http://kenmankoff.com

http://kenmankoff.com

As a Meteorology major and PhD in Atmospheric sciences, I have studied many topics in my career. Special interest in the interactions between fields (physics and chemistry) and modulations by atmospheric processes at different scales. Examples: aerosol-cloud-precipitation interactions, measurements of urban/ (particles/gases) and regional environments,(e.g. biomass burning, dust) and urban and regional sources of pollution and their impacts. Other research lines include mesoscale atmospheric processes, and tropical cyclones and their relationship with large-scale environments.

As a Meteorology major and PhD in Atmospheric sciences, I have studied many topics in my career. Special interest in the interactions between fields (physics and chemistry) and modulations by atmospheric processes at different scales. Examples: aerosol-cloud-precipitation interactions, measurements of urban/ (particles/gases) and regional environments,(e.g. biomass burning, dust) and urban and regional sources of pollution and their impacts. Other research lines include mesoscale atmospheric processes, and tropical cyclones and their relationship with large-scale environments.

+5255 56224800 ext 81899

PhD, 1993; Habilitation thesis 2001 CNRS researcher since 2002.

PhD, 1993; Habilitation thesis 2001 CNRS researcher since 2002.

+33 616635093

Dr. Hanqin Tian is Director of Center for Earth System Science and Global Sustainability, Schiller Institute Professor and Professor of Earth and Environmental Sciences at Boston College. Dr. Tian has worked across the disciplinary lines of earth system science, ecology, biogeochemistry, hydrology, earth system modeling, remote sensing and data science. His research on global carbon and nitrogen cycling and greenhouse gas emissions is at the leading edge of the field. His research has resulted in over 400 peer-reviewed research articles published in most prestigious journals including over 30 papers in Nature, Science, PNAS and their sister journals. Dr. Tian is a Highly Cited Researcher ranked by Clarivate Web of Science. He was also ranked among the world’s most influential climate scientists by the Reuters List. Dr. Tian is a coordinating lead author for the International Nitrogen Assessment and a contributing author for IPCC AR6. He has served on the Steering Scientific Committee of Global Carbon Project (GCP) and Co-Chair of the International Scientific Committee for Global Nitrous Oxide Budget Assessment. Dr. Tian is elected Fellow of American Association for the Advancement of Science (AAAS), American Geophysical Union (AGU), and Ecological Society of America (ESA). He was named an Andrew Carnegie Fellow (Brainy Award) in 2019.

Dr. Hanqin Tian is Director of Center for Earth System Science and Global Sustainability, Schiller Institute Professor and Professor of Earth and Environmental Sciences at Boston College. Dr. Tian has worked across the disciplinary lines of earth system science, ecology, biogeochemistry, hydrology, earth system modeling, remote sensing and data science. His research on global carbon and nitrogen cycling and greenhouse gas emissions is at the leading edge of the field. His research has resulted in over 400 peer-reviewed research articles published in most prestigious journals including over 30 papers in Nature, Science, PNAS and their sister journals. Dr. Tian is a Highly Cited Researcher ranked by Clarivate Web of Science. He was also ranked among the world’s most influential climate scientists by the Reuters List. Dr. Tian is a coordinating lead author for the International Nitrogen Assessment and a contributing author for IPCC AR6. He has served on the Steering Scientific Committee of Global Carbon Project (GCP) and Co-Chair of the International Scientific Committee for Global Nitrous Oxide Budget Assessment. Dr. Tian is elected Fellow of American Association for the Advancement of Science (AAAS), American Geophysical Union (AGU), and Ecological Society of America (ESA). He was named an Andrew Carnegie Fellow (Brainy Award) in 2019.

6175523664

+49-551-900339-19

PhD (2012-2016) on aeolian erosion over Antarctic snow surfaces using both observational and numerical approaches. Post-doctoral position (2016-2020) on the drifting snow climate of the Antarctic and Greenland Ice Sheets.

PhD (2012-2016) on aeolian erosion over Antarctic snow surfaces using both observational and numerical approaches. Post-doctoral position (2016-2020) on the drifting snow climate of the Antarctic and Greenland Ice Sheets.

