Izar Capel Berdiell is a Researcher at the Center for Materials Science and Nanotechnology (University of Oslo), specializing in zeolite catalysis , spin-crossover materials , and materials characterization . Their work combines theoretical and experimental approaches to study catalyst deactivation, coordination chemistry, and advanced diffraction techniques. Education: PhD in Inorganic Chemistry and Coordination (University of Leeds, 2016-2019) M.Sc. in Industrial Chemistry (UAB, Spain, 2014-2015) Current projects include TomoCAT (X-ray diffraction tomography for catalyst tracking) and FUNCY-SSB (functional coatings for solid-state batteries). Recent publications focus on zeolite flexibility , methylation reactions , and spin-state distortions . Scientific Awards: J.B. Cohen Prize for Chemistry (2020) Research Mobility Grant by Royal Society of Chemistry (2018) Key collaborations include work with ICMol (University of Valencia) and IESL-FORTH (Greece). Techniques employed: XRD , neutron diffraction , SEM/EDX , and NMR .
Veerappan Mani is a Research Fellow in the Department of Pure and Applied Chemistry at the University of Strathclyde, United Kingdom. His research focuses on developing innovative sensor systems for biomedical applications and advancing electrochemical detection methods using novel nanomaterials. Current research interests: Development of graphene-based immunosensors for early diagnosis of metabolic disorders Synthesis of single-atom catalysts for electrochemical detection applications Creating low-cost diagnostic tools and disease progression monitoring systems Exploring nanozyme technology as alternatives to traditional enzymes like horseradish peroxidase Current research projects include: A low-cost, easy to use, single step diagnostic test for Berger’s Disease (IgA nephropathy) Advancing immunoassays with single-atom nanozymes Dr. Mani's work contributes to important scientific areas including graphene technology, sensor development, and biomedical chemistry. His research output demonstrates a strong focus on practical diagnostic solutions using advanced nanomaterials.
Corniek Post is a Promovendus (PhD candidate) at the University of Groningen's Faculty of Science and Engineering, affiliated with the Macromolecular Chemistry and New Polymeric Materials department. Their work focuses on sustainable polymer synthesis and characterization. University: University of Groningen School: Faculty of Science and Engineering Department: Macromolecular Chemistry and New Polymeric Materials Email: c.post@rug.nl Research Interests span biobased polymers, biodegradable materials, polymer synthesis techniques, and materials engineering. Their work aligns with UN Sustainable Development Goals, emphasizing eco-friendly polymer solutions. Publication Trends show specialization in: Biodegradable polyester amides and polyurethanes Bulk polymerization methods Hydrogen bonding in polymeric materials Rheological property analysis Renewable feedstock utilization (e.g., BHMF, starch) Self-healing material design Collaboration Network includes researchers like Dr. V.S.D. Voet, Prof. K. Loos, and teams focusing on sustainable polymer technologies.
Zachary Holman serves as the Vice Dean for Research and Innovation for the Ira A. Fulton Schools of Engineering and is a Professor in the School of Electrical, Computer, and Energy Engineering at Arizona State University. In his leadership role, he directs the research strategy for the largest engineering college in the United States, overseeing a vast portfolio of research initiatives and innovation activities. Dr. Holman's educational background includes: Ph.D. in Mechanical Engineering from the University of Minnesota (2010) B.A. in Physics from Reed College (2005) His research spans the fields of solar cells, coatings, nanotechnology, semiconductors, plasmas, and aerosols. His specific interests include silicon-based tandem solar cells, contacts to solar cells, light management in silicon solar cells, novel uses of nanoparticles in devices, semiconductor nanoparticles, optical and electronic properties of nanoscale materials, plasma synthesis of powders, and deposition of powders and thin films. His work focuses on developing new semiconductor and solar materials, equipment, processes, and device designs to advance photovoltaic technology. Dr. Holman has been instrumental in bridging fundamental research with commercial applications through his entrepreneurial activities. His extensive publication record demonstrates consistent innovation in photovoltaic technology, with recent work emphasizing perovskite-silicon tandem solar cells, novel contact materials, and manufacturing processes. His research spans from fundamental material properties to commercialization pathways, with an emphasis on practical applications and scalability. The publications reveal a strong focus on improving solar cell efficiency while addressing manufacturing challenges and reliability concerns. Dr. Holman has received numerous prestigious awards: Moore Inventor Fellow Trustees of ASU Professor Fulton Entrepreneurial Professor Joseph C. Palais Distinguished Faculty Scholar As a research leader, Dr. Holman oversees multiple significant projects funded by DOE, NSF, and industry partners. His current portfolio includes major initiatives like 'TEAMUP: Tandems for efficient and advanced modules using ultrastable perovskites' (DOE SETO), 'Manufacturing 27%-efficient perovskite/silicon tandem photovoltaic cells' (DOE SETO), and 'Center for clean energy materials' (DOE NETL). He has secured substantial funding from TSMC and Applied Materials for confidential projects, demonstrating strong industry connections and commercial relevance of his work. His grant portfolio spans fundamental research to applied technology development and commercialization pathways. Dr. Holman leads the Holman Research Group within the School of Electrical, Computer, and Energy Engineering at ASU, which maintains strong connections with ASU's shared facilities including the Solar Power Laboratory, NanoFab, and Eyring Materials Center. Notably, his group has founded three active startups: Swift Coat, Sunflex Solar, and Beyond Silicon, demonstrating a strong commitment to technology commercialization and entrepreneurship. The group comprises electrical engineers, materials scientists, mechanical engineers, physicists, and chemists working collaboratively on solar energy solutions.
