Jayant Barode is a Research Fellow in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), Denmark. His research centers on materials science with emphasis on additive manufacturing processes and stainless steel properties. His primary research interests include: Laser Powder Bed Fusion (LPBF) 316L Stainless Steel Microstructure High-Temperature Molten Salt Corrosion Heat Treatment Effects Thermal Stability of Additively Manufactured Parts Dislocation Density Analysis His 2025 publications demonstrate focused work on microstructural heterogeneity and corrosion mechanisms in additively manufactured 316L stainless steel, particularly examining performance in nuclear-relevant molten salt environments. The research bridges fundamental materials characterization with engineering applications for next-generation energy systems.
Jonathan Brewer is Professor and Principal Investigator at the Department of Biochemistry and Molecular Biology, University of Southern Denmark. He serves as Head of the Bioimaging Section and Director of the Danish Molecular Biomedical Imaging Center (DaMBIC), and is affiliated with the SDU Climate Cluster and ATLAS - Center for Functional Genomics and Tissue Plasticity. His research focuses on combining molecular biology with advanced bioimaging techniques to address fundamental biological questions, particularly in health and environmental applications. Key areas include skin and artificially grown skin, with ongoing development of skin cancer models, 3D tissue bioprinting, microfluidic organ-on-a-chip systems, and artificial spider silk. His group is also pioneering image-based methods for quantifying RNA expression, localization, and spatial organization in single cells. The recent articles highlight a strong interdisciplinary trend, spanning cancer biology, metabolic regulation, food science, epigenetics, and environmental toxicology, consistently leveraging cutting-edge imaging technologies such as STED and FLIM. This reflects a cohesive research vision centered on quantitative, high-resolution bioimaging across diverse biological systems. Dr. Brewer leads and participates in multiple major research projects funded by Novo Nordisk Foundation, EU Interreg, the Danish Cancer Society, and the Danish Ministry of Education and Research. He collaborates extensively with industry partners including Merck, Coloplast, Leo Pharma, Chr. Hansen, and Arla. He supervises PhD students and postdoctoral researchers and has taught advanced imaging courses. He also co-founded the Danish Bioimaging Network and is an active board member. His leadership in DaMBIC has established a world-class imaging infrastructure in Denmark.
Martin Bonderup Østergaard is an Assistant Professor at Aalborg University's Department of Chemistry and Bioscience, within the Faculty of Engineering and Science. His research focuses on sustainable materials engineering, particularly in developing advanced ceramic and glass foams, thermocatalytic membranes, and recycling strategies for wind turbine blades. He holds a PhD in Materials Chemistry (2019) and academic degrees in Chemical Engineering and Chemical Technology from Aalborg University. Key research areas include thermal conductivity reduction in oxide glasses, recycling of construction materials, and environmentally friendly filtration systems. Østergaard leads projects such as ReMaBrick (recycling wind turbine blades into bricks) and Sustainable Living Lab initiatives. He has been awarded the AAU Pedagogy Prize 2025 for educational contributions. Education: PhD in Materials Chemistry (2019), M.Sc. Chemical Engineering (2015), B.Sc. Chemical Engineering (2013) Key Projects: ReMaBrick (2023–2026), Sustainable Living Lab (2024–2025), Thermocatalytic Membrane Technology (2020–2023) Research Interests: Glass foaming mechanisms, thermocatalytic pollutant abatement, and circular economy materials Publications span 2014–2025, with recent focus on high-impact areas like glass-ceramic foams and sustainable construction materials . He actively collaborates with industry partners and academic institutions globally.