Dr Montserrat Costa Surós graduated with honours in Environmental Sciences (2005) and obtained a Master’s in Environment (2009) from the University of Girona (UdG, Spain). During her PhD studies, she completed research stays at the Pacific Northwest National Laboratory (USA, 2011) and Vaisala Oyj (Finland, 2012). In 2014, she earned her PhD in Experimental Sciences and Sustainability from UdG. She then took a postdoctoral position at the University of Warsaw’s Institute of Geophysics (Poland, 2014-2016), where she worked primarily on aerosol, cloud, and water vapour observations using a multi-wavelength Raman depolarization Lidar. She was also involved in the European Space Agency’s “MULTIPLY Project” to develop a European HSRL airborne facility. From 2016 to 2019, Dr Costa Surós held a postdoctoral position at the University of Cologne's Remote Sensing Group, contributing to the HD(CP)2 project on aerosol-cloud-precipitation interactions, and evaluating the ICON-LES model. In 2020, she joined the Barcelona Supercomputing Center (BSC, Spain) as a Research Scientist in Climate Data Quality Control, assessing climate datasets for the Copernicus Climate Change Service (C3S). In 2021, she was awarded a STARS fellowship (Marie Skłodowska-Curie Action COFUND) to research dust-cloud interactions and their radiative forcing in the Atmospheric Composition group at BSC. Since then, she has been a Postdoctoral Researcher at BSC-AC, focusing on aerosol-cloud interactions in ice clouds and participating in the FORCeS, FOCI, and CERTAINTY projects, among others. In 2022, she completed a one-month research stay at the Swiss Federal Institute of Technology Lausanne (EPFL) to implement a secondary ice production parameterization into the EC-Earth3 ESM and participated in a dust experiment campaign at the Karlsruhe Institute of Technology (KIT). Since 2021, Dr Costa Surós has also served as an Associate Lecturer at the University of Girona, teaching Meteorology and Climatology.

Dr Montserrat Costa Surós graduated with honours in Environmental Sciences (2005) and obtained a Master’s in Environment (2009) from the University of Girona (UdG, Spain). During her PhD studies, she completed research stays at the Pacific Northwest National Laboratory (USA, 2011) and Vaisala Oyj (Finland, 2012). In 2014, she earned her PhD in Experimental Sciences and Sustainability from UdG. She then took a postdoctoral position at the University of Warsaw’s Institute of Geophysics (Poland, 2014-2016), where she worked primarily on aerosol, cloud, and water vapour observations using a multi-wavelength Raman depolarization Lidar. She was also involved in the European Space Agency’s “MULTIPLY Project” to develop a European HSRL airborne facility. From 2016 to 2019, Dr Costa Surós held a postdoctoral position at the University of Cologne's Remote Sensing Group, contributing to the HD(CP)2 project on aerosol-cloud-precipitation interactions, and evaluating the ICON-LES model. In 2020, she joined the Barcelona Supercomputing Center (BSC, Spain) as a Research Scientist in Climate Data Quality Control, assessing climate datasets for the Copernicus Climate Change Service (C3S). In 2021, she was awarded a STARS fellowship (Marie Skłodowska-Curie Action COFUND) to research dust-cloud interactions and their radiative forcing in the Atmospheric Composition group at BSC. Since then, she has been a Postdoctoral Researcher at BSC-AC, focusing on aerosol-cloud interactions in ice clouds and participating in the FORCeS, FOCI, and CERTAINTY projects, among others. In 2022, she completed a one-month research stay at the Swiss Federal Institute of Technology Lausanne (EPFL) to implement a secondary ice production parameterization into the EC-Earth3 ESM and participated in a dust experiment campaign at the Karlsruhe Institute of Technology (KIT). Since 2021, Dr Costa Surós has also served as an Associate Lecturer at the University of Girona, teaching Meteorology and Climatology.

Chris has worked as a research assistant and research associate at the Global Institute for Water Security and the Centre for Hydrology, University of Saskatchewan since 2010. He managed and contributed scientifically to the Changing Cold Regions Network (CCRN; 2013-2018) and has served as Science Manager for GWF since 2016 and INARCH since 2017. His education background includes a B.Sc. (honours) degree in Physical Geography from the University of Saskatchewan (2004), an M.Sc. in Earth and Atmospheric Sciences from the University of Alberta (2006), and a Ph.D. in Hydrology from the University of Saskatchewan (2012). Chris is interested in mountains and snow and glacier hydrology, as well as changes in snow and glaciers. Research publications are available here: https://scholar.google.ca/citations?user=120busUAAAAJ&hl=en.

