Univ.-Prof. Aiko Voigt is a Professor and Head of the Department of Meteorology and Geophysics at the University of Vienna. Her research focuses on climate dynamics, cloud physics, and atmospheric processes. She leads the Environment and Climate Research Hub and teaches advanced courses like 'Climate Modelling Lab' and 'Cloud Physics.' Her work explores cloud-radiative interactions, climate change impacts, and extreme weather dynamics. Recent studies analyze energy imbalances, high-cloud feedbacks, and tropical precipitation patterns. Voigt's contributions bridge climate modeling with observational data, emphasizing high-resolution simulations and interdisciplinary approaches. Teaching includes courses such as 'Climate System of the Earth,' 'Scientific Communication,' and 'Introduction to Computational Meteorology.' Her research spans from present-day climate to Snowball Earth scenarios, addressing both modern and paleoclimatic challenges. Publications highlight advancements in radiative transfer algorithms, cyclone dynamics under warming, and uncertainties in climate model predictions. Her work underscores the critical role of clouds in amplifying climate sensitivity and reshaping atmospheric circulation patterns.
David Finkelstein is an Associate Professor in the Department of Geosciences at Hobart and William Smith Colleges, where he has been a faculty member since 2013. He earned his Ph.D. from the University of Illinois at Urbana-Champaign and holds advanced degrees from the University of Massachusetts, Amherst. His academic affiliations include prior roles as a Research Assistant Professor and Lab Manager at the University of Massachusetts and as an Assistant Professor at the University of Tennessee. Ph.D., University of Illinois at Urbana-Champaign M.S., University of Massachusetts, Amherst B.S., University of Massachusetts, Amherst Dr. Finkelstein's research centers on limnogeology and biogeochemistry , with a focus on the chemical evolution of lake systems, stable isotope geochemistry, and microbial life in extreme environments. His work integrates aqueous geochemistry, organic molecular analysis, and microbiological methods to reconstruct paleoenvironments and climate change across geological timescales, including the Holocene, Pleistocene, Cretaceous, and Triassic periods. He has extensively studied lake sediments, wildfires, and the environmental impacts of the 2010 Gulf of Mexico oil spill. His recent publications show a strong trend in using biogeochemical proxies and isotopic signatures to understand past climate variability, human-environment interactions, and extreme environmental conditions. His research often involves multidisciplinary collaborations and field-based studies in diverse regions such as Russia, Iran, and Central America. Dr. Finkelstein is actively involved in scientific communities, with affiliations including: International Association of Limnogeology American Geophysical Union Geological Society of America Geochemical Society SEPM (Society for Sedimentary Geology) He has advised numerous research projects and mentored students in geoscience, though specific names are not listed. His teaching includes courses such as Stable Isotope Geochemistry, Limnology, and Environmental Geochemistry, reflecting his expertise in both theoretical and applied aspects of earth sciences. Dr. Finkelstein has not received any explicitly listed scientific awards in the provided text, but his publication record in high-impact journals demonstrates significant scholarly contributions. He does not appear to lead a named laboratory or research center, but his work is deeply embedded in field and laboratory-based geochemical analysis.
David Henderson is the Director of the Cyclone Testing Station (CTS) in the School of Engineering and Physical Sciences at James Cook University, Australia. He has over two decades of experience as a research engineer specializing in the performance of low-rise buildings under extreme wind conditions. He previously served as the CTS Research Fellow and Manager, and was seconded as a Postdoctoral Researcher at the University of Western Ontario, Canada, working on full-scale house testing under simulated wind loads. His work bridges engineering research, disaster assessment, and policy development. David's research focuses on wind engineering, structural resilience, and disaster mitigation. His key interests include cyclonic wind loading, internal and external pressure dynamics in buildings, fatigue failure of structural connections, and the vulnerability of housing to severe wind events. He has conducted post-disaster surveys across Australia and Canada, assessing damage from cyclones, tornadoes, and earthquakes. His research has direct applications in building codes, retrofitting strategies, and community risk reduction. The recent publications highlight a strong trend in understanding and mitigating wind-induced damage to residential structures, particularly through full-scale testing, modeling of pressure dynamics, and fragility assessment of roofing systems. His work spans experimental, theoretical, and policy-oriented domains, with a growing emphasis on climate change adaptation and community resilience. Topics such as internal pressure design, load sharing in roof frames, and retrofitting for wind resistance are central to his contributions. 14 research awards (specific names not listed) Active member of Standards Australia code committees Invited speaker at national and international conferences Media contributor on storm damage and building safety David has led multiple research projects funded by councils and agencies focused on extreme wind mitigation, data systems (SWIRLnet), and community risk reduction. While formal student supervision is not explicitly listed, he collaborates extensively with researchers such as John Ginger, Korah Parackal, and Daniel Smith. He has contributed to major studies involving wind load testing, housing vulnerability modeling, and climate adaptation planning. David is a key figure in the Cyclone Testing Station, leading its full-scale testing program and contributing to the development of software for controlled load and measurement systems. His team conducts wind risk assessments for communities and large installations, incorporating terrain analysis and retrofitting evaluations. The CTS serves as a national resource for wind engineering research and disaster resilience innovation.
