Find Academic Supervisors

Vitaliy KurlinView profile

Professor

• Topological Data Analysis
• Geometric Data Science
• Materials Science
• +7 more

Professor Vitaliy Kurlin is a full professor at the University of Liverpool's School of Electrical Engineering, Electronics, and Computer Science, leading the Data Science Theory and Applications group since 2017. His work bridges Geometric Data Science with applications in Materials Innovation Factory , focusing on crystallography, structural biology, and computer vision. PhD in Geometry and Topology (Moscow State University, 2003) Developed Geometric Data Science for continuous parametrization of periodic crystals and protein structures Organizer of MACSMIN annual conference and LMS network since 2020 His research includes complete isometry invariants for point clouds, enabling polynomial-time algorithms for crystal structure prediction and protein backbone analysis. Key projects involve UKRI New Horizons grants , Royal Society APEX fellowships , and collaborations with Mila , Cambridge Crystallographic Data Centre , and Lawrence Berkeley National Lab . Scientific awards include the Royal Society APEX fellowship (2023), Royal Academy of Engineering Industry Fellowship (2021-2023), and Lecturer of the Year (Durham Student's Union, 2013). He has mentored 15+ PhD students, including Dr. Dan Widdowson and Dr. Olga Anosova, with joint publications in CVPR , NeurIPS , and Scientific Reports . His group's geometric invariants resolve data ambiguity in crystallography and structural biology, supported by grants from EPSRC , NERC , and Intel . Current projects include building geographic-style maps of the material space and organizing workshops at ICERM and SIAM meetings.

• Biophysics
• Cellular Mechanics
• Actin Cytoskeleton
• +5 more

Dr. Ruby Peters is a Physics of Life Early Career Fellow at the University of Sheffield 's School of Mathematical and Physical Sciences. Her research focuses on the structural, mechanical, and material properties of actin cytoskeletal networks in cellular functions. University: University of Sheffield Research Group: Materials and Biological Physics Group Contact: F23, Hicks Building, Sheffield, S3 7RH Her work employs advanced fluorescence microscopy and computational approaches to quantify actin cytoskeleton organization, combined with atomic force microscopy for biophysical cell surface mapping. Key research themes include: Mechanical regulation of cellular behavior Actin network dynamics in disease Super-resolution microscopy techniques Quantitative analysis of fibrous structures Biomechanics of early embryonic development Machine learning applications in cell imaging Recent publications highlight her expertise in 3D spectral imaging, molecular orientation microscopy, and quantitative SMLM data analysis. She also contributes to STEM equality and diversity initiatives. Her lab collaborates with interdisciplinary teams utilizing tools like: Agent-based modeling of molecular aggregation Cluster analysis of live-cell datasets Biophysical imaging resources (Nano-org)

Pierre SikivieView profile

Professor

• Particle Physics
• Cosmology
• Dark Matter Detection
• +3 more

Pierre Sikivie is a Distinguished Professor in the Department of Physics at the University of Florida , affiliated with the Institute of Fundamental Theory and the High Energy Theory group . His research focuses on particle physics and cosmology, particularly axion dark matter, galactic halo structure, and detection methodologies like the Axion Dark Matter eXperiment (ADMX) and the International Axion Observatory (IAXO). He holds a PhD from Yale University (1975) . His research interests include axion properties, Bose-Einstein condensation in dark matter, and the Caustic Ring Model of the Milky Way halo. He has pioneered experimental and theoretical advancements in axion detection, including LC circuit methods and atomic transition-based approaches. His work intersects particle physics, astrophysics, and cosmology, addressing fundamental questions about dark matter composition and galactic dynamics. Key contributions include studies on axion thermalization, dark matter-caustic effects on the Oort cloud, and the 21-cm signal's relation to axion dark matter. Sikivie collaborates on large-scale experiments like ADMX and IAXO, advancing detection technologies such as resonant cavities and Josephson amplifiers. His findings have implications for gravitational interactions, early universe physics, and the search for non-virialized dark matter components. He has advised numerous experiments but no specific students are listed in the provided texts. His work is supported by collaborations across institutions and funded through experimental physics initiatives.