Chris has worked as a research assistant and research associate at the Global Institute for Water Security and the Centre for Hydrology, University of Saskatchewan since 2010. He managed and contributed scientifically to the Changing Cold Regions Network (CCRN; 2013-2018) and has served as Science Manager for GWF since 2016 and INARCH since 2017. His education background includes a B.Sc. (honours) degree in Physical Geography from the University of Saskatchewan (2004), an M.Sc. in Earth and Atmospheric Sciences from the University of Alberta (2006), and a Ph.D. in Hydrology from the University of Saskatchewan (2012). Chris is interested in mountains and snow and glacier hydrology, as well as changes in snow and glaciers. Research publications are available here: https://scholar.google.ca/citations?user=120busUAAAAJ&hl=en.

My research involves developing coupled human and natural system models to gain a better understanding of various resources and environmental management issues, such as carbon emissions, water, land, and air pollution, in the context of globalization and socio-economic development. A key innovation of my work is the modeling framework that tracks the tele-connected environmental and social consequences of human decisions across scales from local to global. While the drivers of human consumption choices are primarily determined at the local level (e.g., infrastructure, accessibility, climate, social environment etc.), the environmental impacts of these decisions have far-reaching global effects.

My research involves developing coupled human and natural system models to gain a better understanding of various resources and environmental management issues, such as carbon emissions, water, land, and air pollution, in the context of globalization and socio-economic development. A key innovation of my work is the modeling framework that tracks the tele-connected environmental and social consequences of human decisions across scales from local to global. While the drivers of human consumption choices are primarily determined at the local level (e.g., infrastructure, accessibility, climate, social environment etc.), the environmental impacts of these decisions have far-reaching global effects.

I completed my PhD in sea ice remote sensing at the University of Tasmania in 2011. From there, I undertook several postdoctoral appointments, both at the University of Tasmania and Hokkaido University, Japan, on cryospheric remote sensing. I am now co-project leader of Australian Antarctic Partnership Program, Project 6 (Sea ice), and am involved in remote sensing of the physical properties of Antarctic sea ice, and quantifying their interactions with other elements of the physical, biological and biogeochemical environment. This includes: Antarctic landfast sea ice mapping, and analysis of its distribution/variability. Coastal interactions between icescape elements and the polar ocean – especially landfast sea ice-coastal polynya interaction. Characterisation of the physical properties of Antarctic sea ice from a variety of techniques, including thickness distribution. Marginal ice zone distribution remote retrieval.

I completed my PhD in sea ice remote sensing at the University of Tasmania in 2011. From there, I undertook several postdoctoral appointments, both at the University of Tasmania and Hokkaido University, Japan, on cryospheric remote sensing. I am now co-project leader of Australian Antarctic Partnership Program, Project 6 (Sea ice), and am involved in remote sensing of the physical properties of Antarctic sea ice, and quantifying their interactions with other elements of the physical, biological and biogeochemical environment. This includes: Antarctic landfast sea ice mapping, and analysis of its distribution/variability. Coastal interactions between icescape elements and the polar ocean – especially landfast sea ice-coastal polynya interaction. Characterisation of the physical properties of Antarctic sea ice from a variety of techniques, including thickness distribution. Marginal ice zone distribution remote retrieval.

