Dr. Éric Hébrard is a Senior Lecturer in Astrophysics at the University of Exeter since 2018, with prior academic roles including NASA Goddard Senior Research Fellow and CNRS Research Associate. His work bridges planetary atmospheres, astrochemistry, and combustion modeling with expertise in 3D chemical simulations. PhD in Physics and Chemistry of Planetary Atmospheres, Université Paris 7 (2006) Magna cum laude Magistère Interuniversitaire de Chimie, ENS Paris (2003) Research focuses on: Exoplanetary atmosphere modeling (hot Jupiters, TRAPPIST-1e) Photochemical kinetics and UV absorption Coupling of atmospheric circulation and chemistry Cross-disciplinary combustion-atmosphere analogs Chemical validation strategies for model accuracy Scientific contributions include: NASA-funded research on organic-rich habitable zones Development of KIDA kinetic database for astrochemistry STFC Consolidated Grant for multi-dimensional chemical models Quantum chemistry integration for Titan atmosphere studies Awards: Higher Education Academy Fellowship (ASPIRE program) NASA Postdoctoral Fellowship (2015-2017) CNES Postdoctoral Fellowship (2007-2009)
Dr. Ambrogio Volonté is a Senior Research Fellow at the Department of Meteorology, University of Reading, and a member of the National Centre for Atmospheric Science (NCAS). His research focuses on cyclone dynamics, particularly Arctic, extratropical, and Mediterranean cyclones, sting jets, and monsoon systems. He leads and contributes to projects funded by NERC and international collaborations, such as the THINICE field campaign investigating Arctic cyclones and the MiLCMOP project studying monsoon progression. He holds a PhD from the University of Reading (2018) and has extensive experience in numerical weather prediction, Lagrangian analysis of air masses, and process-based weather phenomena. His work includes studying the impact of sea ice on Arctic cyclones, the role of midlatitude dry air in monsoon withdrawal, and evaluating AI models against traditional forecasting methods. Key projects include the global climatology of sting-jet cyclones and the dynamics of extreme windstorms like Storm Ciarán and Eunice. Volonté collaborates on interdisciplinary projects such as COSMIC (convection-scale modeling in China) and INCOMPASS (monsoon dynamics in India). His research has been published in journals like Quarterly Journal of the Royal Meteorological Society and Weather and Climate Dynamics . He currently serves as a researcher in several grants, focusing on Arctic cyclones, sting jets, and monsoon processes.
Camilo Mora is a Professor in the Department of Geography at the University of Hawaii at Manoa, where he maintains an active research laboratory and teaches courses on environmental issues, biogeography, and data analysis. His academic journey began with a BSc in Marine Biology from Universidad del Valle in Colombia (1999), followed by a PhD in Biology from the University of Windsor, Canada (2005). He completed postdoctoral fellowships at the University of Auckland (2005), Scripps Institution of Oceanography (2006-2008), and Dalhousie University (2008-2010). BSc, Marine Biology, Universidad del Valle, Colombia (1999) PhD, Biology, University of Windsor, Canada (2005) Postdoctoral Fellow, University of Auckland (2005) Postdoctoral Fellow, Scripps Institution of Oceanography (2006-2008) Postdoctoral Fellow, Dalhousie University (2008-2010) Mora's research spans interconnected lines focused on understanding biodiversity patterns and their modification by human activities, with particular emphasis on climate change impacts. His lab specializes in big data analytics applied to diverse environmental challenges including heatwaves, disease transmission, marine ecosystems, and even unconventional topics like Bitcoin's environmental footprint. The Mora Lab operates on a 'divide and conquer' approach to tackle large research questions by breaking data gathering into individual parts that can be concatenated into central databases. Mora has received the CSS Excellence in Research award (2014) for his significant contributions to environmental science. His influential publications include groundbreaking work on the global risk of deadly heat (2017), the projected timing of climate departure from historical variability (2013), and the finding that over half of known human pathogenic diseases can be aggravated by climate change (2022). CSS Excellence in Research (2014) Highly cited publications in Nature and Nature Climate Change Research featured in major international media outlets Development of innovative research methodologies for large-scale analyses Mora leads an active research group that engages students in the full scientific process from idea generation to publication. His approach to mentoring involves creating yearly classes where graduate students, professors, and international advisors collaborate to tackle significant research questions, with papers typically completed within a single semester. His Carbon Neutrality Challenge project, spearheaded by his daughter Asryelle Mora, provides a practical mechanism for individuals to offset carbon emissions through tree planting. The Mora Lab maintains a distinctive approach to environmental research, working on seemingly diverse topics from reef fishes to Bitcoin, united by their reliance on big data analytics. This interdisciplinary methodology has produced impactful research across multiple domains of environmental science and climate change impacts, establishing Mora as a significant contributor to our understanding of humanity's environmental challenges.
