Derek Wilson is a Full Professor in the Department of Chemistry at York University, holding the York Research Chair (Tier 2). His research focuses on protein dynamics and structural biology using advanced mass spectrometry techniques, including time-resolved electrospray ionization (TRESI) and hydrogen-deuterium exchange (HDX-MS). He leads the Wilson Lab, which investigates protein motions, enzyme mechanisms, and interactions with ligands, membranes, and other proteins. His expertise spans analytical and biological chemistry, with a strong emphasis on developing microfluidics-based tools for studying millisecond-to-second timescale processes. Key projects include elucidating the dynamics of antibiotic resistance enzymes (e.g., β-lactamases), intrinsically disordered proteins (e.g., tau in Alzheimer’s), and antiapoptotic proteins (Bcl-2/Mcl-1) involved in cancer. Education: Ph.D. in Chemistry (specific details not listed in text). Awards include the Tier 2 York Research Chair. The lab collaborates widely with institutions like the University of Chicago and St. Jude Children’s Hospital, advancing drug discovery and structural biology. Current students and alumni include researchers studying STAT5b oncogenic mutations, tau protein dynamics, and nanodisc technologies. The lab operates cutting-edge equipment such as the Synapt G2-S HDMS and VersaLaser microfluidic devices.
Markus Upmeier is a Lecturer in Mathematics at the University of Aberdeen, affiliated with the Department of Mathematics within the School of Natural and Computing Sciences. He earned his PhD from the University of Göttingen in 2013 under Thomas Schick and previously held a Simons Collaboration researcher position at the University of Oxford. He is actively involved in the academic community, organizing the Topology Seminar and leading a reading seminar on the Baez-Dolan cobordism hypothesis and ∞-categories. PhD, University of Göttingen, 2013 Simons Collaboration Researcher, University of Oxford Lecturer, University of Aberdeen Markus Upmeier's research lies at the intersection of algebraic topology, index theory, and higher category theory, with applications to moduli spaces in gauge theory and algebraic geometry. His work explores the topological and geometric structures—such as orientations, spin structures, and higher categorical analogues—on moduli spaces arising in theoretical physics. He investigates connections to K-theory, elliptic cohomology, and vertex algebras, particularly through the lens of quantum invariants and bordism theory. His recent publications emphasize homological algebra on moduli spaces, differential cohomology, and integrability in almost Hermitian geometry. The 15 most recent publications highlight a consistent focus on the topology of moduli spaces, particularly concerning orientations, bordism invariance, and index theory. Key themes include twisted K-theory, vertex F-algebras, and the interplay between higher category theory and mathematical physics. His work frequently involves collaboration with leading figures such as Dominic Joyce and integrates deep results from homotopy theory, differential geometry, and algebraic structures. No scientific awards or fellowships were mentioned in the provided text. Markus Upmeier advises no listed students in the provided information. There is no mention of grants or funding sources. However, his role as a seminar organizer and his active publication record suggest significant academic engagement and leadership. His research program is well-defined, bridging abstract homotopy theory with concrete geometric and physical problems. He is involved in the Topology Seminar and leads a reading seminar on ∞-categories and the cobordism hypothesis, indicating an active research group or collaborative environment around higher category theory and its applications.
Roberto Valandro is an Associate Professor in the Department of Physics at the University of Trieste, where he serves on the Department's Board, acts as President of the Joint Board of Studies, and is Vice-Coordinator of the Doctoral Studies Boards for Physics cycles XXXIV through XXXIX. His academic work focuses on theoretical physics, particularly string theory and its applications to fundamental physics. Dr. Valandro leads the 'String Compactifications' research group within the 'Fields and Strings' research strand of Theoretical Physics. His research explores geometric aspects of string theory compactifications, with particular emphasis on singular manifolds, T-branes, and string phenomenology. He investigates how string theory on singular spaces yields important physical phenomena such as non-abelian gauge groups and chiral particles through the geometric engineering paradigm. Valandro's publication record demonstrates expertise across multiple subfields of theoretical physics, with recent work centered on 5-dimensional quantum field theories derived from M-theory, Calabi-Yau orientifolds, and de Sitter string vacua. His research connects abstract mathematical structures in string theory to potentially observable physical phenomena, bridging the gap between theoretical frameworks and experimental physics. As an academic advisor, Valandro mentors PhD students Chiara Crinò, Andrea Sangiovanni, and Davide Bason. He plays an active role in graduate education as Vice-Coordinator for multiple cycles of the Doctoral Program in Physics at the University of Trieste, contributing significantly to the development of the next generation of theoretical physicists. Valandro collaborates extensively with both local researchers including Lorenzo Di Pietro and international colleagues. His work represents an important contribution to the Department of Physics at the University of Trieste, which has a long tradition in theoretical physics dating back to notable figures like Paolo Budinich and Luciano Fonda, and which has contributed to the establishment of prestigious institutions in Trieste including the Abdus Salam International Center of Theoretical Physics (ICTP) and the International School for Advanced Studies (SISSA).
