Henrik Rasmus Andersen is a Professor at the Department of Environmental and Resource Engineering, Water Technology & Processes at the Technical University of Denmark (DTU). His research focuses on water treatment processes, particularly the occurrence, transformation, and removal of micropollutants like pharmaceuticals and hormones. Key Research Areas: Chemical analysis, bioassays, ozonation, biofilter optimization, by-product profiling, and advanced oxidation processes. Projects: Leads initiatives like BIZON (ozone technology for fish farms) and Sustainable Industrial Laundry Wastewater Treatment , emphasizing sustainable solutions. Collaborations: Works with institutions such as University of Copenhagen and industry partners on municipal and industrial wastewater challenges. Education: Master of Science in Environmental Chemistry from Copenhagen University (1998).
Mikkel N. Schmidt is an Associate Professor in the Department of Applied Mathematics and Computer Science at the Technical University of Denmark (DTU). His research focuses on statistical modeling, Bayesian methods, and their applications in science and industry. He has held visiting roles at Columbia University (2007) and Cambridge University (2008-2009). His work integrates probabilistic modeling with computational inference to address complex problems in diverse fields such as molecular discovery, optical communication, and brain connectivity analysis. Education highlights include visiting scholar and postdoctoral experiences at top-tier institutions. Research interests span statistical methodology development, machine learning applications, and interdisciplinary problem-solving. Current projects involve Bayesian neural networks for molecular discovery and federated learning optimization. Advising efforts include supervising multiple PhD students in areas like molecular discovery and denoising diffusion models. Notable collaborations involve work on materials science, quantum communication, and medical signal processing. His contributions bridge theoretical advancements with practical industrial applications, emphasizing interdisciplinary innovation.
Wenjing Zhang is a Professor and Head of the Section for Water Technology and Processes at the Department of Environmental and Resource Engineering, Technical University of Denmark (DTU). She is also affiliated with the DTU Microbes Initiative, contributing to interdisciplinary research in sustainable water technologies and environmental nanomaterials. Professor, DTU Head of Section, Water Technology & Processes Member, DTU Microbes Initiative Her research spans nanofiber technology, electrospinning, membrane processes, and catalytic materials for environmental applications. She focuses on innovative solutions for water purification, plastic waste recycling, CO2 photoreduction, and green hydrogen production, aligning with UN Sustainable Development Goals. The recent publications highlight a strong trend in advanced materials for environmental sustainability, particularly electrospun nanofibers, heterojunction photocatalysts, and ceramic membranes. These works emphasize applications in microplastic degradation, solid oxide cells, and chemical recycling of plastics, reflecting a multidisciplinary approach combining materials science, electrochemistry, and environmental engineering. Researcher at DTU Energy becomes honorary professor in China Wenjing Zhang actively supervises PhD students and leads multiple research projects, including EU and nationally funded initiatives on decentralized wastewater treatment and biocatalytic membrane systems. She collaborates with leading researchers and institutions, securing funding for high-impact environmental technologies. Her lab focuses on nanostructured membrane design and advanced fabrication of porous ceramics for industrial and municipal applications.
Wenjing (Angela) Zhang is a Professor and Head of Section for Water Technology and Processes at the Technical University of Denmark (DTU), Department of Environmental and Resource Engineering. She leads research on membrane technologies, nanofiber materials, and sustainable water treatment processes. Her research focuses on: Advanced membrane design for wastewater treatment and resource recovery Electrospinning and nanofiber applications in energy/environmental tech Photocatalytic plastic upcycling and microplastic degradation Green hydrogen production through innovative membrane systems Professor Zhang's publications demonstrate strong emphasis on material innovation for environmental solutions, particularly in membrane technology (nanofiber composites), electrocatalysis, and sustainable plastic waste management. Recent works show increasing focus on industrial wastewater applications and plastic upcycling. She has received scientific recognition including: Honorary Professorship in China (2018) As primary supervisor for multiple PhD projects, she mentors students in: Nanostructured membranes for hydrogen production Decentralized wastewater treatment systems Biocatalytic membranes for microplastic degradation Plastic upcycling photocatalysts She leads major funded projects including 'Sustainable Industrial Laundry Wastewater Treatment' and 'Nanostructured membrane design for Green Hydrogen Production'. She directs research within the Water Technology & Processes section, collaborating with DTU Microbes Initiative and international partners on sustainable water solutions.