Prof. Flavio Anselmetti is a Full Professor of Quaternary Geology and Paleoclimatology at the University of Bern , where he has been employed since 2012. He also serves as the Managing Director of the Institute of Geological Sciences . Prior to this, he held significant roles at ETH Zurich, including SNSF Assistant Professor, and at EAWAG Dübendorf as Head of the Sedimentology Group, while remaining a Titular Professor at ETH Zurich until 2012. His academic training includes a Diploma in Geology (1990) from the University of Basel , followed by a PhD (1994) from ETH Zurich and University of Miami (USA) . He spent three years as a Postdoctoral Fellow and Research Associate at the University of Miami between 1994 and 1997. Paleoseismology : Using lacustrine and marine sediments to reconstruct earthquake and tsunami records Climate Change Studies : Investigating Holocene and Pleistocene climate shifts through sediment cores Sediment Dynamics : Analyzing source-to-sink systems and glacial sediment properties His recent publications focus on sedimentary archives in Science Advances , Quaternary Research , and Environmental Modelling and Software , with an emphasis on deep learning applications in sediment analysis , multi-proxy paleoenvironmental reconstructions , and human impact assessments over millennia. He has contributed to major projects in the Alpine foreland and Caribbean regions . Prof. Anselmetti leads the Quaternary Geology and Paleoclimatology Research Group and collaborates with international teams on ICDP-DOVE drilling campaigns and multibeam bathymetry mapping in Swiss lakes. His work extends to geohazard assessment , carbonate-siliciclastic shelf dynamics , and subaqueous fault analysis in active tectonic zones.
Craig Lee is a Professor of Oceanography at the University of Washington, where he also serves as Senior Principal Oceanographer and Assistant Director for Research at the Applied Physics Laboratory. His work focuses on physical oceanography with emphasis on observational studies and instrument development. Lee leads research programs studying upper ocean dynamics, coastal processes, and high-latitude oceanography across diverse regions including the Arctic, North Atlantic, and South China Sea. Dr. Lee's educational background includes: B.S. in Electrical Engineering and Computer Science from the University of California, Berkeley (1987) Ph.D. in Physical Oceanography from the University of Washington (1995) Lee's primary research interests center on three interconnected areas: (1) upper ocean dynamics, particularly mesoscale and submesoscale fronts and eddies; (2) interactions between biology, biogeochemistry and ocean physics; and (3) high-latitude oceanography in changing Arctic environments. His work often combines field observations with instrument development to address fundamental questions about ocean circulation and its role in climate systems. He has pioneered approaches using autonomous platforms to study difficult-to-access regions like ice-covered waters. Analysis of Lee's recent publications reveals a strong focus on Arctic oceanography, upper ocean mixing processes, and the application of autonomous observing technologies. His research spans multiple ocean basins with particular emphasis on the Arctic, North Atlantic, and western Pacific. A notable trend is the increasing integration of biogeochemical measurements with physical oceanography to understand coupled systems. His work often addresses climate-relevant questions about ocean circulation, heat transport, and ecosystem responses to environmental change. Dr. Lee provides leadership through service on science steering committees for large research programs and advisory panels for U.S. Arctic efforts. He actively supports and advises graduate students while teaching courses on ocean circulation observations and experimental design. His team has developed innovative technologies including autonomous gliders for ice-covered waters, high-performance towed vehicles, and lightweight mooring systems. Lee leads a research team pursuing diverse field programs including Arctic PISCES, Stratified Ocean Dynamics of the Arctic (SODA), and studies of the Kuroshio Current. His group collaborates extensively with institutions worldwide and contributes to major international research initiatives focused on understanding ocean processes and their climate implications.
