Find Academic Supervisors

• Philosophy of language
• Philosophy of art
• Aesthetics
• +6 more

Tomáš Koblížek is a researcher at the Department of Analytical Philosophy of the Institute of Philosophy, Academy of Sciences of the Czech Republic in Prague, where he has been a member since 2011 and Deputy Head since 2020. He completed his Ph.D. in Comparative Literature at the Faculty of Arts, Charles University (2008–2014) and his Master’s degree at the same faculty (2002–2008). He has held visiting positions at École normale supérieure and CNRS in Paris (as Professeur invité in 2022), Institut Jean-Nicod , Institut des Textes et Manuscrits Modernes , University of Washington in Seattle, and St Mary's University College in London. His research straddles the philosophy of language and philosophy of art , converging on ethics and political philosophy . Core topics include hate speech, disinformation, propaganda, censorship, freedom of speech, ethical assessment of controversial artworks, and the cognitive and affective dimensions of aesthetic experience . Among his notable works are the French monograph La conscience interne de la langue (2021), the edited volume The Aesthetic Illusion in Literature and the Arts (2017), and the article Ethical Flaws in Artworks (2022). His publications investigate how language can inflict harm, how art can be morally problematic, and how aesthetic and ethical values interact. Scientific awards include the Josef Hlávka Prize (2011) and the Director’s Award for science popularisation (2022). He coordinates international workshops and conferences, serves on evaluation committees for Czech and European grant agencies, and is an active member of editorial boards and scientific councils such as Revue Reflexe and CEFRES Scientific Board . His current grants include the bilateral CAS-Polish Academy project Bridging a Divide (2024–2026) and participation in the Czech OP JAK CoRe consortium (2023–2028). Planned studies focus on anonymity in hate speech, pragmatic theories of hate speech, conspiracy theories, and revised models for balancing free speech. Since 2011 he has organised numerous visiting lectures by foreign scholars at the Institute and hosts regular public lectures on aesthetics and the ethics of language.

David BirchView profile

Associate Professor

• Aerodynamics
• Fluid Metrology
• Experimental Aerodynamics
• +3 more

Dr. David Birch is an Associate Professor of Aerospace Engineering and Head of the Centre for Aerodynamics & Environmental Flow at the University of Surrey. He holds roles as Director of Research at Surrey Sensors Ltd., a Sustainability Fellow at the Institute for Sustainability, and Visiting Lecturer at Imperial College London. His expertise spans experimental aerodynamics, fluid metrology, and turbulent vortex flows. Education: B.Eng., M.Eng., Ph.D. (McGill University, 1999–2005), and a Post-Graduate Certificate in Academic Practice (University of Surrey, 2011). Research focuses on advanced measurement techniques, wind tunnel calibration, turbulence, and urban environmental flows. Key projects include the 'Smart Cube' wind tunnel model and the EPSRC-funded 'Managing Air for Green Inner Cities.' Publications emphasize wind tunnel corrections, sensor development, and fluid dynamics. His work bridges academia and industry, with collaborations at QinetiQ, Airbus, and King's College Hospital NHS Trust.

John VidaleView profile

Professor

• Earthquake Science
• Geophysical Hazard Mitigation
• Earth Structure
• +1 more

John Vidale serves as Dean's Professor of Earth Sciences at the University of Southern California. His research investigates earthquake processes, Earth structure analysis, and geophysical hazard mitigation strategies. Former director of seismic networks including SCEC and PNSN. Research focuses on inner core dynamics, seismic wave propagation, and earthquake forecasting systems. Recent publications examine core-mantle boundary phenomena, deep-focus earthquakes, and planetary rotation variations.

• Seismology
• Geophysics
• Wavefield Analysis
• +3 more

Dr. Xiaolong Ma is a Postdoctoral Fellow at the Research School of Earth Sciences (RSES) , Australian National University, specializing in observational seismology. He graduated with a B.Sc. in Geo-information Science and Technology from Zhejiang University (2007-2011) and earned his Ph.D. in Seismology from the Chinese Academy of Sciences (2011-2017). His research focuses on correlation seismology, seismic scattering, and waveform modeling to investigate Earth's structure, particularly the lowermost mantle and core-mantle boundary. Primary Affiliation: Research School of Earth Sciences, Australian National University Previous Affiliation: Institute of Geophysics, Münster University His recent work leverages coda-correlation wavefields to probe the Earth's outer core and refine radial velocity models. Publications highlight small-scale heterogeneities, ultra-low velocity zones, and crustal attenuation mechanisms in regions like the Tien Shan and Pacific LLSVP.

