Find Academic Supervisors

• Immunology
• Inflammatory Bowel Disease
• Gut Microbiome
• +5 more

Dr. Penelope Felipe Pelczar is a research scientist at the I. Medical Clinic and Polyclinic of the University Medical Center Hamburg-Eppendorf, where she conducts cutting-edge research at the intersection of immunology, gastroenterology, and microbiome science. Her work primarily focuses on understanding the complex interactions between the immune system, gut microbiota, and intestinal inflammation, with particular emphasis on inflammatory bowel diseases, colorectal cancer, and the gut-liver axis. As a key member of the Immunology, immunity, infection (C3i) research group and the Neuro-Immune-Network Hamburg, she collaborates extensively with leading researchers including Samuel Huber and Nicola Gagliani. Her research interests span multiple domains of mucosal immunology and host-microbe interactions. Dr. Pelczar investigates how T cell subsets, particularly those producing IL-22, regulate intestinal homeostasis and inflammation. She explores the role of cytokines, microbiota-derived metabolites, and epithelial-mesenchymal interactions in diseases like colitis and primary sclerosing cholangitis. Her work on the gut-liver axis has revealed novel mechanisms connecting intestinal inflammation with liver diseases, while her research on microbiome-host interactions has uncovered how bacterial metabolites influence cancer development and treatment response. Analysis of Dr. Pelczar's publication record from 2016-2025 reveals a consistent trajectory of high-impact research in immunology and gastroenterology. Her work has evolved from foundational studies on IL-22 signaling in inflammatory bowel disease to more complex investigations of the gut-liver axis, microbiome-cancer interactions, and advanced cellular screening techniques. She frequently publishes in top-tier journals including Nature, Science Immunology, and Gastroenterology, demonstrating the significance of her contributions to understanding immune regulation in the gut and its implications for disease pathogenesis and treatment. While specific awards are not documented in the available information, Dr. Pelczar's extensive publication record in high-impact journals and her leadership roles in collaborative research projects indicate significant recognition within her field. Her work has contributed substantially to our understanding of immune regulation in the gut and its implications for inflammatory diseases and cancer. Based on her publication record showing consistent collaborations and first/last author positions on significant papers, Dr. Pelczar likely plays an active role in mentoring junior researchers and securing competitive research funding. Her work appears supported by the institutional infrastructure of the University Medical Center Hamburg-Eppendorf, including access to core facilities for proteomics, animal models, and clinical samples. She is likely involved in multiple collaborative research projects investigating immune mechanisms in gastrointestinal diseases. Dr. Pelczar works within the research ecosystem of the I. Medical Clinic and Polyclinic, which is part of the broader Hamburg research infrastructure including the Hamburg Center of Neuroscience and the Oncological research (UCCH) program. Her work benefits from access to the university's core facilities for proteomics, animal research, and advanced microscopy, enabling her team to conduct sophisticated analyses of immune cell function and host-microbe interactions in health and disease.

Dana BranzeiView profile

Professor

• DNA Repair
• Genome Stability
• Replication Stress
• +3 more

Dana Branzei is a Professor and head of the Department of Biological and Genomic Treatment Approaches at the Research Center One Health within the Faculty of Biology at the University of Duisburg-Essen. She leads a research group investigating DNA repair mechanisms and genome stability. Her work focuses on how cells repair DNA damage, tolerate replication stress, and maintain chromosome integrity through processes integrated with DNA replication machinery (replisome). Her research interests center on molecular mechanisms of DNA damage tolerance, replication fork dynamics, chromosome cohesion, and the role of protein complexes like SMC5/6 in maintaining genome stability. Key areas include error-free DNA repair pathways, SUMOylation in DNA transactions, and the molecular basis of cancer predisposition linked to replication defects. Recent publications (2020-2023) demonstrate strong focus on replication fork protection mechanisms, chromatin remodeling during repair, helicase functions in recombination, and structural analyses of repair complexes. Research consistently bridges fundamental chromosome biology with clinical applications in cancer and neurodegenerative diseases. Scientific Awards: Alexander von Humboldt Professorship (2025) EMBO Membership (2016) FIS grant by Italian Ministry of University and Research (2023) She leads an active research team including postdoctoral fellows, PhD candidates, and master's students. Current lab members focus on replication stress responses, chromatin dynamics, and repair pathway coordination. The laboratory collaborates extensively within the University Alliance Ruhr network.

