Prof. Dr. Fritz Kühn is a Professor of Molecular Catalysis at the Technical University of Munich (TUM), affiliated with the School of Natural Sciences and the Department of Chemistry. He holds a PhD from TUM (1994) and has held roles including Principal Researcher at the Instituto Tecnológico e Nuclear (2005), returning to TUM as a professor in 2006. Currently, he serves as Dean of Studies at the School of Chemistry, spokesperson for the TUM Graduate School, and member of TUM CREATE in Singapore. His research focuses on organometallic chemistry, medicinal chemistry, and industrial catalysis applications. Prof. Kühn’s education includes studies at TUM, followed by a postdoctoral fellowship at Texas A&M University (1995–1996). He has authored/co-authored over 500 publications and 20 patents, with an h-index of 63 (2021). His work emphasizes catalyst design for industrial and medical applications, including collaborations with companies. Awards Visiting Professor, National University of Singapore (2008) Hans Fischer Prize (2003) Otto Roelen Medal (1999) Advising & Grants Prof. Kühn oversees research grants related to catalytic systems and medicinal chemistry. His contributions to interdisciplinary teams and industry partnerships drive innovation in sustainable chemistry and drug development. Labs & Teams He leads research groups at TUM and collaborates with institutions like TUM CREATE in Singapore, focusing on catalytic processes and advanced materials.
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نمایش ۷۳۶-۷۵۰ از ۱٬۰۹۴ استاد راهنما
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Prof. Dr. Christopher Stein is an Associate Professor of Theoretical Chemistry at the Technical University of Munich (TUM), leading the Professorship for Theoretical Chemistry within the Department of Chemistry at the TUM School of Natural Sciences. His research focuses on electrocatalytic processes, solvation models, and the development of electronic structure methods. He has held academic positions at the University of Duisburg-Essen and UC Berkeley, and his work is supported by prestigious awards and grants, including the NRW Return Scholarship and the ETH Medal for Outstanding Doctoral Theses. Stein earned his Bachelor's and Master's degrees in Chemistry from Georg-August University Göttingen, followed by a PhD in Theoretical Chemistry at ETH Zurich (2017). His postdoctoral research at UC Berkeley (2018–2021) and ETH Zurich (2018) further solidified his expertise in computational chemistry and materials science. He has received multiple teaching and research awards, including the ACS COMP Division Award for Excellent Postdocs (2020). His research group explores energy materials, solvation models, and magnetic couplings using advanced simulation techniques like DMRG. Notable collaborations include work with Prof. Martin Head-Gordon and Prof. Markus Reiher. Stein actively reviews for journals such as Chemical Science and Journal of Chemical Theory and Computation , and holds memberships in the German Physical Society, Society of German Chemists, and American Chemical Society. Key grants and scholarships include the MKW NRW Return Scholarship (€1.25M), Swiss National Science Foundation funding, and support from the German Academic Scholarship Foundation. His research bridges theoretical chemistry with practical applications in catalysis and energy systems.
Krasimira Tsaneva-Atanasova is a Professor of Mathematics for Healthcare at the University of Exeter, affiliated with the Living Systems Institute and the Department of Mathematics. She holds a joint appointment as Associate Dean for International and Development within the College of Engineering, Mathematics and Physical Sciences. Her research focuses on applying mathematical models to healthcare challenges, including personalized medicine, clinical decision-making, and understanding biological systems like hormone signaling and neuronal dynamics. Her academic journey includes a MSc from the University of Plovdiv (Bulgaria) and a PhD from the University of Auckland (New Zealand). She has held prestigious roles such as Guest Professor at Huazhong University of Science and Technology (China) and Honorary Senior Research Fellow at the University of Bristol. Key awards include the EPSRC Hub Directorship and Fellowship with the Institute of Mathematics and its Applications. Research interests span biomathematics, dynamical systems, and data-driven modeling, with applications to cellular processes (calcium dynamics, hormone signaling) and movement science. She has pioneered interdisciplinary work bridging mathematics, neuroscience, and clinical healthcare. Recent publications explore topics like seizure dynamics, hormone regulation, and mathematical models of cardiac excitability. Awards highlight her leadership in advancing quantitative approaches to healthcare challenges. She leads collaborative projects such as the EPSRC Hub, fostering innovation in healthcare technologies and disease modeling.