Martina Jakovljević Kovač, PhD, is an Assistant Professor at the Department of Applied Chemistry and Ecology within the Faculty of Food Technology Osijek , University of Osijek. Her work focuses on green extraction techniques for bioactive compounds from plant and food waste materials. Primary Affiliation: University of Osijek, Croatia Key Techniques: Deep Eutectic Solvents (DES), Supercritical CO2 Extraction, Ultrasound-Assisted Methods Her research emphasizes green chemistry principles, targeting phenolic compounds , flavonoids , and terpenoids from sources like Tanacetum cinerariifolium , Aronia melanocarpa , and Salvia officinalis . Recent publications analyze solvent optimization, antioxidant activity, and waste valorization strategies. Article trends highlight the use of eco-friendly solvents in extracting pharmaceutically relevant molecules (e.g., pyrethrins, carnosic acid, hesperidin) and their functional testing for antioxidant/antibacterial properties. Collaborative work spans food technology , pharmaceutical science , and sustainable processing . She supervises PhD candidates Mario Nosić and Esma Karahmet Farhat and maintains active collaborations with researchers in Poland , Italy , and Croatia . Contact: martina.jakovljevic@ptfos.hr
Jon Noble is a Lecturer in the Department of Chemical Engineering at the University of Bath, specializing in electromagnetic heating technologies for sustainable chemical processes. His research directly contributes to UN Sustainable Development Goals through electrification of industrial reactors and renewable chemicals manufacturing. Education: MEng Chemical Engineering, University of Surrey (2001-2005) Research Interests: Dr Noble's work bridges chemical engineering and electromagnetic physics, focusing on induction heating systems, magnetic hysteresis modeling, and in-situ measurement techniques for chemical reactors. He develops novel approaches for temperature inference in particle beds and contact-free impedanceometry, with applications in catalytic processes and fossil fuel displacement. Publication Trends: His recent publications demonstrate cohesive advancement in radio-frequency heating for green chemistry, emphasizing energy loss modeling, scale-up analysis, and magnetic material characterization. Key themes include sustainable reactor design, real-time temperature monitoring, and magnetic-zeolite catalyst development for renewable chemical synthesis. Grants and Projects: Principal Investigator for 'Novel dual-functional magnetic-zeolite catalysts for renewable chemicals manufacture' (2019-present) UK Science Festival Outreach project (2021) involving Swindon community engagement MRes project on advanced radio-frequency applications for continuous flow reactions (2018-2019) Collaborations: He maintains active research partnerships with the Department of Physics at Bath, particularly with Professors Simon Bending and Adrian Hill, and contributes to the Centre for Sustainable Chemical Technologies' mission.
Dr. Liudas Tumonis is a Senior Researcher at the Institute of Chemical Physics , Vilnius University, with extensive experience in electric propulsion for small satellites , inertial navigation systems , and finite/discrete element methods . He has led projects such as the LituanicaSat-2 satellite development and contributes to the TRACOFUNAT and TORTILAC initiatives under ESA-Lithuania collaborations. Key research areas: Space propulsion, Structural mechanics, Fluidics Active in science communication via Cafe Scientifique and national media Teaches Fundamentals of Aerospace Technologies and mechanics exercises His recent publications focus on satellite propulsion systems , particle impact modeling , and structural vibration analysis , with applications in aerospace and mechanical engineering. He specializes in hybridizing computational methods (finite/discrete element) with experimental validation for material behavior under extreme conditions. Dr. Tumonis has supervised student theses on topics like nano-satellite rocket engines and MEMS-based navigation systems , while contributing to open-source projects like FreeCAD translation. He remains actively involved in science outreach, including TV and radio appearances discussing Mars exploration and lunar missions.