Ole Mejlhede Jensen is a Professor in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), specializing in Materials & Durability. His research focuses on construction materials, particularly the physical and chemical properties of concrete, with an emphasis on hydration kinetics, shrinkage, cracking, curing, and ultra-high-strength concrete. He has held visiting professorships at Tokyo Institute of Technology, Israel Institute of Technology, and Southeast University. Education: PhD (Eng), Technical University of Denmark (1991–1993) MSc (Eng), Technical University of Denmark (1989–1991) BSc (Eng), Engineering Academy of Denmark (1985–1988) His research interests lie at the intersection of sustainable construction and advanced concrete technology. He explores deformation stability, internal curing, self-desiccation, and the development of concrete without Portland cement. His work contributes to UN Sustainable Development Goals related to sustainable cities and responsible consumption. The recent publications reflect a strong trend in enhancing concrete durability, particularly through the use of supplementary cementitious materials, superabsorbent polymers, and innovative testing methods. Research spans microstructural analysis, frost resistance, chloride ingress, and computational modeling, indicating a multidisciplinary approach combining materials science, civil engineering, and environmental sustainability. Scientific Awards: No specific awards listed in the provided text. Advising and Grants: Professor Jensen is actively involved in PhD supervision, serving as main supervisor for multiple doctoral projects at DTU. These include research on non-Portland cement, frost-resistant concrete using superabsorbent polymers, and durability of concrete with supplementary materials. His projects are often funded through national and international collaborations, demonstrating strong grant acquisition and research leadership. Labs and Teams: He is affiliated with research teams focused on concrete durability and sustainable materials at DTU. He collaborates extensively within the Department of Environmental and Resource Engineering and participates in international networks such as RILEM, where he has organized major conferences. His work involves close collaboration with PhD students and external partners across Europe and Asia.
Kim Dam-Johansen is a Professor and Head of Department at the Department of Chemical and Biochemical Engineering, Technical University of Denmark (DTU). His research focuses on sustainable coatings technology, industrial high-temperature processes, biomass utilization, and continuous pharmaceutical production. He leads key research centers including CoaST (Hempel Foundation Coatings Science and Technology Centre) and CHEC (Catalysis and High-temperature Engineering Centre). His work emphasizes industry collaboration, particularly in developing eco-friendly corrosion protection, fire-resistant materials, and advanced coating formulations. Roles: Professor & Head of Department Affiliations: DTU Chemical Engineering, CoaST, CHEC Research interests span coatings science, materials engineering, and sustainable energy systems. He explores biochar-based composites, intumescent fire coatings, and self-stratifying marine coatings. His publications highlight innovations in corrosion inhibition, biomass pyrolysis, and eco-friendly pigment development. Key areas: Coatings durability, thermal processes, bio-based materials Publications emphasize interdisciplinary approaches to material science challenges. Recent work addresses scalability of intumescent coatings, bio-waste utilization in anticorrosive systems, and advanced characterization techniques for coating performance. No academic awards are explicitly mentioned in the provided texts.
Emil Mejlhede Kinslev is a Postdoctoral Researcher (Research Fellow) in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), specializing in Geotechnics and Geology. His research integrates advanced Nuclear Magnetic Resonance techniques with soil mechanics to address critical challenges in sustainable infrastructure and subsurface engineering. His educational background includes an Industrial PhD in Geotechnical Engineering completed in 2022 at DTU through the project Efficient performance of large infrastructure: a geomechanical approach towards sustainable design . This work established his expertise in geomechanical modeling and sustainable infrastructure design. Kinslev's research focuses on the microstructural behavior of fine-grained soils, particularly Paleogene clays and smectitic formations. He employs low-field NMR spectroscopy and imaging to investigate porosity distribution, swelling mechanisms, creep deformation, and porewater interactions under varying stress conditions. His work bridges fundamental soil mechanics with practical applications in CO 2 sequestration, pipeline trench design, and waste soil reuse. Analysis of his 2024-2025 publications reveals a cohesive research trajectory centered on NMR-based soil characterization. Key themes include quantifying sample homogeneity in resedimented soils, modeling microstructural hysteresis in clay during loading cycles, evaluating critical porosity variations with pore fluid chemistry, and developing entropy-based predictors for shale swelling. These studies collectively advance predictive capabilities for soil behavior in energy infrastructure and geoenvironmental applications. Kinslev actively contributes to research supervision and project leadership. He currently serves as Supervisor in the GREENPIPE project (2025-2028), developing sensor-integrated pipe construction methods, and supervised the 2024 classification study on waste soil reuse in district heating trenches. His grant portfolio includes both industry-collaborative and fundamental research initiatives focused on sustainable geomechanics. As a core member of DTU's Geotechnics & Geology research group, he collaborates internationally on projects involving soil characterization, infrastructure resilience, and subsurface energy systems. His laboratory work emphasizes advanced NMR applications for non-destructive soil analysis and microstructural modeling under controlled stress-path conditions.