Prof. Yuriy Mokrousov leads the Topological Nanoelectronics Group at the Peter Grünberg Institute (PGI) within the Quantum Theory of Materials (PGI-1) at Research Center Jülich. His research focuses on leveraging topological concepts and geometrical phases (e.g., Berry phases) to explore novel transport phenomena in nanoelectronic materials. Key areas include spintronics, noncollinear magnets, and topological phases in complex systems such as skyrmions and altermagnets. He employs density functional theory (DFT) and first-principles methodologies to bridge theoretical predictions with experimental advances. Research interests span: dissipationless spin currents, topological transport effects, spin-orbit torques, and the interplay between magnetism and quantum geometry. His group investigates materials like Mn2Au, transition metal interfaces, and van der Waals heterostructures to uncover mechanisms for future nanoelectronic applications. Recent articles highlight advancements in orbital magnetism, domain wall dynamics, and optical manipulation of magnetic textures. Collaborations involve developing computational tools to model electronic and spin properties, with applications in spintronics and energy-related materials.
Prof. Antonio Hurtado is the Chairholder of the Chair of Hydrogen and Nuclear Energy and Director of the Institute of Energietechnik at Technische Universität Dresden. He leads research in nuclear energy technology, hydrogen systems, reactor physics, and thermal fluid dynamics. His work includes advanced materials for energy applications, radiation shielding, and CFD simulations. He has over 150 publications and actively contributes to interdisciplinary projects like the Euratom NPHyCo initiative. Professional roles include Prorektor für Universitätsentwicklung (2017–present), leadership in the Competence Network Nuclear Technology, and advisory roles for organizations like OncoRay and 50Hertz. Research focuses on reactor safety (e.g., spent fuel pool thermal hydraulics), hydrogen storage (aviation composite vessels), and innovative joining techniques (laser-based methods for ceramics/metals). His educational contributions include curricula in hydrogen technology and sustainability (e.g., H2-InnoCampus TUD). Key activities include teaching nuclear energy basics, project management, and techno-economic impact assessments. He chairs the Kraftwerkstechnisches Kolloquium and co-edits annual conference proceedings like Kraftwerkstechnik . His collaborations span academic and industrial partners, emphasizing bridging theory and practical applications in energy systems.
- Molecular Dynamics Simulations
- Computational Materials Science
- Nanoindentation and Nanomachining
- +۸ مورد دیگر
Herbert M. Urbassek is a Professor in the Department of Physics at Technische Universität Kaiserslautern, leading the Arbeitsgruppe Prof. Urbassek. His research spans computational materials science, molecular dynamics, and astrophysical surface processes. He is actively involved in teaching and supervising a large group of researchers. His educational background is not detailed, but his long-standing professorship and research leadership suggest a distinguished academic career. Urbassek's research focuses on molecular dynamics simulations of materials under extreme conditions, including nanoindentation, cluster collisions, sputtering, and planetary surface interactions. His group investigates systems ranging from metallic nanocomposites to cosmic ices, bridging condensed matter physics, materials science, and astrophysics. Teaching areas include computational physics, materials modeling, and solar system physics. The recent publications reflect a strong trend in computational modeling of physical processes at atomic scales, particularly in materials deformation, cosmic dust dynamics, and biophysical interfaces. Topics frequently involve shock physics, energy dissipation, and phase transitions, with increasing integration of machine learning and digital tools. No scientific awards are listed in the available text. He advises a large number of graduate students and researchers, as evidenced by regular seminar presentations. His group has been active for over 15 years, indicating sustained funding and research output. Projects often involve interdisciplinary collaborations, especially in astrobiology and biophysics. The group uses advanced simulation tools like LAMMPS and develops methods in free-energy calculations and granular mechanics. The AG Urbassek operates as a dynamic research team conducting fundamental and applied simulations in physics and materials science, with strong ties to planetary science and biophysics.