Louis MoresiView profile

Professor

• Geophysics
• Geodynamics
• Mantle Convection
• +5 more

Prof Louis Moresi is a Professor at the Research School of Earth Sciences, Australian National University. His research focuses on the thermal-mechanical evolution of the Earth's deep interior, particularly mantle convection, plate tectonics, and lithospheric dynamics. He develops computational tools like the Underworld software suite to simulate geodynamic processes, emphasizing open-source practices and reproducible research. Education: DPhil (PhD) in Geophysics, University of Oxford BA (Honors) in Natural Sciences, University of Cambridge Research Interests: Prof Moresi investigates how convective heat loss from the Earth's mantle manifests as plate tectonics, the role of continents in modulating this process, and the interplay between surface processes (e.g., climate change) and deep Earth dynamics. His work integrates numerical modeling, open-source software development, and geodynamic theory to address questions about continental collision, subduction zone dynamics, and lithospheric rheology. Awards: Fellow, Australian Academy of Science (2023) Fellow, American Geophysical Union (2017) Fellow, Royal Astronomical Society (2000) Advising & Grants: He supervises research students and leads projects funded by grants such as "How Large Earthquakes Change Our Dynamically Deforming Planet" (2024–2027). His work includes collaborations on seismic imaging (e.g., Eyre Peninsula Nodal Array) and computational infrastructure for geodynamic modeling (SAM Underworld software system). Labs/Teams: Prof Moresi is a core developer of the Underworld software framework, a collaborative effort advancing numerical geodynamic modeling through Python-based tools for high-performance computing and cloud deployment.

Héctor J. García-RamírezView profile

Lecturer

• Computer Science Education
• Programming Pedagogy
• Data Structures
• +2 more

Héctor J. García-Ramírez is a Lecturer II in Computer Science and Engineering at the University of Michigan's College of Engineering, concurrently serving as Staff R&D Lead for Applied Machine Learning at Criteo. His instructional portfolio includes core computer science courses: ENGR 101 (Introduction to Programming), EECS 183 (Elementary Programming Concepts), EECS 280 (Programming and Introductory Data Structures), EECS 281 (Data Structures and Algorithms), and EECS 282 (Information Systems Design). Research intersects computer science education pedagogy and applied machine learning, with publications spanning quantum computing simulation, algorithm development, and biochemical systems modeling. Early career contributions developed high-performance simulation tools for quantum circuits, while recent industry work advances machine learning applications in digital advertising technology. Technical expertise includes quantum algorithm design, computational optimization methods, and high-performance computing architectures, with parallel interests in biological systems modeling and computational biochemistry. Professional background bridges academic instruction with industry R&D leadership in machine learning systems.

Samy GobaaView profile

Researcher

• Bioengineering
• Microfluidics
• Organ-on-Chip Technology
• +3 more

Dr. Samy Gobaa is the Head of the Biomaterials and Microfluidics Core Facility at Institut Pasteur in Paris, France. He obtained his PhD from ETH Zurich and completed postdoctoral training at EPFL-IBI . Specializes in microfluidics, organ-on-chip technology, and 3D cell culture Leads 15+ research projects including the Organ-on-Chip Center and iLite bioartificial liver Developed artificial niche microarray for stem cell research His research focuses on: Engineering advanced cell microenvironments using microfluidics Developing human emulation systems for infection biology Creating bioengineered diagnostic tools for pathogen studies Optimizing organoid culture systems with controlled architecture Key technological platforms under his leadership include: Emulate Organ-on-Chip systems (Liver, Intestine, Lung) Custom micropatterning and hydrogel fabrication Computational fluid dynamics simulation (COMSOL) Automated cell culture systems in BSL2/BSL3 environments He supervises multiple PhD candidates and collaborates with international partners. Contact: bmcf.admin@pasteur.fr or samy.gobaa@pasteur.fr