Apurv Dash is an Assistant Professor in the Department of Energy Conversion and Storage at the Technical University of Denmark (DTU), where he conducts advanced research in applied ceramics and processing for energy technologies. He is based in Kgs. Lyngby, Denmark, and is actively involved in multiple research projects and PhD supervision. His research focuses on ceramic materials for energy applications, particularly solid-state batteries , superconductors , and ion-conducting ceramics . Key areas include flash sintering , spark plasma sintering , electroplasticity , and superplasticity under electric fields. His work aligns with UN Sustainable Development Goals related to sustainable energy and innovation. The recent publications highlight a strong trend in electro-ceramic processing and functional ceramics , particularly involving gadolinia-doped ceria , cuprate superconductors , and electric field-assisted densification . These works reflect a consistent focus on enhancing material performance through novel processing techniques. Scientific Contributions: Active contributor to high-impact journals such as Journal of the American Ceramic Society, Annual Review of Materials Research, and Ceramics International. Research recognized with open access publications and international readership. Dr. Dash advises multiple PhD students on projects related to solid-state batteries, bioinspired composites, and superconducting materials. He is a supervisor in five active or recently completed PhD projects, demonstrating strong mentorship and collaborative research leadership. While specific grant details are not listed, his involvement in funded PhD projects indicates active grant acquisition and management. He collaborates with researchers across Europe, particularly in Germany, France, and Denmark. He is part of the Applied Ceramics and Processing group at DTU Energy, which focuses on advanced ceramic synthesis, microstructure control, and functional properties for energy conversion systems. The team employs state-of-the-art techniques such as spark plasma sintering and freeze-casting to develop next-generation materials.
Mostafa Amin Naji is a Postdoctoral Researcher at the Department of Health Technology, Technical University of Denmark (DTU), specializing in advanced ultrasound imaging techniques. His work focuses on contrast-free super-resolution ultrasound and its applications in microvascular analysis, particularly for lymph nodes and tendons. He contributes to the UN Sustainable Development Goal 3 (Good Health and Well-being) through biomedical imaging innovations. Current affiliation: DTU Health Technology Former PhD student in Ultrasound Localization Microscopy Research collaborations across 6 international institutions Research Interests: His research integrates physics, computational modeling, and medical imaging to develop novel ultrasound methodologies. Key areas include: Super-resolution ultrasound imaging using erythrocyte tracking Microvascular structure analysis in lymph nodes and tendons Development of contrast-free imaging techniques Synthetic aperture and Doppler imaging optimization Blood flow separation and quantification Theoretical modeling of ultrasound localization microscopy Publication Trends: Recent work demonstrates technical advancements in ultrasound resolution (2024-2025) and clinical applications in lymph node and tendon microvasculature imaging. Collaborative publications with institutions in Denmark, France, and the Netherlands. Projects: Completed 2021-2025 PhD research on 3D super-resolution ultrasound imaging under supervision of Professor Jørgen Arendt Jensen.
Alexander Michel is an Associate Professor in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), specializing in Materials & Durability. His research spans advanced materials testing, durability of cementitious systems, corrosion, and fatigue in structural and offshore materials. His research focuses on understanding degradation mechanisms in construction materials through innovative experimental and computational methods. Key areas include microstructural analysis of cement-based materials, corrosion in reinforced concrete, multiscale damage modeling, and fatigue behavior of engineering materials. He integrates techniques such as X-ray computed tomography (XCT), digital volume correlation, finite element modeling, and deep learning to study crack propagation, damage evolution, and material durability. The most recent publications highlight a strong trend in combining high-resolution imaging with computational modeling to predict material behavior under mechanical and environmental stress. His work increasingly incorporates artificial intelligence and unified mechanics theories to enhance predictive accuracy in structural materials, particularly in cement-based systems and structural steel. Applications extend to offshore structures and sustainable construction materials. Villum Young Investigator (2021) Best Reviewer 2015 Award of Materials and Structures (2016) Freescale Semiconductor Prize (2008) Dr. Michel actively supervises PhD students and leads multiple research projects, including those funded by Villum Foundation. He serves as Principal Investigator (PI) and main supervisor for several ongoing projects focused on fatigue, durability, and advanced material testing. He has secured competitive grants such as the Villum Young Investigator award, supporting his independent research trajectory. His work involves collaboration across disciplines and institutions, particularly in the areas of composite materials, wind turbine structures, and plug-and-abandonment technologies in oil and gas. He is a key participant in the Villum Center for Advanced Structural and Material Testing (CASMaT), contributing to the development of next-generation testing methodologies for heterogeneous engineering materials. His team utilizes state-of-the-art facilities for in-situ mechanical testing and 3D imaging, enabling real-time observation of damage processes at multiple length scales.