Professor Joaquim Pinto is a leading climate scientist at the Karlsruhe Institute of Technology (KIT), where he serves as Head of the Working Group "Regional Climate and Weather Hazards" and as Spokesperson of the collegial institute management team. He holds the prestigious AXA Research Fund Chair position at the Institute of Meteorology and Climate Research - Troposphere Research (IMK-TRO). His academic background includes a Licenciate in Geophysical Sciences - Meteorology from the University of Lisbon (1990-1996), PhD studies at the University of Cologne (1998-2002), and academic positions at the University of Cologne (2002-2016) and University of Reading (2013-2016) before joining KIT in 2016. He became a Privatdozent (lecturer) at the University of Cologne in 2011 and earned his habilitation with research on extreme European wind storms. Professor Pinto's research focuses on mid-latitude meteorology and climatology, with special emphasis on extreme weather events , climate variability in Europe across multiple time scales, regional climate modeling and downscaling methods , and the diagnostic modeling and quantification of risks associated with extreme events affecting Europe. His work bridges fundamental climate science with practical applications for risk assessment and management. His extensive publication record demonstrates expertise in analyzing European windstorms, heatwaves, and compound extreme events. Recent work examines the impacts of climate change on wind energy potential, extreme precipitation events, and the complex interactions between atmospheric circulation patterns and regional climate extremes. His research often employs high-resolution climate modeling, statistical-dynamical downscaling approaches, and interdisciplinary collaborations to address pressing climate challenges. AXA Research Fund Chair in Regional Climate and Weather Hazards Professor Pinto teaches graduate and undergraduate courses including "Climate Modelling and Dynamics with ICON," "IPCC Assessment Report," "Climatology," "Energy Meteorology," "Methods of Data Analysis," and "Regional Climate and Weather Hazards." His teaching reflects his research expertise in climate modeling, extreme events, and regional climate change impacts.
Dr. Daphne Lemasquerier is a Lecturer in Fluid Dynamics at the School of Mathematics and Statistics, University of St Andrews, and holds a UKRI Future Leaders Fellowship (£1.4M) since November 2024. Her research combines experimental , numerical , and theoretical approaches to planetary fluid dynamics, with a focus on gas giants and icy moons. Current Roles: Lecturer, UKRI Future Leaders Fellow Research Themes: Jupiter's atmospheric coupling, Europa/Saturnian moons' ocean dynamics, rotating turbulent flows Research Expertise spans: Experimental modeling of zonal jets and polar cyclones Direct numerical simulations of rotating convection Application of fluid dynamics to planetary science Interdisciplinary work bridging geophysics and astrophysics Scientific Recognition: Andreas Acrivos Dissertation Award (2022) Donald L. Turcotte Award (AGU, 2022) L'Oreal-UNESCO International Rising Talents (2022) L'Oreal-UNESCO French Young Talents (2021) Milton van Dyke Award (2019) Collaborative Networks: Carnegie Trust-funded experimental setup (2023), Royal Society Research Grant (2024), partnership with NERC’s National Centre for Atmospheric Science (2024), and international collaborations with UTIG, IRPHE, and Spinlab (UCLA).
Professor Liz Stephens is a faculty member at the University of Reading's Department of Meteorology, specializing in flood forecasting, climate variability, and disaster risk management. Her work focuses on improving hydrological and meteorological models to enhance flood preparedness and climate adaptation strategies globally. Research Interests: Probabilistic flood forecasting Climate impacts on extreme events Enhancing forecast communication for decision-makers Applications in data-scarce regions like Kenya and Uganda Key Projects: Global Flood Awareness System (GloFAS) World Weather Attribution studies Probabilistic forecast evaluation frameworks Her research bridges academic analysis with practical implementation, collaborating with international organizations like ECMWF and humanitarian agencies to translate scientific insights into actionable disaster preparedness measures.
