Dr. Lisong Yang is a Research Associate at Durham University's Department of Chemistry. His expertise spans complex fluids, substrates, mass transport, and interfaces, utilizing advanced optical microscopy and spectroscopy techniques. Current Roles: 50% funded by Procter & Gamble (P&G) to study mass transport in complex organic soils within fabrics, and co-principal investigator (Co-PI) in a multi-university collaboration with Cambridge, Durham, and Warwick on liquid dispensing for gas sensor fabrication. Research Focus: Investigates droplet behavior on solid surfaces and porous materials, emphasizing formation, spreading, drying, and interactions. Develops tools for precision fluid delivery and self-assembly of nanoscale particles into functional monolayers. Publication Trends: Recent work highlights collaborations across physics, chemistry, and engineering, with applications in nanotechnology, microfluidics, and precision manufacturing. Key themes include droplet evaporation dynamics, surfactant effects, and innovative printing strategies for advanced materials. Labs & Collaborations: Works in the Bain group at Durham, integrating experimental and theoretical approaches with teams from Cambridge and Warwick. Focuses on bridging fundamental fluid dynamics with industrial applications in textiles and gas sensing.
Dr Niek Buurma is a Senior Lecturer in Physical Organic Chemistry at the School of Chemistry, Cardiff University . With a career spanning over two decades, his research delves into the intricate chemistry of aqueous solutions, focusing on DNA-binding molecules and organic reaction mechanisms. His work bridges fundamental science with practical applications in molecular diagnostics, forensic detection, and pharmaceutical development. Educational Background: MSc (1997, cum laude) – University of Groningen, Netherlands PhD (2003, cum laude) – University of Groningen, Netherlands Postdoctoral Research Fellow (2002–2006) – University of Sheffield, UK Research Interests: Dr Buurma’s research is organized into two main pillars. The first involves the design and synthesis of conjugated DNA-binding molecules with tailored optoelectronic properties for applications in biosensors, forensic detection, and self-assembled nanobioelectronic systems. The second pillar focuses on organic reactivity in aqueous media , including kinetic studies of racemisation, surfactant-assisted catalysis, nanoparticle-mediated reactions, AI-driven reaction optimization, and pharmaceutical degradation kinetics. His group develops advanced data-analysis software, notably for isothermal titration calorimetry (ITC), and pioneers low-cost AI reaction-optimisation platforms using Raspberry Pi computers. Scientific Awards & Recognition: Unilever Research Prize (1998) Featured on BBC News for racemisation research Invited Maître de Conférences, Université de Toulouse III – Paul Sabatier (2016) Professional Memberships & Service: Director, Dutch Network for Academics in the UK (DNA-UK) ACB Member, CONNECTS-UK Fellow, Higher Education Academy Secretary, RSC Physical Organic Chemistry Group Member, EPSRC Directed Assembly Network Core Team Teaching & Supervision: Dr Buurma teaches advanced modules in organic chemistry, medicinal chemistry, and biophysical techniques. He currently supervises six PhD students and is available for postgraduate supervision in physical organic chemistry and biophysical chemistry.
Oleksiy Kolendo is a Professor and Head of the Department of Macromolecular Chemistry at Taras Shevchenko National University of Kyiv, Ukraine. With a career spanning over three decades, he has held roles including Chemical Engineer (1981–1987), Post-graduate Student (1986–1989), Assistant Professor (1988–1994), Docent (1994–2002), and Professor (2002–2003) before becoming Head of the department. Education: PhD in Chemistry Research interests focus on photoactive polymers , including photochromic materials , nonlinear optics , and polymer stabilization . His work explores spatial organization of chromophores, quantum chemical calculations, and applications in microelectronics and data storage. Recent publications (2007–2016) highlight advancements in push-pull azobenzene polymers , styrylquinoline systems , and thermostabilization additives , with implications for holography, optical switching, and industrial durability. Collaborations include Angers University's MOLTECH-Anjou laboratory. Technical expertise includes quantum chemical modeling , radical polymerization initiators , and analytical methods like thermogravimetric analysis and atom-force microscopy .
