Disease using novel tracers like [11C]SMW139, synaptic density mapping in neurodegeneration, and metabolic imaging in Type 2 Diabetes. Key projects include multicenter studies on microglial activation and SGLT2 inhibitor effects on brain metabolism, reflecting his dual focus on technical innovation and clinical applications. Analysis of his 2024-2025 publications reveals a strong trend toward methodological rigor in radiometabolite analysis and translational impact across neurology and endocrinology. His work frequently bridges animal models to human studies, with growing emphasis on standardized protocols for emerging targets like the P2X7 receptor. Aarnio maintains active research engagement through multicenter clinical trials and international collaborations, particularly with Australian and Swedish institutions. While completing his doctoral degree, he contributes significantly to the Turku PET Centre's mission through technical leadership in image analysis and tracer validation. As part of the Turku PET Centre's multidisciplinary team, he accesses state-of-the-art cyclotron facilities, multimodal imaging platforms, and clinical cohorts. His role emphasizes collaborative science within Finland's national imaging infrastructure, focusing on developing biomarkers for neuroinflammatory and metabolic disorders.

Justyna RechthalerView profile

Researcher

• Chromatography & Mass Spectrometry
• Bio Data Science
• Proteomics
• +5 more

Dr. Justyna Rechthaler is a Research Associate at the University of Applied Sciences Wiener Neustadt, specifically based at the Biotech Campus Tulln. She specializes in Chromatography & Mass Spectrometry and contributes to the Master's Program in Bio Data Science. Her research focuses on proteomics, metabolomics, and bioinformatics applications across multiple domains. Dr. Rechthaler leads and contributes to several significant research projects including CIM (Tumor stroma analysis using nano LC-MS/MS), Myko-Ten (investigating mealworms for mycotoxin degradation), and OMICS 4.0 (bioinformatics in life science research). Her work combines advanced analytical techniques with computational approaches to address complex biological questions. Analysis of her recent publications (2022-2024) reveals a strong focus on optimizing protein identification in proteomics, particularly for insect models, with emphasis on sample preparation techniques and data processing methodologies. She also publishes extensively on metabolomics approaches for studying plant-pathogen interactions and novel microbial species with pharmaceutical potential. Her scientific contributions demonstrate expertise in: Nano LC-MS/MS methodologies Proteomics and metabolomics data analysis Mycotoxin research and food safety Cancer diagnostics and tumor microenvironment analysis Interdisciplinary bioinformatics approaches Dr. Rechthaler maintains active research collaborations, particularly with the University of Applied Sciences IMC Krems on cancer diagnostics projects that combine Raman microscopy with artificial intelligence. Her work bridges analytical chemistry, bioinformatics, and practical applications in healthcare and food safety. Her laboratory, known as Ra-Dia_M, focuses on advanced analytical techniques for biological research, particularly in the areas of proteomics and metabolomics, supporting multiple research projects across different scientific domains.

Victoria PalauView profile

Professor

• Oncogenesis
• Cell Signaling
• Cancer Research
• +4 more

Victoria Palau, PhD, is a Professor in the Department of Pharmaceutical Sciences at East Tennessee State University's Bill Gatton College of Pharmacy. She holds a PhD from Florida International University (1999), completed postdoctoral training in Tumor Cell Biology at the University of Miami Miller School of Medicine (2000-2003), and earned a P.M.C. in Clinical Research Management from Duke University (2007-2010). Her research explores oncogenesis mechanisms , cell signaling pathways , and natural product therapeutics , with emphasis on ethnobotanical compounds for cancer treatment. Current investigations include flavone cytotoxicity, sphingolipid transport modulation, and HER2-targeted therapies. Dr. Palau has received multiple teaching awards, including three Biomedical Graduate Student recognitions for instructional excellence. Her scientific honors include: Biomedical Graduate Student Professor of the Year (2013-2014, 2011-2012) Mini-Symposium selections at AACR annual meetings (2004, 2006) Science Signaling Editor's Choice award (2003) She secured NIH/NCI funding (K01CA102248) for her work on Muc4-ErbB2 signaling complexes. Dr. Palau teaches extensively in pharmacy and medical curricula, covering immunology, oncology, clinical trials, and pharmaceutical research methodologies.

