Navid Bayati is an Associate Professor at the University of Southern Denmark, affiliated with the Institute of Mechanical and Electrical Engineering and the Centre for Industrial Electronics. He leads the Control and Protection of Smart Grids (CAP-SG) group and focuses on renewable/hybrid power systems, microgrid protection, and grid code compliance. Education: Ph.D. in Power Systems & Microgrid Protection (2020, Aalborg University); M.Sc. in Power Systems (2017, Amirkabir University of Technology) His research spans renewable energy integration , transient analysis , grid interconnection , and digital twin applications . Recent work includes machine learning for carbon emission prediction, fault localization in DC microgrids, and supercapacitor resilience in hybrid systems. Collaborations include projects like IEA Wind Task 50 and RePoSys , addressing grid renovation, life cycle assessment, and digital twin resilience. His teaching portfolio covers power electronics , energy management , and microgrid control .
Klaus Mosthaf is an Associate Professor in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), where he conducts research on contaminant transport and numerical modeling in porous and fractured media. His work focuses on protecting groundwater resources through advanced modeling of contamination from substances like PFAS, chlorinated solvents, and pesticides. He is actively involved in teaching and academic leadership, coordinating the Nordic Masters program Enviro5Tech and the Sino-Danish Center module on Pollutants and Pollution Control. Research Interests: Transport processes in porous media Groundwater contamination and remediation Numerical modeling of reactive transport Aquifer Thermal Energy Storage (ATES) Fractured and variably saturated geologies Coupled porous-medium and free-flow systems His recent publications reveal a strong focus on PFAS fate, bioremediation in ATES systems, and tracer-based characterization of glacial tills. He employs tools like COMSOL Multiphysics, Python, and FEFlow to develop predictive models grounded in laboratory and field data. Scientific Contributions: Active contributor to over 60 publications in hydrogeology and environmental engineering Key developer of models for coupled processes in subsurface systems Organizer and speaker at international conferences on multiphase flow and contaminant transport Advising and Grants: Klaus Mosthaf supervises multiple PhD students and has coordinated significant research projects, including those on PFAS transport and bioremediation. He is the main supervisor of two active PhD projects and has previously co-supervised two others. His leadership extends to board membership in the Danish Academy of Technical Sciences on Soil and Groundwater (ATV Jord og Grundvand), where he fosters collaboration among academia, consultants, and public authorities. Laboratories and Research Groups: His work is conducted within DTU Sustain, a leading research environment in environmental engineering, where he collaborates with experts in hydrogeology, bioremediation, and sustainable technologies. He is deeply integrated into a network of national and international collaborators focused on groundwater protection and sustainable subsurface utilization.
Peter Bach Andersen serves as Head of Section and Senior Researcher at the Department of Wind and Energy Systems, Technical University of Denmark (DTU). Based at Elektrovej 329A in Kgs. Lyngby, he leads research in electric vehicle integration and prosumer energy systems with an ORCID identifier 0000-0002-5202-3584. His work spans grid services, battery storage, and smart charging infrastructure within DTU's EV Lab ( www.evlab.dk ). Andersen's research focuses on electric vehicle grid integration , specializing in charging infrastructure planning, battery energy storage systems, and virtual power plant concepts. His fingerprint analysis reveals dominant expertise in Electric Vehicle Engineering (100%), Battery Engineering (13%), Ancillaries (12%), and Power Engineering (11%). Current projects emphasize flexibility quantification, grid service delivery through EV clusters, and Nordic grid characteristics. His work contributes significantly to UN Sustainable Development Goals related to clean energy and sustainable cities. His publication portfolio shows strong trends toward grid-interactive EV systems with recent emphasis on conditional connection agreements, fast-charging urban impacts, and data-driven battery health prognosis. The research demonstrates increasing focus on practical implementation challenges and market integration aspects of vehicle-grid systems. Andersen actively supervises four PhD students (Menchaca, Striani, Unterluggauer, Sevdari) across projects including charging infrastructure planning, EV clustering methods, and urban charging infrastructure impacts. He leads the FLOW project (2022-2026) investigating flexible energy systems for optimal EV integration while participating in multiple EU-funded initiatives. His research group maintains strong industry connections through DTU's EV Lab, focusing on real-world validation of grid services using commercial EVs and chargers.
