Christopher Elles is a Professor in the Department of Chemistry at the University of Kansas. His research focuses on understanding the excited-state dynamics of photochromic molecular switches , non-adiabatic transitions , and ultrafast spectroscopy to probe reaction mechanisms in solution-phase chemistry. Ph.D. in Chemistry, University of Wisconsin-Madison B.S. in Chemistry, Colorado State University Key research areas include: Condensed-phase chemical reaction dynamics Two-photon absorption spectroscopy Nanoplasmon-mediated photochemistry Electronic structure of liquids Photoactive materials His recent work explores viscosity-dependent two-photon photocatalysts , ultrafast dynamics of spatially confined molecules , and novel synthetic methodologies . Notable awards include the NSF CAREER Award and the J. Michael Young Academic Advisor Award . Former students have pursued careers in academia, national laboratories, and industry.
Rhiannon Philippa Kuchel is an electron microscopist at the University of New South Wales (UNSW) in Sydney, where she conducts collaborative research and teaches postgraduate students across multiple disciplines including biology, chemistry, materials science, and engineering. Her expertise centers on transmission electron microscopy (both standard imaging and cryo-TEM) and scanning electron microscopy. Dr. Kuchel earned her PhD from Macquarie University with thesis research focused on the effects of environmental stress on the immune system of temperate pearl oysters. This marine biology foundation has informed her interdisciplinary approach to research that bridges biological systems with advanced materials science. Her research interests span Electron Microscopy, Pearl oyster research, Nanomedicine, Biomedical Engineering, Biochemistry and Cell Biology, Polymers, and Agricultural Marine Biotechnology. Dr. Kuchel's work demonstrates a strong emphasis on applying electron microscopy techniques to understand material structures at the nanoscale, particularly in polymer systems and biological applications. Her publications reveal expertise in polymerization-induced self-assembly (PISA), nanoparticle formation, and the development of advanced materials for biomedical applications. Analysis of her publication record from 2010-2019 shows consistent contributions to high-impact journals across polymer science, nanotechnology, and materials chemistry. Her research demonstrates particular strength in controlled polymerization techniques, nanoparticle engineering, and the application of these materials to biomedical challenges. The work often involves collaborations with leading researchers in polymer chemistry and biomedical engineering at UNSW and other institutions. Dr. Kuchel actively teaches postgraduate students from diverse disciplines, sharing her expertise in electron microscopy techniques. While specific grant information isn't provided in the available materials, her extensive publication record suggests successful research funding across multiple projects. Her work at the Electron Microscopy Unit (EMU) at UNSW positions her at the intersection of advanced imaging techniques and materials development.
Mohamed Amedjkouh is a Professor in the Department of Chemistry at the University of Oslo, specializing in catalysis and organic chemistry with research emphases on energy applications, sustainable materials and nanotechnology (SMN), and metal-organic frameworks. His work bridges fundamental chemical principles with practical energy solutions through innovative catalytic systems. His research focuses on metal-organic frameworks (particularly UiO series), autocatalytic reactions including the Soai reaction, and asymmetric synthesis methodologies. Key investigations include spatial control of copper coordination motifs in MOFs, symmetry breaking in confined catalytic environments, cyclometalated ruthenium complexes for light absorption, and chiral amplification mechanisms. This work integrates experimental and computational approaches to advance sustainable chemistry and energy conversion technologies. Analysis of his 2015-2024 publications reveals consistent innovation in MOF-based catalysis, with recurring themes of chiral amplification, heterogeneous reaction systems, and coordination chemistry. His research demonstrates how confinement within UiO-MOFs enables control over autocatalytic processes and copper/ruthenium complex reactivity, offering pathways for energy-efficient chemical synthesis and stereoselective transformations. Professor Amedjkouh leads the Catalysis and Organic Chemistry research group at the University of Oslo, driving experimental and theoretical investigations into next-generation catalytic materials for energy and sustainability challenges. The group maintains active collaboration networks evidenced by frequent multi-institutional publications.