Anker Degn Jensen is a Professor in the Department of Chemical and Biochemical Engineering at the Technical University of Denmark (DTU), where he is affiliated with the CHEC Research Centre. His research spans chemical reaction engineering, catalysis, and particle technology with applications in energy and sustainability. His research interests include chemical reaction engineering , catalysis , combustion , gasification of solid fuels , flue gas cleaning (especially NOx and Hg removal), production of liquid fuels , and fluidized bed processes for coating and agglomeration in white biotechnology. His work significantly contributes to UN Sustainable Development Goals related to clean energy and climate action. The recent publications highlight a strong trend in bio-oil upgrading , ammonia synthesis , plasma-assisted methane conversion , and adsorption modeling . These works reflect a deep engagement with sustainable fuel production, catalytic process optimization, and fundamental surface reaction mechanisms. Conversion of Furfural as a Bio-Oil Model Compound An Adsorption Isotherm That Includes Interactions Plasma-Assisted Non-Oxidative Coupling of Methane Optimisation of a Haber-Bosch Synthesis Loop Production of Phenolic Compounds from Argan Shell Waste Anker Degn Jensen is actively supervising multiple PhD students and leading research projects in hydrogen production, CO2 and H2O electrochemical reduction, bio-oil hydrotreating, and catalytic upgrading of biomass. He is involved in over 100 projects, including active grants on Conversion of hydrocarbons to hydrogen , Modeling electrochemical CO2 reduction , and Catalytic upgrading of pyrolysis oil . He is associated with the CHEC Research Centre at DTU, a hub for chemical engineering and catalysis research. His team collaborates on advanced reactor designs and catalytic processes for renewable fuels and chemicals.
Hans Christian Bruun Hansen is a Professor in Environmental Chemistry at the Department of Plant and Environmental Sciences, Faculty of Science, University of Copenhagen. His research focuses on solid-solution processes governing pollutant fate in soils and sediments with applications in soil and water remediation. His primary research areas include: Engineering and reactivity of iron(II)iron(III) hydroxides ("green rusts") Phosphate bonding in anoxic soils Fate of natural toxins like ptaquiloside and glucosinolates Hansen pioneered critical discoveries in environmental chemistry, including demonstrating green rusts' reducing capacity for nitrate-to-ammonium conversion and dehalogenation of chlorinated compounds. His recent work shows green rusts can form 1 nm thick iron oxide sheets for catalytic applications. His research on natural toxins documented carcinogenic ptaquiloside in soil and elucidated degradation kinetics. Hansen has secured over 35 million DKK in research funding through projects like SupremeTech (phosphorus remediation) and Iron-X (solvent degradation). He teaches environmental chemistry from BSc to PhD levels and has supervised 69 MSc and 25 PhD theses. As Head of the Section for Environmental Chemistry and Physics (40 researchers), he leads initiatives like the EnvEuro MSc program and Sino-Danish Water Research Center. His laboratory focuses on nanoscale remediation materials and natural toxin analysis.
Professor Søren Kegnæs is a faculty member in the Department of Chemistry at the Technical University of Denmark. He holds the rank of Professor and leads a research group focused on functional nanomaterials and heterogeneous catalysis. His work addresses industrial chemical production, including the synthesis of nanoparticles, zeolites, and high-surface-area materials with controlled porosity. Key research areas include CO₂ utilization, sustainable chemical processes, and catalytic conversion of bio-based feedstocks. Education: Ph.D. in Chemistry (Technical University of Denmark, 2009), M.Sc. in Chemistry (University of Copenhagen, 2005), and a Graduate Certificate in Business Administration (Copenhagen Business School, 2012). Research Interests: The Kegnæs Group explores the design and application of nanomaterials in catalytic systems. Current projects focus on CO₂ hydrogenation, methanation, and the development of zeolite-based catalysts for renewable energy applications. Their work emphasizes industrial relevance, particularly in reducing carbon footprints through sustainable chemical processes. Advising & Grants: Supervises multiple PhD students (e.g., Spyros C., Zhuo G.J.S., Iltsiou D.) and leads projects funded by grants such as the Design of Novel Heterogeneous Catalyst for Dry Reforming (2025–2028) and CO₂ Utilization Catalyst Development (2024–2027). Collaborates widely on topics like bio-based chemical valorization and catalytic oxidation. Labs/Teams: The Kegnæs Group operates within the Department of Chemistry, utilizing advanced facilities for materials synthesis and characterization. Their work is showcased on csc.kemi.dtu.dk and kegnaesgroup.dk .
Shuang Ma Andersen is a Full Professor at the Department of Green Technology (IGT) and SDU Chemical Engineering, specializing in electrocatalysis, fuel cell technologies, and sustainable resource recovery. Her research focuses on oxygen evolution reaction (OER) catalysts, membrane electrode assemblies, and innovative synthesis methods for iridium/platinum-based systems.