Xenia de la Ossa is a Professor of Mathematical Physics at the Mathematical Institute of the University of Oxford, actively contributing to high-impact research in mathematical physics and string theory through publications in journals such as Journal of High Energy Physics and Communications in Mathematical Physics. Her research encompasses: Mathematical Physics and Theoretical Physics Geometry: Differential Geometry, Algebraic Geometry, and Arithmetic of Calabi-Yau Manifolds String Theory: Conformal Field Theories, Heterotic Strings, and Compactifications Moduli spaces and superpotentials in string theory Analysis of her 2014-2025 publications reveals sustained focus on heterotic string moduli, G2 holonomy manifolds, and Calabi-Yau invariants, with recent work bridging number theory via L-values and exploring SW-algebras in string contexts through collaborations with leading researchers. She is an integral member of the Mathematical Physics research group at the University of Oxford's Mathematical Institute, advancing theoretical frameworks at the intersection of mathematics and physics.
Professor Jonathon Pines is the Chris Marshall Chair of Cell Biology at The Institute of Cancer Research (ICR), University of London, and serves as Head of the Division of Cancer Biology. Since moving to ICR in 2015, he has led a research programme focused on understanding how cells divide and how the machinery controlling mitosis is regulated in space and time. Education & Career: PhD under Sir Tim Hunt—first to clone cyclin B, a key regulator of mitosis. Postdoctoral training at the Salk Institute in Tony Hunter’s lab—cloned first human cyclins A and B1 and initiated studies on cell-cycle protein interactions. Established independent laboratory at the Gurdon Institute, University of Cambridge, pioneering live-cell imaging of fluorescent protein dynamics to study cell-cycle regulation. Research Focus: His group investigates the spatial and temporal control of mitosis, with particular emphasis on the spindle assembly checkpoint, APC/C ubiquitin ligase, cyclin degradation, and the maintenance of genomic stability. Recent work explores how spatial positioning of APC/C and cyclin B1 on mitotic chromosomes ensures timely proteolysis and accurate chromosome segregation. Scientific Recognition: Elected Fellow of the Royal Society (2016) for outstanding contributions to cell-cycle research. Funding & Collaborations: His research has been supported by major grants and extensive national and international collaborations, reflected in co-authored studies across proteomics, structural biology, and live-cell imaging. Laboratory & Team: The Pines laboratory, located in Chelsea, London, integrates advanced microscopy, biochemical reconstitution, and quantitative proteomics to dissect the molecular choreography of mitosis and its implications for cancer biology.
Dirk P. Bohmann, Ph.D. is a part-time Professor in the Department of Biomedical Genetics at the University of Rochester Medical Center , specializing in Drosophila models to study transcriptional stress responses, aging, and signal transduction pathways. His research focuses on: Nrf2 signaling in oxidative stress and longevity JNK pathway regulation of development and stress tolerance Proteasome dysfunction in aging processes AP-1 transcription factors in cell differentiation Redox regulation of gene expression Protein degradation mechanisms Recent publications highlight his work on anti-aging strategies , neurodegenerative disease models , and genomic stress responses . Scientific accolades include prestigious German Research Foundation and German Cancer Center fellowships. Key awards: German Research Foundation Post-doctoral Fellowship Award (1986-1988) German Cancer Center Predoctoral Fellowship Award (1983-1986) As a leading Drosophila researcher , he has supervised numerous graduate students and mentored significant discoveries in developmental biology and stress response mechanisms. His laboratory investigates: Molecular aging pathways Transcription factor dynamics Proteostasis regulation Stress signaling networks Developmental gene expression Integrative biological modeling
Jeb F. Willenbring is a Professor in the Department of Mathematical Sciences at the University of Wisconsin-Milwaukee. His academic career spans multiple institutions, including Yale University, where he held a research position under NSF VIGRE funding (2000-2003). He serves as the Graduate Program Chair and is actively engaged in research, teaching, and academic collaboration. Educational Background: PhD in Mathematics from the University of California at San Diego (2000) BS in Mathematics from North Dakota State University (1995) Research Interests: His work focuses on Representation Theory, Discrete Mathematics, and Mathematical Physics. Key themes include quantum entanglement, symmetry analysis, and the interplay between algebraic structures and geometric invariants. Scientific Contributions: NSF VIGRE funding recipient for research at Yale University Published extensively on Hilbert series, Howe duality, and branching rules Collaborated with prominent mathematicians like Thomas J. Enright and Roger Howe Academic Engagement: Willenbring mentors graduate students and collaborates on research projects. His publications highlight interdisciplinary applications in quantum mechanics and combinatorics. He maintains an open-door policy for students and colleagues at his office (E461 EMS Building) and welcomes inquiries via email at jw@uwm.edu .