Thomas Wernberg is a Professor in the School of Biological Sciences at The University of Western Australia (UWA), affiliated with the UWA Oceans Institute. His research focuses on ecological interactions in coastal marine habitats, particularly kelp forests, and their responses to climate change, marine heatwaves, and invasive species. He has held roles including Chair of UWA's Boating & Diving Safety Committee and Editor-in-Chief of Aquatic Botany . Wernberg has contributed to over 267 publications and secured 53 grants, including projects on kelp restoration and blue carbon management. He is a recipient of multiple 'Highly Cited Researcher' awards and has advised on initiatives like Seaforester . His work bridges sub-cellular to macro-ecological scales, addressing climate mitigation through marine ecosystem services. Education: MSc from Roskilde University (RUC). Previous Positions: ARC Future Fellow (2011–2015), Senior Lecturer (2015–2021), and various postdoctoral roles at UWA and other institutions. Research Themes: Climate change impacts, marine heatwaves, kelp restoration ( Green Gravel ), blue carbon, and biodiversity conservation. His lab explores resilience thresholds, ecological costs of stress, and genetic diversity's role in adaptation. Collaborations span global institutions, with active research in Arctic/Subarctic regions and Australian marine ecosystems. Grants & Projects: Includes operational upscaling of seaforestation, hydrodynamic energy attenuation studies, and blue carbon management. He leads initiatives to protect 4 million hectares of kelp forests by 2040. Awards: 2019–2022 Highly Cited Researcher (Web of Science), 2022 Senior Research Award (UWA School of Biological Sciences). Labs/Teams: Collaborates with the Great Southern Reef Foundation, Uluu Scientific Advisory Board, and international networks like the Green Gravel Action Group .
Dr. Patrick S. Market is a Professor of Atmospheric Science and currently serves as the Director of the School of Natural Resources at the University of Missouri. He also acts as Interim Co-Director of the Missouri Water Center. His research focuses on synoptic and mesoscale dynamics, particularly winter weather, heavy rainfall, flash flooding, and severe local storms. He has contributed to advancements in precipitation efficiency studies and operational forecasting techniques. His work explores the role of artificial intelligence in weather prediction and communication, emphasizing the continued importance of human expertise in an automated forecast process. Dr. Market has secured grants for data stream maintenance and digital equity planning, and he has led educational initiatives integrating research into synoptic meteorology classrooms. Notable collaborations include projects with the National Weather Service and studies on the Ozark Plateau's topographical influence on weather systems.
John Taylor is a Professor of Mathematical Physics at the Department of Applied Mathematics and Theoretical Physics (DAMTP), University of Cambridge. His career includes roles as Reader in Theoretical Physics at Oxford University and earlier positions as Lecturer at Cambridge and Imperial College. His research focuses on Gauge Field Theory, Thermal Field Theory, and fluid dynamics with applications to oceanography and climate science. He leads the High Energy Physics research group at DAMTP and contributes to interdisciplinary projects on carbon sequestration and ocean biogeochemical modeling. Key research interests include turbulence in stratified flows, submesoscale ocean dynamics, and climate-related processes such as ice shelf-ocean interactions. His work integrates theoretical physics, computational modeling, and machine learning to address challenges in environmental science. Taylor has authored influential publications, including Hidden Unity in Nature's Laws (2001) and edited volumes on gauge theories. Recent studies explore carbon dioxide removal via macroalgae cultivation and the impact of fluid dynamics on kelp forests. His collaborative projects include developing the OceanBioME framework for coupled biogeochemical and physical ocean modeling.
Tom Beucler is a Conditional Pre-Tenure Assistant Professor in Geo-Environmental Data Science at the University of Lausanne’s Institute for Earth Surface Dynamics (IDYST). He holds a Master’s degree in Science and Mechanics from École Polytechnique (2014) and a PhD in Atmospheric Science from MIT (2019). Postdoctoral research at Columbia University and UC Irvine focused on machine learning applications in climate science under Professors Pierre Gentine and Michael Pritchard. Research Interests: Climate informatics, atmospheric physics, fluid dynamics, tropical meteorology, and integrating machine learning into climate models for extreme weather prediction and hydrological cycle modeling. Collaborations: Works with environmental scientists and computer engineers to improve climate models using neural networks and causal discovery methods. Initiatives: Organizes weekly brainstorming sessions to promote machine learning adoption in environmental sciences. Publications span climate-invariant machine learning, data-driven parameterizations, and hybrid AI-climate modeling frameworks like ClimSim. His work emphasizes causal consistency and generalizability across climate conditions.