Birgitte Zeuner is an Associate Professor at the Department of Biotechnology and Biomedicine , Technical University of Denmark, specializing in Protein Chemistry and Enzyme Technology . Her research focuses on Enzymatic Synthesis Technology with particular emphasis on carbohydrate-active enzymes. Active supervisor in Engineering alkenal reductase reversibility (2025-2028) Main supervisor in Regioselectivity in enzymatic carbohydrate synthesis (2024-2027) Supervisor in Enzymatic xyloglucan modification (2018-2022) Recent 54 publications highlight her work on glycosylation, human milk oligosaccharides, and transglycosylation. She has received significant attention in Mendeley readership and peer review platforms. Current projects explore: Enzyme engineering for biomass upgrading Sustainable biocatalytic processes using ionic liquids Gut microbiome interactions with plant-derived carbohydrates Her research aligns with UN Sustainable Development Goals for biocatalytic applications in health and sustainability.
François Raymond J Cornet is a Postdoctoral Researcher in the Department of Energy Conversion and Storage and a PhD Student in the Department of Applied Mathematics and Computer Science at the Technical University of Denmark (DTU). His dual affiliation bridges energy conversion research and computational science, focusing on AI-driven molecular design. His research spans Organometallic Chemistry , Computational Chemistry , and Machine Learning , with specialization in catalyst design through diffusion models and inverse design methodologies. Key areas include metallocene chemistry, density functional theory applications, and generative modeling for chemical space exploration, targeting organometallic complexes like Vaska's complex. Cornet's publication trajectory reveals a concentrated effort in advancing equivariant diffusion models for molecular generation, particularly addressing small-data challenges in catalyst design. His work consistently integrates quantum chemistry with deep generative architectures, establishing new paradigms for inverse-design pipelines in computational chemistry. No scientific awards were documented in the source material. He recently completed the PhD project Machine learning for electronic scale inverse design of enzymatic catalysts (2021-2025) under supervisors M. N. Schmidt (primary), A. Bhowmik, and O. Winther, with examiners W. K. Boomsma and S. Olsson. Collaborators include P. Deshmukh, B. Benediktsson, and C. A. Naesseth across multiple publications. Research operations occur within DTU's interdisciplinary framework connecting the Department of Energy Conversion and Storage and Department of Applied Mathematics and Computer Science, leveraging computational infrastructure for molecular simulations and AI model training.
Jakob Kibsgaard is a Surface Physics and Catalysis Professor and Section Leader at the Department of Physics, Technical University of Denmark (DTU). He leads research in the VISION – Center for Visualizing Catalytic Processes and maintains an active research program focused on electrocatalysis, ammonia synthesis, and energy conversion technologies. His research interests span catalysis, electrocatalysis, ammonia synthesis, hydrogen production, CO2 conversion, and nanomaterials. Kibsgaard's work primarily addresses sustainable energy solutions through advanced catalyst design and characterization. His research group investigates fundamental processes at atomic and molecular levels to develop efficient catalysts for energy conversion reactions, with particular emphasis on electrochemical ammonia synthesis and CO2 hydrogenation. Analysis of his recent publications reveals a strong focus on dual and triple atom electrocatalysts, advanced imaging techniques for catalyst characterization, and innovative approaches to ammonia synthesis. His work spans multiple energy conversion reactions including CO2 reduction, nitrogen reduction, oxygen reduction, oxygen evolution, and hydrogen evolution. The research combines experimental approaches with theoretical insights to develop next-generation catalysts for sustainable energy applications. Kibsgaard actively supervises multiple PhD students including Thorlacius-Ussing, Tokman, Wu, Griffin, Kazaz, and Pedersen, with projects spanning controlled synthesis of catalysts, exploration of electrocatalysts at atomic scale, and discovery of new dual and triple atom electrocatalysts. His research is supported by various projects with both active and completed funding. His laboratory work centers around the Surface Physics and Catalysis section at DTU Physics, where he utilizes advanced characterization techniques including transmission electron microscopy, X-ray photoelectron spectroscopy, and custom-designed electrochemical cells to study catalytic processes at fundamental levels.
Yifeng Zhang is a Professor at the Department of Environmental and Resource Engineering, Technical University of Denmark (DTU). His research focuses on advanced electrochemistry in environmental and resource engineering, including wastewater treatment, resource recovery, microbial electrochemistry, and sustainable carbon capture. He leads the Water Technology & Processes group and the DTU Microbes Initiative. Zhang holds a PhD from DTU (2012) and has secured over 60 million DKK in research funding, including the prestigious Carlsberg Foundation Distinguished Fellowship. His work contributes to UN SDGs related to clean water, affordable energy, and climate action. Education: Ph.D., Technical University of Denmark (2009–2012) M.Sc., Dalian University of Technology (2005–2009) Research Interests: Microbial electrochemistry Carbon capture and utilization Wastewater treatment and resource recovery Electrocatalysis and electrochemical sensors Environmental bioremediation Awards: James J. Morgan Early Career Award (ACS, Honorable Mention) Carlsberg Foundation Distinguished Fellowship World’s Top 2% Scientists His research has produced over 200 publications and 3 patents, with a focus on translating innovations into practical solutions. Current projects include microbial electrosynthesis for single-cell protein production, carbon capture via bioelectrochemical systems, and sustainable wastewater treatment technologies.
