Find Academic Supervisors

Enno GieseView profile

Professor

• Quantum Optics
• Atom Interferometry
• Quantum Imaging
• +3 more

Enno Giese is a Professor at the Institute for Applied Physics, focusing on theoretical quantum optics and cutting-edge applications in atom interferometry. His research explores gravitational physics, quantum sensing, and nonlinear optics, with a particular emphasis on precision measurements and quantum technologies. Key projects include the development of entanglement-enhanced atomic sensors for microgravity environments and the study of relativistic effects in atom interferometry. His work spans topics such as gravitational wave detection, quantum imaging beyond the standard quantum limit, and the quantum regime of free-electron lasers. Recent studies include the application of synthetic quantum holography and the optimization of higher-order atomic diffraction techniques. Giese collaborates on space-based experiments, such as the Cold Atom Lab on the International Space Station, to advance gravitational physics and quantum metrology in microgravity. His publications reflect a deep engagement with foundational questions in quantum mechanics, including angular momentum conservation at the single-photon level and the interface between gravity and quantum systems. While no awards are explicitly listed, his contributions to theoretical quantum optics have likely impacted the field significantly.

Anne KrauseView profile

Researcher

• Neuromuscular Control
• Sports Biomechanics
• Rehabilitation Science
• +7 more

Dr. Anne Krause is a researcher at the Institute for Training Science and Sports Informatics at the German Sport University Cologne. She is actively involved in research related to neuromuscular control, motor rehabilitation, and the physiological effects of altered gravity, with a focus on sensorimotor adaptation and whole-body vibration therapy. Her work bridges sports science, clinical rehabilitation, and space medicine. Her research interests center on neuromuscular control , postural stability , and rehabilitation interventions , particularly in conditions such as cerebral palsy and in extreme environments like microgravity. She employs biomechanical and neurophysiological methods to investigate how the human motor system adapts to perturbations, loading conditions, and therapeutic stimuli such as vibration. Her work has implications for both athletic performance and clinical populations. The trend in her publications from 2013 to 2017 reflects a strong focus on neurophysiological adaptation , sensorimotor training , and rehabilitation technologies . Her studies span diverse environments—from clinical settings with cerebral palsy patients to parabolic flight experiments simulating space conditions. This interdisciplinary approach integrates sports science with neurology and aerospace medicine. Scientific Awards: No scientific awards mentioned in the provided text. Advising and Grants: There is no explicit mention of students advised or research grants obtained. However, her collaborative work with senior researchers at DSHS suggests active participation in funded research projects, particularly in biomechanics and rehabilitation science. She has contributed to pilot studies involving clinical populations, indicating engagement with translational research. Labs and Teams: Dr. Krause is part of the research team at the Institute for Training Science and Sports Informatics at DSHS Cologne, collaborating closely with Prof. Albert Gollhofer, Dr. Ralf Ritzmann, and Dr. Katrin Freyler. This group conducts high-level research in motor control, biomechanics, and space-related physiology, utilizing advanced laboratory setups including vibration platforms, motion capture systems, and participation in parabolic flight campaigns.

• Materials Science
• Solidification
• Melting Properties
• +3 more

Jürgen Brillo is an Associate Professor at the German Aerospace Center (DLR), Institute for Materials Physics in Space in Cologne, Germany, where he holds the Chair of Foundry Engineering. His work focuses on experimental and theoretical investigations of metallic systems under space conditions. His research spans critical areas in materials physics: Fundamental solidification mechanisms Thermophysical properties of melting Containerless processing of metallic liquids Microgravity-driven material design Industrial applications in additive manufacturing Dr. Brillo leverages unique microgravity platforms—including the International Space Station (ISS), MAPHEUS sounding rockets, and parabolic flights—to eliminate gravity-induced phenomena like convection and sedimentation. This enables precise measurement of properties such as viscosity, surface tension, and density in supercooled metallic states, advancing high-entropy alloy development and biomedical implant materials. Recent institute experiments (May 2025) involved electromagnetic levitation of iron-cobalt alloys aboard the ISS. The Institute for Materials Physics in Space, where he operates, maintains specialized infrastructure like the Electromagnetic Levitator (EML) and conducts collaborative research on surface design, granular matter, and real-time solidification analysis. Dr. Brillo contributes to EU-funded projects including TEMPUS and QuantiCoM, focusing on space-based materials innovation for terrestrial industrial applications.