Wolfgang Schmitt is a Professor in the School of Chemistry at Trinity College Dublin, where he also serves as Head of the Inorganic and Materials Chemistry Division. He has established a leading research program in synthetic coordination and supramolecular chemistry of hybrid organic-inorganic materials. Trinity College Dublin – School of Chemistry His research focuses on developing functional materials for sustainable energy applications such as hydrogen-based systems, water splitting, catalysis, gas storage, and molecular magnetic systems. Additionally, his group explores soft, biocompatible materials for drug delivery, regenerative medicine, and sensing. The work integrates synthetic chemistry with materials design to create novel coordination polymers, metal-organic frameworks (MOFs), polyoxometalates, and supramolecular assemblies. The recent publications demonstrate a consistent trend in designing advanced functional materials, particularly metal-organic frameworks and coordination cages with applications in energy storage (e.g., supercapacitors, Li-ion batteries), photocatalysis, luminescent sensing, and water oxidation. These works highlight expertise in tuning electronic and structural properties for targeted performance. Notable scientific awards include: Fonds der Chemischen Industrie Award (1991) Dr.-Anton-Keller-Prize, University of Darmstadt (2000) ICYS Fellowship, National Institute for Materials Science, Japan (2004) Wolfgang Schmitt has secured over €6 million in research funding as a sole Principal Investigator from major agencies including the European Research Council (ERC), Science Foundation Ireland (SFI), Environmental Protection Agency, Irish Research Council, and Enterprise Ireland. His research team actively develops methodologies for hybrid organic-inorganic coordination compounds, aiming to combine the best properties of both components through controlled self-assembly and nanostructuring. The group investigates physicochemical properties of cluster compounds, biominerals, and bioinorganic models, with implications for separation science, magnetic materials, and catalysis. He leads a vibrant research laboratory focused on cutting-edge materials chemistry with strong interdisciplinary connections across energy, medicine, and nanotechnology.
Professor Mathias Senge is the Chair of Organic Chemistry in the Department of Chemistry at Trinity College Dublin. He leads an active research group focused on tetrapyrrole chemistry, photobiology, and medicinal applications. He previously held professorships at Universität Potsdam and Freie Universität Berlin, and has been at Trinity since 2005. Born: 1961, Silbach, Germany Education: Philipps-Universität Marburg (PhD, 1989) Habilitation: Freie Universität Berlin (1996) Postdoctoral Fellowship: UC Davis His research centers on the chemistry and biochemistry of tetrapyrroles, with a focus on porphyrin synthesis, conformational engineering, photosensitizer design, and applications in photodynamic therapy and chemical sensing. He explores crystallography, supramolecular assembly, and the role of molecular symmetry in biological and materials contexts. His recent publications (2021–2025) span topics including porphyrin atropisomerism, metal-organic frameworks, photophysical properties of aluminum complexes, and symmetry analysis in distorted molecules. These works appear in leading journals such as Angewandte Chemie , Nature Chemistry , and Chemical Science , reflecting strong international collaboration and interdisciplinary impact. Science Foundation Ireland Research Professor Heisenberg Fellow Fellowship from Studienstiftung des Deutschen Volkes Fellowship from Deutsche Forschungsgemeinschaft Professor Senge supervises PhD and postdoctoral researchers and participates in collaborative networks such as POLYTHEA, a doctoral training network in porphyrin chemistry. His lab develops novel synthetic methods, investigates molecular interactions, and designs functional materials for biomedical and technological applications. He has not received specific grant mentions in the text, but his SFI Research Professorship indicates significant ongoing funding support.
Dr. Adam Węgrzynowicz is a Lecturer at the Department of Organic Chemistry and Technology within the Faculty of Chemical Engineering and Technology at Tadeusz Kościuszko Cracow University of Technology. His academic career spans fundamental and applied research in catalysis and material science. Education: M.Sc. in Physical Chemistry (2003) from Jagiellonian University Ph.D. in Zeolite Chemistry (2013) from the Institute of Catalysis and Surface Chemistry of the Polish Academy of Sciences Research focuses on catalytic systems for hydrocarbon processing, environmental remediation, and advanced material synthesis. Key areas include zeolite modification, metal oxide catalysts, and nanomaterials for energy and environmental applications. Recent publications demonstrate expertise in oxidative methane coupling, propane dehydrogenation, and spectroscopic analysis of catalytic surfaces. Teaching duties include Basics of Chemical Technology , Process Design , and Biotechnological Raw Materials courses.
George Rotas serves as an Assistant Professor in the Department of Chemistry at the University of Ioannina, Greece, with office location X3-206d. His contact includes email rotasgiorgos@uoi.gr and telephone +30-2651008386, reflecting active institutional affiliation. His research program centers on organic synthesis and materials innovation, specifically: Synthesis/characterization of aromatic compounds, heterocyclic systems (pyrroles), and chromophores (BODIPY, xanthenes, acridines) Design of photoactive molecules for analytical, biological, and energy applications Development of nanostructured hybrid materials using fullerene chemistry Dr. Rotas contributes to the department's academic ecosystem, including Postgraduate Chemistry Programs highlighted in university announcements.