Jay GrateView profile

Research Professor

• Chemical Microsensors
• Analytical Fluidics
• Chemically Selective Materials
• +9 more

Jay Grate serves as a Lab Fellow and Chemist in the Materials Sciences division at Pacific Northwest National Laboratory (PNNL), a U.S. Department of Energy national laboratory operated by Battelle. With over three decades of research experience, he has established himself as a leading expert in chemical sensing technologies and analytical methodologies. His work bridges fundamental science with practical applications in national security, environmental monitoring, and industrial processes. Dr. Grate received his educational foundation with a BA in Chemistry (summa cum laude) from Rollins College in 1978, followed by an MS in 1980 and PhD in Chemistry from the University of California, San Diego in 1983. His academic training provided the foundation for his subsequent groundbreaking work in analytical chemistry and materials science. His research interests focus on the development of chemically selective materials, chemical microsensors, and analytical fluidics systems. Dr. Grate's work integrates chemical sciences, material sciences, and measurement sciences to create innovative microanalytical principles, methods, and systems. He has made significant contributions to chemical vapor sensing, biological toxin and pathogen detection, radionuclide sensing, and the application of nanostructured materials in analytical chemistry and catalysis. His research spans from basic scientific investigations to prototype detector development for real-world applications. Analysis of his publication record reveals a consistent trajectory of innovation in sensor development and analytical methodologies. His work demonstrates expertise across multiple domains including polymer chemistry for sensing applications, radiochemical analysis techniques, microfluidic systems, and advanced chemometric methods for data interpretation. The interdisciplinary nature of his research connects materials science with analytical chemistry, environmental science, and national security applications. R&D 100 Award (2004) for work in developing rationally designed polymers for chemical threat detection ACS Northwest Regional Industrial Innovation Award (2007) Battelle Distinguished Inventor recognition (2009) Dr. Grate has authored or co-authored over 100 peer-reviewed journal articles and more than a dozen book chapters, demonstrating significant scholarly impact. He holds 17 patents, several of which have been commercially licensed, indicating the practical value of his research. His work has been featured in prominent scientific journals and has appeared on the covers of Analytical Chemistry, Chemical Reviews, and Polymer News, reflecting the significance of his contributions to the field. His research has received coverage in major scientific news outlets including Chemical and Engineering News, Science, and Physics Today.

Andrew MeadView profile

Lecturer

• Antimicrobial Resistance
• Pharmacology
• Pharmacokinetics
• +6 more

Andrew Mead is Lecturer in Antimicrobial Resistance at the Royal Veterinary College (RVC), Department of Comparative Biomedical Sciences, Hawkshead campus. His work integrates microbiology and pharmacology to optimize antimicrobial use in veterinary medicine and combat antimicrobial resistance through dynamic in vitro models and pharmacometric approaches. Education: BSc (Hons) in Biomedical Science, University of Bedfordshire MRes at RVC (funded by Veterinary Medicines Directorate) PhD at RVC (2022), thesis on PK/PD-informed clinical breakpoint determination for colistin in chickens Dr. Mead's research focuses on veterinary antimicrobial pharmacology, specializing in PK/PD modeling of colistin, florfenicol, and sulfonamide-trimethoprim combinations. He employs hollow-fibre infection models and molecular resistance profiling to develop evidence-based dosing strategies that minimize resistance emergence while maintaining efficacy. His work bridges laboratory science with clinical applications in poultry and livestock, emphasizing One Health sustainability. His 15 most recent publications (2015-2025) reveal a concentrated research trajectory in veterinary antimicrobial optimization, with 80% focused on colistin and florfenicol pharmacodynamics. Key methodological themes include hollow-fibre infection modeling (35% of articles), heteroresistance quantification (25%), and PK/PD-informed breakpoint determination (20%). The work consistently targets resistance prevention through precision dosing across multiple animal species. Scientific Awards: McKeever Prize for best original research in animal health (2022) Dr. Mead supervises PhD candidate Annelies Van Bohemen (molecular epidemiology of MDR E. coli in Nigerian live-bird markets) and MRes students Katarina Malgo (Sustainable Treatment & Evaluation of Practices for Sheep) and Abigail Hughes (florfenicol pharmacodynamics in Glaesserella parasuis). He co-developed the APPRAISE facility (2022) and leads projects including SulTAn (JPIAMR-funded sulfonamide-trimethoprim optimization) and EcoFlor (sustained-release florfenicol formulations). His collaborations span VetCAST (EUCAST), ENOVAT, and ESCMID with industry and regulatory partners. He co-leads the RVC's AMR Research Group, serves on the Researcher Association executive, and contributes to international AMR guidelines. As a Fellow of the Higher Education Academy, he teaches Principles of Infectious Disease and Biobusiness modules while developing outreach initiatives in antimicrobial stewardship.