Dr. Ioana Andreea Brezestean is a Recognised Researcher (R2) at the National Institute for Research and Development of Isotopic and Molecular Technologies (INCDETIM) in Cluj-Napoca, Romania. She holds a PhD in Physics (2022) and Master's/MSc degrees in Medical Physics (2013-2015) from Babeș-Bolyai University. Her research focuses on nanomaterial synthesis, surface-enhanced Raman spectroscopy (SERS), and microfluidic sensing platforms for environmental safety and biomedical applications. Education: MSc in Medical Physics (2013) Master in Medical Physics (2015) PhD in Physics (2022) Her work integrates nanofabrication techniques like Nanoimprint Lithography (NIL) and Magnetron Sputtering (MS) to develop ultrasensitive SERS substrates for detecting neurodegenerative disease biomarkers (e.g., Alzheimer's, Parkinson's) and environmental pollutants (e.g., pesticides, persistent organic pollutants). Recent publications highlight advancements in thermoplasmonic sensing, hybrid ZnO@Ag nanostructures, and bio-inspired microfluidic systems. Dr. Brezestean leads projects such as "NanedisSERS" (SERS nanoplatform for neurodegenerative diseases) and "Antibresissers" (nanoscreening for antibiotic resistance). Her expertise spans nanomaterials, molecular dynamics, and characterization techniques including UV-Vis, microscopy, and Raman spectroscopy. Technical Infrastructure: Works in the Molecular and Biomolecular Technologies research team, utilizing advanced facilities like pulsed laser deposition systems and high-throughput nanoimprint platforms.
Željko Skoko is an Associate Professor at the Department of Experimental Physics within the Faculty of Science , University of Zagreb. His research focuses on structural analysis of materials using advanced techniques like X-ray diffraction and electron microscopy , with applications in perovskite materials , glass-ceramics , and nanoparticle-doped superconductors . Teaching: Physics 1 & 2 (undergraduate), Electron Microscopy (doctoral), and specialized courses in materials science. Projects: Involved in Precious , SAT-PHENO , and Graparion , targeting catalytic materials and phase transitions. His work bridges condensed matter physics and materials chemistry , emphasizing microstructural effects on electronic, thermal, and catalytic properties. Recent publications highlight innovations in sodium-ion conductivity , thermosalient phase transitions , and green synthesis methods for sustainable materials. Key collaborations: With the Zavod za teorijsku fiziku čestica i polja and interdisciplinary teams in biomedical engineering.
Dr. Chuyen Pham is a senior electrocatalysis and nanomaterials chemist serving as Team Leader of "Catalyst Synthesis" at the Helmholtz Institute Erlangen-Nürnberg for Renewable Energy (HI ERN), an institute of the Helmholtz-Zentrum Berlin (HZB), located in Nuremberg, Germany. His research concentrates on the design and scalable synthesis of advanced electrocatalysts and functional nanomaterials. Core areas include: Highly active and stable platinum-, iridium-, ruthenium-based catalysts for solid-electrolyte membrane fuel cells and CO₂/water electrolysers. Core–shell architectures (e.g., TiO₂@IrOₓ, IrOₓ@TiO₂) engineered to reduce noble-metal loading while enhancing activity and durability. Carbon-supported non-noble systems (NiRu/C, MoSₓ) for cost-effective hydrogen evolution in anion-exchange membrane electrolysers. Functional nanomaterials enabling next-generation Li–S batteries and other advanced energy-storage technologies. Across more than 25 peer-reviewed publications since 2017, his work demonstrates a consistent trajectory toward lowering critical-material content, improving catalytic efficiency, and bridging fundamental surface-science insights to real device performance. Recent articles emphasize scalable wet-chemical and photodeposition routes, ink–electrode correlations, and full-cell validation under industrially relevant conditions. Laboratory & Team: Dr. Pham leads the “Catalyst Synthesis” group within the Electrocatalysis division at HI ERN, housed in Building HIERN-Auf-AEG, Room 0224. The team focuses on rational catalyst design, in-house synthesis, and collaborative testing within the institute’s broader research portfolio on renewable energy conversion and storage.