• Climate Science
• Meteorology
• Atmospheric Physics
• +3 more

Professor Graeme Stephens is affiliated with the University of Reading, contributing significantly to climate science and atmospheric research. His work focuses on cloud physics, Earth system processes, and climate modeling. He has been a key figure in global initiatives like GEWEX and leverages satellite data from missions such as CloudSat and CALIPSO to advance understanding of climate dynamics. Research interests include radiative transfer, energy balance, and the interplay between clouds, aerosols, and precipitation. His publications address topics like climate model biases, aerosol effects on precipitation, and the role of high clouds in a warming climate. Stephens has collaborated extensively with international teams, advancing satellite-based observational techniques and their application to climate studies. Notable contributions include investigations into the global water cycle, Antarctic sea ice dynamics, and the super greenhouse effect. His work emphasizes improving climate models through observational validation and interdisciplinary approaches.

Jan VerletView profile

Professor

• Quantum Dynamics of Isolated Anions
• Photon and Electron Driven Chemistry
• Photochemistry at Aqueous Interfaces
• +3 more

Professor Jan Verlet is a leading researcher in the Department of Chemistry at Durham University, specializing in the quantum dynamics of isolated anions , photon and electron-driven chemistry , and photochemistry at aqueous interfaces . He has pioneered novel methods for studying electron-molecule interactions, including real-time measurements of electron reactions and 2D photoelectron spectroscopy . Current affiliations: Durham University, J. Heyrovsky Institute of Physical Chemistry (Prague) Academic leadership: Head of Department, Royal Society of Chemistry Fellow Research Interests focus on elucidating the electronic and nuclear dynamics governing photo- and electron-induced chemical changes. His group explores phenomena such as electron capture in molecular clouds , non-valence states in anions , and electron transport in biological systems , with applications spanning atmospheric science, interstellar chemistry, and biophysics. Scientific Contributions include groundbreaking studies on Hydrated electrons at water/air interfaces Ultrafast dynamics of correlation-bound states Photodetachment of biologically relevant anions Excited-state relaxation in polyanions Scientific Awards include the RSC Bourke-Liversidge Prize (2023) RSC Corday Morgan Prize (2021) European Research Council Starting Grant (2012-2017) EPSRC Advanced Research Fellow (2006-2011) JILA Visiting Fellow (2019) Education & Grants feature a PhD from King’s College London (2003) and postdoctoral work at UC Berkeley (2003). He leads research funded by the ERC and EPSRC, focusing on electron-driven chemical processes and interfacial reactions. Labs & Collaborations include the Verlet Research Group at Durham University and a senior scientist role at the J. Heyrovsky Institute of Physical Chemistry (2024-29). His work bridges experimental and computational approaches to molecular dynamics.

Montserrat Costa SurosView profile

Researcher

• aerosol-cloud interactions
• ice nucleation
• radiative effects upon climate
• +5 more