Jonathan Moerdyk serves as Associate Professor of Chemistry at Seton Hill University, where he has built an active research program since joining the faculty in Fall 2014. His work bridges fundamental organic chemistry with practical applications in materials science and sustainable technology development. His academic background includes: Ph.D. in Organic Chemistry, University of Texas at Austin (2014) B.S. in Chemistry, Hope College (2009) Professor Moerdyk's research centers on carbene chemistry, particularly the design of novel N,N'-diamidocarbenes that function as transition metal mimics. His group explores applications in small molecule activation (ammonia, silanes), electrochromic/photochromic molecular switches, and photoinitiated polymerization. This interdisciplinary work combines synthetic organic chemistry with computational modeling and spectroscopic analysis to develop new functional materials and sustainable chemical processes. His 22 publications (2009-2019) demonstrate consistent high-impact output, with recent work shifting toward applied materials chemistry while maintaining fundamental mechanistic studies. Key journals include Nature Chemistry, Journal of the American Chemical Society, and Accounts of Chemical Research. Major recognitions include: Forbes '30 Under 30 in Science' (2015) Scientific American '30 Under 30' (2013) Hope College Young Alumni Award (2016) Professor Moerdyk actively mentors undergraduate researchers, with students regularly presenting at national conferences and winning awards. His teaching innovations include integrating computational tools like iSpartan into chemistry curricula and developing the 'Haber-Bosch' summative assessment. The research environment emphasizes close faculty-student collaboration, professional development, and translating fundamental discoveries into tangible applications. His current program focuses on tunable carbene scaffolds for molecular switches and advanced polymerization techniques, maintaining strong connections between research and undergraduate education at Seton Hill University.
Dr. Rajib Choudhury serves as Associate Professor of Chemistry within the Department of Chemistry, College of STEM at Arkansas Tech University. He leads the Choudhury Research Group, focusing on multidisciplinary photochemistry applications in biological systems. His academic credentials include: B.S. from Vivekananda Mahavidyalaya M.S. from Indian Institute of Technology Ph.D. from University of Miami Research spans Supramolecular Chemistry , Bio- and Chemo-Sensors , and Photochemistry , with emphasis on designing photoactive compounds for biomedical use. Key projects examine pH-responsive photochemistry, protein detection in complex samples, and computational modeling of macromolecular interactions—integrating synthetic chemistry, analytical techniques, and theoretical calculations to optimize compound functionality. Dr. Choudhury actively mentors undergraduates in comprehensive research cycles from molecular design to publication. Recent student achievements include journal publications and admissions to advanced programs at Oklahoma State University and Texas A&M University. The Choudhury Research Group provides intensive training in organic synthesis, photochemical experimentation, and computational analysis within a collaborative STEM environment focused on developing next-generation photochemical tools for biological applications.
Franco Scalambra is a Professor in the Department of Chemistry and Physics at the University of Almería, Spain, with an extensive research portfolio in organometallic and coordination chemistry. His work focuses on water-soluble ruthenium complexes containing PTA (1,3,5-triaza-7-phosphaadamantane) and its derivatives, with applications spanning catalysis, anticancer drug development, and hydrogen production. Professor Scalambra's research interests center on the synthesis, characterization, and application of metal complexes, particularly heterometallic systems. His work explores catalytic isomerization reactions of allylic alcohols, the development of novel anticancer agents with nanomolar activity, photochemical hydrogen generation, and the fundamental coordination chemistry of PTA ligands. His research bridges inorganic chemistry with practical applications in medicine and sustainable energy. His publication record demonstrates significant scholarly impact, with 46 articles, 2 book chapters, 5 theses, 2 conference papers, and 2 patents. His work appears in high-impact journals including Dalton Transactions, Inorganic Chemistry, and Applied Organometallic Chemistry, with several papers receiving substantial citations shortly after publication. His research has evolved from fundamental coordination chemistry to increasingly applied work in medicinal chemistry and sustainable energy solutions. Principal Investigator for UAL2020-RNM-B2084 project (Hydrogen Production and Storage, €30,000, 2021-2022) Researcher for P20_00791 project (Heterometallic Anticancer Agents, €65,700, 2020-2022) Researcher for P07-FQM-03092 project (Water-Soluble Polymetallic Polymers, €275,600, 2008-2012) Professor Scalambra actively supervises graduate students, with documented thesis direction for multiple doctoral candidates. His collaborations span multiple institutions as evidenced by co-authorship patterns, and his work has generated patentable technologies related to epoxy resin additives and solar cells using water-soluble ruthenium complexes. His research group maintains a strong focus on both fundamental chemical insights and practical applications of metal complex chemistry.