Hamidreza M. Nick is a Senior Researcher in GeoEnergy Engineering at the Technical University of Denmark (DTU), affiliated with the Danish Offshore Technology Centre and the Laboratory for Off-Shore Production Sciences. He is actively engaged in cutting-edge research on subsurface energy systems, including CO₂ storage, geothermal energy, hydrogen storage, and coupled thermo-hydro-mechanical-chemical (THMC) processes in porous and fractured geological formations. His research interests span a broad range of topics in subsurface engineering, including fluid flow in porous and fractured media, reactive transport, geomechanics of chalk reservoirs, numerical modeling using finite element methods, microbial processes in underground reservoirs, and the application of machine learning to reservoir simulation. His work contributes significantly to global efforts in climate change mitigation and sustainable energy solutions, aligning with several UN Sustainable Development Goals. The trends in his recent publications (2021–2025) reflect a strong focus on CO₂ sequestration in depleted reservoirs, particularly chalk fields, with emphasis on mechanical integrity, chemical interactions, and coupled simulations. He also explores emerging areas such as in situ hydrogen generation, microbial impacts on storage integrity, and deep learning applications for sparse data environments in reservoir modeling. Hamidreza M. Nick actively supervises multiple PhD students and leads research on key projects related to subsurface fluid dynamics, clogging phenomena, and reservoir simulation. His collaborative network includes researchers across Europe and beyond, and he regularly presents at major international conferences such as EAGE. Scientific Contributions and Supervision: Supervises PhD projects on bio-chemical clogging, subsurface fluid leaks, coupled flow, and formation damage. Active contributor to 297 publications and 23 research projects. Develops advanced numerical models for CO₂ and hydrogen storage, integrating physical, chemical, and biological processes. Engaged in field-scale modeling and validation using real-world data from North Sea reservoirs. Laboratories and Research Groups: He is a key member of the Laboratory for Off-Shore Production Sciences and the Danish Offshore Technology Centre at DTU, where he conducts experimental and computational research on offshore and subsurface energy systems.
Steen Lysgaard is a Scientific Software Developer at the Department of Energy Conversion and Storage , Technical University of Denmark . His work focuses on computational materials modeling for energy applications, particularly in battery technology and nanoalloy stability . He actively employs genetic algorithms and machine learning to accelerate materials discovery. His research contributes to UN Sustainable Development Goals in clean energy and climate action . Research Trends The 15 most recent publications highlight his expertise in: Computational methods : Integration of Bayesian evolutionary multitasking , genetic algorithms , and DFT simulations for materials design. Battery technology : Studies on aluminum batteries , zinc-air batteries , and ammonia storage systems. Nanomaterials : Structural stability analysis of nanoalloys , metal halides , and charge transport mechanisms in energy storage compounds. Professional Activities He has presented at conferences on topics such as: Atomic Simulation Environment software (2017) Zinc-air battery materials (2018) Strontium ammines (2010) NH3 diffusion in Mg(NH3)6Cl2 (2010) Contact: stly@dtu.dk
Umberto Maria Battisti serves as Associate Professor in the Department of Drug Design and Pharmacology at the University of Copenhagen, specializing in Medicinal Chemistry. His research focuses on developing novel radiopharmaceuticals for targeted cancer therapy and molecular imaging through advanced pretargeting strategies. Dr. Battisti's work centers on radiopharmaceutical chemistry with emphasis on tetrazine-based bioorthogonal systems . His group pioneers techniques for labeling isotopes like Astatine-211 (α-emitter for therapy), Fluorine-18, and Gallium-68 (for PET imaging), addressing critical challenges in in vivo stability and tissue penetration . Key innovations include BBB-penetrating agents for neurological applications and polar modifications to optimize pharmacokinetics. Analysis of his 2024-2025 publications reveals dominant trends in pretargeted theranostics , particularly comparative studies of tetrazine reactivity ( e.g. , polar vs. non-polar variants) and isotope-specific optimizations. Research spans oncology (FAPi inhibitors, tumor uptake enhancement) and neuroscience (brain imaging agents), with strong translational focus toward clinical applications of α-therapy and PET imaging. Dr. Battisti maintains an extensive collaborative network within Copenhagen's Department of Drug Design and Pharmacology, working closely with nuclear medicine specialists on radiochemistry, preclinical validation, and therapeutic applications. His team's interdisciplinary approach integrates synthetic chemistry, in vivo modeling, and imaging technology development.