Ludger OvermeyerView profile

Professor

• Automation Technology
• Optical Production Technologies
• Laser Material Processing
• +4 more

Prof. Dr.-Ing. Ludger Overmeyer is a Professor and Executive Director of the Institute of Transport and Automation Technology at Leibniz University Hannover. He also serves as Deputy Chairperson of the Leibniz School of Optics and Photonics and holds leadership roles in multiple research initiatives including the Hannover Centre for Optical Technologies (HOT) and the PhoenixD cluster. His work spans automation technology, optical production systems, laser material processing, and space manufacturing. Overmeyer has led over 30 research projects funded by agencies like BMBF and DFG, focusing on additive manufacturing, microgravity experiments, and industrial logistics. He has pioneered innovations in conveyor systems, autonomous vehicles, and optoelectronic integration. His lab, the Einstein-Elevator, enables microgravity research for advanced manufacturing and materials science. Overmeyer has extensive industry collaboration with companies like Mühlbauer AG and LPKF, bridging academic research with industrial applications. Education highlights include a doctorate in Mechanical Engineering from Leibniz University (1996) and over 20 years of industrial R&D experience before academia. His teaching covers transport technology, laser processing, and optoelectronic systems. Current research emphasizes space manufacturing, AI-driven production, and sustainable logistics solutions. His team develops cutting-edge technologies like optical networks via flexographic printing and cold plasma experiments under microgravity conditions.

• Quantum Optics
• Quantum Sensing
• Atom Interferometry
• +3 more

Dr. Naceur Gaaloul is a Researcher at the Institute of Quantum Optics within the Faculty of Mathematics and Physics at Leibniz University Hannover. His primary research focuses on quantum sensing, atom interferometry, and ultra-cold quantum gases. He is affiliated with the QUEST Leibniz Research School and the Laboratory for Nano and Quantum Engineering, emphasizing interdisciplinary collaboration in quantum technologies. His work spans theoretical and experimental advancements in atom interferometry, including gravitational measurements, quantum metrology, and space-based applications. Notable contributions include the development of long-baseline atom interferometers, Casimir-Polder interaction studies, and precision sensing techniques for gravitational and magnetic fields. Dr. Gaaloul also contributes to space missions like the Bose-Einstein Condensate and Cold Atom Laboratory (BECCAL) and the CARIOQA-PMP quantum accelerometer pathfinder. Research interests include quantum gas manipulation, BEC engineering, and the application of quantum technologies in microgravity environments. His publications highlight innovations in interferometric design, sensor software, and collaborative workshop outcomes for advancing quantum instrumentation.

• Additive Manufacturing
• Microgravity Engineering
• Space Technology
• +3 more

Dr. Christoph Lotz is a Researcher and Team Leader at the Institute of Transport and Automation Technology within the Faculty of Mechanical Engineering at Leibniz University Hannover. He leads the Production in Space team and manages the Einstein-Elevator facility, a unique drop tower enabling microgravity research. His roles also include overseeing the Task Group M4: Machines, Automation and Organization and contributing to the QUEST Leibniz Research School . His research focuses on microgravity engineering , with expertise in additive manufacturing processes under space conditions, laser-based material processing, and advanced experimental facilities. Key projects involve developing in-space manufacturing technologies like laser metal deposition and ultrasonic levitation systems, alongside gravitational physics experiments using atom interferometry. Lotz’s work spans the Exzellenzcluster PhoenixD and HITec – Hannover Institute of Technology , emphasizing interdisciplinary collaboration. His facility innovations, such as the Einstein-Elevator, enable studies from 0g to 5g environments, supporting both academic and applied research in space technologies.