Dr. Montserrat Costa Suros is a Postdoctoral Researcher at the Barcelona Supercomputing Center (BSC) in the Earth Sciences Department, specifically within the Atmospheric Composition (AC) group. She also serves as a Teaching Fellow at the University of Girona (UdG). Her research focuses on aerosol-cloud interactions and their implications for Earth's radiative balance in the context of global climate change. Dr. Costa Suros holds a PhD in Experimental Sciences and Sustainability from the University of Girona (2014), where she also earned her BSc in Environmental Sciences (2005) with an Extraordinary Award and a Master's Degree in Environment (2009). Her academic journey includes research stays at Pacific Northwest National Laboratory (USA, 2011) and Vaisala Oyj (Finland, 2012), followed by postdoctoral positions at the University of Warsaw (2014-2016) and University of Cologne (2016-2019). Her research interests center on aerosol-cloud interactions , ice nucleation (particularly the role of mineral dust like K-feldspar and quartz), radiative effects upon climate , aerosol and cloud observations , and model evaluation . She investigates how mineralogy affects ice nucleation and mixed-phase clouds, with significant implications for understanding climate change processes. Analysis of her recent publications reveals a strong focus on quantifying the contributions of different aerosol types (mineral dust, marine aerosols, bioaerosols) to ice nucleation in mixed-phase clouds and assessing their radiative forcing effects. Her work increasingly integrates laboratory-based parameterizations into global chemistry-transport models, with emphasis on improving Earth system model representations of aerosol-cloud interactions. STARS MSCA-COFUND postdoctoral fellowship (2021) Special Award of the Environmental Science's Degree Course (2005) General Grant for English Language studies (2005) Multiple scholarships from Spanish Ministry of Education and Science (2002-2005) Dr. Costa Suros actively contributes to major climate research initiatives including the European Projects CERTAINTY (Cloud-aERosol inTeractions & their impActs IN The earth sYstem), FOCI (Non-CO2 Forcers and their Climate, Weather, Air Quality and Health Impacts), and the Spanish Project Biota. Her work bridges observational data, laboratory studies, and model simulations to advance understanding of aerosol impacts on cloud processes and climate.

Telemachos Ch MouschoviasView profile

Professor

• Astrophysics
• Cosmology
• Star Formation
• +3 more

Telemachos Ch Mouschovias is a Professor of Astronomy and Physics at the University of Illinois , where he has worked since 1977. His research focuses on the role of cosmic magnetic fields in star formation , using nonideal multifluid magnetohydrodynamics to model processes from interstellar medium to protostars. Ph.D. in Physics, University of California, Berkeley (1975) Bachelor's in Physics, Yale University (1968) His groundbreaking work includes resolving the angular momentum problem via magnetic braking and establishing ambipolar diffusion as critical for molecular cloud fragmentation. Current research extends these models to nuclear reaction ignition stages, with over 40 years of observational validation of his predictions. Recent publications explore magnetic field-gas density relations , hydromagnetic waves , and nonisothermal evolution in star-forming regions. His work combines theoretical modeling , computational astrophysics , and observational analysis . Scientific Awards Trumpler Award (1977) Fellow, Center for Advanced Study (1980) Alfred P. Sloan Fellow (1980-84) Alexander Von Humboldt Award (1983-85) Guggenheim Fellowship (1993-94) Professor Mouschovias has taught advanced courses like ASTR 505 - Star Formation and ASTR 401 - Scientific Writing for Astro , mentoring graduate students in theoretical astrophysics.

• Cloud-climate interactions
• High-cloud (cirrus) microphysics
• Tropical anvil cloud lifecycle
• +4 more

Blaž Gasparini is an Assistant Professor (Universitätsassistent) at the University of Vienna , Faculty of Earth Sciences, Geography and Astronomy, based in the Department of Meteorology and Geophysics and affiliated with the Environment and Climate Research Hub . He leads an active research programme on cloud-climate interactions and teaches four courses each academic year. Education & early career: MSc ETH (Swiss Federal Institute of Technology) – atmospheric / climate science PhD studies (University of Vienna) focusing on cirrus-cloud geo-engineering with global climate-model simulations Post-doc/assistant professor appointment at University of Vienna since 2020 Research interests sit at the intersection of cloud microphysics and climate dynamics . Using high-resolution models, satellite observations and theory he investigates how high clouds (especially tropical anvil and cirrus) form, evolve and interact with radiation, and how these processes may change as the planet warms. A second strand explores deliberate climate intervention (cirrus thinning, stratospheric aerosols) and associated physical and ethical uncertainties. His recent publications (2024-2025) reveal three dominant themes: (i) lifecycle and radiative impacts of tropical anvil clouds, (ii) turbulence and microphysical controls on cirrus ice formation, and (iii) critical evaluation of geo-engineering proposals. Collectively the work advances understanding of cloud-radiative feedbacks that govern climate sensitivity and the hydrological cycle. Teaching & outreach: Each semester Dr Gasparini coordinates 2–3 courses including Modelling and Data Analysis , Thermodynamics of the Atmosphere and the Paper Club seminar. He frequently appears on Austrian/Slovenian radio and podcasts explaining climate science and geo-engineering, co-authored the youth brochure "WTF is Climate Change?!" (EN/SL/HU), and maintains an educational blog on high-performance computing for climate modelling. Grants & projects: He is principal investigator on Austrian Science Fund (FWF) and EU-funded projects examining cloud-radiative heating, cirrus microphysics and aerosol-cloud interactions, and participates in international model inter-comparison activities (RCEMIP, CMIP6 analyses). No doctoral students or major scientific prizes are listed in the supplied material.