Timothy WaiView profile

Assistant Professor

• Mitochondrial Biology
• Mitochondrial Dynamics
• Metabolic Diseases
• +7 more

Timothy Wai is a Principal Investigator at the Institut Pasteur in Paris, affiliated with the Cell Biology & Infection department. He leads research on mitochondrial dynamics and their implications in metabolic and neurodegenerative diseases. His work is supported by major grants including FRM, ANR, and ERA-CVD. Institution: Institut Pasteur Department: Cell Biology & Infection Research Focus: Mitochondrial Biology, Metabolic Diseases, Neurodegeneration His research interests center on mitochondrial fission and fusion, cellular metabolism, and their roles in diseases such as hepatic steatosis, cardiomyopathy, and mitochondrial disorders. He investigates how mitochondrial dynamics influence cellular physiology and disease progression, with a strong emphasis on molecular mechanisms. The recent publications show a consistent focus on mitochondrial regulation in liver and heart diseases, neurodegeneration, and immune cell function. Key themes include mitochondrial membrane integrity, metabolic reprogramming, and genetic mutations affecting mitochondrial proteins. The work spans from basic molecular mechanisms to translational models. Timothy Wai has not been listed with any specific scientific awards in the provided text. He mentors research projects and collaborates across disciplines, particularly within the INCEPTION program, which integrates data science and biology. He has not published a list of advisees, but leads multiple funded research initiatives. He is involved in core facilities and collaborative platforms at the Institut Pasteur. He is associated with research teams and platforms including the Cell Biology & Infection department, the INCEPTION convergence institute, and participates in seminars and conferences as an active researcher.

Konstantin BatyginView profile

Professor

• Planetary Astrophysics
• Solar System Formation and Evolution
• Exoplanet Dynamics
• +4 more

Dr. Konstantin Batygin is a Professor of Planetary Science at the California Institute of Technology’s Division of Geological and Planetary Sciences. His research focuses on planetary astrophysics, with an emphasis on solar system formation, exoplanet dynamics, and chaos theory. He is renowned for his work on the hypothetical Planet Nine and its influence on trans-Neptunian objects. Research interests include: Formation and evolution of planetary systems Circumplanetary disk dynamics and satellite formation Tidal interactions in exoplanetary systems Chaotic orbital mechanics and resonances Recent work explores tidal heating effects in sub-Neptunes, Jupiter’s inner moons’ migration, and interstellar object capture mechanisms. His team leverages analytical models and numerical simulations to address these topics. Key contributions include proposing Planet Nine’s existence, studying the stability of compact exoplanet systems, and modeling circumplanetary disk evolution. Collaborations span observational and theoretical astrophysics, with a focus on bridging gaps between solar system and extrasolar planet research.

Stefan WestermannView profile

Professor

• Molecular Genetics
• Cell Biology
• Chromosome Segregation
• +7 more

Prof. Dr. Stefan Westermann is a Full Professor of Molecular Genetics at the University of Duisburg-Essen, Faculty of Biology, and leads the Molecular Genetics I research group at the Center of Medical Biotechnology (ZMB). He is actively involved in the DFG-funded Collaborative Research Centre 1430, focusing on the molecular control of kinetochore-microtubule interactions during cell division. His work bridges biochemical reconstitution, yeast genetics, and advanced fluorescence microscopy to dissect the mechanisms of chromosome segregation. Stefan Westermann's research centers on understanding how genomes are accurately passed from one cell generation to the next. His laboratory investigates two core questions: (1) How are kinetochores constructed to enable precise chromosome segregation in eukaryotic cells? This involves detailed functional and biochemical reconstitution of the budding yeast kinetochore. (2) How are microtubules organized and regulated to move chromosomes? His team studies molecular motors, plus-end tracking proteins, and other microtubule-associated proteins to understand their roles in mitosis. The group employs a multidisciplinary approach combining in vitro biochemical reconstitution , yeast genetics , and advanced fluorescence imaging techniques such as total internal reflection microscopy and dynamic microtubule assays. The recent publications (2023–2025) reveal a strong trend in dissecting protein complexes at the kinetochore-microtubule interface, including regulation by phosphorylation, assembly of the Dam1 and Ndc80 complexes, and the role of EB1 and kinesins in spindle dynamics. His work increasingly integrates structural insights, chemical biology tools (e.g., molecular tweezers), and systems-level analysis of microtubule networks, demonstrating a shift toward mechanistic and therapeutic exploration of mitotic fidelity. Stefan Westermann leads an active research group with several scientific coworkers such as Dr. Kerstin Killinger, Richard Pleuger, and Christian Cozma. He is principal investigator of Project A01 in CRC 1430, which investigates the molecular control of kinetochore-microtubule interactions at the metaphase-anaphase transition. While specific grant amounts are not listed, his ongoing involvement in DFG-funded projects indicates sustained external funding. He has previously led an independent group at the Research Institute of Molecular Pathology (IMP) in Vienna and conducted postdoctoral work at UC Berkeley. His laboratory is embedded within the Center of Medical Biotechnology (ZMB), a collaborative research environment at the University of Duisburg-Essen focused on molecular and chemical cell biology, oncology, and immunology. The group benefits from central facilities and interdisciplinary interactions within the ZMB and CRC networks.