Thomas Zawodzinski holds the prestigious Governor's Chair in Electrical Energy Storage with a joint appointment at the University of Tennessee, Knoxville and Oak Ridge National Laboratory (ORNL). He serves in the Department of Chemical and Biomolecular Engineering at UT and the Division of Materials Science and Technology at ORNL. Previously, he was the F. Alex Nason Professor of Engineering at Case Western Reserve University, Director of the Case Advanced Power Institute, and the Ohio Eminent Scholar in Fuel Cells. Earlier in his career, he served as Team Leader for Fuel Cells in MST-11 at Los Alamos National Laboratory for 13 years. Dr. Zawodzinski earned his Ph.D. in Chemistry from SUNY/Buffalo, focusing on electrochemical devices for energy applications, including fundamental and applied studies of batteries and fuel cells, applications of NMR methods to study transport and structure in device components, preparation of advanced functional materials, and development of molecular device concepts. His research spans multiple energy storage technologies with particular expertise in metal air batteries, redox flow batteries, fuel cells, and membranes. Current research directions include electrolytes and composite electrodes for fuel cells, fundamentals of energy storage materials and systems, water management in fuel cells, and application of NMR to chemical engineering problems. His work at LANL also included lithium batteries, preparation of new electrolytes, studies of transport and electrode materials, self-assembled monolayers for device preparation, and sensors for chemical/biological agents. Analysis of Dr. Zawodzinski's publication record reveals a strong focus on solid-state electrolytes, particularly sulfide-based materials for batteries, and continued work on redox flow battery systems. His research spans fundamental material characterization to practical battery component development, with emphasis on mechanical properties, ion transport, and electrochemical stability across multiple energy storage technologies including lithium batteries, zinc-based systems, and various fuel cell configurations. ECS Energy Technology Division Research Award (2016) Royal Academy of Engineering Fellowship (2015) Poly Fellow (2015) Ohio Eminent Scholar in Fuel Cells Dr. Zawodzinski has secured significant research funding through Department of Energy projects, including leading a DOE Fuel Cell Project. His professional service includes membership on the International Advisory Board for the Journal of Power Sources and extensive conference organization including the Asilomar Conference on Advances in Polymers for Fuel Cells. He has served as Discussion Leader for the Fuel Cell Gordon Conference multiple times and co-organized numerous ACS and Electrochemical Society symposia. He leads the Energy Storage and Conversion Group within the Chemical Transformations Section of ORNL's Chemical Sciences Division, focusing on developing advanced materials for next-generation energy storage technologies with applications ranging from grid-scale storage to portable power systems.
Professor Przemysław Jodłowski is a full professor and Vice-Dean for Organizational Affairs at the Faculty of Chemical Engineering and Technology of the Tadeusz Kościuszko Cracow University of Technology , Poland. He also leads activities in the Department of Organic Chemistry and Technology , where his group develops advanced catalytic materials and structured reactors for environmental protection and biomedical applications. Education: MSc Eng., Chemical Technology, AGH University of Science and Technology, Faculty of Energy and Fuels, 2009 PhD, Chemistry (Catalysis), Jagiellonian University, Faculty of Chemistry, 2013 DSc (habilitation), Chemical Technology, Tadeusz Kościuszko Cracow University of Technology, 2018 Full professorship (prof. dr hab. inż.), Engineering and Technical Sciences, 2025 Research interests are centered on the design, synthesis and characterization of catalytic and adsorbent materials. Key themes include metal-organic frameworks for detoxification of psychoactive substances, oxide catalysts for VOC and methane combustion, structured reactors (monoliths, foams, 3D-printed lattices), and in-situ/operando spectroscopy to unravel reaction mechanisms under real conditions. His work bridges chemical engineering, materials chemistry and translational medicine. Recent publications (2022-2025) reveal a strategic shift toward biomedical applications of MOFs , with several high-impact studies on drug detoxification (mephedrone, levofloxacin) and cancer therapy, alongside continued efforts in environmental catalysis (VOC abatement, biogas exhaust treatment). The integration of ultrasound-assisted synthesis throughout these works underscores his commitment to green, scalable manufacturing. Scientific awards & distinctions : START Scholarship, Foundation for Polish Science (2013) Scholarship of the Minister of Science and Higher Education for outstanding achievements (2012) Scholarship of the Rector of the Jagiellonian University for outstanding achievements (2012) Pro-quality grant scholarship for outstanding achievements (2012) Research funding & leadership: National Centre for Research and Development (NCBiR) LIDER grant (2016-2018) National Science Centre (NCN) SONATA 9 grant (2016-2018) NCN OPUS grant “MOF-antidote” (2022-2025) He collaborates with leading institutions worldwide, including the University of Bath (UK), Laboratoire Catalyse et Spectrochimie in Caen (France), Charles University (Czech Republic), and PSI Villigen (Switzerland). His group operates modern laboratories for catalyst synthesis, advanced characterization (in-situ IR/Raman, synchrotron XAS), and reactor testing.