Charilaos Paraskevoulakos is a Researcher in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), specializing in sustainable construction materials and waste recycling. His work directly contributes to UN Sustainable Development Goals for sustainable cities and responsible consumption. His research spans Civil Engineering , Materials Science , and Sustainable Construction , with core expertise in waste valorization (particularly wind turbine blade recycling in cementitious systems), concrete durability (focusing on alkali-silica reaction mitigation), and advanced experimental mechanics using digital volume correlation and X-ray imaging techniques. Analysis of his 2023-2025 publications reveals a cohesive research trajectory: transforming industrial waste into construction materials while developing precision characterization methods for heterogeneous engineering materials. Key innovations include establishing wind turbine blade waste as a reactive additive for concrete and optimizing digital volume correlation protocols for concrete strain analysis. He actively participates in two major EU-funded projects: CIRCULess (2024-2027) developing circular economy solutions for construction waste, and Frontier (2021-2025) pioneering fatigue analysis in engineering materials. While collaborating with PhD students in these initiatives, no formal student advisees are documented in his current research profile.
Pawel Tomasz Pieta is a Postdoctoral Researcher in the Department of Applied Mathematics and Computer Science at Technical University of Denmark (DTU), specializing in visual computing and computational imaging. His work bridges computer vision, food science, and optical measurement systems with applications in agricultural and dairy product analysis. His primary research focuses on anisotropy quantification , hyperspectral imaging , and polarization-based measurement techniques . Key methodologies include tensor scale-space analysis, first-order structure detection, and feature-centered image processing algorithms. His work demonstrates strong interdisciplinary connections between computer vision and food quality assessment, particularly in dairy and agricultural domains. Notable research trends show consistent development of quantitative measurement frameworks for structural analysis, with recent publications emphasizing practical applications in food science (mozzarella cheese microstructure) and agriculture (wheat leaf classification). His 2025 publications reveal increasing focus on translating theoretical image processing techniques into industrial quality control solutions. As a recently completed PhD graduate (2022-2025 project), he actively collaborates with cross-disciplinary teams including food scientists, optical engineers, and agricultural researchers. His work on the HyperLeaf2024 dataset demonstrates commitment to open science through publicly available research resources. He operates within DTU's Visual Computing research group, contributing to projects that integrate advanced image analysis with real-world industrial applications, particularly in food quality assessment systems and agricultural monitoring technologies.
Jacob Judas Kain Kirkensgaard is an Associate Professor at the University of Copenhagen's Faculty of Science , holding a joint appointment between the Department of Food Science and the Niels Bohr Institute . He leads the Structural Food Physics and Soft Matter Self-Assembly group at the Nano-Science Center and directs the Cross-disciplinary X-ray Center (CXC) , managing SAXS infrastructure for the faculty. He also serves as the UCPH branch manager for LINX (industry-academia neutron/x-ray initiative) and collaborates closely with LINXS in Sweden. Research Interests : Kirkensgaard specializes in small-angle x-ray and neutron scattering techniques combined with computational modeling to study mesoscale self-assembly in soft matter systems. His work spans biological membranes, food colloids, pharmaceutical systems, and energy materials, with a focus on geometric and topological complexity. Notable contributions include hyperbolic surface pattern analysis via Poincaré disc mapping and Shape2SAS software development for scattering simulations. Teaching : Co-lecturer for Food Physics and Neutron Scattering courses; developed flipped classroom methods for Linear Algebra and Classical Mechanics (recipient of 2016 Jens Martin Teaching Award ). Collaborations : Stephen Hyde (University of Sydney), Gerd Schröder-Turk (Murdoch University), Vanessa Robins (ANU), Matthias Arenz (UCPH). Infrastructure : Instrument acquisition through FOODHAY grant (2020) and Xenocs SAXS instrument implementation (2021).