Stiig Wilkenskjeld is a Researcher at the Max Planck Institute for Meteorology, affiliated with the Department of Climate Dynamics where he specializes in Climate-Biosphere Interaction research. His work examines feedback mechanisms between terrestrial ecosystems and atmospheric processes within Earth's climate system. His research spans: Climate Dynamics Climate-Biosphere Interaction Earth System Science Terrestrial Ecosystem Modeling As a core member of the Climate-Biosphere Interaction group, he contributes to interdisciplinary projects analyzing vegetation-climate couplings using advanced modeling frameworks. His office is located in Building 53, Room 328 (Bu53 328) at the Hamburg campus.
Mia Sophie Spechtمشاهده پروفایل
پژوهشگر ارشد
Mia Sophie Specht is a Research Fellow in the Department of Climate Variability at the Max Planck Institute for Meteorology (MPIM) in Hamburg, Germany, where she has been a core member of the Director's Research Group (CVR) since 2023. Her work bridges observational oceanography and high-resolution climate modeling within the institute's tropical climate research framework. Her academic trajectory includes a PhD in Earth System Modelling (2019-2023) through the International Max-Planck Research School (IMPRS-ESM), an MSc in Climate Physics with focus on Physical Oceanography (2016-2018), and a BSc in Geophysics/Oceanography (2013-2016). Key supervisors included Dr. Johann Jungclaus, Dr. Jürgen Bader, and Prof. Dr. Jochem Marotzke during her doctoral work on Atlantic instability waves. Dr. Specht's research centers on tropical Atlantic dynamics, specifically vertical mixing processes, ocean-atmosphere coupling, and tropical instability waves. She employs cutting-edge ocean models like ICON-O alongside observational datasets to investigate subsurface shear instabilities and model-observation discrepancies. Her methodology emphasizes high-resolution simulation to resolve fine-scale oceanic features critical for climate prediction accuracy. Her publication record reveals a consistent focus on tropical Atlantic processes, with increasing sophistication in modeling approaches from her 2021 observational-model comparison work to the 2025 intermodel study on vertical mixing sensitivity. The research demonstrates strong continuity in examining wave dynamics while expanding into model development (ICON-sapphire) and multi-model validation frameworks. As an active participant in the Director's Research Group, Dr. Specht contributes to MPIM's climate variability research through direct involvement in observational campaigns including four major research cruises on R/V Polarstern, R/V Meteor, and R/V Poseidon across the Fram Strait, Greenland, and Benguela Upwelling System. Her work integrates field data collection with advanced computational analysis within the institute's Earth System Modeling framework.
Prof. Alexander Mielke is a leading mathematician affiliated with the Weierstrass Institute (WIAS) in Berlin, Germany. His work focuses on partial differential equations , gradient systems , and thermodynamic modeling with applications in material science, quantum mechanics, and multiscale systems. Institution: Weierstrass Institute (WIAS), Berlin Research Interests: Gradient flows, reaction-diffusion systems, optimal transport, variational analysis, and nonlinear mechanics Research Highlights: Mielke’s research explores the interplay between entropy decay , non-equilibrium steady states , and EDP convergence in gradient systems. His recent work includes self-similar profiles in diffusion equations and GENERIC formalism for thermodynamical models. Publications: He has authored over 50 peer-reviewed works, including studies on Hellinger–Kantorovich spaces , stochastic homogenization , and quantum-classical coupling . His articles appear in journals like Arch. Ration. Mech. Anal. , SIAM J. Math. Anal. , and J. Nonlinear Sci.
Soeren Ahmerkamp is a researcher at the Leibniz Institute for Baltic Sea Research (IOW) , focusing on marine biogeochemistry and oceanography. His work integrates numerical modeling, field observations, and laboratory experiments to study transport mechanisms and microbial activity in coastal and marine environments. Co-leader of the MATIC project (funded by Novo Nordisk) on coral resilience Principal investigator in the NArrFix project (DFG-funded) quantifying nitrogen fixation in the Baltic Sea Develops innovative measurement systems like GE-MIMS for high-resolution gas dynamics Research Interests include: Nitrogen and carbon cycling in permeable sediments Fluid dynamics in coral boundary layers and marine aggregates Benthic-pelagic coupling processes Microscale oxygen dynamics in biofilms and sediments Methodologies combine Large-Eddy Simulations, transport-reaction equations, flow-through reactors, and microfluidic sensor development. Collaborations span institutions like Aarhus University , Uppsala University , and SYKE (Finnish Environment Institute).