Associate Professor James Parkinson is affiliated with the School of Mathematics and Statistics at the University of Sydney . He is a member of the Algebra and Geometry, Topology, and Analysis research groups, focusing on combinatorial representation theory , random walk theory , and structures like Hecke algebras , buildings , and Kac-Moody groups . Education : PhD in Mathematics from the University of Sydney (2005). His research intersects algebra , geometry , and combinatorics , particularly in buildings and Coxeter groups. Recent publications explore automorphisms, opposition diagrams, and asymptotic properties in Hecke algebras, as well as applications to probability theory and graph analysis . He has secured significant grants from the Australian Research Council in 2020 for Hecke algebras research and in 2011 for studies on loop groups. Parkinson contributes to journals like Bulletin of the Australian Mathematical Society and Innovations in Incidence Geometry .
Marissa Kawehi Loving is an Assistant Professor of Mathematics at the University of Wisconsin-Madison and a Nellie Y. McKay Fellow. Her research focuses on low-dimensional topology, the mapping class group, and geometric group theory. She is affiliated with the Geometry, Group Actions, and Dynamics Research Training Group (RTG) and currently holds an NSF Standard Grant. Her scientific contributions span both topology and algebraic combinatorics. In topology, she has advanced the study of end-periodic homeomorphisms, mapping tori, and spectral rigidity, while her combinatorial work includes (t,r) broadcast domination, weight multiplicity formulas for Lie algebras, and automorphisms of curve graphs. Marissa co-founded the SUBgroups, paraDIGMS (Diversity in Graduate Mathematical Sciences), and the Indigenous Mathematicians Network, highlighting her commitment to community building. NSF Graduate Research Fellowship NSF Postdoctoral Research Fellowship NSF Standard Grant Nellie Y. McKay Fellow 2023 Black Mathematician Honoree (Mathematically Gifted & Black) Her recent publications analyze topics such as stretch factors for end-periodic homeomorphisms, volumes of mapping tori, spectral rigidity of surfaces, and combinatorial structures in Lie algebras. She mentors students and collaborates on projects involving undergraduates, as seen in her co-authored works with undergraduate researchers.
Prof. Hartmut Weiß is a Professor in the Department of Mathematics at Christian-Albrechts-Universität zu Kiel, Germany. His research focuses on Differential Geometry, Geometric Analysis, and Low-Dimensional Topology. He has organized numerous workshops and conferences, including the Norddeutscher Tag der Differentialgeometrie series and specialized events on Higgs bundles and geometric structures. **Education**: PhD (2002): 'Local rigidity of 3-dimensional cone-manifolds' at University of Tübingen Habilitation (2010): 'Rigidity and flexibility of hyperbolic cone-3-manifolds and polyhedra' at LMU Munich Diploma (1999): 'Variation formulas for equivariant analytic torsion' at University of Göttingen **Research Interests**: Weiß explores geometric structures in low dimensions, specializing in hyperbolic cone-manifolds, Higgs bundles, and geometric flows. His work integrates differential geometry with topological methods, addressing deformation theory and geometric rigidity. Recent projects examine asymptotic geometry of Higgs bundles and moduli spaces. **Key Activities**: He co-organized over 15 events since 2015, including international workshops on geometric analysis and topology. Current teaching includes Differentialgeometrie II and a seminar on Seiberg-Witten theory. **Professional Network**: Active in the German mathematics community, collaborating with institutions like the MPI for Mathematics (Bonn) and Heidelberg University. His research group engages in international projects funded by DFG and EU initiatives.