D. SöffkerView profile

Professor

• Control Theory
• System Dynamics
• Mechatronics
• +5 more

Univ.-Prof. Dr.-Ing. D. Söffker is a University Professor at the University of Duisburg-Essen, Faculty of Engineering, where he leads the Chair of Control, Regulation and System Dynamics since 2001. His work spans multiple institutions including visiting professorships at University of Maryland and Shanghai Maritime University. His educational background includes: 1988: Dipl.-Ing. Mechanical Engineering, Leibniz University Hannover, specialization in General Mechanical Engineering 1995: Dr.-Ing., Department of Safety Engineering, University of Wuppertal 2001: Habilitation in Security Technology/Automation Technology, University of Wuppertal Prof. Söffker's research focuses on modeling, diagnosis and control of elastic mechanical systems , with particular expertise in robust control theory, system diagnostics, and cognitive technical systems. His work bridges theoretical control systems with practical applications in industrial settings, emphasizing human-machine interaction and autonomous system design. He has developed innovative approaches for structural health monitoring and fault detection in complex mechanical systems. Analysis of his recent publications reveals a strong focus on human-centered automation, with increasing attention to cognitive technical systems and human decision-making processes. His work spans from fundamental control theory (robust observers, nonlinear systems) to practical applications in structural health monitoring, wear detection, and process supervision. The interdisciplinary nature of his research connects mechanical engineering, computer science, and cognitive systems. His research group is involved in several key projects: Structural Health Monitoring Security and reliability systems Methods for application in energy production and use Cognitive Technical Systems

Reinhard HentschkeView profile

Professor

• Theoretical Chemical Physics
• Polymer Physics
• Surface Physics
• +12 more

Prof. Dr. Reinhard Hentschke is a Professor of Theoretical Chemical Physics at the Department of Physics, Faculty of Mathematics and Natural Sciences, Bergische University Wuppertal, Germany. He has held this position since 1999 and remains an active academic researcher. Education: MS in Physics, University of Osnabrück, Germany (1983), thesis on 'Auger Neutralization of Slow Hydrogen-Like Ions at Jellium Surfaces'. PhD in Physics, University of Maine, Orono, USA (1987), thesis on 'Application of Conformal Invariance to the Investigation of Second Order Surface Phase Transitions' under Prof. Peter Kleban. Habilitation in Physical Chemistry, Department of Chemistry, Gutenberg University, Mainz, Germany (1996). His research lies at the interface of physics and chemistry, with a strong emphasis on theoretical and computational methods. Early work focused on surface physics and phase transitions. During postdoctoral work at Brandeis and Cornell, he explored reversible molecular aggregation in micellar and protein systems and liquid crystalline behavior. As a staff scientist at the Max-Planck Institute for Polymer Research (1990–1999), he specialized in computer modeling of polymers. His current research at Wuppertal synthesizes these themes, including sorption in polymer networks, self-assembly of equilibrium polymers, dielectric properties of dipolar fluids, algorithm development for molecular modeling, and theoretical problems in elastomer technology. His scientific contributions are grounded in statistical mechanics and computational modeling, with applications across soft matter and materials science. Scientific Awards: No specific awards mentioned in the provided text. He has advised students and led research projects in theoretical chemical physics, though specific advisees are not listed. His work has been supported through institutional affiliations and academic grants typical of a German university professorship. He collaborates within the physics and chemistry communities, particularly in computational soft matter research. He is affiliated with the research group in theoretical chemical physics at Bergische University Wuppertal, located at Campus Grifflenberg. His team focuses on computer simulations and analytical theory development for complex molecular systems.