• Density Functional Theory
• Materials Science
• Computational Physics
• +7 more

Stefaan Cottenier is a Professor at Ghent University holding an OCAS endowed chair position. His email address (stefaan.cottenier@ugent.be) confirms his primary affiliation with this Belgian institution. He maintains an active research profile with numerous publications in high-impact journals and regularly presents at international conferences. Professor Cottenier's research spans multiple domains within computational materials science, with a strong focus on Density Functional Theory (DFT) applications. His work encompasses hyperfine interactions, nuclear materials for fusion reactors, Earth's inner core modeling, and the application of machine learning to materials science problems. He has developed significant expertise in error analysis for DFT calculations and has contributed to benchmarking standards for computational materials science. His recent publications reveal a consistent trend toward interdisciplinary research connecting fundamental physics with practical applications. He has made notable contributions to understanding hydrogen transport in metals, thermoelectric materials, battery cathode materials, and the computational verification of DFT implementations. His work often bridges theoretical calculations with experimental validation, particularly in the field of hyperfine interactions where his group has developed specialized methodologies. Professor Cottenier is a prominent figure in the computational materials science community, evidenced by his numerous invited talks at international conferences and workshops. His leadership in the Delta project for DFT benchmarking has positioned him as a key contributor to establishing standards for computational accuracy in the field. While specific awards aren't listed in the available information, his publication record in top journals like Nature Reviews Physics and Science demonstrates significant recognition from his peers. His research group appears to focus on high-impact problems in materials science with applications ranging from energy production (fusion reactors) to advanced electronics (quantum dots, 2D materials). The collaborative nature of his work is evident from the large number of co-authors across different institutions, suggesting strong international connections and interdisciplinary teamwork. His YouTube channel featuring conference talks indicates an active engagement with the broader scientific community through knowledge dissemination.

Konstanze F. WinklhoferView profile

Professor

• Neurodegeneration
• Ubiquitin system and proteostasis
• Mitochondrial biology and stress signaling
• +4 more

Professor Konstanze F. Winklhofer is a full Professor of Molecular Cell Biology at the Institute of Biochemistry and Pathobiochemistry, Faculty of Medicine, Ruhr University Bochum, Germany. She additionally serves as Vice-Speaker of the Research Department of Neuroscience and heads the Winklhofer Lab, which is equipped with state-of-the-art imaging core facilities including super-resolution microscopy, lattice-SIM, holotomography, and high-content screening platforms. Education & Career: Current: Professor (W3) at Ruhr University Bochum, Faculty of Medicine, Institute of Biochemistry and Pathobiochemistry. Role: Vice-Speaker, Research Department of Neuroscience. Research Focus: The Winklhofer laboratory investigates molecular, cellular, and systems-level mechanisms underlying neurodegenerative diseases. Central themes include: Ubiquitin system & proteostasis: understanding how linear ubiquitination and E3 ligases such as Parkin and LUBAC control neuronal integrity. Mitochondrial biology: deciphering mitochondria-centric stress response pathways, inter-organellar communication, and innate immune signaling (NF-κB axis). Phase separation & condensate biology: studying how proteins such as NEMO, α-synuclein, and prion protein undergo liquid-liquid phase separation and how this impacts aggregation and clearance by autophagy. Advanced imaging: exploiting super-resolution microscopy (SIM, PALM/dSTORM), live-cell lattice-SIM, FRAP/FRET, and holotomography to visualize dynamic cellular processes in real time. Publications & Trends: Across more than 150 peer-reviewed articles since 2000, the group has progressively shifted from elucidating basic ubiquitin biochemistry to integrating these insights with emerging concepts of phase separation and mitochondrial signaling hubs. Recent high-impact works (2023-2025) in Nature Communications , EMBO Journal , Cell , and Life Science Alliance highlight novel roles for NEMO, PACRG, and LUBAC in aggregate clearance and neuroinflammation. Scientific Awards: No specific awards detailed in the provided text. Funding & Collaborations: The lab is funded by the German Research Foundation (DFG) through major consortia including: RESOLV Cluster of Excellence (EXC 2033) SPP2453 “Integration of mitochondria into the cellular proteostasis network” FOR2848 “Nanoscale Architecture and Heterogeneity of the Mitochondrial Inner Membrane” RTG2862 “Monoaminergic Neuronal Networks and Disease” IMPRS for Living Matter Lab & Imaging Core: The Winklhofer group operates an open-access Imaging Facility housing Zeiss Elyra PS.1, Elyra7 Lattice-SIM, Nanolive CX-A holotomography, Cytation 5 MPW multimode reader, and Sapphire Biomolecular Imager. Custom pipelines in Imaris and CellProfiler enable advanced segmentation, particle tracking, and machine-learning-assisted analysis.