Marco Antonio Muniz Rodriguez is an Associate Professor at the Department of Computer Science, part of The Technical Faculty of IT and Design at Aalborg University. His research focuses on formal methods, specifically timed automata and model checking, with applications in machine learning, stochastic systems, and safety-critical decision-making. He contributes to the UPPAAL verification tool and explores interdisciplinary areas like healthcare optimization and traffic systems. He participated in the BEO-COVID project (2020), developing decision support tools for pandemic management. His work integrates formal verification techniques with machine learning to address real-world problems such as traffic rerouting and epidemic prevention. Key collaborations include projects with the Poul Due Jensen Foundation and industrial partners. His research spans theoretical advancements in timed systems and practical implementations, emphasizing computational efficiency through GPU acceleration and static analysis. He has published on topics ranging from stubborn set reduction to proactive traffic management, demonstrating a commitment to both foundational research and applied solutions.
Massimo Rolle is an Associate Professor in the Department of Environmental and Resource Engineering at the Technical University of Denmark (DTU), where he conducts research at the intersection of hydrogeochemistry, contaminant transport, and reactive modeling in subsurface systems. His work addresses critical environmental challenges related to groundwater contamination and sustainable remediation technologies. Position: Associate Professor Institution: Technical University of Denmark (DTU) Department: Department of Environmental and Resource Engineering Research Focus: Subsurface processes, reactive transport, biogeochemical modeling, isotope fractionation, and engineered remediation His research interests center on understanding the physical, chemical, and biological processes governing contaminant fate in aquifers. He combines high-resolution laboratory experiments with advanced numerical modeling to investigate mixing dynamics, reactive transport of pollutants, electrokinetic phenomena, and natural attenuation mechanisms. A key aspect of his work involves the interpretation of isotopic signatures to track degradation pathways of organic contaminants. The recent publication trends highlight a strong emphasis on interdisciplinary approaches integrating environmental engineering, geochemistry, and sustainable energy systems. His studies frequently explore the coupling of aquifer thermal energy storage (ATES) with bioremediation, electrokinetic techniques for contaminant removal, and gas exchange processes in unsaturated zones. The integration of experimental data with model-based interpretation across scales—from pore to field—is a hallmark of his scientific contributions. Dr. Rolle actively supervises PhD students and leads multiple research projects focused on innovative remediation strategies. Notable projects include BiodegrATES (biodegradation meets ATES), transport of PFAS in porous media, and electrokinetic applications in low-permeability zones. These projects reflect a commitment to developing sustainable, science-based solutions for contaminated site management. Scientific contributions and collaborations are extensive, with over 166 publications and active engagement in international research networks. While no specific awards are listed in the provided text, his sustained scholarly output and leadership in key environmental research domains underscore significant recognition in the field. He is involved in several research teams and laboratories at DTU Sustain, where experimental and modeling work on subsurface systems is conducted. These teams focus on reactive transport, biogeochemical processes, and sustainable remediation technologies. Collaborations span across Europe and North America, particularly in projects involving field-scale validation and multi-phase transport phenomena.
Karsten Wedel Jacobsen is a Professor in the Department of Physics at the Technical University of Denmark (DTU), specializing in theoretical solid-state physics and computational materials design. His work focuses on quantum mechanical calculations for material design at the atomic scale, with applications in nanotechnology and energy-related materials. He has led major research centers like the Center for Atomic-scale Materials Design (CAMD) and contributed to open-source software like GPAW. He holds academic leadership roles, including directing CAMD and serving on DTU's educational committees. Education: PhD in Theoretical Physics (University of Copenhagen, 1987), M.Sc. in Physics (University of Copenhagen, 1984). Research Interests : Theoretical nanoscale physics, electronic structure methods, molecular electronics, and computational materials discovery. His research bridges quantum mechanics and practical applications, such as solar energy materials and catalyst design. Publications & Trends : Over 218 publications, with recent work emphasizing machine learning in materials design, high-throughput screening for 2D materials, and computational studies of catalytic interfaces. Key themes include atomic-scale simulations, defect engineering, and energy-related material discovery. Scientific Honors : Elected Member of The Danish Academy of Natural Sciences (DNA) (1994) Elected Member of Danish Academy of Technical Sciences (ATV) (2001) Reinholdt W. Jorch's Award (2004) Advising & Grants : Supervised 25 PhD students, including current advisees working on electrosynthesis, electrocatalysis, and machine learning in quantum materials. Active in research funding through grants like the Danish Research Councils and the Lundbeck Foundation. Leads interdisciplinary projects on computational modeling and open-source software development. Labs & Teams : Director of CAMD (2010–2012), a hub for atomic-scale materials design research. Collaborates globally through networks like CAMP and MIKA Advisory Board, advancing theoretical and computational methods in materials science.