• Actinide Chemistry
• Coordination Chemistry
• Metal-Organic Chemistry
• +8 more

Dr. Juliane März is a Group Leader of the 'Metal organic actinide chemistry' group at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR), affiliated with the Institute of Resource Ecology and the Department of Chemistry of the f-elements. She has been a key researcher at HZDR since 2014 and was promoted to group leader in May 2022. Her research focuses on the coordination chemistry of low-valent actinides (Th-Pu) using organic ligands, with a strong emphasis on structural characterization , bonding analysis , and redox behavior of actinide complexes in both solution and solid state. She investigates isostructural complex series and explores the electronic structure of f-block elements. The recent publications highlight a consistent trend in actinide coordination chemistry , particularly in Schiff-base and amidinate complexes , metal-organic frameworks (MOFs) , redox-active systems , and separation science . Her work frequently involves advanced spectroscopic and crystallographic techniques, often in collaboration with large-scale facilities like ESRF. Group Leader, 'Metal organic actinide chemistry', HZDR (since 2022) Ph.D. in Inorganic Coordination Chemistry, TU Dresden (2014) Research Associate, HZDR (2014–2022) Dr. März actively supervises multiple PhD and Master’s students and is involved in BMBF-funded projects such as FENABIUM II, f-Char, and FENABIUM. She has no scientific awards listed in the provided text. She leads a research team focused on fundamental actinide chemistry, contributing to nuclear waste management, separation technologies, and the understanding of f-element bonding. Her lab collaborates extensively and utilizes primary research data from HZDR’s facilities.

Nikos PapanikolaouView profile

Researcher

• Causal Machine Learning
• Hybrid Modeling
• AI for Science
• +8 more

Nikos Papanikolaou is a doctoral researcher at the Max Planck Institute for Intelligent Systems in Tübingen and the Max Planck Institute for Biogeochemistry in Jena, Germany. He is affiliated with the Biogeochemical Integration (BGI) department and the Empirical Inference group, focusing on interdisciplinary research that bridges machine learning and Earth system science. His academic background includes a BSc in Physics from the University of Bristol and an MSc in Physics from ETH Zurich . Prior to his current role, he engaged in research and internships in Stuttgart, Basel, and Exeter. Papanikolaou's research interests center on causal machine learning applied to Earth system science . He explores hybrid modeling approaches that integrate data-driven and mechanistic models through structural causal models (Pearl's causal formalism). His previous work in theoretical statistical physics covered active matter, network science, neuroscience , and quantum field theory . He is motivated by interdisciplinary curiosity, aiming to connect theory with real-world impact —for example, improving predictions and quantifying policy decision effects. His genriflow project applies machine learning to music genre classification using features like Chroma, Tonnetz, and Mel spectrogram. He has developed supervised models (CNN, LSTM) and unsupervised approaches (PCA+GMM, autoencoder) with varying success. His GitHub repositories include restflow (renormalization in statistical physics), reaction_diffusion (modeling reaction-diffusion systems), and hyper_AVM (adaptive voter model on hypergraphs), reflecting his engagement with interdisciplinary computational methods. His contact details include an email address: nikos-papanikolaou@hotmail.com . He is based at the Max Planck Institute for Biogeochemistry in Jena, Germany.

• Cognitive Science
• Human-Computer Interaction
• Neuroscience
• +3 more

Benedikt Emanuel Wirth is a Researcher in the Cognitive Assistance Systems department at the German Research Center for Artificial Intelligence (DFKI) in Saarbrücken, Germany. His work focuses on integrating EEG and eye tracking in realistic visual scenes to study human attention and cognitive processes. Email: Benedikt_Emanuel.Wirth@dfki.de Location: Building D3 1, Stuhlsatzenhausweg 3, 66123 Saarbrücken Research Interests: His studies bridge neuroscience , computer vision , and artificial intelligence , aiming to decode human cognitive states in complex environments. Recent publications highlight applications in multimodal interaction and behavioral analysis . Scientific Contributions: The 2024 paper on fixation detection in realistic scenes represents a key focus area, exploring EEG signal processing , visual perception , and cognitive load modeling .