Hyemi Kim is an Adjunct Professor at the School of Marine and Atmospheric Sciences (SoMAS), Stony Brook University. Her research focuses on climate variability across subseasonal to decadal timescales, including topics like the Madden-Julian Oscillation (MJO), tropical-extratropical interactions, and extreme weather events such as atmospheric rivers and tropical cyclones. Education: Ph.D., 2008, School of Earth and Environmental Sciences, Seoul National University, South Korea Research Interests: Hyemi Kim's work spans four primary areas: (1) Climate prediction from subseasonal to decadal scales, (2) Tropical-extratropical interactions, (3) Extreme events (atmospheric rivers, storm tracks, tropical cyclones), and (4) Machine learning applications for subseasonal-to-seasonal (S2S) prediction. Publication Trends: Her research output emphasizes the MJO, its interactions with other climate modes (QBO, ENSO), and implications for extreme weather. Recent works analyze atmospheric rivers, storm tracks, and tropical cyclone activity, often linking these to large-scale climate variability. Publications frequently employ climate models (e.g., CESM1, SubX, NMME) to assess predictability and improve forecasting frameworks. Labs & Teams: She collaborates with institutions like the National Center for Atmospheric Research (NCAR) and contributes to multi-model experiments such as the Subseasonal Experiment (SubX) and North American Multi-Model Ensemble (NMME).
Michael Oppenheimer is the Albert G. Milbank Professor of Geosciences and International Affairs at Princeton University, affiliated with the Princeton School of Public and International Affairs (SPIA), the Department of Geosciences, and the High Meadows Environmental Institute (HMEI). He directs the Center for Policy Research on Energy and the Environment (C-PREE) and holds roles in multiple research programs. His work bridges climate science and policy, focusing on climate impacts, adaptation, and scientific assessment frameworks. He has advised international bodies, including the IPCC, and contributed to foundational climate policies like the Kyoto Protocol. Education: Ph.D. in Chemical Physics, University of Chicago S.B. in Chemistry, MIT Research Interests: Climate change impacts, sea level rise, compound hazards (e.g., storms and heatwaves), migration dynamics, and the role of scientific assessments in policy. His work emphasizes actionable solutions for climate adaptation and mitigation. Grants & Awards: 2010 Heinz Award for the Environment AAAS Fellow Recipient of the Nobel Peace Prize (via IPCC, 2007) Advising & Labs: Leads the C-PREE, mentors over 20 graduate students, and collaborates with interdisciplinary teams on climate policy and science. Key labs/centers include C-PREE, HMEI, and the NY City Panel on Climate Change.
Lorenzo Cremaschi is an Associate Professor in the Department of Mechanical Engineering at Auburn University, where he leads the High Performance Scalable Building Energy Systems and Technologies (HPS-BEST) Laboratory. His research focuses on enhancing energy efficiency in buildings and transportation systems through advanced thermal-fluid technologies. Education Ph.D. Mechanical Engineering, University of Maryland M.S. Mechanical Engineering, University of Modena and Reggio Emilia B.S. Mechanical Engineering, University of Modena and Reggio Emilia Research Focus Dr. Cremaschi's research encompasses energy efficiency, scalable energy systems, and advanced heat/mass transfer processes. His laboratory investigates refrigeration systems, low-GWP refrigerants, frost/defrost phenomena, and novel dehumidification technologies. Current projects examine electrospray-enhanced heat exchangers, two-phase flow dynamics, and spray evaporation in HVAC systems. Research Output Recent publications demonstrate strong focus on thermal-fluid phenomena in energy systems, including experimental and numerical studies of two-phase flow, refrigerant performance, frost formation dynamics, and novel dehumidification technologies. Emerging themes include electrospray applications, low-GWP refrigerants, and system optimization for sustainable HVAC. Funding and Recognition Recipient of $150,000+ grant from ASHRAE for climate lab research Laboratory Leadership The HPS-BEST Laboratory under Dr. Cremaschi's direction collaborates with national laboratories and industry partners to develop scalable energy solutions. The lab specializes in experimental analysis of heat transfer fluids, phase-change processes, and system performance optimization for refrigeration and HVAC applications.