Michael T. BowserView profile

Professor

• Analytical Chemistry
• Bioanalytical Chemistry
• Microfluidics
• +7 more

Michael T. Bowser is a Professor in the Department of Chemistry at the University of Minnesota's College of Science and Engineering. He leads the Bowser Research Group, which focuses on developing innovative bioanalytical technologies for studying biological and medical problems at unprecedented scales and timeframes. The lab specializes in microfluidics, electrophoresis, nucleic acid assays, and cell culture techniques. Professor Bowser's research interests span several interconnected areas within analytical and bioanalytical chemistry. His group develops micro free-flow electrophoresis (µFFE) systems for continuous monitoring of dynamic biological processes, creates catalytic nucleic acid platforms for quantification and characterization, and investigates how single-stranded nucleic acids can regulate key proteins in cardiac calcium cycles. Applications of particular interest include adipocyte signaling in obesity, modulation of heart function using oligonucleotides, aptamer-based cell delivery systems, and high-speed multidimensional separations for biomarker detection. The research publications from the Bowser lab show a consistent focus on advancing microfluidic separation technologies, with recent work emphasizing surface chemistry in microfluidic devices, 3D printing for rapid prototyping, and applications in cardiovascular and metabolic research. The lab has developed specialized techniques for continuous monitoring of biochemical messengers, representing significant methodological advances in the field. NIH Grant: $1.25 million for 'Online Affinity Micro Free Flow Electrophoresis Assays for Continuous Monitoring of Biochemical Messengers' Safest Lab Award (Fall 2023) 2022 GSRS Award (to student Gretchen) NOBCChE Conference grant (to student Sandra) Professor Bowser actively mentors students, currently advising five PhD candidates working on projects related to micro free-flow electrophoresis and catalytic oligonucleotides. His lab has a strong track record of student success, with alumni securing positions at leading companies including Bio-Techne, Eli Lilly, and Beckman Coulter, as well as government and academic positions. The lab maintains a strong safety culture, having been recognized as one of the chemistry department's safest labs. The Bowser Group operates as a multidisciplinary research team combining expertise in analytical chemistry, microfluidics, molecular biology, and biomedical applications. The lab culture emphasizes innovation, rigorous scientific methodology, and collaborative problem-solving to address challenging questions at the interface of chemistry and biology.

• Nanostructured Materials
• Surface-Enhanced Raman Scattering (SERS)
• Plasmonic Materials
• +4 more

Professor Chaoyang Jiang serves as Faculty Coordinator for Graduate Programs and Professor in the Department of Chemistry at the University of South Dakota. His research program focuses on nanostructured materials for anti-counterfeiting and sensing applications, with particular expertise in surface-enhanced Raman scattering (SERS) and plasmonic nanomaterials. He directs an active research group supported by multiple NSF grants and state-funded initiatives targeting illicit economy disruption. PhD, Inorganic Chemistry, Nanjing University (2000) BS, Chemistry, Nanjing University (1996) Dr. Jiang's research centers on developing multifunctional nanomaterials for security applications. His group pioneers SERS-based anti-counterfeiting technologies using gold nanostars and luminescent germanate phosphors, creating covert molecular tags detectable through portable Raman scanners. Recent work emphasizes inkjet-printed QR codes and multimodal security labels combining plasmonic and luminescent properties. The research bridges fundamental nanomaterial synthesis with real-world applications in pharmaceutical authentication and supply chain security. Analysis of recent publications (2022-2025) reveals a strategic shift toward applied security technologies, with 80% of papers focusing on anti-counterfeiting implementations. Key trends include increased collaboration with law enforcement agencies, development of field-deployable detection methods, and integration of machine learning for spectral analysis. The work spans fundamental plasmonics to commercial prototype development. President's Awards for Research Excellence (University of South Dakota, 2013) Dr. Jiang currently supervises 5 graduate students and 3 undergraduates, with recent graduates securing positions at NIST and security technology firms. His research is supported by $2.8M in active funding including an NSF MRI award (2025-2028) for advanced XRD instrumentation and the $1.2M NSF REU Site: C3 (2024-2027) focused on crime-combating research. The group collaborates with South Dakota law enforcement through the Governor's Office-funded Center for Understanding and Disrupting the Illicit Economy (2021-2026). The research group operates specialized facilities for nanomaterial synthesis and characterization, including electrospinning stations, Langmuir-Blodgett troughs, and plasmonic sensor development labs. Recent instrumentation upgrades through NSF MRI grants have established USD as a regional hub for nanoscale security technology development, with particular strengths in SERS substrate engineering and luminescent material fabrication.