Christoph LenzenView profile

Professor

• Distributed Computing
• Clock Synchronization
• Randomized Load Balancing
• +5 more

Christoph Lenzen is a Professor at CISPA Helmholtz Center for Information Security since July 2021. Previously, he served as a Group Leader at the Max Planck Institute for Informatics (2014-2021), and held postdoctoral positions at MIT CSAIL (2013-2014), Weizmann Institute (2012), and Hebrew University (2011). Research Interests Design and analysis of distributed algorithms Clock synchronization and adversarial fault tolerance Randomized and self-stabilizing systems Hardware algorithms for fault-tolerant systems Grants and Awards ERC Proof-of-Concept Grant (2021) ERC Starting Grant (2017-2022) ETH Zurich Medal for Outstanding Thesis (2011) Education Ph.D. in Computer Science (2011), ETH Zurich Diploma in Mathematics (2007), University of Bonn Teaching Clock Synchronization and Adversarial Fault Tolerance (2022 winter) How To Clock Your Computer (2022 summer) Theory of Distributed Systems (2019 winter, 2020 winter, 2018 winter, 2017 winter, 2016 winter, 2015 winter)

• Biogeochemistry
• Earth System Science
• Climate Modeling
• +3 more

Zayd Mahmoud Hamdi serves as a Geospatial Data Scientist at the Max Planck Institute for Biogeochemistry in Jena, Germany, within the Department of Biogeochemical Integration (BGI). He actively contributes to the Global diagnostic models research group and the STELLA project, focusing on advanced earth system modeling and biogeochemical integration. His research spans biogeochemistry and earth system science with specialized expertise in geospatial data analysis and climate modeling. Dr. Hamdi applies data science methodologies to develop global diagnostic frameworks that enhance understanding of complex environmental processes and biogeochemical cycles. His work emphasizes the integration of observational data with predictive models to address climate change challenges. As a core member of the STELLA project team, he drives innovation in geospatial data integration for earth system models. His technical contributions focus on refining model diagnostics through advanced computational techniques and spatial analysis, supporting the institute's mission to advance biogeochemical research at planetary scales.

• Explainable Artificial Intelligence
• Type-2 Fuzzy Logic Systems
• Computational Intelligence
• +12 more

Hani Hagras is a Professor in the School of Computer Science and Electronic Engineering at the University of Essex, UK , where he leads pioneering research in type-2 fuzzy logic systems and explainable artificial intelligence (XAI) . His work bridges theoretical advances with real-world applications in smart infrastructure, healthcare, telecommunications, and ambient intelligence. His research interests include explainable AI, type-2 fuzzy logic, computational intelligence, machine learning, human-computer interaction, and intelligent systems. He investigates how fuzzy systems can enhance the transparency, robustness, and adaptability of AI models, particularly in uncertain and dynamic environments. His recent work explores applications in genomics, predictive maintenance, and smart grid optimization. The publication trends show a strong focus on integrating fuzzy logic with deep learning and optimization techniques to create interpretable models. His work frequently appears in top-tier journals such as IEEE Transactions on Fuzzy Systems , IEEE Transactions on Artificial Intelligence , and Neurocomputing . He emphasizes real-world applicability, often collaborating with industry partners like BT. ORCID: 0000-0002-2818-5292 He has advised numerous PhD and Master’s students, including Mehrin Kiani, Ashish Bhatia, and Hugo Leon-Garza, many of whose research projects focus on workforce optimization, healthcare AI, and intelligent systems. His research has been supported by major grants, particularly in smart environments and telecommunications. Hani Hagras is actively involved in leading research labs and teams at the University of Essex, including work on augmented reality for field service support, georeferenced data visualization , and ambient-assisted living systems. His team develops fuzzy logic frameworks for real-time decision-making in complex environments.

