Dr Changrong Shi is a Research Fellow at the School of Mechanical, Medical and Process Engineering, Faculty of Engineering, Queensland University of Technology. His work focuses on chemical engineering and food sciences, particularly in food engineering, sugar engineering, and biomass valorization processes. Key research themes include: Sugarcane juice clarification and sugar refining Membrane filtration and adsorptive purification Hydrochar modification for environmental applications Biomass-derived materials for sustainable technologies Recent publications highlight advancements in: Nanoparticle-enabled photonic films Dye removal through functionalized hydrochars Co-liquefaction of agricultural and plastic waste Photocatalytic systems for water treatment Ceramic membrane filtration in sugar production
Dr. Damien S Guironnet serves as an Associate Professor in the Department of Chemical and Biomolecular Engineering at the University of Illinois Urbana-Champaign's Grainger College of Engineering, holding the James W. Westwater Professorial Scholar title. His research develops atom- and energy-efficient catalytic processes for sustainable polymer synthesis, bridging homogeneous catalysis with industrial applications. Education Postdoctoral Research, University of North Carolina (2009-2011) Ph.D. in Chemistry, University of Constance, Germany (2009) M.S. in Chemical Engineering, Ecole Nationale Supérieur de Chimie de Mulhouse, France (2005) Guironnet's work integrates polymer science and catalysis to address sustainability challenges. Key research areas include catalytic depolymerization for plastic recycling (focusing on PET and bio-based polymers like lignin), insertion polymerization of polar monomers to replace energy-intensive processes, and synthesis of telechelic/block-copolymers for advanced materials. His group emphasizes green chemistry principles and industrial viability. Recent publications reveal strong trends in homogeneous catalysis for sustainable polymer production, with advancements in ring-opening metathesis kinetics, aqueous-phase polymerization systems, and precision control of polymer architectures. The work spans fundamental mechanistic studies to applications in recyclable materials and bio-based feedstocks. Scientific Awards Young Investigator Award, ACS Division of Polymeric Materials: Science and Engineering (2019) School of Chemical Sciences Teaching Award (2015-2016) Guironnet mentors graduate students in his inclusive research group, emphasizing diversity in training and culture as strengths. His projects receive support from federal agencies and industry partnerships, though specific grants aren't detailed in the source material. The Guironnet Lab operates as a collaborative team tackling challenges in catalytic depolymerization, polar monomer polymerization, and advanced polymer architectures for sustainable materials.
Prof. Wu Ta Yeong is a Full Professor and Associate Head of School (Graduate Research) at Monash University Malaysia's School of Engineering. He holds Chartered Chemical Engineer status and IChemE membership. His research focuses on sustainable solid waste management, biorefinery, biofuel production, and wastewater treatment. He has led multiple projects including 'Agriculture 4.0 - Investigation on Fusing Digital Twins and Deep Learning for Improving Agricultural Yield and Autonomy' and 'Elucidating Water Transport Mechanisms Inside Fruits and Vegetables for Better Postharvest Management Through Multiscale Modeling'. Prof. Wu has authored 132+ publications, earned 2 major awards, and serves on editorial boards for Journal of Environmental Chemical Engineering and Chemical Papers . He actively organizes conferences like the 10th International Conference on Sustainable Solid Waste Management. Education: BEng (Hons), Universiti Kebangsaan Malaysia (2001) MEng, Universiti Kebangsaan Malaysia (2003) PhD, Universiti Kebangsaan Malaysia (2009) Research Interests: Prof. Wu's work addresses global sustainability challenges through: - Innovations in lignocellulosic biomass conversion - Waste-to-value technologies for agro-industrial residues - Development of green solvents (e.g., deep eutectic solvents) - Photocatalytic pollution remediation systems Recent Article Trends: Focus on enzymatic biocatalysis optimization, lignin valorization pathways, and synergistic pretreatment strategies for biomass. Recent studies highlight alcohol-assisted extraction, ionic liquid effects on cellulases, and piezophotocatalytic systems for drug degradation. Grants & Collaborations: Led 11 projects with total funding (details unavailable) involving institutions like Universiti Malaysia Pahang and Universiti Teknologi MARA. Active collaborations span Malaysia, China, and Australia. Labs & Teams: Leads biorefinery and environmental engineering research groups at Monash Malaysia. Collaborates with industry partners in palm oil and pulp sectors for waste valorization projects.