• Aerosol Physics
• Cloud Dynamics
• Atmospheric Science
• +3 more

Dr. Maximilian Dollner is a researcher at the University of Vienna's Faculty of Physics, affiliated with the Department of Aerosol Physics and Environmental Physics. His work focuses on airborne measurements of aerosol and cloud particles, aerosol-cloud interaction processes, microphysical and optical properties of aerosols and clouds, and the impact of air masses on cloud particle properties. He leads or contributes to major international projects such as SABRE (2022-2025), ACCLIP (2022), ACACIA (2019-2024), and FIREX-AQ (2019), collaborating with NASA and NOAA. His research integrates field experiments, in situ measurements, and advanced instrumentation to advance understanding of aerosol dynamics and climate interactions. Publications highlight contributions to aerosol type classification, biomass burning plume analysis, and stratospheric aerosol chemistry. Education: MSc and Dr. (PhD) in Physics, specialized in environmental and atmospheric sciences. Research interests emphasize global-scale aerosol processes, with a focus on mineral dust, pyrocumulonimbus impacts, and anthropogenic influences. Recent studies include the A-LIFE campaign's aerosol inlet analysis and pollution effects on Mediterranean dust properties. His work bridges observational data with climate modeling, addressing pressing questions in atmospheric science and environmental physics. Publications span aerosol optical properties, cloud-aerosol interactions, and instrument validation, reflecting interdisciplinary approaches to environmental challenges. Collaborations with global institutions and NASA missions underscore his role in advancing atmospheric research.

• Star Formation
• Astrophysics
• Fluid Dynamics
• +4 more

Christoph Federrath is a Professor and Associate Director HDR at the Research School of Astronomy & Astrophysics, Australian National University (ANU). He holds a PhD from Heidelberg University (2010) and has held postdoctoral fellowships at Monash Centre for Astrophysics, Lyon’s École Normale Supérieure, and Heidelberg’s Institute for Theoretical Astrophysics. His research focuses on star formation in the present-day and early Universe, turbulence, magnetic fields, computational methods, and synthetic observation techniques. Federrath has supervised four PhD students and leads projects on computational astrophysics, turbulence dynamics, and galaxy formation. His work integrates numerical simulations with observational data to advance understanding of cosmic phenomena. Education: PhD in Physics (Heidelberg University, 2010), Physics studies at University of Würzburg (2001–2007) Research Interests: Star-forming molecular clouds, fluid dynamics, magnetic fields, numerical methods, and observational methods development His research spans theoretical and computational studies, including turbulence-driven dynamo effects, radiation hydrodynamics, and the interplay between magnetic fields and galactic structures. Federrath collaborates widely, contributing to international projects like the POSSUM survey and developing simulation frameworks such as AHKASH. His work bridges fundamental physics with observational astronomy, addressing key questions about star and galaxy formation across cosmic time.