Stephan Sylvest Keller is a Professor in the Department of Micro- and Nanotechnology at the Technical University of Denmark (DTU), affiliated with the National Centre for Nano Fabrication and Characterization and DTU Nanolab. His research lies at the intersection of materials science, microfabrication, and biomedical engineering, focusing on the development of 3D pyrolytic carbon microsystems for biosensing, neural interfaces, and bioenergy applications. His research interests include biomaterial microsystems , nanofabrication , microelectrode design , bioelectrochemical systems , and drug delivery platforms . He leverages advanced fabrication techniques such as additive manufacturing and lithography to create functional 3D carbon structures for applications in brain-on-a-chip , microsupercapacitors , and microbial energy harvesting . The recent articles highlight a strong trend in developing 3D pyrolytic carbon electrodes for electrochemical applications, spanning neuroscience, environmental remediation, and sustainable energy. Keywords across these works include bioelectrochemistry, microfabrication, and functional materials, with subfields ranging from retinal implants to microbial fuel cells and on-chip energy storage. He actively supervises multiple PhD students and leads cutting-edge projects such as INSECTS (Interdigitated Solar Electrochemical Capacitors) and MIRACLE (Microbial syntRophic metAbolism of CO2 on 3D carbon microeLectrodes for biohExanol production). His work contributes to UN Sustainable Development Goals related to clean energy and good health. His laboratory, embedded within DTU Nanolab, specializes in cleanroom-based micro- and nano-fabrication, focusing on translating engineered microsystems into biomedical and environmental applications. The team collaborates widely across disciplines, including microbiology, electrochemistry, and clinical neuroscience.
Eugen Stamate is a Professor in Plasma Aided Nanotechnology at the National Centre for Nano Fabrication and Characterization, Technical University of Denmark (DTU). He is actively engaged in advanced nanofabrication research, focusing on plasma-based processes, thin films, and solar energy materials. His work is central to DTU Nanotech’s mission in next-generation material development. Research Interests: His expertise spans plasma-aided nanofabrication, magnetron sputtering, focused ion beams, and thin film engineering. He investigates functional materials for solar cells, IoT sensors, and electrostrictive devices. His work contributes to UN Sustainable Development Goals in sustainable energy and responsible innovation. Recent Research Trends: Analysis of his latest publications reveals a strong focus on plasma-based nanofabrication, oxide thin films, and renewable energy materials. Key themes include thermochromic VO2 films, electrostrictive ceramics, high-entropy alloy catalysts, and microscale drug delivery systems. His work bridges fundamental plasma physics with applications in energy, healthcare, and environmental technology. Scientific Awards: No specific awards mentioned in the provided text. Advising and Grants: Professor Stamate is the main supervisor for multiple active PhD projects at DTU, including research on 3D plasma-sheath-lenses for nanofabrication and metal oxide thin films for IoT sensors. He collaborates with leading researchers across departments, indicating strong grant support and interdisciplinary engagement. Labs and Teams: He is affiliated with DTU Nanolab (http://www.nanolab.dtu.dk), a state-of-the-art facility for nanocharacterization and fabrication. His work involves close collaboration with teams in material science, photovoltaics, and microsystems engineering.
Jan Rossmeisl is a Professor in the Department of Chemistry at the University of Copenhagen, Denmark, conducting research at the intersection of catalysis, sustainable energy, and electrochemical processes. His work focuses on developing advanced materials for energy conversion applications including fuel cells and carbon dioxide reduction technologies. His research interests span catalysis , green chemistry , and energy conversion , with specific expertise in electrocatalytic reaction mechanisms, high-entropy alloy design, and sustainable pathways for chemical synthesis. Current investigations emphasize computational modeling of surface reactions and experimental validation of novel catalyst systems for renewable energy applications. Analysis of his 2024-2025 publications reveals a dominant focus on electrocatalytic $$\text{CO}_2$$ conversion and oxygen reduction processes. Key trends include the development of high-entropy alloys for catalytic coupling reactions, strain engineering in binary alloys, and non-aqueous electrolyte effects on $$\text{CO}_2$$ reduction. His work bridges theoretical computation with experimental validation to address challenges in sustainable energy conversion and chemical production.