Louiza Bohn Thomsen is an Associate Professor at the Department of Health Science and Technology, Aalborg University, within The Faculty of Medicine. Her primary research focuses on drug delivery across the blood-brain barrier (BBB) and blood-brain-tumor barrier (BBTB), with expertise in gene therapy, nanoparticle-based drug carriers, and in vitro BBB models. She has developed a porcine triple co-culture BBB model and studies glioblastoma tumor interactions with the BBB/BTB to enhance drug delivery. Education: Ph.D. in Biomedicine (2008–2011), Aalborg University Cand. Scient. (Biolog) in Cerebellar Neuroscience (2001–2007), University of Copenhagen Research Interests: Her work spans drug delivery strategies for neurodegenerative diseases and brain tumors, gene therapy using AAV vectors, and the role of the immune system in glioblastoma microenvironments. She has pioneered BBB-specific AAV-BR1 vectors for protein delivery and magnetic nanoparticle targeting. Articles Overview: Recent publications address Niemann-Pick type C2 gene therapy, CDCA2 in lymphoma, and BBB modeling. Her work emphasizes translational approaches to overcome BBB barriers for effective brain drug delivery. Grants & Projects: Supervised 1 PhD student and collaborated on grants like the Targeted Therapy project funded by Aase og Ejnar Danielsens Fond and Kong Christian den Tiendes Fond (2019–2021). Labs & Teams: Leads the Neuroboost research group, focusing on innovative drug delivery systems and BBB biology.
Christian Aalkjær is a Professor in the Department of Biomedicine at Aarhus University, Denmark. His research is centered on vascular and cardiovascular physiology, with a focus on hypertension, blood vessel function, and ion transport mechanisms. He has led major interdisciplinary projects, including the Danish Cardiovascular Giraffe Research Programme, investigating extreme physiological adaptations in giraffes to inform human cardiovascular disease. Research Interests: Physiology of resistance arteries and vascular tone Intracellular pH and ion transport (NBCn1, V-ATPase) Hypertension and cardiovascular remodeling Smooth muscle cell function Acid-base balance and water-salt metabolism Comparative physiology using giraffe models His recent publications (2023–2025) reflect a continued focus on vascular reactivity, small artery structure-function relationships, and molecular mechanisms in hypertension. Articles span topics from prorenin effects on mesenteric arteries to genetic causes of arrhythmia syndromes. Scientific Engagement: Active contributor to peer-reviewed journals such as Acta Physiologica , FASEB Journal , and Heart Rhythm Frequent invited speaker and lecturer on vascular physiology Public science communicator through media appearances on giraffe physiology and hypertension Advising and Research Leadership: While specific students are not listed, Aalkjær has supervised academic theses and mentored early-career researchers. He has been a project manager on major grants, including the DaGIR programme, and has secured long-term funding for cardiovascular research. He leads a research team focused on vascular mechanisms and collaborates extensively across disciplines. Laboratory and Research Environment: Based in the Skou Building at Aarhus University, his lab investigates vascular function using isolated vessel myography, molecular techniques, and in vivo models. The research environment emphasizes translational physiology, integrating basic science with clinical insights.
Henrik Stang is a Professor in the Department of Civil and Mechanical Engineering, specifically within the Structures and Safety division at the Technical University of Denmark (DTU). His research focuses on structural integrity, concrete durability, and advanced computational modeling in civil engineering. He is actively involved in cutting-edge projects related to digital fabrication, sustainable construction, and structural health monitoring. His research interests include high-performance concrete, reinforced concrete engineering, finite element methods, reinforcement corrosion, carbonation processes, 3D concrete printing, and structural dynamics. These areas align with UN Sustainable Development Goals related to sustainable cities and infrastructure. His work integrates experimental investigations with numerical simulations to enhance the safety and longevity of civil engineering structures. The recent publications reflect a strong trend toward digitalization in construction, including 3D concrete printing, data-driven structural assessment, and physics-informed machine learning for structural monitoring. His work spans materials science, structural mechanics, and environmental durability, with applications in both onshore and offshore engineering systems. Scientific Awards: Best Paper Award at the Digital Concrete 2020, 2nd RILEM International Conference on Concrete and Digital Fabrication Advising and Grants: Henrik Stang supervises several PhD students and is a key supervisor or co-supervisor in multiple doctoral projects, including those on digital twins for 3D concrete printing, fatigue damage characterization, and data-driven decision support for offshore structures. He leads the Villum Center for Advanced Structural and Material Testing (CASMaT) and participates in projects involving nonlinear system identification and damage detection in structural systems. Labs and Teams: He is the project manager of CASMaT (Villum Center for Advanced Structural and Material Testing), a multidisciplinary research center focused on advanced testing of structural materials. The team includes experts in composites, fatigue, finite element modeling, and non-destructive testing, and employs techniques such as X-ray computed tomography and digital image correlation.