François RAULT serves as an Assistant Professor at the National Higher School of Arts and Industries of Textiles (ENSAIT) in Roubaix, France, affiliated with the Multifunctional Textiles and Processes Group and GEMTEX research laboratory. His work bridges advanced materials science with textile engineering to develop next-generation functional fabrics for industrial and wearable applications. His research focuses on two interconnected domains: (1) multifunctional fiber development through melt spinning and electrospinning techniques for fire-retardant and piezoelectric applications, and (2) functional textile engineering using knitting, weaving, and embroidery to create smart textiles for energy harvesting, protective sound-absorbing materials, and sustainable eco-materials. This work integrates polymer chemistry, nanomaterials science, and textile processing to solve real-world challenges in safety, energy, and environmental sustainability. Recent publication analysis (2022-2025) reveals three dominant research trajectories: piezoelectric energy harvesting using optimized PVDF nanofiber architectures, bio-based flame retardancy leveraging lignin-phosphinate systems for polyamide textiles, and stimuli-responsive materials incorporating photochromic molecules for light-activated textile actuation. These themes demonstrate consistent innovation in merging molecular-scale material properties with macroscopic textile structures. Scientific Recognition: PEDR Award for PhD supervision and research (French Ministry of National Education, 2018-2022) RAULT coordinates major research initiatives including TENERIFE (piezoelectric textiles), INTIMIRE (flame-retardant fibers), TACTIL (photoactive textiles), and CONTEXT (wireless communication textiles), securing funding from ANR, European Interreg, and regional programs. He supervises ENSAIT's professional licenses in innovative textiles and mentors student projects while teaching courses on knitting technology, smart textiles, and material characterization. Based at GEMTEX laboratory, he leads the Multifunctional Textiles and Processes Group through collaborations with European academic institutions (University of Lille, UMONS) and industry partners (CETI, Devan, Mulliez-Flory), driving industrial applications of academic research in technical textiles.
Ana Belén Caballero Hernández is an Associate Professor in the Department of Inorganic and Organic Chemistry at the Faculty of Chemistry, University of Barcelona. Her research integrates bioinorganic chemistry and nanotechnology to develop therapeutic strategies for neurodegenerative diseases and cancer. Education: PhD in Chemistry, University of Granada (2010) Master's in Chemistry, University of Granada (2007) Bachelor's in Chemistry, University of Granada (2006) Expert in University Education, University of Barcelona (2022) Research Focus: Dr. Caballero investigates metal-amyloid interactions in Alzheimer's disease , designing anti-amyloid compounds targeting copper toxicity and DNA-nanoparticle interactions. Her work on photoactive metal complexes explores cancer therapy through light-responsive drug delivery systems. The PhotoBioCat research group develops nanoparticle-assisted delivery platforms using gold nanoparticles and albumin carriers for platinum-based anticancer drugs and amyloid inhibitors. Publication Trends: Her research evolved from fundamental copper-peptide binding studies (2016-2018) to applied nanotechnology solutions (2019-2024). Recent work emphasizes multimodal nanocarriers combining luminescent probes with drug delivery, and piano-stool metal complexes showing dual in vitro/in vivo amyloid inhibition. Key themes include copper homeostasis regulation, β-sheet fibril reduction, and light-activated therapeutic mechanisms. Research Grants: NanoAlbuCarrier (2024, AGAUR): Light-responsive albumin nanocarriers for diagnosis/therapy PhotoBioCat (2022-2025, AGAUR): Consolidated research group funding Ruthenium(II) Photosensitizers (2021-2025, Ministry of Science): For photochemotherapy Nanotransporters (2018-2020, Ministry of Economy): Thermally activated drug delivery Laboratory: Leading the PhotoBioCat group, Dr. Caballero directs interdisciplinary research combining inorganic synthesis, biophysical characterization (confocal microscopy, gel electrophoresis), and biological testing to develop innovative therapeutic platforms targeting Alzheimer's disease and cancer.