Todd MartinezView profile

Professor

• Theoretical Chemistry
• Photochemistry
• Mechanochemistry
• +3 more

Todd Martinez is the David Mulvane Ehrsam and Edward Curtis Franklin Professor of Chemistry and Professor of Photon Science at Stanford University, affiliated with SLAC National Accelerator Laboratory. His research focuses on theoretical and computational chemistry, with emphasis on photochemistry, mechanochemistry, and quantum mechanical methods. He earned his PhD in Chemistry from UCLA in 1994, followed by postdoctoral work at UCLA and the Hebrew University in Jerusalem before joining Stanford in 2009. His group develops novel simulation tools, including GPU-accelerated quantum chemistry software (e.g., TeraChem) and virtual reality interfaces (InteraChem and MolAR) for interactive molecular modeling. Key interests include predicting molecular behavior under light and mechanical force, designing self-healing materials, and advancing reaction discovery through first-principles methods. Awards include the MacArthur Fellowship and recognition as a Fellow of the American Academy of Arts and Sciences. Education: PhD in Chemistry (UCLA, 1994); Postdoctoral Studies at UCLA and Hebrew University (Jerusalem) Research Themes: Molecular modeling, excited-state dynamics, mechanochemical reactions, and computational tools Publications span ultrafast spectroscopy, quantum mechanical modeling, and algorithm development for large-scale simulations. The Martinez Group’s work bridges theory and application, aiming to make molecular design predictive and accessible through interdisciplinary collaborations.

• Climate Modeling
• Atmospheric Physics
• Numerical Weather Prediction
• +5 more

Monika Esch is a Researcher in the Department of Climate Physics at the Max Planck Institute for Meteorology in Hamburg, Germany, where she has been employed since 1991. She works in the Wave Driven Circulations research group, focusing on climate modeling and atmospheric physics. Her career began with a Diploma in Physics from the University of Hamburg in March 1988, followed by positions as a Scientist at the MPIfM (1988-1990) and GKSS Forschungszentrum (1990-1991) before transitioning to her current role as Scientific Programmer. Esch's research interests span climate modeling, atmospheric physics, numerical weather prediction, climate dynamics, tropical cyclone simulation, Earth system modeling, climate variability, and cloud physics. Her work primarily involves developing and implementing climate models, particularly focusing on the ICON (Icosahedral Nonhydrostatic) modeling framework. She has made significant contributions to understanding how microphysical processes affect tropical condensate, the simulation of Earth System components at high resolution, and the representation of quasi-biennial oscillation in climate models. Her publication record demonstrates consistent research activity from the late 1980s through 2025, with recent work focusing on high-resolution climate modeling, Earth system interactions, and the atmospheric response to increasing CO2. Her research shows a clear evolution from early work on ice sheet modeling and tropical cyclones toward more complex Earth system modeling at increasingly higher resolutions. While no specific scientific awards are mentioned in the available information, her extensive publication record in high-impact journals and consistent involvement in major climate modeling projects suggests recognition within the climate science community. Her collaborative work extends across multiple international research teams focused on advancing climate modeling capabilities. Esch has been instrumental in the development of the ICON modeling system and its various components, contributing to both the theoretical foundations and practical implementation of these models. Her technical expertise in scientific programming has enabled significant advances in climate simulation capabilities at the Max Planck Institute for Meteorology.

• Land-Atmosphere Interactions
• Storm-Resolving Earth System Models
• Climate Modeling
• +3 more