+33 4 93 76 38 02

Education: 1977-1982 Studies in Moscow State University, Dep. of Hydrology, Faculty of Geography, Moscow, Russia 1982 M.Sс. (Hydrology), Moscow State University, Faculty of Geography, Moscow, Russia 1989 Ph.D. Geography (Hydrology and Water Resources), Water Problems Institute of the Russian Academy of Sciences (RAS), Dissertation: Dynamic-stochastic models of river runoff generation, Advisor: Prof. Lev Kuchment Degree 2019 Corresponding Member of the Russian Academy of Sciences 2007 Doctor of Science (Habilitation), Physics and Mathematics (Hydrology and Water Resources), Water Problems Institute of RAS, Moscow, Russia Professional Experience: 2022-to date Chief Research Scientist, Water Problems Institute of RAS 2018- 2022, Director, Water Problems Institute of RAS 2016-to date, Professor of Hydrology, Moscow State University, Dep. of Hydrology, Faculty of Geography 2011- 2022, Head of Watershed Hydrology Lab., Water Problems Institute of RAS 1995-1996, Visiting Scientist in the Marquette University (Milwaukee, WI, USA) 1985-2018, Young to Senior Scientist to Deputy Director, Water Problems Institute of RAS 1982-1985, Post-graduate student, Water Problems Institute of RAS Areas of Expertise: Hydrological cycle processes Cold region hydrology Hydrological modeling Climate impact assessment Flood risk assessment Ensemble hydrological forecasts

Education: 1977-1982 Studies in Moscow State University, Dep. of Hydrology, Faculty of Geography, Moscow, Russia 1982 M.Sс. (Hydrology), Moscow State University, Faculty of Geography, Moscow, Russia 1989 Ph.D. Geography (Hydrology and Water Resources), Water Problems Institute of the Russian Academy of Sciences (RAS), Dissertation: Dynamic-stochastic models of river runoff generation, Advisor: Prof. Lev Kuchment Degree 2019 Corresponding Member of the Russian Academy of Sciences 2007 Doctor of Science (Habilitation), Physics and Mathematics (Hydrology and Water Resources), Water Problems Institute of RAS, Moscow, Russia Professional Experience: 2022-to date Chief Research Scientist, Water Problems Institute of RAS 2018- 2022, Director, Water Problems Institute of RAS 2016-to date, Professor of Hydrology, Moscow State University, Dep. of Hydrology, Faculty of Geography 2011- 2022, Head of Watershed Hydrology Lab., Water Problems Institute of RAS 1995-1996, Visiting Scientist in the Marquette University (Milwaukee, WI, USA) 1985-2018, Young to Senior Scientist to Deputy Director, Water Problems Institute of RAS 1982-1985, Post-graduate student, Water Problems Institute of RAS Areas of Expertise: Hydrological cycle processes Cold region hydrology Hydrological modeling Climate impact assessment Flood risk assessment Ensemble hydrological forecasts

+7(499) 783-3580

+43 1 58801 12288

+49 40 428385745

Optical Remote Sensing: Spectral characteristics of Arctic periglacial landscapes, Arctic coastal and inland waters; Multi-scale working: laboratory - field work - mesoscale raster data on interdisciplinary level (geology, limnology, hydrology, land cover) Regional evaluation of Remote Sensing products using ground data and expert knowledge: are the already available terrestrial products reliable for the high latitudes? Adaption of Remote Sensing products into models.

Optical Remote Sensing: Spectral characteristics of Arctic periglacial landscapes, Arctic coastal and inland waters; Multi-scale working: laboratory - field work - mesoscale raster data on interdisciplinary level (geology, limnology, hydrology, land cover) Regional evaluation of Remote Sensing products using ground data and expert knowledge: are the already available terrestrial products reliable for the high latitudes? Adaption of Remote Sensing products into models.

+49 331 288 2227

boundary layer, remote sensing, tropospheric ozone, atmospheric chemistry, NOx, nitrogen oxides, Volatile organic compounds, eddy covariance, flux, large eddy simulation, WRF, CMAQ, aerosol, PM2.5, PM, remote sensing, validation, ozonesonde, lidar.

boundary layer, remote sensing, tropospheric ozone, atmospheric chemistry, NOx, nitrogen oxides, Volatile organic compounds, eddy covariance, flux, large eddy simulation, WRF, CMAQ, aerosol, PM2.5, PM, remote sensing, validation, ozonesonde, lidar.