Dr. Patrick Hemberger is a principal investigator and beamline scientist at the Vacuum Ultraviolet (VUV) Beamline of the Paul Scherrer Institute (PSI) in Switzerland. With a PhD in physical chemistry from the University of Würzburg (2011), he specializes in operando reaction dynamics analysis using photoelectron photoion coincidence (PEPICO) spectroscopy and synchrotron radiation to study heterogeneous catalysis and combustion chemistry. Develops and applies advanced PEPICO techniques for isomer-selective detection of reactive intermediates Focuses on reaction mechanisms at interfaces , including lignin pyrolysis and propane oxidative dehydrogenation Supervises PhD students and postdocs while organizing the Hercules School (2020-2022) on synchrotron methods Research Highlights : His 2023 Journal of the American Chemical Society study revealed gas-phase radical routes in boron nitride-catalyzed propane dehydrogenation , while 2023 Nature Communications work demonstrated acidity-tuned ketene suppression in lignin valorization . The 2022 Angewandte Chemie paper provided the first evidence of methylketene intermediates in methanol-to-olefins reactions. Scientific Recognition : Energy & Fuels Rising Star (2022) Ružička Prize in Chemistry (2020) Mercator Fellow (German Science Foundation, 2015) Technical Innovations : Leads development of the PhotoElectron PhotoIon Spectral Compendium database and temperature-controlled VUV spectrometers for real-time reaction monitoring. His work bridges surface-confined catalysis with gas-phase reaction networks through combined operando and computational approaches.
Jonas Elmroth Nordlander is a doctoral student at Lund University, affiliated with the Division of Chemical Engineering and multiple profile areas including NanoLund and LTH’s Energy Transition initiatives. His research focuses on catalytic depolymerization of lignin, nanoparticle synthesis, and sustainable materials development. He actively participates in conferences such as EuropaCat 2023, contributing to advancements in catalyst design and reaction mechanisms. Key collaborations involve institutions like KU Leuven and the University of Antwerp, emphasizing international research exchange. His work spans topics like continuous flow reactor optimization, catalyst stability analysis, and in situ spectroscopic techniques. Nordlander’s contributions to nanoparticle synthesis via spark discharge and lignin valorization have been published in journals like Chemical Engineering Journal Advances and Materials . Profile Affiliations : LU Profile Area: Light and Materials, LTH Profile Area: Nanoscience and Semiconductor Technology. Technical Expertise : X-ray absorption spectroscopy, catalytic deactivation studies, and flow chemistry.
Jaemin Kim serves as an Assistant Research Scientist in Materials Science at the Illinois Sustainable Technology Center (ISTC), University of Illinois Urbana-Champaign, focusing on advanced catalytic materials for environmental sustainability and energy applications. His research spans: Nanomaterials for Catalysis : Designing nanoparticle systems (FePt, α-NiS/Fe 3 S 4 ) for Fenton reactions and electrocatalysis Sustainable Energy Conversion : Developing catalysts for hydrogen/methane production and oxygen evolution Biomass Valorization : Optimizing kraft lignin depolymerization via microwave-assisted catalytic processes Analysis of his 2024-2025 publications reveals a cohesive focus on reusable heterogeneous catalysts for environmental remediation (dye degradation) and renewable fuel synthesis. Key methodologies include hydrothermal treatment, metal-organic framework modification (MIL-53), and nanohybrid composite synthesis, emphasizing process efficiency and waste valorization. Affiliated with ISTC—a unit of the Prairie Research Institute—Dr. Kim collaborates across chemical engineering, materials science, and environmental disciplines to address sustainability challenges through applied research.