Prof. Dr.-Ing. David E. Rival is a full Professor at the Institute of Fluid Mechanics within the Faculty of Mechanical Engineering at Technische Universität Braunschweig. His research spans interdisciplinary domains at the intersection of experimental fluid dynamics, data assimilation, network science, and bio-inspiration, with applications in renewable energy systems and bio-mimetic engineering. Former Associate Professor at Queen’s University, Canada Doctoral work on dragonfly flight aerodynamics at TU Darmstadt Alexander von Humboldt research fellowship recipient (2020) Postdoctoral associate at MIT studying shape morphing in nature Research chair at University of Calgary on atmospheric sensing His work focuses on unsteady flow phenomena, bio-inspired design, and advanced measurement techniques. Key projects include: Co-chairing NATO AVT task group on flow separation International collaborations with AFOSR, NATO, and ONR Development of cost-effective flow-tracking sensors for natural environments Investigations into shear-thinning suspension dynamics and vortex ring behavior Recent publications demonstrate a strong emphasis on: Large-scale particle tracking with natural light and UAVs Machine learning for sparse data reconstruction in fluid flows Soft coastal protection methods and ecohydraulics Advanced sensing techniques for atmospheric and industrial applications Scientific Awards: 2020: Alexander von Humboldt Research Fellowship Notable research achievements include textbook authorship on Biological and Bio-Inspired Fluid Dynamics (Springer) and media features in The Nature of Things (David Suzuki) and Discovery Channel’s Daily Planet .
Marysa Laguë is an Assistant Professor in the Department of Geography within the Faculty of Arts at the University of British Columbia. She is a climate scientist specializing in understanding how terrestrial processes impact the atmosphere and surface climate across scales from individual plants to entire planets. Her research focuses on how changes in the land surface modify energy and water fluxes between the land and atmosphere, and how these changes subsequently affect atmospheric dynamics and climate both locally and remotely. Dr. Laguë serves as a member of the Graduate and Postdoctoral Studies program at UBC. Dr. Laguë earned her PhD in Atmospheric Sciences and MSc degrees in both Atmospheric Sciences and Applied Mathematics from the University of Washington. Her educational background provides her with strong theoretical and modeling expertise that informs her comprehensive research approach. Her research can be broadly categorized into three interconnected areas: understanding land-atmosphere interactions in the modern climate system, exploring fundamental physical connections between terrestrial and planetary processes using idealized models, and climate model development. She studies how changes in vegetation impact cloud formation, temperatures, water vapor, and atmospheric circulation in ways that can feed back on surface climate. On the idealized side, she investigates how continental configurations fundamentally alter global-scale climate patterns. Her work often involves developing and using numerical models of varying complexity to quantify land's role in the coupled Earth System. She is particularly interested in understanding where the atmosphere cares about changes in the land surface, and what particular properties of the land surface it is that the atmosphere cares about. Dr. Laguë's recent publications demonstrate a consistent focus on land-atmosphere interactions, with particular emphasis on how terrestrial evaporation, surface albedo, and vegetation properties influence climate dynamics. Her research spans from local-scale processes to planetary-scale phenomena, including studies of exoplanet climates. She frequently employs both complex Earth system models like the Community Earth System Model and idealized modeling frameworks to isolate specific mechanisms. A recurring theme across her work is the development and application of the Simple Land Interface Model (SLIM), which allows researchers to test how individual land-surface properties modify energy and water fluxes to the atmosphere. Dr. Laguë is actively involved in mentoring graduate students and is interested in supervising Master's students, Doctoral students, and Postdoctoral Fellows. She supports interdisciplinary research collaborations and is open to supervising students interested in public scholarship through the Public Scholars Initiative. She also encourages experiential learning opportunities like internships for her graduate students and emphasizes the importance of interdisciplinary research approaches. She is the lead scientific developer of the Simple Land Interface Model (SLIM), an idealized land surface model that couples with the Community Earth System Model. This tool allows researchers to isolate the effects of individual land surface properties on the Earth system. Her work has significant implications for understanding climate change impacts, land management strategies, and even the potential habitability of exoplanets. Her research methodology includes using climate models, Earth system models, numerical Earth system models, Python, Jupyter, the Coupled Model Intercomparison Project (CMIP), and Fortran programming for climate model development.