- Quantum Magnetism
- Spin Liquids
- Frustrated Systems
- +۷ مورد دیگر
Prof. Dr. Philipp Gegenwart is a Professor of Experimental Physics VI at the University of Augsburg, affiliated with the Faculty of Mathematics, Natural Sciences, and Materials Engineering within the Institute of Physics. His research group focuses on quantum magnetism, spin liquids, frustrated systems, and low-temperature physics, with particular emphasis on Kitaev materials and quantum critical phenomena. His team includes numerous researchers and students working on crystal growth, thin film fabrication, and low-temperature measurements. Prof. Gegenwart's research interests center around quantum magnetism in geometrically frustrated systems, particularly spin liquid candidates and Kitaev materials. His work explores the interplay between spin-orbit coupling, crystal structure, and magnetic properties, with applications in quantum computing and low-temperature refrigeration. He investigates quantum phase transitions, magnetic excitations, and unconventional superconductivity in correlated electron systems, utilizing high magnetic fields, pressure tuning, and advanced spectroscopic techniques to probe emergent quantum phenomena in novel materials. Analysis of Prof. Gegenwart's recent publications reveals a strong focus on frustrated quantum magnets, particularly Kitaev materials like α-RuCl 3 , Na 2 IrO 3 , and related compounds. His work explores pressure effects, magnetic field responses, and structural modifications to tune quantum states. A significant portion of his research addresses practical applications of quantum magnetism, including adiabatic demagnetization refrigeration reaching milli-Kelvin temperatures using frustrated magnetic systems. His group also investigates heavy fermion systems, spin ice materials, and topological aspects of quantum magnetism. Prof. Gegenwart actively mentors numerous students and postdoctoral researchers who contribute significantly to his research program. His group maintains strong collaborations with international research institutions, evidenced by the extensive co-authorship network across his publications. The research is supported by advanced experimental facilities for low-temperature measurements, crystal growth, and thin film fabrication available at the University of Augsburg. The Experimental Physics VI group led by Prof. Gegenwart operates specialized laboratories for crystal growth, low-temperature physics, and thin film characterization. They maintain dilution refrigerators capable of reaching milli-Kelvin temperatures, high magnetic field facilities, and advanced spectroscopic equipment for probing quantum materials. The group is particularly known for its expertise in synthesizing and characterizing quantum spin liquid candidates and frustrated magnetic systems.
Klaus Ruhlandمشاهده پروفایل
مدرس ارشد
Klaus Ruhland is a Senior Lecturer (Privatdozent) in the Institute of Physics at the University of Augsburg, affiliated with the Faculty of Mathematics, Natural Sciences and Technology. He is a key member of the Chemical Physics and Materials Science research group led by Prof. Dr. Wolfgang Scherer, contributing to advanced research in bond activation, functional materials, and extreme condition chemistry. Research Interests: His work spans organometallic chemistry , polymer science , and materials characterization , with a focus on C–C and C–H bond activation, spectroscopic analysis of reactive intermediates, and the design of functional polymers. His research integrates experimental and theoretical approaches to understand fundamental chemical processes. Publication Trends: Over the past two decades, Klaus Ruhland has published consistently in high-impact journals such as Organometallics , Journal of Applied Polymer Science , and Angewandte Chemie . His recent work emphasizes light-induced reactions, polymer curing mechanisms, and pressure-enhanced bond activation, reflecting a multidisciplinary approach bridging inorganic and materials chemistry. Scientific Awards: No specific awards or honors are mentioned in the available text. Advising and Grants: While no formal students or grant funding are listed, his extensive publication record and collaborative projects suggest active mentorship and research leadership within the group. He has co-authored with numerous researchers, indicating strong team integration and collaborative science. Labs and Teams: He is part of the Chemical Physics and Materials Science team at the University of Augsburg, working in close collaboration with Prof. Dr. Wolfgang Scherer and PD Dr. Georg Eickerling. The team investigates binding activation, functional materials, and chemical behavior under extreme conditions, utilizing advanced spectroscopic and synthetic techniques.