Marco Freibert is a Postdoctoral Researcher at the Department of Mathematics , Christian-Albrechts-University of Kiel. His research focuses on differential geometry, geometric structures on Lie algebras, and flows like the Hitchin and spinor flows. Research Interests: Specializing in Special Holonomy , Geometric Flows , and Lie Group Applications , Freibert investigates structures such as G2-eigenforms , Half-flat and SU(4)-holonomy metrics, and complex symplectic structures . His work often bridges theoretical geometry with applications in physics. Publication Trends: Recent works analyze SKT metrics , Einstein pseudo-Riemannian metrics , and complex symplectic Lie algebras . Key themes include torsion geometry, solvable Lie groups, and geometric constructions for heterotic string theory. Education: PhD in Mathematics (Advisor: Prof. Dr. Vicente Cortés), University of Hamburg
Wolfgang Bilger is a Professor of Plant Ecophysiology at the Christian-Albrechts-University of Kiel, Germany, where he has been a faculty member since 2001. He is affiliated with the Department of Plant Ecophysiology within the Faculty of Mathematics and Natural Sciences. Prior to his current role, he served as Full Professor and Associate Professor at the Norwegian Agricultural University, Ås, Norway. His academic journey includes a postdoctoral fellowship at the Carnegie Institution of Washington and research roles at Julius-Maximilians-University, Würzburg. His educational background includes: Habilitation (Dr. rer. nat. habil.), Julius-von-Sachs-Institute for Biosciences, University of Würzburg (1995) PhD (Dr. rer. nat.), Botanical Institute, University of Würzburg (1987) Master of Biology (Dipl. Biol.), Johann-Wolfgang-Goethe-Universität Frankfurt and University of Würzburg (1976–1982) Wolfgang Bilger's research focuses on plant responses to environmental stress, particularly UV radiation, temperature fluctuations, desiccation, and photoprotection mechanisms. His work investigates chlorophyll fluorescence, screening pigments like anthocyanins and hydroxycinnamic acids, and stress tolerance in plants, algae, and lichens. He has made significant contributions to understanding non-photochemical quenching and photoprotective strategies across diverse photosynthetic organisms. His recent publications (2014–2019) reflect a strong emphasis on plant-environment interactions, especially UV-B and low-temperature effects on photosynthesis and photoprotection. The studies span model plants like Arabidopsis, agricultural species, algae, and lichens, demonstrating a broad ecological and physiological scope. Common themes include pigment-based screening, stress-induced gene regulation, and the interplay between abiotic stressors and photosynthetic efficiency. His scientific awards include: Feodor Lynen Fellowship (Alexander von Humboldt Foundation) Carnegie Institution Fellowship Prize from the Unterfränkische Gedenkjahrsstiftung for his PhD thesis Recognition as an ISI highly cited researcher (h-index 31) Prof. Bilger has supervised several researchers, including M. Sci. Jana Stelzner and M. Sci. Fahimeh Khoramizadeh. He has served in key academic roles such as Managing Director of the Botanical Institute at Kiel and Chair of the Biology Examination Board. He is a Communicating Editor for the journal Trees – Structure and Function and has refereed for numerous high-impact journals and research foundations. His work is supported by active collaborations and service in the scientific community. He leads research in plant ecophysiology with a focus on stress adaptation mechanisms, contributing to both fundamental plant science and potential applications in agriculture and environmental monitoring.