Santanu Kundu is an Assistant Professor in the Dave C. Swalm School of Chemical Engineering at Mississippi State University, where he leads research on the mechanical behavior of soft polymeric materials. His work bridges fundamental polymer physics with applications in biomedical devices, drug delivery systems, and aerospace composites. His primary research focuses on polymer gel mechanics , particularly the fracture and deformation characteristics of hydrogels and elastomers under extreme conditions. Current projects investigate Structure-property relationships in stretchable hydrogels for biomedical implants Mechanical stability of polymer networks under high-strain-rate impacts Rheological behavior of pharmaceutical formulations Fire damage analysis in aerospace composites His 2025-2024 publications reveal strong emphasis on multiscale modeling, with recurring themes in viscoelasticity, fracture mechanics, and sustainable material design. Dr. Kundu received the prestigious NSF CAREER award in 2014 for his work on unifying design principles for polymer gels. His research demonstrates consistent integration of experimental and computational approaches to address mechanical instability challenges in soft materials. He actively mentors graduate students in polymer characterization techniques and has incorporated his research into both undergraduate and graduate chemical engineering curricula. His laboratory utilizes advanced methodologies including RheoSAXS, electrospinning, and hypervelocity impact testing to probe material behavior across multiple scales.
Thomas George and G.P. Zhang are collaborative researchers in the Department of Chemistry and Biochemistry at the University of Missouri-St. Louis (UMSL), with Thomas George also contributing to interdisciplinary work in Political Science as evidenced by his 2019 publication on anchor institutions in suburban settings. Their primary research focuses on quantum phenomena in condensed matter systems, particularly laser-matter interactions, spin dynamics in ferromagnetic materials, and nanomaterials including C60 fullerenes. Their research interests span Condensed Matter Physics , Quantum Mechanics , Laser-Matter Interactions , Magnetism , Nanomaterials , and Ultrafast Processes . They employ both theoretical and computational approaches to study phenomena such as coherent population trapping, all-optical spin reversal, and ultrafast demagnetization. Their work bridges physics and chemistry, with applications in materials science, optoelectronics, and potential quantum technologies. Analysis of their 15 most recent publications reveals a strong emphasis on laser-induced phenomena in magnetic materials , with particular focus on ultrafast spin dynamics , all-optical switching mechanisms , and quantum coherence in nanoscale systems . Their research demonstrates consistent methodological sophistication, combining first-principles calculations with theoretical modeling to explain complex physical phenomena occurring on femtosecond timescales. Notable achievements include demonstrating coherent population trapping in C60 molecules, investigating the role of perpendicular magnetic anisotropy in spin reversal, and exploring high-order harmonic generation from ferromagnetic monolayers. Their collaborative work has appeared in high-impact journals including Physical Review Letters. Both researchers maintain active programs with publications spanning from 2008 to 2019, showing consistent productivity and evolving research directions that increasingly incorporate computational approaches to complex physical phenomena. Their work demonstrates significant interdisciplinary reach, connecting fundamental quantum physics with potential applications in next-generation magnetic storage and quantum information technologies.
Dr. Pavle Spasojević is a Full Professor at the Faculty of Technical Sciences in Čačak, University of Kragujevac , where he has worked since 2023. His academic career at the same faculty progressed from Associate Professor (2018-2023) to his current role. Diploma: University of Belgrade – Faculty of Technology and Metallurgy (2006) in Polymer Engineering PhD: University of Belgrade – Faculty of Technology and Metallurgy (2012) , dissertation on Modification of poly(methyl methacrylate) materials for dental prostheses with itaconic acid diesters His research focuses on polymer materials engineering , including: Nanomaterials and biomaterials Sustainable development and bioeconomy Hydrogels for drug delivery Itaconic acid-based composites Recycling of PET waste Recent publications highlight green pH/magnetic-responsive hydrogels , bio-based unsaturated polyesters , and biomimetic polymer networks for environmental applications. He holds 4 patents and 3 technical solutions , with over 950 Scopus citations (h-index 19). Awards include multiple Panta S. Tutundžić and Serbian Chemical Society recognitions. Teaching subjects include Technical Materials , Textile Materials , and Environmental Monitoring .
Assoc. Prof. Sevnur DOĞRUYOL is an Associate Professor at Yıldız Technical University's Faculty of Arts & Science, Department of Chemistry, specializing in Physical Chemistry and Polymeric Materials. She has 63 WoS-indexed publications and an H-Index of 8. Doctorate (2002-2009): Yıldız Technical University, Physical Chemistry Postgraduate (1999-2002): Yıldız Technical University, Physical Chemistry Undergraduate (1995-1999): Marmara University, Chemistry Her research focuses on photopolymerization mechanisms , with particular emphasis on visible light photoinitiators for UV-curable systems. She explores critical phenomena in gelation kinetics, magnetic field effects on polymerization, and solvent influences on epoxy acrylate systems. Recent publications (2023-2024) highlight innovations in water-soluble photoinitiators and antibacterial photoinitiator design . Earlier work (2004-2011) established foundations in thioxanthone derivatives , quinoxaline-based initiators , and free radical polymerization under magnetic fields. 2010: Yildiz Technical University Publication Incentive Award 2007-2009: ULAKBİM Publication Incentive Awards She has supervised two graduate theses and participated in 12 funded projects (2000-2024), including development of water-soluble photoinitiators and UV/Visible curing systems . Peer reviewer for journals like DÜZCE ÜNİVERSİTESİ BİLİM VE TEKNOLOJİ DERGİSİ.