Prof. Torsten Kanzow is a Professor at the University of Bremen and Head of the Climate Sciences Division and Section Physical Oceanography of Polar Seas at the Alfred Wegener Institute (AWI). His research focuses on ocean currents' roles in polar regions, including their impact on sea ice dynamics, ocean-ice sheet interactions, and global climate systems. He leads expeditions to key Arctic and Antarctic regions such as Fram Strait, the Eurasian Arctic Ocean, and the Weddell Sea. Key research areas include Arctic amplification mechanisms, Atlantic Water circulation patterns, and the influence of ocean currents on Greenland's ice shelves. His work integrates field observations from autonomous instruments, ship-based expeditions (e.g., MOSAiC), and numerical modeling to understand climate feedbacks and ocean circulation changes. Recent projects involve analyzing data from the MOSAiC expedition to investigate Arctic Ocean dynamics and the impacts of warming Atlantic Water on marine-terminating glaciers. Collaborations span international networks addressing climate variability and polar environmental changes.
Amy Bonsor is an Official Fellow and Director of Studies in Natural Sciences (Physical) at Queens' College, University of Cambridge. Her academic work focuses on the intersection of astronomy and planetary science, particularly examining the composition and evolution of planetary systems through the lens of white dwarf pollution. Dr. Bonsor's research primarily centers on understanding the composition of exoplanetary material by studying polluted white dwarfs. Her work combines observational astronomy with theoretical modeling to investigate planetary debris disks, tidal interactions, and the geochemical signatures of accreted planetary material. She has made significant contributions to understanding how white dwarfs can serve as cosmic laboratories for studying the bulk composition of exoplanetesimals, including their differentiation processes and volatile content. Her recent publications reveal a strong emphasis on the chemical analysis of planetary material through white dwarf spectroscopy, with particular attention to mineralogy, elemental abundances, and the implications for planetary formation and evolution. She has pioneered approaches combining machine learning with traditional astronomical techniques to categorize and interpret white dwarf spectral data at scale. As Director of Studies in Natural Sciences at Queens' College, Dr. Bonsor plays a key role in undergraduate education within the Physical Sciences track of Cambridge's renowned Natural Sciences Tripos. Her leadership position indicates her standing within the Cambridge academic community and her commitment to nurturing the next generation of scientists.
Susan Lozier is a Professor of Physical Oceanography at Duke University since 1992, holding the rank of Distinguished Professor. She serves as past-president of The Oceanography Society and leads the OSNAP observing system. Her research focuses on large-scale ocean circulation, climate dynamics, and subpolar North Atlantic processes. Education: Ph.D., University of Washington (1989) B.S., Purdue University (1979) Research Interests: Dr. Lozier investigates ocean circulation patterns, particularly in the subpolar North Atlantic, using observational and theoretical approaches. She leads OSNAP, a multinational project measuring overturning circulation and water mass transformation. Her work bridges climate science and ocean dynamics, emphasizing the role of ocean currents in global climate systems. Awards: NSF Early Career Award (1996) Bass Chair for Excellence in Research and Teaching (2000) American Meteorological Society Fellow (2008) AGU Fellow and former AGU President (2014–2021) AAAS Fellow (2015) Grants & Advising: Recent grants include NSF-funded studies on North Atlantic deep-water pathways and overturning circulation dynamics. She advises projects involving nonlinear dynamics and satellite-based ocean observation. Labs/Teams: Oversees the OSNAP project as international lead, integrating data from moorings and floats to map oceanic overturning processes.