Peter Norman Sørensen is a Professor of Finance at the Department of Economics, University of Copenhagen, within the Faculty of Social Sciences. He serves as Director of the Finance Research Unit and has held significant administrative roles including Deputy Head of Department (2015-2019) and Director of the Economics PhD Programme (2008-2010). His academic career at the University of Copenhagen spans from Assistant Professor (1998-1999) to Associate Professor (1999-2006) and ultimately to his current Professor position since 2006. His primary research interests focus on Asymmetric Information in Finance and Economics, Herding Behavior, Prediction Markets, and Microstructure of Financial Markets. Sørensen's work develops and applies economic theory with asymmetric information to markets and institutions, particularly examining herding behavior of large groups, reputation-building for financial experts, and asset price responses to information. His current research includes studying taxation of transactions in imperfect financial markets, participating in the ERC-funded EVALIDEA project, and membership in research centers including the Center for Financial Frictions (FRIC), the Center for Information and Bubble Studies (CIBS), and the Center for Blockchains and Electronic Markets. Sørensen's publication record shows consistent output in top economics journals, with research trends indicating a strong focus on information economics, market microstructure, and behavioral finance. His work often examines how information asymmetries affect market outcomes, with particular attention to herding behavior, prediction markets, and financial market regulation. Scientific Awards 2012 Elite Forsk researcher prize from the Danish Ministry of Science, Innovation and Higher Education 2011 Finance researcher prize from the Nykredit Foundation 2009 Excellence in Refereeing Award from the American Economic Review Economic Journal referee prize 2021 Sørensen has supervised numerous PhD students and theses in the intersections of Microeconomics, Game Theory and Finance. He has received research grants from prestigious sources including the Danish Social Science Research Council and the European Research Council. His editorial roles include positions at the Journal of Mathematical Economics, Scandinavian Journal of Economics, Economica, and Macroeconomic Dynamics. Professor Sørensen is actively involved with several research centers including the Center for Financial Frictions (FRIC), the Center for Information and Bubble Studies (CIBS), and the Center for Blockchains and Electronic Markets, where he collaborates on interdisciplinary research projects examining market dynamics, information flows, and financial regulation.
Martin Meedom Nielsen is a Professor and Deputy Director of the Department of Physics at the Technical University of Denmark (DTU). He also holds an Adjunct Professorship in X-ray Free Electron Laser Physics at the Niels Bohr Institute, University of Copenhagen. His key roles include founding the Section for Neutrons and X-rays for Materials Physics at DTU, leading the European XFEL Council, and directing research centers like the Danish National Research Foundation Centre for Molecular Movies. He has extensive experience in grants and funding, overseeing projects totaling approximately 25 MEUR in research funding. His research focuses on X-ray science, ultrafast structural dynamics, and materials characterization using synchrotrons and free electron lasers. Notably, he pioneered methods for studying molecular dynamics at femtosecond timescales and has contributed to groundbreaking studies on excited-state structures and charge transfer mechanisms. Education: Ph.D. (1996) and M.Sc. (1994) in Physics from Aarhus University, Denmark. Research Interests: X-ray scattering techniques, ultrafast structural dynamics, free electron lasers, and molecular materials. His work bridges fundamental physics with applications in energy materials and sustainable technologies. Key Awards: Rene Descartes Prize (2000) by the European Commission Grants and Projects: Includes leadership in instrumental development for XFEL facilities and funding for studies on energy transfer mechanisms, solvation dynamics, and battery materials. He has secured beamtime access for user groups at major XFEL facilities worldwide. Professional Activities: Chair roles in committees for the European XFEL, reviewer for prestigious journals and funding bodies, and contributor to international collaborations in photon science and materials research.
Professor Dorte Juul Jensen holds a position at the Technical University of Denmark (DTU), affiliated with the Manufacturing Engineering department within the Civil and Mechanical Engineering school. She specializes in advanced materials science, focusing on microstructure analysis, additive manufacturing, and metallurgical processes. Research Interests: Dr. Jensen's work centers on understanding microstructural evolution in metals, particularly through additive manufacturing techniques. Her studies investigate cellular structures in stainless steels, particle-stimulated nucleation in aluminum alloys, and grain boundary dynamics in recrystallization processes. She employs cutting-edge methods such as 3D X-ray tomography and deep learning for microstructural characterization. Key Contributions: Her recent work includes breakthroughs in additive manufacturing-induced microstructures, high-energy X-ray diffraction techniques, and the application of machine learning for grain detection. She has authored over 538 publications and leads projects exploring materials' mechanical properties and failure mechanisms in critical components like turbine blades and railway switches. Awards: While no specific awards are listed, her extensive publication record and leadership in high-impact studies reflect significant contributions to the field of materials science. Advising: Dr. Jensen supervises PhD students and collaborates on grants focused on materials characterization and manufacturing innovations.