Dr. Eng. Katarzyna Szcześniak is an active faculty member at Poznań University of Technology, Faculty of Chemical Technology, working within the Institute of Chemical Technology and Engineering. She holds a PhD in Physical Sciences from Adam Mickiewicz University's Nanobiomedical Center (2015), complemented by dual master's degrees in Chemical Technology with Polymer specialization (Poznań University of Technology, 2009) and Physics with Medical Physics specialization (Adam Mickiewicz University, 2010). Her research focuses on advanced polymer systems, particularly photopolymerization techniques, atom transfer radical polymerization, and development of polymer-based biomaterials. She investigates drug and nucleic acid delivery systems, synthesis of functional nanoparticles, and interpenetrating polymer networks with applications spanning biomedical engineering and materials science. Her work demonstrates strong interdisciplinary connections between chemistry, materials science, and medical applications. Dr. Szcześniak's publication record shows consistent high-impact research output from 2019 through 2025, with recent work emphasizing star polymers for silver nanoparticle delivery, bone cement modifications with eugenol for antibacterial properties, hydrogel systems for bisphosphonate delivery, and advanced ionogel systems for electrochemical applications. Her research demonstrates a clear trajectory from fundamental polymer chemistry toward practical biomedical and energy storage applications. She actively participates in research projects including OPUS 14 funding for ionogel development (2018-2021) and NCBiR projects on nanomaterials for biomedicine. Dr. Szcześniak maintains scientific collaborations with the Nanobiomedical Center of Adam Mickiewicz University and the Allegheny Health Network Research Institute in Pittsburgh, USA, reflecting her international research profile. As an educator, she teaches comprehensive polymer courses including lectures on special purpose materials and nanomaterials technology, calculation exercises in polymeric materials technology, and laboratory classes covering polymer chemistry, physical chemistry of polymers, and pharmaceutical applications of polymers. She also supervises the 'Poli-MERitum' scientific club, mentoring student researchers in polymer science.
Srinivas Tipparaju serves as Professor and Chair of Pharmaceutical Sciences at the University of South Florida's Taneja College of Pharmacy, located at the Tampa campus (12901 Bruce B. Downs Blvd). His educational background includes a BPharm from Nagpur College of Pharmacy (1996), MPharm from BITS Pilani (1998), PhD in Pharmacology from Jamia Hamdard/CDRI (2002), and postdoctoral training in Cardiovascular Research at Emory University (2003). His research integrates cardiovascular pharmacology , ion channel regulation , and nanodrug delivery systems . Primary interests include: Metabolic modulation of potassium channels (Kvβ subunits) Nanoparticle-based glucocorticoid delivery for muscle injury Cardioprotective drug development for diabetic complications Redox signaling in cardiac electrophysiology Recent publications (2016-2025) demonstrate consistent focus on: Nanoparticle therapeutics characterization and optimization Cardiac ion channel pathophysiology in metabolic diseases Translational applications of electrophysiology research Clinical pharmacology of diabetes and statin therapies Awards and honors include: FCVS (American Physiological Society, 2019) Best Researcher Award (USF, 2014) AHA Scientist Development Grant (2008) Fellowships from AHA (2003) and USF leadership programs Professional memberships include the American Physiological Society (2013-present) and American Heart Association (2003-present). No explicit information about grants, laboratories, or student advising is provided in the source material.
Lecturer Corina Mohorianu has been affiliated with the Faculty of Mathematics at Alexandru Ioan Cuza University of Iași since 1990. Her research focuses on Algebraic and Geometric Topology , Strong and Equivariant Shape Theory , and Affine/Euclidean Geometry . Education : Graduated in Mathematics (1980) from Alexandru Ioan Cuza University, with a master’s in Algebra-Geometry (1981) from the University of Bucharest; completed a postdoctoral program in Fortran 77 programming for molecular geometry (1987). Her research spans algebraic structures in topology, geometric modeling , and polymer chemistry applications. She has supervised student research on topics like Higher Homotopy Problems , Covering Spaces , and Algebraic Methods in Differential Equations . Key collaborations include work with Professor Ioan Pop on C*-algebras and Strong Shape Homology .