Professor Yasuhiko Terada is a distinguished molecular biologist at Waseda University's School of Advanced Science and Engineering, Department of Chemistry. With a PhD and extensive research experience, he leads investigations into chromosome distribution mechanisms, spindle apparatus function, and cancer development pathways. His laboratory focuses on the molecular mechanisms underlying chromosomal instability and mitotic regulation. Faculty of Science and Engineering, School of Advanced Science and Engineering Professor specializing in molecular biology and cancer mechanisms Principal investigator for JSPS-funded research on mitosis-specific chromosomal instability (2022-2025) Previously led research on Naked mole-rat longevity and cancer resistance mechanisms (2011-2013) Terada's research primarily investigates the molecular machinery of cell division, with particular emphasis on chromosomal passenger proteins including Aurora kinases and their regulatory networks. His work has established critical connections between centrosome function, microtubule dynamics, and chromosomal stability. Key research areas include the role of Cep169 in centrosome-microtubule interactions, Aurora B kinase regulation at centromeres, and the mechanisms linking mitotic errors to cancer development. His laboratory employs advanced cell biological, biochemical, and proteomic approaches to dissect these complex processes. Analysis of Professor Terada's publication record reveals a consistent focus on mitotic regulation mechanisms spanning two decades. His work demonstrates an evolution from fundamental studies of Aurora kinases and chromosomal passenger proteins toward more complex investigations of tension-sensing mechanisms at centromeres and the role of centrosomal proteins in maintaining genomic stability. The research shows increasing sophistication in experimental approaches, incorporating advanced proteomics, live-cell imaging, and structural analyses to understand how mechanical forces and biochemical signals integrate during cell division. Professor Terada's significant research impact is evidenced by his substantial citation metrics: 2,911 citations with h-index 23 on Scopus, and 4,127 citations with h-index 24 and i10-index 32 on Google Scholar. These metrics reflect the importance of his contributions to understanding mitotic regulation and chromosomal instability mechanisms. As an educator, Professor Terada mentors numerous graduate students through thesis supervision and specialized courses in molecular biology and biochemistry. His research program includes substantial grant funding from the Japan Society for the Promotion of Science, supporting investigations into mitosis-specific chromosomal instability and previously exploring the remarkable cancer resistance mechanisms of Naked mole-rats. His laboratory maintains active collaborations across multiple institutions, contributing to both basic science and potential therapeutic applications targeting mitotic machinery in cancer. Professor Terada's laboratory maintains active research programs focused on centrosome biology, microtubule dynamics, and the molecular mechanisms connecting mitotic errors to cancer development. His team employs cutting-edge techniques including advanced microscopy, proteomics, and chemical biology approaches to investigate how mechanical forces and biochemical signals integrate during cell division. The research has significant implications for understanding cancer mechanisms and developing novel therapeutic strategies targeting mitotic machinery.
Dr Thomas Madsen is a Lecturer and Lead for Teaching and Quality in the School of Computing and Engineering at the University of West London. He previously served as a Lecturer at the University of Buckingham and held academic positions at Aarhus University (Denmark), Centro di Ricerca Matematica Ennio De Giorgi (Pisa), and King’s College London. His academic work bridges pure mathematics and applied computing disciplines. His research interests include Differential Geometry , Partial Differential Equations in geometric contexts , Special Holonomy Manifolds , and Toric Geometry , with recent expansion into Neuromorphic Robotics , Spiking Neural Networks , and Computing Education . He applies symmetry techniques to solve geometric PDEs such as Einstein’s equations and explores practical implementations of neuromorphic systems on low-power hardware. The trend in his recent publications (2020–2025) shows a dual focus: one on deep mathematical structures in differential geometry and theoretical physics, and another on innovative applications in artificial intelligence, robotics, and pedagogy in computing education. His collaborative work with researchers like Nicola Russo and Konstantin Nikolic emphasizes interdisciplinary innovation. Self-learning neuromorphic robot based on reward-driven Spiking Neural Network (2025) Enhancing Learning and Teaching Experience for International Students in Computing Subjects (2025) An Implementation of Communication, Computing and Control Tasks for Neuromorphic Robotics on Conventional Low-Power CPU Hardware (2024) Special holonomy manifolds with torus symmetry (2023) An interface platform for robotic neuromorphic systems (2023) Dr Madsen teaches across a broad portfolio of programs including BSc and MSc degrees in Data Science, Mathematics and Computing, Artificial Intelligence, Cyber Security, and Biomedical Engineering. He supervises PhD students and contributes to curriculum development, particularly in enhancing educational experiences for international students. He has collaborated with advisees such as Sama Aleshaiker and Wei Jie on pedagogical research. While no specific grants are detailed, his active research output and teaching leadership suggest sustained scholarly engagement. He is associated with research groups or labs focused on neuromorphic computing and mathematics for computing, contributing to both theoretical and applied advancements. His work on teaching resources and educational practice indicates a strong commitment to academic quality and innovation in STEM education.
Dr. Jock McOrist is a Senior Lecturer in Mathematics at the University of New England's School of Science and Technology. Educated at the University of Sydney (B.Sc., M.Sc.), University of Chicago (M.S., Ph.D.), he completed postdoctoral work at Cambridge. His research explores mathematical physics, particularly string theory and quantum field theory applications in differential geometry. He supervises PhD students in physics and mathematics, focusing on heterotic string vacua and quantum field theory. His recent publications (2017-2025) consistently investigate moduli spaces in string theory, geometric structures in quantum field theories, and heterotic compactifications. BHP Biliton Science and Engineering Fulbright Scholar Sugarman Prize EPSRC Postdoctoral Fellowship University Medal (Sydney) He co-founded the Australia and New Zealand Geometry, Strings and Fields seminar series to foster regional collaboration.