dr inż. Paweł Śliwa is a Lecturer at the Department of Organic Chemistry and Technology , Faculty of Chemical Engineering and Technology, Tadeusz Kościuszko Cracow University of Technology. His research focuses on Computational Chemistry , Catalysis , and Molecular Modeling of receptor-ligand interactions. Institution: Tadeusz Kościuszko Cracow University of Technology Department: Organic Chemistry and Technology Rank: Lecturer Email: pawel.sliwa@pk.edu.pl Research Interests include computational catalysis, receptor pharmacology (5-HT, D4, VEGFR2), and green chemistry methods for bioactive compound extraction. His work combines quantum mechanical calculations , molecular dynamics simulations , and fragment molecular orbital analysis to investigate drug-receptor interactions and catalytic mechanisms. Publications highlight applications of computational methods in organic synthesis, receptor binding studies, and surfactant optimization for pharmaceutical/biotechnological uses. Key trends involve structure-based drug design and molecular modeling of metal complexes . Projects span from biocatalyst development (e.g., magnetic nanoparticles with immobilized catalase) to 3D-printed biomimetic scaffolds for tissue engineering. He also explores micellar extraction of plant polyphenols and halogen bonding in ligand-receptor complexes. Laboratory operates within the Computational Catalysis research team , utilizing methods like MD, FMO/PIEDA, and docking to advance understanding of molecular interactions in chemical and biological systems.
Mohan MK is a research scientist at the Indian Institute of Science, working in the College of Engineering within the Department of Materials Engineering. With a prolific publication record spanning multiple disciplines, Dr. Mohan's research bridges chemistry, materials science, and biomedical applications. Dr. Mohan's research interests focus on sustainable materials development, particularly in lignin modification for various applications. Their work spans green chemistry approaches for synthesizing bioactive compounds, development of advanced materials for 3D printing, functional textiles with protective properties, and environmental monitoring technologies. The research demonstrates strong interdisciplinary collaboration across chemistry, engineering, and medical fields. The publication trend shows consistent high-impact research output, with recent work focusing on lignin-based materials for sustainable applications, functional textiles for occupational safety, and environmental monitoring systems. The research demonstrates a clear trajectory toward practical applications of fundamental materials science. Dr. Mohan has made significant contributions to understanding lignin modification techniques, particularly chloromethylation and quaternary ammonium functionalization, which have applications in catalysis, antimicrobial materials, and sustainable composites. The work on oxime-functionalized fabrics represents an innovative approach to occupational safety in agricultural settings.
Zbigniew Bojar is a Full Professor at the Faculty of Advanced Technologies and Chemistry, Warsaw University of Technology, specializing in materials engineering with a focus on intermetallic alloys, anodic oxidation, and catalytic applications for sustainable energy systems. His primary research centers on Ni 3 Al and FeAl intermetallic alloys , investigating microstructure evolution during processing (hot rolling, laser deposition, differential speed rolling), mechanical properties, and catalytic applications for hydrogen production. He extensively utilizes anodic aluminum oxide (AAO) templates for nanostructured materials and employs advanced characterization techniques including electron backscatter diffraction (EBSD), X-ray diffraction, and thermal analysis. Analysis of his recent publications reveals a consistent trajectory in structure-property relationships for energy applications, particularly hydrogen production via thermocatalytic decomposition of methanol/ethanol using Ni 3 Al catalysts. His work bridges fundamental materials science with engineering applications, evidenced by high bibliometric impact (Scopus h-index: 23) and significant ministerial research scores (1,860). Professor Bojar has supervised 5 promoted theses and secured 9 research projects resulting in 95 publications and 3 patents. His research group operates within advanced materials laboratories at Warsaw University of Technology, focusing on alloy processing, nanostructure fabrication, and catalytic reactor development for clean energy solutions.
