I am an Associate Professor in the EPhysLab in the Universidade de Vigo, in Ourense (Spain). I am an affiliate in Economics for Energy. Also, I am the Secretary/Treasurer of the Group of Atmospheric and Oceanic Physics of the Spanish Royal Society of Physics. Previously I have been Research Fellow in Climate and Risks Assessment for Adaptation Policy and Senior Visiting Research Associate in the Smith School of Enterprise and the Environment, University of Oxford, where I was the Scientific Coordinator of ClimatePrediction.net.

I am an Associate Professor in the EPhysLab in the Universidade de Vigo, in Ourense (Spain). I am an affiliate in Economics for Energy. Also, I am the Secretary/Treasurer of the Group of Atmospheric and Oceanic Physics of the Spanish Royal Society of Physics. Previously I have been Research Fellow in Climate and Risks Assessment for Adaptation Policy and Senior Visiting Research Associate in the Smith School of Enterprise and the Environment, University of Oxford, where I was the Scientific Coordinator of ClimatePrediction.net.

climatology, hydrology

climatology, hydrology

+1-303-497-1380

I am an Associate Professor in the EPhysLab in the Universidade de Vigo, in Ourense (Spain). I am an affiliate in Economics for Energy. Also, I am the Secretary/Treasurer of the Group of Atmospheric and Oceanic Physics of the Spanish Royal Society of Physics. Previously I have been Research Fellow in Climate and Risks Assessment for Adaptation Policy and Senior Visiting Research Associate in the Smith School of Enterprise and the Environment, University of Oxford, where I was the Scientific Coordinator of ClimatePrediction.net.

I am an Associate Professor in the EPhysLab in the Universidade de Vigo, in Ourense (Spain). I am an affiliate in Economics for Energy. Also, I am the Secretary/Treasurer of the Group of Atmospheric and Oceanic Physics of the Spanish Royal Society of Physics. Previously I have been Research Fellow in Climate and Risks Assessment for Adaptation Policy and Senior Visiting Research Associate in the Smith School of Enterprise and the Environment, University of Oxford, where I was the Scientific Coordinator of ClimatePrediction.net.

Dr. Rohitash Chandra is a Senior Lecturer in Data Science at the UNSW School of Mathematics and Statistics. Dr. Chandra has a built a program of research encircling methodologies and applications of artificial intelligence; particularly in areas of deep learning, neuro-evolution, Bayesian methods, climate extremes, solid Earth Evolution, reef modelling and mineral exploration. Together with leading international interdisciplinary teams, he has attracted over 11 million dollars from various funding agencies, including the Deep Carbon Observatory (2018-2019) and the Australian Research Council (ARC ITTC) Training Centre for Data Analytics in Minerals and Resources (2020-2025). More information: https://research.unsw.edu.au/people/dr-rohitash-chandra

Dr. Rohitash Chandra is a Senior Lecturer in Data Science at the UNSW School of Mathematics and Statistics. Dr. Chandra has a built a program of research encircling methodologies and applications of artificial intelligence; particularly in areas of deep learning, neuro-evolution, Bayesian methods, climate extremes, solid Earth Evolution, reef modelling and mineral exploration. Together with leading international interdisciplinary teams, he has attracted over 11 million dollars from various funding agencies, including the Deep Carbon Observatory (2018-2019) and the Australian Research Council (ARC ITTC) Training Centre for Data Analytics in Minerals and Resources (2020-2025). More information: https://research.unsw.edu.au/people/dr-rohitash-chandra

+49-(0)8153-282536

I am a physicist working as post-doc at the MPI for Chemistry in Mainz. My interest include all sorts of scientific modelling aspects, from GCMs to Monte-Carlo and neural networks. In geophysics field, I am a specialist on chemical kinetics and isotope composition of trace gas constituents, foremost H, C and O isotopes.

I am a physicist working as post-doc at the MPI for Chemistry in Mainz. My interest include all sorts of scientific modelling aspects, from GCMs to Monte-Carlo and neural networks. In geophysics field, I am a specialist on chemical kinetics and isotope composition of trace gas constituents, foremost H, C and O isotopes.

+49 6131 305 4615

+32-26293593

+49-(0)8153-28-2565

I am a climate scientist and my research focus is on how the land and the atmosphere interact with each other. I use state of the art land surface models coupled to atmospheric models to answer various scientific questions on this topic.