• Interfacial Transport
• Complex Wetting
• Heat Transfer
• +5 more

Dr. Tatiana Gambaryan-Roisman is an Adjunct Professor (Apl. Prof.) at Technische Universität Darmstadt, where she leads the research group Interfacial Transport and Complex Wetting . She holds a D.Sc. in Mechanical Engineering from Technion and completed her habilitation in Heat Transfer at TU Darmstadt. Her research explores interfacial phenomena, including droplet dynamics, evaporation/condensation, and heat transfer enhancement using nanostructured surfaces. Her work integrates experimental and computational methods to study: Drop impact on heated/deformable substrates Marangoni convection in thin films Wetting of porous and textured materials Nanoparticle assembly and battery interface engineering Recent publications focus on droplet coalescence, evaporation kinetics, and lithium-ion battery interfaces, demonstrating consistent innovation in thermal-fluid sciences. She coordinates EU projects like nanoPaInt and has led the Emmy Noether Research Group. Awards include: Ralf-Dahrendorf Prize for European Research (2019) Emmy Noether Grant (2002–2009) Minerva Fellowship (1998–2000) She serves on editorial boards for Experimental Thermal and Fluid Science and Current Opinion in Colloid & Interface Science , and organizes international conferences like Droplets 2021.

• Interfacial Phenomena
• Fluid Dynamics
• Multiphase Flow
• +3 more

Karin Schwarzenberger is a researcher at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR), leading the group for Interfacial Phenomena within the Department of Transport Processes at Interfaces. She has held positions at TU Dresden, including post-doctoral work and temporary leadership of projects during academic leave periods. Her research focuses on interfacial dynamics, multiphase flow, and pattern formation in fluid systems. PhD in Experimental Investigations on Stationary Solutal Marangoni Instability (2015) Diploma in Process Engineering from TU Dresden (2010) Her work spans topics such as particle interactions at interfaces, magnetic separation of ions, foam fractionation, and reaction front dynamics. Recent publications emphasize coacervation, bubble behavior, and microgravity effects. She combines experimental methods with numerical simulations to study fluid systems. Notable publication trends include applications in materials science, chemical engineering, and environmental engineering, with subfields like surfactant-polymer interactions, direct laser patterning, and dissipative structures. Her research has implications for resource technology and industrial processes. She has worked at TU Dresden's Faculty of Mechanical Engineering and Helmholtz Institute Freiberg for Resource Technology. Current affiliations include the HZDR's Fluid Dynamics Institute. No scientific awards or student advisement details are publicly listed.

Christopher NeuhausView profile

Adjunct Professor

• Anesthesiology
• Patient Safety
• Medical Simulation
• +5 more

Prof. Christopher Neuhaus is a Deputy Medical Director and Senior Physician in the Department of Anesthesiology at Heidelberg University Hospital. As an adjunct professor at Heidelberg University’s Medical Faculty, he specializes in patient safety, simulation-based training, and human factors in healthcare. He leads the Heidelberg Anesthesiology and Emergency Simulation Center (HANS) and the Patient Safety and Simulation Working Group. His roles include overseeing anesthesia services for general, visceral, and transplant surgery. He has extensive experience in critical incident analysis, contributing to national and international guidelines on patient safety, including standards for in-flight medical emergencies and spaceflight CPR. Neuhaus holds advanced qualifications in human factors and systems safety, and has directed the European Patient Safety Masterclass since 2019. His research emphasizes interdisciplinary crisis management, obstetric teamwork dynamics, and medical device safety. Education & Career : Completed his habilitation (2020) on human factors in anesthesiology and earned a Master’s in Human Factors and Systems Safety (2019). Served as Head of Anesthesia at the Heidelberg Head Clinic (2016–2021) and has held leadership roles in the German Society of Aerospace Medicine (DGLRM) and European Society of Anaesthesiology and Intensive Care (ESAIC). Key Contributions : Developed the eGENA decision aid for anesthesia crises, led studies on ventilation device safety, and pioneered CPR protocols for microgravity environments. His work bridges clinical practice, simulation training, and aerospace medicine to enhance perioperative and emergency care safety.