Belkis Ezgi Arikanمشاهده پروفایل
پژوهشگر ارشد
Dr. Belkis Ezgi Arikan serves as a Postdoctoral Researcher in the Department of Experimental Psychology at Justus-Liebig University Giessen, Germany. She is a core team member of the "Perception and Action" research group funded by the DFG SFB/TRR 135 project "Cardinal mechanisms of perception," investigating how actions shape perceptual experiences through predictive neural mechanisms. Education: Ph.D. in Cognitive Neuroscience (Magna cum Laude), Philipps University Marburg, 2017 M.Sc. in Experimental Psychology, Hacettepe University, Turkey, 2012 B.Sc. in Psychology, Middle East Technical University, Turkey, 2007 Her research pioneers the neural and behavioral dynamics of sensorimotor integration, with emphasis on how the brain predicts sensory consequences of movement. Using fMRI and psychophysics, she examines multisensory temporal recalibration, cerebellar involvement in feedback monitoring, and how voluntary actions modulate perceptual timing. Her work reveals fundamental mechanisms where motor commands actively suppress sensory processing to distinguish self-generated from external stimuli, with implications for understanding disorders of agency and perception. Analysis of her 9 recent publications shows consistent focus on action-perception coupling through BOLD fMRI and behavioral paradigms. Key trends include neural adaptation during sensorimotor recalibration, cerebellar- cortical networks in feedback monitoring, and temporal binding windows for self-generated actions. Her studies predominantly employ visual and somatosensory feedback paradigms to dissect predictive coding mechanisms across sensory modalities. Scientific Recognition: Magna cum Laude distinction for doctoral dissertation Dr. Arikan's research is supported by the DFG grant SFB/TRR 135, examining predictive signals during hand/eye movements. While no formal student supervision is documented, she collaborates extensively with Prof. Katja Fiehler's team and international researchers. Her work bridges cognitive neuroscience, neuroimaging, and computational modeling to decode how the brain generates perceptual stability during movement. She actively contributes to the "Team Perception and Action" laboratory, utilizing advanced fMRI techniques and behavioral experiments to investigate sensorimotor prediction mechanisms within Justus-Liebig University's experimental psychology infrastructure.
Dr. Rolf Koppelmann is a dedicated marine researcher at the University of Hamburg's Faculty of Mathematics, Computer Science and Natural Sciences, Department of Biology, within the Institute of Marine Ecosystem and Fisheries Sciences. His work focuses on experimental marine zooplankton ecology, with particular expertise in high and deep sea environments. Based in the Biological Oceanography division, he maintains an active research profile with numerous publications spanning several decades. His educational background includes technical training as an Electromechanic Technician (1975-1978) and Radar Technician (1979-1985), followed by formal biological studies at the University of Oldenburg (Vordiplom Biologie, 1985-1987) and University of Hamburg (Diplom Biologie, 1987-1990; Dr. rer. nat., 1991-1994). This unique combination of technical and biological training has likely informed his experimental approach to marine ecology. Koppelmann's research interests span open ocean and deep-sea ecology, zooplankton ecology, distribution structures, biogeochemical cycles, trophic interactions, and underwater technology. His work demonstrates a consistent focus on understanding biological processes in deep marine environments, particularly examining how zooplankton communities function within complex oceanographic systems. His research often bridges biological observations with physical and chemical oceanographic parameters. Analysis of his recent publications (2009-2018) reveals a strong emphasis on upwelling systems, particularly the Benguela Current off Namibia, as well as studies in the Mediterranean and Arabian Seas. His work frequently employs stable isotope analysis to understand trophic relationships and has increasingly focused on carbon cycling and biogeochemical processes within marine ecosystems. The publications demonstrate a progression from descriptive ecological studies to more complex investigations of ecosystem functioning and responses to environmental change. Dr. Koppelmann has served as a reviewer for numerous prestigious journals including Deep-Sea Research, Journal of Plankton Research, Marine Biology, and Limnology and Oceanography. His research has been supported by major funding agencies worldwide including the European Commission, National Science Foundation (USA), Natural Environmental Research Council (UK), and various national research councils. His collaborative work spans international boundaries, with research conducted in the Arabian Sea, Eastern Mediterranean, Benguela Current system, and North Atlantic. He has been involved in major projects including GENUS (Geochemistry and Ecology of the Namibian Upwelling System), EMZOO (Energy and mass fluxes of the mesozooplankton community in the Levantine Basin), and ZOOSTOFF (Zooplankton structures and mass fluxes in the deep Levantine Sea).