Emilija PerkovicView profile

Assistant Professor

• Causal Inference
• Graphical Models
• Probabilistic Graphical Models
• +3 more

Emilija Perkovic serves as the Dorothy Gilford Early Career Endowed Professor in Mathematical Statistics within the Department of Statistics at the University of Washington. She joined the department in Autumn 2018 as an Acting Assistant Professor and advanced to a tenure-track Assistant Professor position in Autumn 2020, establishing herself as a core faculty member in statistical methodology. Her academic foundation includes: B.Sc. in Mathematics from the University of Belgrade (2012) M.Sc. in Statistics from ETH Zürich (2014) Ph.D. in Statistics from ETH Zürich (2018) under Professor Marloes Maathuis Perkovic's research pioneers causal inference methodologies through probabilistic graphical models, focusing on intuitive frameworks for causal identification and estimation from observational data. Her work bridges theoretical statistics with practical applications, particularly in covariate adjustment techniques and Markov equivalence class analysis. She actively integrates expert knowledge to refine causal models, making complex inference accessible for real-world data challenges where experimental intervention is impossible. Her publication record reveals a concentrated evolution in causal graph theory, with recent preprints advancing adjustment criteria for diverse graph structures (MPDAGs, MAGs, ancestral graphs). Key trends include developing sound/complete identification rules, efficient estimation techniques under linearity, and minimal effect enumeration in equivalence classes—collectively enhancing robustness in observational causal analysis. Her scientific recognition includes: Best Poster Award, Semantic Statistics (SEMSTAT), Statistical Network Science Workshop (2017) While specific advising details and grant histories remain unreported in source materials, Perkovic's research trajectory indicates active mentorship through co-authored preprints with junior collaborators like Sara LaPlante and F. Richard Guo. Her Dorothy Gilford Endowed Professorship likely supports ongoing methodological innovation in causal statistics. No laboratory or team structures are explicitly referenced in her professional profile, suggesting independent or collaborator-driven research within the Statistics Department framework.

• Network Security
• Cloud Security
• Software Defined Networking Security
• +6 more

Udaya Kiran Tupakula is an Associate Professor in the Department of Computing within the School of Computer, Data and Mathematical Sciences at Western Sydney University. With over two decades of research experience, his work focuses on cybersecurity with particular emphasis on network security, cloud infrastructure protection, and emerging technologies. He has established himself as a leading researcher through extensive collaborations, particularly with Professor Vijay Varadharajan, and has contributed significantly to securing virtualized environments and next-generation networks. Dr. Tupakula's research spans multiple critical areas in cybersecurity. His early work focused on fundamental security challenges like DDoS mitigation and TCP SYN flood attacks, evolving into more complex domains including Software Defined Networking security, cloud security architectures, and IoT protection. Recent research directions include AI security, privacy-preserving machine learning, and securing 5G infrastructure. His approach combines theoretical frameworks with practical implementations, often developing novel security architectures that address specific vulnerabilities in emerging technologies. Analysis of his publication trends shows a clear progression from traditional network security toward more sophisticated systems. His work has increasingly incorporated machine learning techniques for intrusion detection, expanded into industrial control systems security, and recently embraced AI safety challenges. The breadth of his research demonstrates adaptability to evolving security landscapes while maintaining focus on practical, implementable solutions rather than purely theoretical approaches. Dr. Tupakula has mentored numerous researchers who have become active contributors in the cybersecurity field. His collaborative approach is evident in the extensive co-authorship network spanning multiple institutions and countries. His research has been supported by various grants focusing on critical infrastructure protection, cloud security, and next-generation network security. His laboratory work focuses on practical security testing environments for SDN, cloud infrastructure, and IoT systems. Current research directions include securing AI systems from malicious use, enhancing privacy in federated learning environments, and developing more robust security frameworks for industrial control systems. The applied nature of his research ensures close alignment with real-world security challenges faced by industry and government organizations.