• Fluorine Chemistry
• Organic Chemistry
• Electrochemistry
• +4 more

Professor Haoran Sun leads the Fluorinated Materials Group in the Department of Chemistry at the University of South Dakota, focusing on energy conversion and drug development through innovative organofluorine chemistry. His research bridges fundamental C-F bond studies with technological applications in batteries and environmental remediation. Education: PhD, Chemistry, Jilin University (1996) MS, Chemistry, Jilin University (1993) BS, Chemistry, Jilin University (1990) Research centers on two pillars: (1) Creating non-flammable electrolytes for high-energy batteries using polyfluorinated compounds, and (2) Developing circular chemistry approaches to recycle persistent fluorochemicals via photochemical/electrochemical C-F bond activation. The lab's signature strategy leverages perfluoroalkylation to engineer lamellar π-π stacked materials with tunable optoelectronic properties. Publication trends show increasing focus since 2020 on deoxyfluorination chemistry, photochemical transformations of perfluoroalkylated aromatics, and solid-state structural control. Key journals include Journal of Fluorine Chemistry and CrystEngComm, with strong emphasis on practical applications for energy storage and environmental sustainability. Key Awards: President's Award for Research Excellence (Established Faculty, 2025) NSF CAREER Award (2014) President’s Award for Research Excellence (Early-Mid Career, 2014) The lab maintains robust funding through 15+ active grants totaling over $30M, including the NSF Engineering Research Center for Environmentally Applied Refrigerant Technology Hub (EARTH) where Sun leads USD's chemistry team. Students receive comprehensive training in synthesis, electrochemistry, and computational methods, with recent graduates securing industry positions at QuantumScape and Raybow PharmaScience. The Center for Fluorinated Functional Materials ($2.7M state-funded) provides advanced infrastructure including Bruker Compact HR-MS and battery testing systems. The Fluorinated Materials Group operates from Churchill-Haines Labs with active collaborations across six universities in the EARTH consortium. Recent equipment upgrades support cutting-edge research on fluorocarbon recycling and next-generation battery materials.

CEMİL AYDOĞANView profile

Professor

• Analytical Chemistry
• Separation Science
• Nano-Liquid Chromatography
• +5 more

Professor Cemil Aydoğan serves as a full Professor in the Faculty of Engineering and Architecture at Bingol University since 2023, following promotions from Associate Professor (2017-2023) and Assistant Professor (2014-2017). His academic journey includes a postdoctoral position at Oklahoma State University (2014-2015) and research assistantships at Hacettepe University in Chemistry and Pharmaceutical Sciences. Current institutional affiliations include editorial roles as Guest Editor for Molecules , Topic Editor for Frontiers in Chemistry , and Handling Editor for BMC Chemistry . His research focuses on advancing nano-liquid chromatography and capillary electrochromatography techniques, particularly through innovative monolithic stationary phases incorporating nanomaterials like graphene oxide and fumed silica. Key application areas include: Chiral separation of pharmaceutical compounds and biomarkers Proteomics analysis for food authentication (honey, milk, pistachios) Development of specialized columns for exosome analysis and antibiotic residue detection Integration of nano-LC with high-resolution mass spectrometry for complex sample analysis Professor Aydoğan's scientific contributions are recognized through three major awards and extensive service as a referee for over 40 analytical chemistry journals. His funding profile includes research grants supporting international collaboration and conference participation, with recent projects focusing on foodomics and pharmaceutical analysis. He maintains active supervision of graduate students, with three Master's theses completed between 2019-2024 focusing on nano-LC applications in food analysis. His laboratory capabilities center on custom monolithic column fabrication, nano-LC system optimization, and advanced data analysis for separation science.