Armagan Atsay is a Lecturer at the Department of Chemistry , Istanbul Technical University , Turkey. His research focuses on Phthalocyanine Chemistry , Carborane Chemistry , and Supramolecular Materials , with a particular emphasis on π-Extended Phthalocyanines , Boron-Based Conjugates , and Energy-Related Applications . Research Outputs: He has published 19 research outputs since 2009, including notable works on perovskite solar cells , Boron Neutron Capture Therapy , and click chemistry catalysts . His recent publications (2024, 2022) explore nature-inspired lignin depolymerization and 2D coordination polymers . Collaborations: International research networks span multiple countries, with co-authors from Turkey, Italy, and China. His work integrates organic synthesis , materials characterization , and applied chemistry in energy and medical contexts.
Kerem Kaya is an Associate Professor in the Department of Chemistry at Istanbul Technical University. His research focuses on polymer chemistry, analytical chemistry, and materials science, with a particular emphasis on photopolymerization, sensor development, and sustainable materials. He leads projects on supercapacitor electrodes and eco-friendly polymerization methods. Research Interests: Photopolymerization and sustainable synthesis of polymers Development of chemical sensors for heavy metals and environmental contaminants Design of energy storage materials like supercapacitors Application of metal-organic frameworks in catalysis Recent Research Trends: His articles highlight innovations in sensor technology (e.g., rhodamine-based Hg 2+ probes) and advanced materials (e.g., guaiazulene-based supercapacitors). He also explores green chemistry solutions for waste plastic degradation and lignin utilization. Projects: As Principal Investigator (PI), he leads BAP-funded projects on photopolymerization methods for supercapacitors and conductive polymers. Examples include 'Polyguayazulene Supercapacitor Electrode Production' and 'Sustainable Photochemical Synthesis of PEDOT-Polydopamine Copolymers.' Labs/Teams: His research group focuses on interdisciplinary projects at the interface of chemistry and materials science, leveraging cutting-edge techniques like DFT calculations and single-crystal X-ray diffraction.
Jyri-Pekka Mikkola is a Professor at Åbo Akademi University in the Faculty of Science and Engineering, where he leads research in the Laboratory of Industrial Chemistry and Reaction Engineering. He also holds an external professorship at Umeå University, indicating extensive academic collaboration across Nordic institutions. His research focuses on sustainable chemical technologies, particularly in catalysis, biomass conversion, ionic liquids, CO₂ capture, and advanced materials for energy and environmental applications. His work integrates principles of green chemistry, reaction engineering, and material science to develop environmentally benign processes. Key research themes include the valorization of lignin and other biomass feedstocks, the design of functional carbon materials for supercapacitors, and the development of novel solvents like deep eutectic systems for industrial applications. The recent publication trends highlight a strong emphasis on circular economy principles, with innovations in wastewater treatment, rare earth recovery, and green aviation fuels. His interdisciplinary work spans environmental remediation, energy storage, and sustainable chemical synthesis, often involving novel catalysts and nanostructured materials. Scientific Awards: No specific awards mentioned in the provided text. Professor Mikkola actively supervises research and has led significant projects, including the EU- or nationally funded initiative on green aviation fuel production from lignocellulosic biomass. His collaborations span multiple countries and institutions, reflecting a broad research network. He contributes to both fundamental and applied research, with outputs ranging from scientific articles to datasets and patents. He is affiliated with advanced research infrastructure in material synthesis and catalysis, particularly within the Laboratory of Industrial Chemistry and Reaction Engineering. His team works on integrated processes for sustainable fuel and chemical production, emphasizing scalability and environmental impact assessment.