I am a climate scientist and my research focus is on how the land and the atmosphere interact with each other. I use state of the art land surface models coupled to atmospheric models to answer various scientific questions on this topic.

+1-(0)303-4971384

+33 1 44272748

climatology, hydrology

climatology, hydrology

I am a Lecturer in atmospheric science at the University of Leeds, with 20+ years research experience. My research specialism is in stratospheric aerosol and the climate effects from major volcanic eruptions. I am a member of the Scientific Steering Committee of the SPARC “Stratospheric Sulphur and its Role in Climate” initiative and co-lead the UK contributions to the CMIP6 MIPs VolMIP and GeoMIP experiments. I also co-ordinate the ongoing development of the GLOMAP-mode aerosol microphysics module.

I am a Lecturer in atmospheric science at the University of Leeds, with 20+ years research experience. My research specialism is in stratospheric aerosol and the climate effects from major volcanic eruptions. I am a member of the Scientific Steering Committee of the SPARC “Stratospheric Sulphur and its Role in Climate” initiative and co-lead the UK contributions to the CMIP6 MIPs VolMIP and GeoMIP experiments. I also co-ordinate the ongoing development of the GLOMAP-mode aerosol microphysics module.

+33-1-69087727

I am a chemistry-climate modeller with interests in all areas of composition-climate interactions. Present research foci include cloud-aerosol coupling and the impact of ozone depletion on the climate system.

I am a chemistry-climate modeller with interests in all areas of composition-climate interactions. Present research foci include cloud-aerosol coupling and the impact of ozone depletion on the climate system.

0064 4 3860928

+1-303-497-1380

My research focuses on the fundamental physical processes that control weather and climate phenomena that impact human and natural systems. I specialize in utilizing a combination of numerical models, novel data analysis techniques, and fundamental theory to form and test hypotheses about what controls the physical characteristics and occurrence of weather patterns in observations and simulations.

My research focuses on the fundamental physical processes that control weather and climate phenomena that impact human and natural systems. I specialize in utilizing a combination of numerical models, novel data analysis techniques, and fundamental theory to form and test hypotheses about what controls the physical characteristics and occurrence of weather patterns in observations and simulations.

I am a research scientist based in Hobart, Tasmania, Australia. Over the course of my academic career, I have worked and studied at the University of Oxford, the University of Tasmania, the University of New South Wales and CSIRO. However, determined to close the loop between basic research and policymaking, I left academia in November 2020. I am now the founding Director of Ikigai Research, an independent, non-profit research partnership. The overarching focus of my research program is on using modelling and data science to tackle some of the grand challenges of the 21st century. Primarily, I study past, present and future changes in the climate system, with a particular focus on Antarctica and global sea level rise. I endeavour to bridge the gap between science and policy, working with decision-makers to provide them with the information they need to deal with the challenge of climate change. I have also been contributing my expertise towards efforts to tackle the COVID-19 pandemic, using data-based approaches and simple models to understand the spread of the infection amongst the global population. I am a strong believer in the power of diplomacy and international relations to make our world a better place. Through the Australia-Japan Society of Tasmania and the Australian Institute for International Affairs, I seek to promote mutual cultural understanding and create a world where we can tackle the grand challenges of the 21st century together. Above all, I have a fundamentally optimistic perspective on life. I believe in inspiring people, telling positive stories and striving for a better world.

I am a research scientist based in Hobart, Tasmania, Australia. Over the course of my academic career, I have worked and studied at the University of Oxford, the University of Tasmania, the University of New South Wales and CSIRO. However, determined to close the loop between basic research and policymaking, I left academia in November 2020. I am now the founding Director of Ikigai Research, an independent, non-profit research partnership. The overarching focus of my research program is on using modelling and data science to tackle some of the grand challenges of the 21st century. Primarily, I study past, present and future changes in the climate system, with a particular focus on Antarctica and global sea level rise. I endeavour to bridge the gap between science and policy, working with decision-makers to provide them with the information they need to deal with the challenge of climate change. I have also been contributing my expertise towards efforts to tackle the COVID-19 pandemic, using data-based approaches and simple models to understand the spread of the infection amongst the global population. I am a strong believer in the power of diplomacy and international relations to make our world a better place. Through the Australia-Japan Society of Tasmania and the Australian Institute for International Affairs, I seek to promote mutual cultural understanding and create a world where we can tackle the grand challenges of the 21st century together. Above all, I have a fundamentally optimistic perspective on life. I believe in inspiring people, telling positive stories and striving for a better world.