Prof. Jennifer Strunk holds the W3 professorship for Industrial Chemistry and Heterogeneous Catalysis at the Technical University of Munich (TUM), within the TUM School of Natural Sciences. She was appointed to this position in 2023 after serving as a W2 professor at the Leibniz Institute for Catalysis at the University of Rostock (2017-2023). Her research group focuses on using renewable energy sources for the heterogeneously catalyzed activation of small molecules such as CO 2 , H 2 O, N 2 , and short-chain alcohols. Her research interests center on sustainable chemical processes, with particular emphasis on photocatalysis, electrocatalysis, and thermal catalysis. She applies a diverse toolbox of operando spectroscopy to identify active sites under reaction conditions, aiming to establish structure-function relationships. Her work explores various energy input methods including light in photocatalysis, renewable electricity in electrocatalysis, and novel heat sources in thermal catalysis, or combinations thereof. Her fingerprint in research prominently features titanium dioxide, rutile surfaces, carbon dioxide conversion, and photocatalytic processes. Prof. Strunk's recent publications (2023-2025) demonstrate strong activity in semiconductor photocatalysis, heterojunction systems for environmental applications, green synthesis of nanomaterials, and fundamental studies of light-induced surface processes. Her work shows a clear trajectory toward addressing global sustainability challenges through innovative catalytic solutions for carbon dioxide utilization and renewable energy conversion. Scientific Awards: Lecturer Award of the Chemical Industry Fund (2017) Jochen Block Prize of the German Society for Catalysis (2014) Appointment as a member of the Global Young Faculty of the Mercator Research Center Ruhr (2011-2013) Acquisition of a BMBF junior research group (~1.2 million euros) (2010) Doctoral scholarship from the Heinrich Böll Foundation (2007-2008) Prof. Strunk received her diploma (2004) and doctorate (2008) in technical chemistry from Ruhr University Bochum. Following a postdoctoral stay at UC Berkeley (2008-2010), she became a junior research group leader at Ruhr University Bochum (2010-2014), then an independent group leader at the Max Planck Institute for Chemical Energy Conversion (2014-2016), before her appointment at TUM. Her research contributes significantly to UN Sustainable Development Goals related to affordable and clean energy, industry innovation, and climate action.
Dr. Francesca Massi is an Associate Professor at UMass Chan Medical School with multiple appointments across the institution. She holds positions in the T.H. Chan School of Medicine's Department of Biochemistry and Molecular Biotechnology, as well as in the Morningside Graduate School of Biomedical Sciences where she is affiliated with the Department of Biochemistry and Molecular Biotechnology, the Department of Biophysical Chemical and Computational Biology, the MD/PhD Program, and the Postbaccalaureate Research Education Program. Additionally, she is associated with the Bioinformatics and Integrative Biology department within UMass Chan Programs, Centers and Institutes. Her educational background includes a Laurea from the University of Rome "La Sapienza" in 1995, followed by a Ph.D. in Chemistry from Boston University in 2002. She completed her postdoctoral training at Columbia University from 2002 to 2007. Dr. Massi's research focuses on understanding the intricate relationship between protein structure, stability, and dynamics. Her laboratory employs a multi-disciplinary approach that combines biophysical, biochemical, and in vivo techniques, with particular emphasis on solution NMR spectroscopy and computational methods. Her work seeks to elucidate how protein structure and dynamics influence molecular recognition, allostery, and stability. Her specific research programs target three main areas: first, investigating how the TTP protein family regulates cytokine mRNA turnover, which has implications for inflammation and cancer; second, studying how C. elegans TZF proteins govern cell fate specification in early embryogenesis through post-transcriptional mRNA regulation; and third, characterizing the allosteric mechanism of Scapharca dimeric hemoglobin to understand how changes in protein flexibility mediate allosteric communication. Analysis of Dr. Massi's publication history reveals a strong focus on protein dynamics, RNA-protein interactions, and neurodegenerative diseases. Her most recent work (2023-2025) shows an increasing emphasis on ALS-related research, particularly studying TDP-43 and PFN1 proteins using NMR spectroscopy and computational approaches. She also has made significant contributions to understanding RNA-binding proteins, especially those involved in embryonic development in C. elegans, and has recently published on SARS-CoV-2 genome structure. Dr. Massi actively mentors students through rotation projects that address questions about protein structure, dynamics, and their biological implications. Her laboratory offers opportunities to investigate how structural disorder in RNA-binding proteins affects cellular activity, how mutations in RNA-binding domains lead to cancer, and the mechanisms by which proteins like HuR regulate mRNA stability. Her laboratory represents a dynamic research environment that bridges biophysics, biochemistry, and computational biology to address fundamental questions about protein function and its implications for human health and disease.