Erling Halfdan Stenby is a Professor and Head of the Department of Chemistry at the Technical University of Denmark (DTU), leading research in applied thermodynamics, petroleum engineering, enhanced oil recovery, carbon capture and storage (CCS), and geothermal energy. He has held leadership roles at DTU since 1987, including Director of the Center for Energy Resources Engineering (CERE) (2009–2014) and Scientific Director for Enhanced Oil Recovery at the Danish Hydrocarbon Research and Technology Centre (2014–2017). PhD in Chemical Engineering, DTU (1983–1985) MSc in Chemical Engineering, DTU (1976–1982) His research focuses on thermodynamic modeling, CO2 storage, and geothermal energy systems, supported by grants from the Innovation Foundation and international companies. Recent projects include algorithms for CO2 capture and multiphysics simulations for geological storage. Scientific awards: Knight of the Order of Dannebrog (2013) DGMK-Kolleg (2006) Chevalier dans l’Ordre des Palmes Academique (2004) DONG’s Jubilæumslegat Honorary Award (2000) Reinholdt W. Jorck og Hustrus Fond Research Award (1995) Stenby supervises multiple PhD students on CO2 storage and reactive transport simulations, collaborating with institutions like DTU Chemical Engineering and TOTAL S.A. His work contributes to UN Sustainable Development Goals, particularly in clean energy and climate action.
Dominique J. Tobler serves as Associate Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen's Faculty of Science, where she leads research in the Section for Environmental Chemistry and Physics. Her work bridges fundamental chemical processes with practical environmental applications, focusing on material behavior in soil systems and innovative remediation strategies for contaminated environments. Her research program centers on three interconnected domains: Chemistry of synthetic and natural materials (iron oxides, silica, carbonates) in soil formation, (bio-)mineralisation, and pollutant transport, with emphasis on redox/sorption properties under reduced conditions Biochar applications for carbon sequestration, soil quality enhancement, and catalytic pollutant degradation through engineered surface properties Pioneering experimental methodologies using synchrotron radiation and advanced analytics to monitor nanomaterial dynamics in natural soil environments Analysis of her 2023-2025 publications reveals a concentrated research thrust on developing nitrogen-doped carbon catalysts and iron-mineral composites (particularly green rust) for degrading chlorinated/brominated pollutants. Key innovations include biochar activation techniques, ZVI-biochar granule synthesis, and understanding co-contaminant effects on mineral stability, demonstrating strong translational potential for field-scale remediation. No scientific awards were documented in the provided materials. While specific advising details are absent, her extensive publication record and international collaborations (visualized through country-level network maps) indicate active mentorship and research leadership. Her work leverages advanced analytical facilities and multidisciplinary team approaches, with recent studies emphasizing material-property-performance relationships for sustainable environmental solutions.
Mathias Pribil serves as Associate Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen, specializing in molecular plant biology within the Section for Molecular Plant Biology. His research focuses on fundamental mechanisms governing plant metabolism and photosynthesis, with direct applications for sustainable crop improvement. His primary research interests center on photosynthetic efficiency, chloroplast function, and metabolic engineering in plants. Pribil investigates how plants regulate energy metabolism under stress conditions, particularly examining damage-repair systems in photosynthesis and sugar homeostasis mechanisms. His work bridges basic molecular biology with agricultural applications, targeting crop resilience and yield optimization through understanding fundamental plant processes. Analysis of his recent publications reveals a strong emphasis on sustainable agriculture solutions, with recurring themes in photosynthesis optimization (37.5% of articles), metabolic engineering (25%), and crop resilience strategies (37.5%). His research frequently employs Arabidopsis thaliana as a model system while maintaining clear translational pathways to crop species, particularly through collaborations focused on future-proofing European agriculture. Pribil leads research within the Section for Molecular Plant Biology at the University of Copenhagen's Frederiksberg Campus, where his laboratory investigates the molecular basis of plant metabolic processes. His collaborative network spans multiple European institutions, with significant contributions to EU-funded initiatives like CropBooster-P aimed at developing climate-resilient crops. Current research directions include engineering chloroplast metabolism for enhanced natural product synthesis and deciphering metabolic damage-repair systems critical for photosynthetic efficiency.