I previously developed a global fire model within in a dynamic global vegetation model (DGVM). The novel aspect was to explicitly simulate cropland and pasture burning, based on a climatology I developed of burned area associated with those land uses. Now I'm working on coupling the LPJ-GUESS DGVM with the climate emulator IMOGEN and the land-use model PLUMv2, investigating questions related to the interactions between climate change, productivity, and land use/management decisionmaking. I am also working to improve crop representation in the Community Earth System Model in service of simulating impacts of solar radiation management geoengineering.

I previously developed a global fire model within in a dynamic global vegetation model (DGVM). The novel aspect was to explicitly simulate cropland and pasture burning, based on a climatology I developed of burned area associated with those land uses. Now I'm working on coupling the LPJ-GUESS DGVM with the climate emulator IMOGEN and the land-use model PLUMv2, investigating questions related to the interactions between climate change, productivity, and land use/management decisionmaking. I am also working to improve crop representation in the Community Earth System Model in service of simulating impacts of solar radiation management geoengineering.

Dr Samuel Rémy has fourteen years of experience in atmospheric composition and meteorological research. Samuel is the Prime Investigator of the CAMS_43 (global aerosol developments). Samuel has been maintaining and upgrading the CAMS aerosol models IFS-AER and IFS-GLOMAP for seven years, first at the European Center for Medium-range Weather Forecasts (ECMWF) and then remotely from the Centre National de la Recherche Scientifique (CNRS) and HYGEOS, in the Monitoring Atmospheric Climate and Composition (MACC)-II, MACC-III and then CAMS_43 projects. Samuel has authored or co-authored more than 40 articles published in peer-reviewed journals, and is responsible for the aerosol section of the BAMS State of the Climate publication since 2015.

Dr Samuel Rémy has fourteen years of experience in atmospheric composition and meteorological research. Samuel is the Prime Investigator of the CAMS_43 (global aerosol developments). Samuel has been maintaining and upgrading the CAMS aerosol models IFS-AER and IFS-GLOMAP for seven years, first at the European Center for Medium-range Weather Forecasts (ECMWF) and then remotely from the Centre National de la Recherche Scientifique (CNRS) and HYGEOS, in the Monitoring Atmospheric Climate and Composition (MACC)-II, MACC-III and then CAMS_43 projects. Samuel has authored or co-authored more than 40 articles published in peer-reviewed journals, and is responsible for the aerosol section of the BAMS State of the Climate publication since 2015.

My main research topic is on the understanding the physical mechanisms responsible or accompanying past climate changes. The past time period I am most interested in is the last glacial cycle (approx. 126,000 to 7,000 years before present) with a particular interest on rapid climate change during the glacial climate.

My main research topic is on the understanding the physical mechanisms responsible or accompanying past climate changes. The past time period I am most interested in is the last glacial cycle (approx. 126,000 to 7,000 years before present) with a particular interest on rapid climate change during the glacial climate.

+1-(0)540-2312193

I have been developing the Spatially-Explicit-Individual-Based Dynamic-Global-Vegetation-Model (SEIB-DGVM), which simulate how vegetation structures and functions change under changing climatic environment.

I have been developing the Spatially-Explicit-Individual-Based Dynamic-Global-Vegetation-Model (SEIB-DGVM), which simulate how vegetation structures and functions change under changing climatic environment.

+81-45-778-5605

+49 3641 576133

I have been Senior Scientist in the group for Atmospheric Chemistry at the Institute for Atmospheric and Climate Science, ETH Zurich, since 2015. Born in 1976 in Munich, Germany, I studied meteorology at the University of Munich. In 2006, I received my PhD in the field of chemistry-climate modelling focusing on stratospheric water vapour. After some years as Post-Doc at the DLR Institute for Atmospheric Physics, Oberpfaffenhofen, Germany, I changed to ETH in 2009, where I started as Post-Doc and later became the leader of the chemistry-climate modelling group. In 2009 I also became a member of the editorial board of Geoscientific Model Development. Since 2013 I am a lecturer for the Stratospheric Chemistry course at IAC. And since it is never too late to learn something new, I started a Diploma in Applied Statistics in spring 2019. My research interests include tropospheric and stratospheric ozone, its coupling to atmospheric circulation and climate as well as the role of sulfate aerosol in the atmosphere.