Jens Floeterمشاهده پروفایل
پژوهشگر
Dr. Jens Floeter is a Researcher at the University of Hamburg, Faculty of Mathematics, Computer Science and Natural Sciences, Department of Biology, Institute of Marine Ecosystem and Fisheries Sciences (IMF). He has been working as a Scientific Staff Member in the Fisheries Science research group under Prof. Dr. Christian Möllmann since November 2008. His research focuses on marine ecosystem dynamics, particularly examining the interactions between fisheries, offshore wind farms, and marine ecological processes in the North Sea and Baltic Sea regions. Dr. Floeter earned his doctorate (Promotion) in 2005 from the University of Hamburg with a dissertation titled "An investigation of key processes affecting trophic interactions in the North Sea fish assemblage and their significance for multi species fisheries assessment" at the Institut für Hydrobiologie & Fischereiwissenschaft. He completed his Diplom der Biologie in 1998 with a thesis on "Analyse und Modellierung der Nahrungsselektion von Nordseefischen" (Analysis and modeling of food selection by North Sea fish), and began his biology studies at the University of Hamburg in 1991. Dr. Floeter's research spans several interconnected areas within marine ecology and fisheries science. His primary focus is on understanding how offshore wind farms impact marine ecosystems, particularly examining pelagic effects, trophic interactions, and habitat changes. He investigates coupling of spatio-temporal scales in marine ecosystems, higher trophic level food web dynamics, and develops methods for multi-species fisheries assessment. His work often combines field observations with modeling approaches to address complex ecosystem questions. A significant portion of his research examines plankton habitats, predator-prey relationships, and the impacts of anthropogenic structures on marine communities. Analysis of Dr. Floeter's recent publications reveals a strong focus on the ecological impacts of offshore renewable energy infrastructure, particularly wind farms. His research spans physical oceanography (examining wind-wake effects and upwelling/downwelling), biological responses (plankton habitat identification, copepod behavior), and fisheries implications. He has increasingly incorporated advanced analytical methods including machine learning for plankton image classification and tensor decomposition for community ecology analysis. His work demonstrates a consistent trajectory of examining how human activities intersect with marine ecosystem dynamics, with growing emphasis on renewable energy infrastructure impacts. synKoFiMo (2015-2017): "Darstellung von Synergien im Kolk- und Fischmonitoring in Offshore-Windparks" (Demonstrating synergies in scour and fish monitoring in offshore wind farms) UNCOVER (2007): "UNderstanding the Mechanisms of Stock ReCOVERy" BECAUSE (2004-2007): "Critical Interactions BEtween Species and their Implications for a PreCAUtionary FiSheries Management in a variable Environment" LIFECO (2001-2004): "Linking hydrographic Frontal activity and ECOsystem dynamics in the North Sea & Skagerrak" SYCON (1999-2000): "Synthesis of North Sea research and development of a new research strategy" Dr. Floeter has extensive experience with field research methods, including work with high-speed towed multi-sensor vehicles (TRIAXUS, SCANFISH) for ecosystem monitoring. His research group collaborates with multiple institutions including the Helmholtz-Zentrum Geesthacht (HZG), Thünen Institute, and various international partners. His laboratory work focuses on analyzing marine ecosystem dynamics using a combination of field observations, remote sensing data, and computational modeling approaches to understand complex marine systems and inform sustainable management practices.
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