David KeaysView profile

Professor

• Sensory Neuroscience
• Developmental Neuroscience
• Magnetoreception
• +3 more

Prof. David Keays serves as Chair of Organismal and Developmental Neurobiology within the Faculty of Biology at Ludwig Maximilian University of Munich (LMU). He leads the Keays Lab, a core component of the Munich Center for Neurosciences (MCN) and Graduate School of Systemic Neurosciences (GSN), where he also holds a Scientific Board position. His research integrates advanced methodologies including 2-photon imaging, electrophysiology, and CRISPR/Cas9 genome editing to address fundamental questions in sensory and developmental neuroscience. Keays' research focuses on three interconnected domains: the biophysical mechanisms of animal magnetoreception, the role of microtubule mutations in neurodevelopmental disorders, and the evolutionary neurobiology of monotremes. His lab employs reductionist experimental approaches to investigate how magnetic fields are detected, how tubulin mutations disrupt neuronal migration, and why egg-laying mammals possess unique neural architectures. This work spans molecular genetics, cellular imaging, and comparative neuroanatomy. Analysis of Keays' recent publications (2019-2025) reveals dominant research trajectories in avian magnetoreception mechanisms and tubulin-related neuropathologies. Key themes include cryptochrome protein function, iron-based magnetic sensing structures, and the developmental consequences of tubulin mutations. His work bridges quantum biology, clinical neurology, and evolutionary neuroscience, demonstrating consistent innovation in both conceptual frameworks and technical methodologies. Scientific awards and honors are not documented in the available source materials. Keays mentors doctoral candidates including Patrick Heisterkamp, Carolina Duro, Alexandra Vilceanu, and Thamari Kapuruge. His research program receives competitive funding, though specific grant details are not provided in the source texts. The lab actively contributes to graduate training through the GSN and maintains rigorous standards for data integrity and publication ethics. The Keays Lab operates within LMU's Neurobiology department, maintaining specialized facilities for 2-photon imaging, single-cell sequencing, and transgenic model development. The team collaborates extensively with MCN and GSN affiliates, utilizing cerebral organoid systems and quantum magnetic imaging to advance understanding of sensory processing and neurodevelopment. Current infrastructure supports high-resolution in vivo imaging and molecular manipulation of neural circuits.

Douglas HoustonView profile

Professor

• Cell and Developmental Biology
• Neurobiology
• Vertebrate Development
• +3 more

Douglas Houston is a Professor in the Department of Biology at the University of Iowa, where he also serves as Director of the Developmental Studies Hybridoma Bank (DSHB). He holds a PhD from the University of Miami. His research investigates vertebrate developmental mechanisms, with a focus on maternal signaling pathways, RNA localization, and cytoskeletal dynamics in Xenopus models. Key areas include cortical rotation, Wnt signaling activation, and the role of asymmetrically localized mRNAs in embryonic axis formation. His work spans Cell and Developmental Biology and Neurobiology , emphasizing molecular regulation of early embryogenesis. Research integrates genetic, biochemical, and imaging approaches to dissect mechanisms of dorsal axis specification and neural development. Recent studies explore antibody validation protocols to enhance biomedical research reproducibility. Houston directs the DSHB, a core facility supporting antibody-based research globally. The lab employs Xenopus laevis and Xenopus tropicalis for functional genomics, including CRISPR-based editing and maternal mRNA manipulation techniques.

Paul GuichardView profile

Associate Professor

• Structural Cell Biology
• Centriole Architecture
• Expansion Microscopy
• +3 more

Dr. Paul Guichard is an Associate Professor at the University of Geneva's Department of Molecular and Cellular Biology. His research focuses on deciphering the structural mechanisms governing centriole assembly through multidisciplinary approaches including cryo-electron tomography, expansion microscopy, and in vitro reconstitution assays. Current research projects: Centriole structure/function, Expansion Microscopy developments, Ciliopathy & Eye diseases, Immune Synapse Architecture, Molecular conoid studies, Plankton ultrastructural diversity The lab's recent work (2020-2024) has revealed key insights into centriole cohesion, microtubule organization, and protein complexes critical for ciliogenesis. Their structural analyses of centriole components across species (Paramecium, Chlamydomonas, Trichonympha) highlight evolutionary conservation. Key techniques: Cryo-ET, U-ExM, in vitro assays, 3D reconstruction Funding: Fondation privée des HUG (Plasmodium conoid studies)