Stéphanie Baumberger is Professor of Green Chemistry at AgroParisTech, part of Paris-Saclay University, and head of the Apsynth research team at the Jean-Pierre Bourgin Institute (IJPB - Univ. Paris-Saclay, INRAE, AgroParisTech). A specialist in lignins and plant polymers, she develops integrated approaches to agricultural resources valorization with a focus on structure-function relationships of biopolymers. Her research interests include: Green Chemistry and Sustainable Materials Development Biorefinery Processes and Agricultural Waste Transformation Lignin Structure and Properties Analysis Natural Antioxidants Production using Ionic Liquids Professor Baumberger's research combines fundamental scientific knowledge with practical applications, as demonstrated by her coordination of the European ZELCOR project (2016) involving 17 partners to transform biorefinery waste into high-value bioproducts for plastics, cosmetics, and chemical industries. Her work utilizes advanced analytical tools including NMR, mass spectrometry, and modeling to elucidate molecular mechanisms of lignin depolymerization. Her scientific recognition includes: Stars of Europe trophy (2021) as coordinator of ZELCOR project Roberval Prize finalist (2020) for coordinating 'Green Chemistry and the Agri-Food Industry' Professor Baumberger strongly believes in interdisciplinary collaboration, breaking down barriers between scientific disciplines, academic-industrial partnerships, and intercultural education. She coordinates the Erasmus Mundus Bioceb master's program, providing international mobility for students in bioeconomy, and has incorporated innovative teaching methods including theater workshops into her scientific curriculum.
Professor Gwladys Pourceau is a leading researcher in sustainable chemistry at the University of Picardie, France, affiliated with the Glycochemistry and Agroresources Laboratory of Amiens (LG2A UR 7378). Her work bridges fundamental carbohydrate chemistry with practical applications in green materials development. Her research focuses on eco-compatible chemical transformations of saccharides , with particular expertise in gold nanocatalysis for selective sugar oxidation and mechanosynthesis of bio-based polymers. Key projects include developing one-pot oxidative amidation methods for unprotected carbohydrates, synthesizing low-irritant sugar-based surfactants, and converting lignin derivatives into sustainable polystyrene alternatives. Her methodologies consistently emphasize minimal catalyst loading , solventless conditions , and renewable feedstocks . Professor Pourceau's publication record demonstrates significant impact in sustainable chemistry, with multiple high-impact papers in 2024 alone covering gold-catalyzed oxidations, cyclodextrin-assisted reductions, and structure-property relationships in sugar surfactants. Her work shows strong interdisciplinary connections between organic chemistry, materials science, and environmental engineering. Developed gold-catalyzed oxidation achieving TOF > 750,000 h -1 Created solventless mechanosynthesis methods reducing reaction times to 5 minutes Designed sugar-based surfactants with significantly lower cytotoxicity than commercial alternatives Established solar-driven methodologies for carbohydrate transformations Her laboratory maintains active collaborations across European institutions, focusing on translating fundamental carbohydrate chemistry into practical sustainable technologies. The research program demonstrates consistent funding through high publication output and methodological innovations addressing critical challenges in green chemistry.
Siegfried R. Waldvogel is a prominent researcher in electrochemical synthesis, currently serving as Director of the Department for Electrosynthesis at the Max Planck Institute for Chemical Energy Conversion and Professor at Karlsruhe Institute of Technology, both positions held since 2023. He also maintains his position as Full Professor at Johannes Gutenberg Universität Mainz, where he has been based since 2010. His academic journey includes professorships at Rheinische Friedrich Wilhelms Universität Bonn (2004-2010), habilitation at Westfalische Wilhelms Universität Münster (1998-2004), postdoctoral work at Scripps Research Institute (1997-1998), and PhD studies at Ruhr-Universität Bochum/Max-Planck-Institute for Coal Research (1994-1996). Professor Waldvogel's research focuses on sustainable electro-organic synthesis, with particular emphasis on developing novel electrochemical methods for organic compound synthesis, biomass valorization, and green chemistry applications. His work bridges fundamental electrochemistry with practical organic synthesis, creating methods that reduce waste, utilize renewable resources, and operate under milder conditions compared to traditional chemical processes. Recent research highlights include electrochemical dehydration reactions, synthesis of heterocyclic compounds, CO2 conversion, and development of peroxodicarbonate as a green oxidizer. Analysis of his recent publications (2024-2025) reveals a strong focus on sustainable electrochemical processes across multiple subfields of organic chemistry. His work spans electrochemical oxidation and reduction reactions, biomass conversion (particularly lignin valorization), and development of novel electro-synthetic methodologies. The research demonstrates consistent innovation in applying electrochemistry to solve challenges in organic synthesis while maintaining environmental sustainability. Professor Waldvogel actively supervises research through his positions at multiple institutions, with his current leadership role at the Max Planck Institute for Chemical Energy Conversion providing significant resources for electrochemical research. His extensive publication record and collaborative work across multiple institutions indicate substantial research funding and a well-established research group. As Director of the Department for Electrosynthesis at the Max Planck Institute for Chemical Energy Conversion, Professor Waldvogel leads a research team focused on advancing electrochemical methods for sustainable chemical synthesis. His dual appointments at Karlsruhe Institute of Technology and Johannes Gutenberg Universität Mainz provide additional research capacity and educational opportunities for students interested in electrochemistry and sustainable organic synthesis.