Carol Barry is a Professor in the Department of Plastics Engineering at the University of Massachusetts Lowell . Her work spans advanced polymer processing, nanomanufacturing, and 3D printing technologies. Research Interests focus on: Plastics processing (extrusion, injection molding, novel techniques) Nanomanufacturing with polymers (nanocomposites, micro/nanostructured surfaces) 3D printing material development and process optimization Article Trends highlight advancements in polymer nanocomposites, microstructured surface fabrication, and thermal/electrical property optimization. Key subtopics include carbon nanotube dispersion, injection molding precision, RAFT polymerization methods, and sustainable bio-based plastics. Grants & Contracts include major funding from the National Science Foundation, U.S. Department of Defense, and industry partners for projects like bio-based plastics education modules, nanocomposite compounding, and tamper-proof stretch wrap development. Labs & Collaborations involve the Nanomanufacturing Center for Excellence and partnerships with researchers like James Mead and Mengwei Li , advancing industrial applications in automotive, electronics, and medical device sectors.
Adam Printz serves as Assistant Professor of Chemical and Environmental Engineering and Materials Science and Engineering at the University of Arizona's College of Engineering. His research focuses on developing mechanically robust, printable electronic materials for renewable energy applications, particularly addressing stability challenges in perovskite photovoltaics. Education: PhD in NanoEngineering, University of California, San Diego MS in NanoEngineering, University of California, San Diego Professor Printz's research group pioneers materials design strategies for soft electronics, specializing in chemical and physical interactions at interfaces of metal halide perovskites. His work combines benchtop and computational experiments to solve mechanical and chemical instabilities in perovskite-based devices through molecular interactions, scalable printing techniques, and nanocompositing approaches. Current research emphasizes thermomechanical stability across multiple length scales and development of multifunctional reinforcement strategies. Scientific Recognition: NSF CAREER Award recipient DOE Early Career Award recipient Chancellor's Dissertation Medal from UC San Diego Distinguished Young Scholar Seminar Series Speaker, University of Washington His group receives substantial funding from the National Science Foundation and Department of Energy. Professor Printz actively mentors graduate students through directed research courses and doctoral dissertation supervision, while teaching core chemical engineering courses including Heat Transfer, Polymer Science, and senior capstone design. His laboratory develops novel characterization techniques for mechanical properties of semiconducting polymers and perovskite films, with strong industry partnerships for technology translation.
Ya Shen is a Professor in the Department of Oral Biological & Medical Sciences at the University of British Columbia's Faculty of Dentistry. She actively supervises graduate students in the Craniofacial Science MSc and PhD programs through the Graduate and Postdoctoral Studies (G+PS) unit, focusing on thesis-based research in dental biomaterials and endodontic innovations. Her research spans multiple critical areas in modern dentistry: Advanced endodontic instrumentation and irrigation techniques Development of stimuli-responsive biomaterials for pulp regeneration Nanotechnology applications for long-term antimicrobial activity Robotic and imaging-guided surgical interventions Oral biofilm management using natural compounds and peptides Calcium silicate-based sealer performance evaluation Analysis of her 15 most recent publications (2024-2025) reveals a strong trajectory toward integrating engineering principles with clinical dentistry. Key trends include computational fluid dynamics for irrigation optimization, multi-national educational assessments, and the convergence of robotics with microsurgical techniques. Her work consistently employs advanced methodologies like limited FOV CBCT, hydrodynamic cavitation systems, and ROS-responsive hydrogels to address persistent challenges in root canal disinfection and pulp regeneration. As a research supervisor, Professor Shen mentors graduate students in Craniofacial Science through UBC's structured thesis programs, emphasizing evidence-based approaches to endodontic material science and clinical technique refinement. Her laboratory work appears centered on ex vivo and in vitro models that simulate complex clinical scenarios, particularly focusing on biofilm eradication in anatomically challenging root canal systems.