Hilairy Hartnett is a Professor at Arizona State University (ASU) with joint appointments in the School of Earth and Space Exploration and the School of Molecular Sciences. She is affiliated with the Central Arizona-Phoenix Long Term Ecological Research (CAP LTER) and the Global Drylands Center, contributing to interdisciplinary initiatives like Earth Systems Science for the Anthropocene and the Global Futures Scientists and Scholars program. Her research focuses on biogeochemical processes, astrobiology, and urban ecology. Hartnett earned an A.B. in Chemistry from Vassar College (1990) and M.S./Ph.D. in Oceanography from the University of Washington. After postdoctoral work at Rutgers University studying river and estuarine systems, she joined ASU in 2003. Her expertise spans geochemical cycles, organic reactions under hydrothermal conditions, and planetary habitability assessments. Research Interests 1. Biogeochemistry : Investigates how geochemical, microbial, and human activities influence elemental cycles in modern and ancient environments. 2. Astrobiology : Explores organic geochemistry in hydrothermal systems and its implications for life detection on icy ocean worlds like Enceladus/Europa. 3. Urban Ecology : Analyzes ecological infrastructure in arid urban environments, such as central Arizona, focusing on stormwater systems and soil-water dynamics. 4. Interdisciplinary Science : Advocates for transdisciplinary approaches to address complex planetary and astrobiological challenges. Recent Trends in Publications Her work emphasizes experimental studies of organic reactions under hydrothermal conditions, leveraging mineral interactions to refine biosignature detection criteria for exoplanets. She also collaborates on global-scale initiatives like the TREC team to integrate elemental abundance data into planetary evolution models. Urban ecology research highlights innovative methods for water sustainability in hyperarid regions like the Atacama Desert. Advising & Grants While no formal advisees are listed, Hartnett leads collaborative research teams and participates in major programs (e.g., CAP LTER, Global Drylands Center). Grant details are not explicitly provided but inferred from her involvement in interdisciplinary projects and experimental facilities. Labs/Teams Affiliated with the Central Arizona-Phoenix LTER, Global Drylands Center, and the TREC team. These collaborations support her work on planetary habitability, astrochemical reactions, and urban biogeochemical processes.
Dr. David Green is a Senior Research Fellow at the School of Public Health, Faculty of Medicine at Imperial College London, leading the Aerosol Science Team within the Environmental Research Group. His research focuses on aerosol and gas measurement, source apportionment, and health impact studies. Key leadership roles include directing the Centre for Low Emission Construction and contributing to diversity initiatives. His work integrates advanced analytical techniques, such as real-time supersite monitoring in London, to inform public health policies and environmental forecasting systems. Research interests emphasize aerosol composition measurement, development of new techniques, and quantifying emission sources in urban environments. Collaborative projects span agencies like the Environment Agency, EPSRC, and EU initiatives. He supervises PhD students exploring topics such as non-road mobile machinery emissions, satellite-based traffic analysis, and subway air quality. His team’s work bridges environmental science and public health, addressing issues like ultrafine particle exposure, particulate matter on public transport, and policy-driven emission reductions. Key Collaborations: Includes STFC Air Quality Network, High Speed 2, and EU Metrology for Nitrogen Dioxide projects. Advising: Oversees five PhD students and post-doctoral fellows, focusing on environmental engineering and public health applications. Labs/Teams: Leads the Aerosol Science Team and contributes to the MRC Centre for Environment and Health.
Professor David Ferreira is a leading academic in the Meteorology Department at the University of Reading, specializing in climate dynamics, ocean-atmosphere interactions, and paleoclimatology. His research focuses on ocean circulation patterns, such as the Atlantic Meridional Overturning Circulation (AMOC), ocean eddies, and their impacts on global climate systems. Education : PhD in Climate Dynamics from Université Pierre et Marie Curie (Paris) Postdoctoral research at MIT Joined University of Reading as Lecturer in 2013, promoted to Professor Research Interests : Climate variability and multiple equilibria in Earth's climate system Ocean heat transport and its role in regulating sea ice extent Exoplanet climate dynamics and habitability Paleoclimatic reconstructions of past ocean circulations Recent Articles : Highlighting studies on AMOC variability, Southern Ocean carbon dynamics, and the tropical Pacific's dominance in global heat transport. His work bridges theoretical frameworks with numerical modeling to address unresolved climate paradoxes. Advising & Collaboration : Mentors students like Jake Aylmer (PhD) and collaborates globally, including setting up fluid labs in Dhaka University. Labs/Teams : Involved in projects like the EU-funded SO-CHIC initiative studying Southern Ocean heat and carbon budgets.