Janik WoltersView profile

Professor

• Quantum Communication
• IT Security
• Quantum Memories
• +4 more

Professor Janik Wolters is an ECDF-Professor for "Physical Foundations of IT Security" at Technische Universität Berlin, affiliated with the German Aerospace Center (DLR) and the Einstein Center Digital Future (ECDF). His research focuses on quantum communication security, quantum memories, and hybrid quantum systems. Wolters studied physics at TU Berlin and earned his doctoral degree in experimental physics from Humboldt-Universität zu Berlin. He worked in experimental quantum optics groups at Humboldt-Universität, TU Berlin, and the University of Basel. His research explores quantum memories, quantum light sources, and techniques to overcome the 100-kilometer limitation in quantum communication via quantum repeaters. Recent work includes mobile quantum memory systems, space-based quantum technologies, and machine learning integration in optical quantum memory experiments. Key article trends highlight advancements in quantum memory architectures, hybrid quantum systems combining semiconductor quantum dots with atomic vapors, and applications of quantum communication in space. His publications span quantum optics, quantum information theory, and experimental physics. Scientific awards include the Marie Skłodowska-Curie Individual Fellowship. He is based at the DLR Institute for Optical Sensor Systems and collaborates extensively with ECDF and international labs.

Gerrit NandiView profile

Professor

• Physics
• Mathematics
• Simulation Technology
• +2 more

Prof. Dr. Gerrit Nandi serves as a Professor and Program Director for Industrial Engineering at Duale Hochschule Baden-Württemberg (DHBW) in Heidenheim, Germany. He also holds the position of Scientific Director for the MINT-Akademie (STEM Academy) and the Master's program in Industrial Engineering (CAS) at DHBW Heidenheim. His academic career spans both theoretical physics research and engineering education, bridging the gap between fundamental science and practical engineering applications. Dr. Nandi's educational background includes a physics degree from University of Ulm and University of Leeds (BSc and Dipl. Phys.), followed by doctoral research on ultracold gases at University of Ulm with funding from the German Aerospace Center (DLR). His career path includes time as a development engineer at Carl Zeiss SMT AG working on lithography-optical illumination systems, and teacher training for secondary education in Mathematics and Physics before joining DHBW. His research interests focus on the analysis and simulation of technical systems, with particular expertise in mechanical, thermodynamic, and optical systems. He has made significant contributions to quantum physics research, particularly in Bose-Einstein condensates and ultracold quantum gases. His work in STEM education has led to the development of the MINT-Akademie at DHBW, which focuses on strengthening mathematical and scientific foundational qualifications for engineering students. Dr. Nandi's publication record shows a strong focus on quantum mechanics research between 2004-2010, with his most notable work including the 2010 Science paper on Bose-Einstein Condensation in Microgravity. His research trajectory demonstrates a transition from fundamental quantum physics to applied engineering education and simulation techniques, reflecting his current focus on industrial engineering education. Within DHBW Heidenheim, Dr. Nandi actively participates in several committees including the Local Senate (as a full member since 2017), the Foreign Affairs Committee, and the Committee for Studies and Teaching. He leads the cosh-network (Cooperation School University) which connects secondary schools with the university to strengthen STEM education pathways. His teaching portfolio is extensive, covering core engineering subjects including Mathematics, Simulation Technology, Statistics, Fluid Mechanics, Technical Mechanics, Thermodynamics, and Wave Theory and Optics. He has also authored the textbook "Vorkurs Physik für Ingenieure" (Physics Preparatory Course for Engineers), published by utb-Verlag in 2016.

• Plant Biology
• Ecology
• Molecular Biology
• +3 more

Martin Schäfer is a Postdoctoral researcher at the Institute of Organismic and Molecular Evolution (iomE), Johannes Gutenberg University of Mainz. His research focuses on plant interactions with biotic and abiotic environments, utilizing molecular biology, biochemistry, and field ecology. He holds a Dr. rer. nat. in Molecular Biology and a Diplom in Biology from Friedrich Schiller University Jena. His work explores phytohormones, primary/secondary metabolites, and defense mechanisms in plants. He is affiliated with the Xu Lab (Evolutionary Plant Sciences) and Huber Lab (Plant Evolutionary Ecology). Recent studies include genome-wide association studies in duckweeds, transgenerational plasticity in plant defense, and herbivory impacts on plant fitness. His research bridges ecological and molecular approaches, addressing questions in plant adaptation and stress responses. Labs/Teams: Xu Lab (Evolutionary Plant Sciences), Huber Lab (Plant Evolutionary Ecology). No awards listed. No advisees/students explicitly mentioned.