I have been Senior Scientist in the group for Atmospheric Chemistry at the Institute for Atmospheric and Climate Science, ETH Zurich, since 2015. Born in 1976 in Munich, Germany, I studied meteorology at the University of Munich. In 2006, I received my PhD in the field of chemistry-climate modelling focusing on stratospheric water vapour. After some years as Post-Doc at the DLR Institute for Atmospheric Physics, Oberpfaffenhofen, Germany, I changed to ETH in 2009, where I started as Post-Doc and later became the leader of the chemistry-climate modelling group. In 2009 I also became a member of the editorial board of Geoscientific Model Development. Since 2013 I am a lecturer for the Stratospheric Chemistry course at IAC. And since it is never too late to learn something new, I started a Diploma in Applied Statistics in spring 2019. My research interests include tropospheric and stratospheric ozone, its coupling to atmospheric circulation and climate as well as the role of sulfate aerosol in the atmosphere.

+41-(0)44-6327253

Based in the Centre for Atmospheric Science, my research uses computer models and a combination of mathematics, physics and chemistry to understand how tiny atmospheric particles influence our climate and air quality. Testing these models, using a combination of laboratory and field studies, gives us the tools we need to try and resolve how the way we live affects the environment.

Based in the Centre for Atmospheric Science, my research uses computer models and a combination of mathematics, physics and chemistry to understand how tiny atmospheric particles influence our climate and air quality. Testing these models, using a combination of laboratory and field studies, gives us the tools we need to try and resolve how the way we live affects the environment.

Dr Sophie Valcke holds a "highly qualified" research engineer position at CERFACS where she is working on high-resolution atmosphere-ocean-ice coupled modelling and is leading a team of 4 engineers developing the OASIS3-MCT coupler. Thanks to her expertise in HPC for climate, Dr Valcke participates in different HPC International committees, e.g. the ENES Workshop on High-performance computing for Climate and Weather Committee or the PRACE Access Committee. Dr Valcke is CERFACS Principal Investigator for the EU project IS-ENES3 and the ESiWACE Center of Excellence and played this role also for IS-ENES2, IS-ENES1 and METAFOR infrastructure projects. These projects favour Dr Valcke's interaction with many climate modelling groups in Europe and with other groups internationally developing coupling frameworks. Dr Valcke also played a key role in the set-up of the International Working Committee on Coupling Technologies that organizes global efforts on the characterization, comparison, and benchmarking of Earth system model coupling technologies and related workshops.

Dr Sophie Valcke holds a "highly qualified" research engineer position at CERFACS where she is working on high-resolution atmosphere-ocean-ice coupled modelling and is leading a team of 4 engineers developing the OASIS3-MCT coupler. Thanks to her expertise in HPC for climate, Dr Valcke participates in different HPC International committees, e.g. the ENES Workshop on High-performance computing for Climate and Weather Committee or the PRACE Access Committee. Dr Valcke is CERFACS Principal Investigator for the EU project IS-ENES3 and the ESiWACE Center of Excellence and played this role also for IS-ENES2, IS-ENES1 and METAFOR infrastructure projects. These projects favour Dr Valcke's interaction with many climate modelling groups in Europe and with other groups internationally developing coupling frameworks. Dr Valcke also played a key role in the set-up of the International Working Committee on Coupling Technologies that organizes global efforts on the characterization, comparison, and benchmarking of Earth system model coupling technologies and related workshops.

My research focuses on understanding the interactions between the earth's surface, clouds and radiation. I use 3D simulation, field observations and machine learning for my research. I have co-developed MicroHH (www.microhh.org) and the CLASS model (classmodel.github.io) that are main tools in my research

My research focuses on understanding the interactions between the earth's surface, clouds and radiation. I use 3D simulation, field observations and machine learning for my research. I have co-developed MicroHH (www.microhh.org) and the CLASS model (classmodel.github.io) that are main tools in my research

+49(471)4831-1762

I investigate ice, water, and landscapes through the past and present: growth and decay of ice sheets and glaciers and their interactions with climate, dynamics of river systems, global sea level variability, and modern hydrologic and Earth-surface processes. I approach these questions through a combination of field observations, field instrumentation (developed in my lab), and numerical modeling.

I investigate ice, water, and landscapes through the past and present: growth and decay of ice sheets and glaciers and their interactions with climate, dynamics of river systems, global sea level variability, and modern hydrologic and Earth-surface processes. I approach these questions through a combination of field observations, field instrumentation (developed in my lab), and numerical modeling.