Junhong Lee is a Research Fellow at the Max Planck Institute for Meteorology (MPI-M) in Hamburg, Germany, specializing in land-atmosphere interactions within storm-resolving Earth System Models. His work investigates how soil moisture conditions influence precipitation triggering and carbon cycle dynamics in high-resolution climate simulations. His academic background includes: Ph.D. and M.S. in Atmospheric Sciences from Yonsei University, Korea (2012-2019), with thesis on "The Representations of Vegetation for Surface Wind in the WRF Model" B.S. in Atmospheric Sciences and B.S. in Earth Science Education from Kongju National University, Korea (2008-2012), with thesis on "Analysis of Arctic and Antarctic Sea-Ice Concentration Variation Retrieved from Aqua/AMSER-E" Lee's research centers on improving boundary-layer processes and land-surface representations in climate models. He has implemented critical model components including the 3D Smagorinsky turbulence scheme in ICON's Sapphire configuration and the roughness sublayer scheme in WRF. His work bridges observational data with high-resolution modeling to advance understanding of land-atmosphere feedback mechanisms, particularly in storm-resolving frameworks where traditional parameterizations break down. Analysis of his 12 publications (2015-2023) reveals consistent focus on boundary-layer meteorology, model development, and land-surface interactions. His recent work emphasizes kilometer-scale Earth System Modeling (ICON-Sapphire), vegetation-atmosphere coupling, and innovative parameterizations for surface-layer processes. Key trends include integration of observational data into models, evaluation of model physics across scales, and exploration of land-surface feedbacks in extreme weather contexts. Lee actively contributes to MPI-M's modeling infrastructure including the ICON Earth System Model and participates in collaborative projects like nextGEMS and WarmWorld. His research leverages the institute's observational assets such as the Barbados Cloud Observatory and HALO research aircraft, though no specific lab leadership or student advising is documented. The institute's structure—particularly the Climate Physics and Climate Dynamics departments—provides the framework for his storm-resolving model development work.

Rebecca McElroyView profile

Research Fellow

• Astrophysics
• Active Galactic Nuclei (AGN) Feedback
• Galaxy Evolution
• +4 more

Dr. Rebecca McElroy is a Vice-Chancellor's Postdoctoral Research Fellow in the School of Mathematics, Physics and Computing at the University of Southern Queensland. Her research focuses on active galactic nuclei (AGN) feedback mechanisms, galaxy evolution, and star formation processes in nearby galaxies. She is a core contributor to major international surveys including the Close AGN Reference Survey (CARS) and the PHANGS (Physics at High Angular resolution in Nearby GalaxieS) project, which utilize multi-wavelength observations to study galaxy dynamics and interstellar medium interactions. McElroy holds a PhD from the University of Sydney (2018), preceded by a BSc (2013) and GDipSc (2014), also from Sydney. She has affiliations with the Centre for Astrophysics and the Institute for Advanced Engineering and Space Sciences. Her work emphasizes high-angular resolution studies of AGN-driven outflows, molecular cloud lifecycle analysis, and environmental dependencies in star-forming regions. Recent research highlights include discovering parsec-scale multi-phase outflows in super-Eddington AGN and tracking dramatic variability in changing-look AGN like Mrk 1018. Her publications span 20+ peer-reviewed articles in journals like Astronomy & Astrophysics, Astrophysical Journal, and Monthly Notices of the Royal Astronomical Society. Key themes include AGN-jet interactions, star formation efficiency calibration, and resolving metallicity variations in galactic disks. McElroy's collaborative projects leverage advanced facilities like MUSE, ALMA, and Hubble Space Telescope data to advance understanding of galaxy evolution processes.

• Climate Dynamics
• Atmospheric Physics
• Cloud Physics
• +3 more

Dr. Charlotte Havermans is the Helmholtz Young Investigator Group Leader (NWG ARJEL) at the Alfred Wegener Institute (AWI) in Bremerhaven, Germany. Her research focuses on atmospheric processes, particularly clouds, turbulence, and extratropical climate dynamics. The ARJEL group investigates atmospheric radiation, jet streams, and climate model evaluation using advanced numerical models and observational data. Key projects include studying cloud-resolving models, turbulent fluxes, and Arctic climate interactions through initiatives like FluxWIN and participation in the MOSAiC expedition. She employs satellite remote sensing, numerical simulations, and field data to advance understanding of atmospheric systems and their role in global climate change. Group Projects: ARJEL (Atmospheric Radiation and Jets in the Extratropics), FluxWIN (Fluxes in the Water Cycle), MarESys (Marine Ecosystem Studies). Tools/Techniques: High-resolution climate modeling, cloud physics instrumentation, Arctic field observations. Contact: charlotte.havermans@awi.de | +49(471)4831-1530