Mike SchwarzView profile

Professor

• Semiconductor Device Physics
• Schottky Barrier Transistors
• Compact Modeling
• +5 more

Professor Mike Schwarz is a faculty member at the Technical University of Mittelhessen (THM), where he holds a position in the Department of Electrical Engineering and Information Technology. He has been serving as Professor for Embedded Systems and Simulation since October 2020. Prior to his academic appointment, he worked at Robert Bosch GmbH as Head of Diode Design and Head of Process and Device Simulations MEMS from 2016-2020, and as a MEMS Sensor Design & Simulation Engineer from 2013-2020. His educational background includes a Doctor of Philosophy from Universitat Rovira i Virgili, Tarragona, Spain (2009-2012), where he completed his dissertation on "Two-Dimensional Analytical Predictive Modeling of Schottky Barrier SOI and Multi-Gate MOSFETs." He also holds a Master of Engineering from the same institution (2008-2009) and a Diploma in Engineering from Gießen-Friedberg University of Applied Sciences (2003-2008). Professor Schwarz's research spans semiconductor device physics, particularly Schottky barrier transistors and compact modeling, MEMS sensor design, neuromorphic computing using memristive devices, and machine learning applications in complex plasma physics. His recent work shows a clear trend toward applying AI techniques to plasma particle tracking and advancing cryogenic electronics through detailed physics-based modeling of Schottky barrier devices. He has made significant contributions to understanding device behavior at deep cryogenic temperatures, which has implications for quantum computing applications. His publication record demonstrates consistent productivity across multiple venues, with recent articles appearing in Solid-State Electronics, Machine Learning & Knowledge Extraction, New Journal of Physics, and Nano Futures. His work bridges theoretical device physics with practical applications in sensor technology and neuromorphic computing. Best paper honorable mention award LAEDC conference, Guatemala 2024 IEEE Transactions on Electron Devices List of Golden Reviewers 2015, 2012 IEEE Electron Devices Letters List of Golden Reviewers 2017, 2015 Awarded for the second best dissertation of the year (DEEEA, URV) 2013 Doctorate with distinction 2012 Awarded the Friedrich Dessauer Prize (best diploma thesis of the year) 2008 Professor Schwarz serves on multiple IEEE committees, including as Editor for IEEE Transactions on Electronic Devices since 2025, and as Chair of the IEEE EDS Germany Chapter from 2020-2025. He has been actively involved in organizing the Symposium Schottky Barrier MOS Devices since 2016 and has served on technical program committees for MIXDES and other conferences. His professional activities demonstrate strong engagement with both academic and industrial communities in semiconductor device research.

• Solidification Processes
• Materials Science
• Non-equilibrium Solidification
• +3 more

Prof. Dr. Florian Kargl is a Universitätsprofessor and Deputy Director of the Institute for Materials Physics in Space at the German Aerospace Center (DLR). He leads the Grundlagen der Erstarrung (Fundamentals of Solidification) research group, focusing on microgravity-enabled materials science and solidification processes. Affiliation: DLR Institute for Materials Physics in Space, Cologne Key Research Areas: Non-equilibrium solidification, electromagnetic levitation (EML), thermophysical properties of metallic liquids Projects: ISS-EML experiments, MAPHEUS rocket program, Helmholtz Young Investigator Group 'DataMat'

• Cognitive Psychology
• Motor Learning
• Aging and Cognition
• +3 more

Otmar Leo Bock is a Professor at RWTH Aachen University, affiliated with the Institute for Training Science and Sports Informatics. His research focuses on cognitive and motor performance across the lifespan, with particular emphasis on aging, working memory, and attention mechanisms in sports and daily activities. Primary affiliation: Institute for Training Science and Sports Informatics, RWTH Aachen University Collaborators: Jens colleagues like Markus Kempe, Daniel Memmert, and others His research explores: Age-related cognitive and motor changes in dual-task scenarios Applications of fNIRS in studying brain activation during walking Effects of working memory training on intelligence Attention window measurement and peripheral attention in sports Mental chronometry in ecological contexts Impact of age stereotypes on older workers' performance Publication trends (2011-2015) show interdisciplinary work combining neuroscience, psychology, and sports science, with methodologies spanning laboratory experiments, ecological studies, and space medicine applications. Ongoing collaborations include researchers from Institute for Movement and Sports Gerontology and Psychological Institute. His work has been cited 147 times, with 287 readers on Mendeley.