Paul Anastas is the Teresa and H. John Heinz III Professor in the Practice of Chemistry for the Environment at Yale University, with joint appointments in the School of the Environment, Department of Chemistry, and Department of Chemical Engineering. He directs Yale's Center for Green Chemistry and Green Engineering, leading interdisciplinary research in sustainable molecular design and pollution prevention. Previously, he served as Science Advisor and Assistant Administrator for Research and Development at the U.S. Environmental Protection Agency under President Obama. His research integrates: Design of inherently safer chemicals and materials Renewable energy systems and CO2 utilization Catalytic processes for biomass valorization Systems thinking in sustainability innovation He holds a B.S. from the University of Massachusetts Boston and M.A./Ph.D. from Brandeis University. His publications emphasize sustainable synthesis, green engineering principles, and transformative approaches to environmental challenges. Recent work explores electrocatalysis for fuel production, lignin depolymerization, and the molecular basis of sustainability. Major scientific awards include: Volvo Environmental Prize (2021) EPA Lifetime Achievement Award (2017) Royal Society of Chemistry Green Chemistry Award (2016) Heinz Award for the Environment (2006) Scientific American 50 Award for Policy Innovation (2005) He founded three companies commercializing green technologies and established the Presidential Green Chemistry Challenge Awards. His Center at Yale develops next-generation solutions for global sustainability challenges through academic-industry partnerships.
Professor Frédéric Vogel is a faculty member at the University of Applied Sciences Northwestern Switzerland (FHNW), where he serves as Professor for Renewable Energies and Deputy Director of the Institute for Biomass and Resource Efficiency. He also leads the Catalytic Process Engineering Research Group at the Paul Scherrer Institute (PSI), maintaining a dual academic role that bridges fundamental research and applied engineering education. His educational background includes: Chemical Engineering studies at ETH Zurich (1988-1992) Dissertation on "Wet oxidation of phenol with oxygen under mild conditions" at ETH Zurich (1993-1997) Postdoc at MIT in Cambridge with Prof. JW Tester (1997-1999) Professor Vogel's research focuses on sustainable energy solutions, particularly in biomass conversion technologies. His work emphasizes: Hydrothermal gasification of wet biomass to produce biomethane Depolymerization of lignin to valuable organic intermediates Process engineering optimization for energy and environmental applications Wastewater treatment and resource recovery systems As Deputy Head of the Swiss Competence Center for Energy Research BIOSWEET since 2014, he contributes to Switzerland's energy transition strategy with a vision to provide 100 petajoules of bioenergy by 2050. His research demonstrates how fundamental chemical processes can be harnessed for practical environmental solutions, particularly in converting waste streams into renewable energy sources. His notable professional roles include: Deputy Director of the Institute for Biomass and Resource Efficiency (since 2013) Professor for Renewable Energies (since 2012) Group Leader in Catalytic Process Engineering at PSI (since 2003) Lecturer in Process Engineering at ETH Zurich (2006-2014) Beyond his academic work, Professor Vogel is an accomplished musician who plays saxophone in several brass bands and founded the Bluebird Jazz Ensemble, demonstrating his commitment to balancing professional excellence with creative expression.