Hans Peter SchmidView profile

Professor

• Atmospheric Science
• Climate Research
• Biometeorology
• +2 more

Prof. Dr. Hans Peter Schmid serves as Director of the Institute of Meteorology and Climate Research – Atmospheric Environmental Research (IMK-IFU) at Karlsruhe Institute of Technology (KIT) in Garmisch-Partenkirchen, Germany, while concurrently holding a full professorship at Technical University of Munich (TUM). He actively contributes to the Helmholtz Association's "Earth in Transition" program as both program board member and spokesperson for Topic 1 "The Atmosphere in Global Change," demonstrating leadership in atmospheric environmental science. His academic foundation includes: Geosciences studies at ETH Zurich Doctorate from University of British Columbia, Canada (1988) Research centers on atmospheric dynamics within global environmental change, integrating alpine observational studies with modeling approaches to investigate energy, matter, and momentum exchanges between Earth's surface and atmosphere. His biometeorological expertise, particularly regarding biosphere-atmosphere interactions in complex terrain, drives IMK-IFU's mission to advance understanding of climate system processes. Key recognition includes: Award of Excellence in Biometeorology, American Meteorological Society (2023) As Director of IMK-IFU at KIT-Campus Alpin, he oversees research infrastructure in Garmisch-Partenkirchen's unique alpine environment, though specific student supervision details and grant portfolios remain undisclosed in source materials. The institute functions as a critical hub for atmospheric environmental research within Germany's Helmholtz research framework.

• Ecology
• Theoretical Biology
• Population Dynamics
• +6 more

Dr. Ricardo Martinez Garcia is a researcher affiliated with the CASUS - Center for Advanced Systems Understanding at the Helmholtz Center Dresden-Rossendorf (HZDR) . His work focuses on spatial ecology, population dynamics, and theoretical biology, addressing pattern formation in ecosystems and animal movement behaviors. Specialization: Spatial ecology, mathematical modeling, and eco-evolutionary dynamics Key Contributions: Frameworks for wildlife-vehicle collision risk, nonlocal interaction models, vegetation pattern analysis, and ecosystem resilience studies Contact: Email | Phone: +49 3581 37523 105 | Office: Conrad-Schiedt-Straße 20, Görlitz His recent research emphasizes spatial heterogeneity in ecological systems, with publications analyzing wildlife-vehicle collisions, vegetation patterns, and movement dynamics across fragmented landscapes. He bridges individual-level mechanisms with ecosystem-scale outcomes using computational and mathematical models.

Daniela VallentinView profile

Researcher

• Neural circuits
• vocal communication
• vocal learning
• +6 more

Dr. Daniela Vallentin serves as a Group Leader at the Max Planck Institute for Ornithology in Seewiesen, Germany, and holds a temporary or junior faculty position with the Graduate School of Systemic Neurosciences (GSN) at Ludwig Maximilian University of Munich. Her research focuses on neural circuit mechanisms underlying vocal communication in songbirds, utilizing advanced intracellular recording techniques in behaving animals. Her primary research interests encompass vocal learning processes, social interaction dynamics in songbirds, premotor circuit functionality, and sensorimotor transformations during vocal behavior. She investigates how neural circuits generate precise temporal patterns in vocal communication, with particular emphasis on inhibition-excitation balance in premotor areas and its role in vocal turn-taking and song production. Her work bridges systems neuroscience and behavioral biology to uncover fundamental principles of learned vocal communication. Analysis of her recent publications reveals a consistent trajectory in songbird neuroscience, spanning cellular-level intracellular recordings to population dynamics. Her research demonstrates how premotor circuits encode temporal sequences, how inhibition shapes vocal timing during social interactions, and the neural mechanisms protecting learned song segments. This body of work establishes critical links between neural circuit dynamics and complex vocal behaviors, with implications for understanding vocal learning across species. Dr. Vallentin actively mentors graduate students through the GSN program, including Linda Bistere and Giacomo Costalunga. Her position as Group Leader at the Max Planck Institute indicates substantial research funding supporting her investigations into neural circuit mechanisms of vocal communication. She leads the Research Group Vallentin at the Max Planck Institute for Ornithology, which specializes in neural circuit analysis of vocal communication using zebra finches as a model system. The group employs cutting-edge electrophysiological techniques combined with behavioral analysis to dissect the neural basis of vocal learning, social communication, and sensorimotor integration in naturalistic contexts.