Professor Sergei Petrovskii is a Chair in Applied Mathematics at the University of Leicester's School of Computing and Mathematical Sciences. His research focuses on mathematical ecology, ecological modeling, and complex systems analysis, with a particular emphasis on climate change impacts, oxygen depletion in oceans, and ecological catastrophes. He has published over 150 peer-reviewed papers and four books, including influential work on global anoxia and mass extinction dynamics. As Editor-in-Chief of Ecological Complexity (2011–2021) and Section Editor-in-Chief of Mathematics ' Mathematical Biology section since 2020, he has significantly shaped interdisciplinary research agendas. His research interests span modeling ecological transients, population dynamics, and invasive species spread. Key contributions include frameworks for landscape decision-making, stochastic models of protest dynamics, and the MPDE conference series he founded. Despite no explicit mention of awards, his editorial roles and prolific publishing underscore his academic influence. His work integrates mathematical modeling with real-world challenges, addressing issues like oxygen minimum zones and the socioeconomic dimensions of climate change. Publications highlight his exploration of transient dynamics, regime shifts, and ecological responses to environmental change. His interdisciplinary approach bridges ecology, epidemiology, and social systems, evidenced by studies on protest dynamics and pandemic modeling. While no lab names are explicitly stated, his research often involves collaborative projects like the Landscape Decisions initiative and MPDE conferences.
Professor Alex Archibald is the Professor of Atmospheric Chemistry in the Yusuf Hamied Department of Chemistry at the University of Cambridge. His research group investigates atmospheric chemistry-climate interactions through fundamental laboratory studies atmospheric observations numerical model simulations . Research interests focus on chemistry-climate feedbacks , including hydrogen economy impacts biogenic hydrocarbon oxidation air pollution mitigation marine sulfur cycling machine learning applications . Recent publications emphasize hydrogen-soil deposition dynamics ozone-temperature relationships DMS chemistry in Earth systems hydrogen economy climate implications AI-driven climate modeling transboundary pollution studies . Teaching includes Part I Kinetics of Chemical Reactions Part II Chemistry in the Atmosphere Part III IDP1 projects . The research team has 15+ current and former students working on topics from Martian atmospheric modeling to urban temperature extremes.
Rudie P.J. Kunnen is an Associate Professor at the Faculty of Applied Physics and Science Education , Eindhoven University of Technology, leading the Turbulent and Multiphase Flows group. His research focuses on heat, mass, and particulate transport in turbulent flows, with applications in geophysics and industry. Active in UN Sustainable Development Goals related to environmental protection Collaborator in projects like Active Contamination Control for Equipment and SubstrateS Research Interests : Turbulent flow dynamics, rotating convection, vortex structures, thermophoresis, plasma-liquid interactions, and geostrophic turbulence. His work combines experimental and numerical approaches (e.g., direct numerical simulation, particle image velocimetry). Scientific Awards : NWO Vici Prize (2024) Advising and Collaborations : Supervised multiple BSc and MSc theses at TU/e. Collaborates with researchers like F. Toschi and H.J.H. Clercx on turbulence projects.
Dr. Helga Huntley is an Assistant Professor in the Department of Mathematics at Rowan University's College of Science & Mathematics. Her research applies mathematical principles to solve complex problems in oceanography and atmospheric science, with expertise in Geophysical Fluid Dynamics, Transport and Dispersion Analysis, and Applied Dynamical Systems. She teaches mathematics courses ranging from remedial to graduate level and mentors students in research projects related to her expertise. Her educational background includes: Ph.D. in Mathematics from the Courant Institute, New York University M.S. in Mathematics from the Courant Institute, New York University B.S. in Mathematics from the University of Notre Dame Dr. Huntley's research examines transport patterns in ocean flows, their predictability, and integration of models across different scales. She investigates data assimilation to improve models based on observations and sea ice dynamics. As a data manager in a multi-institutional research consortium, she has developed expertise in preparing, archiving, and sharing diverse research data from lab experiments to field observations and model outputs. Analysis of Dr. Huntley's publication record reveals a strong focus on oceanographic processes using Lagrangian methods to study surface flows and transport phenomena. Her work spans theoretical mathematical modeling, field data analysis, and practical applications related to marine pollution, predator distribution, and climate impacts. A recurring theme is the investigation of submesoscale ocean dynamics and their implications for understanding larger-scale oceanographic processes, with consistent publication output in high-impact journals. Dr. Huntley actively encourages students interested in her research areas to contact her for research opportunities. While specific grant information isn't detailed in the provided materials, her extensive publication record across multiple high-impact journals suggests successful research funding. Her work often involves collaboration with interdisciplinary teams across various institutions. As a data manager in a multi-institutional research consortium, Dr. Huntley has developed expertise in research data management best practices. Her research methodology often involves oceanographic instrumentation and drifter technologies to collect data on surface ocean dynamics, contributing to our understanding of complex fluid dynamics in natural systems.