Alexander A. Kokhanovsky graduated from the Physical Department of the Belarussian State University, Minsk, Belarus, in 1983. He has received Ph. D. degree in optical sciences from the B. I. Stepanov Institute of Physics, National Academy of Sciences of Belarus, Minsk, Belarus, in 1991. The PhD work was devoted to studies of light scattering properties of aerosol media and foams. His habilitation work (Main Geophysical Observatory, St. Petersburg, Russia, 2011) was aimed at the development of new cloud and snow remote sensing techniques based on spaceborne observations. Alexander Kokhanovsky was a member of the atmospheric optics group at the Laboratory of Light Scattering Media Optics Laboratory at Institute of Physics in Minsk, Belarus (1983-2004) and the SCIAMACHY/ENVISAT satellite aerosol and cloud retrieval algorithms development team (Institute of Environmental Physics, University of Bremen, Bremen, Germany, 2001-2013). He has designed aerosol and cloud remote sensing algorithms for the imaging polarimeter (3MI) on board EUMETSAT Polar System-Second Generation (EPS-SG) working at EUMETSAT in Darmstadt, Germany ( 2014-2017). Currently, his research interests are directed towards modeling light propagation and scattering in terrestrial atmosphere and surface including ice and snow. He has been employed by VITROCISET/Telespazio Belgium ( Darmstadt, Germany) from 2013 till April, 2022. He has worked as a guest researcher at Max Planck Institute for Chemistry (Mainz, Germany) from April, 2022 till March, 2023. He is employed by the GFZ Potsdam since November, 2022, where he is working with EnMAP data to retrieve snow and ice properties using hyperspectral observations.

Alexander A. Kokhanovsky graduated from the Physical Department of the Belarussian State University, Minsk, Belarus, in 1983. He has received Ph. D. degree in optical sciences from the B. I. Stepanov Institute of Physics, National Academy of Sciences of Belarus, Minsk, Belarus, in 1991. The PhD work was devoted to studies of light scattering properties of aerosol media and foams. His habilitation work (Main Geophysical Observatory, St. Petersburg, Russia, 2011) was aimed at the development of new cloud and snow remote sensing techniques based on spaceborne observations. Alexander Kokhanovsky was a member of the atmospheric optics group at the Laboratory of Light Scattering Media Optics Laboratory at Institute of Physics in Minsk, Belarus (1983-2004) and the SCIAMACHY/ENVISAT satellite aerosol and cloud retrieval algorithms development team (Institute of Environmental Physics, University of Bremen, Bremen, Germany, 2001-2013). He has designed aerosol and cloud remote sensing algorithms for the imaging polarimeter (3MI) on board EUMETSAT Polar System-Second Generation (EPS-SG) working at EUMETSAT in Darmstadt, Germany ( 2014-2017). Currently, his research interests are directed towards modeling light propagation and scattering in terrestrial atmosphere and surface including ice and snow. He has been employed by VITROCISET/Telespazio Belgium ( Darmstadt, Germany) from 2013 till April, 2022. He has worked as a guest researcher at Max Planck Institute for Chemistry (Mainz, Germany) from April, 2022 till March, 2023. He is employed by the GFZ Potsdam since November, 2022, where he is working with EnMAP data to retrieve snow and ice properties using hyperspectral observations.

My main research interests include radiative transfer modeling, development of land surface and atmosphere variables retrieval algorithms using data assimilation and machine learning techniques, to support environmental change applications and sustainable development.

My main research interests include radiative transfer modeling, development of land surface and atmosphere variables retrieval algorithms using data assimilation and machine learning techniques, to support environmental change applications and sustainable development.

http://kenmankoff.com

http://kenmankoff.com

865-576-7815

(Senior Scientist). Physical oceanographer with over 35 year of experience in marine circulation, satellite oceanography and air-sea interaction. In January 1985 he started working on satellite oceanography at the ESA in Darmstadt. From 1986 to 1992 he worked at Telespazio as coordinator of the oceanographic group. Since 1992, Dr. Marullo has had a permanent position at ENEA as senior scientist working on satellite oceanography (mainly Ocean Colour and SST). He was P.I. or co-investigator of European and national Projects and has worked on development of SST products and in study the SST diurnal variability. He is member GHRSST (Group for High Resolution Sea Surface Temperature Science Team), GHRSST Diurnal variability Working group, he was chair EARSeL Special Interest Group on remote sensing of the coastal zone. Actually, he is involved in a Copernicus Climate Service project funded by ECMWF as scientific responsible for the ENEA. Activities incused Ocean Color CCI and SST data assessment. He is author or co-author of more than 80 publications in the internationally referred literature.

(Senior Scientist). Physical oceanographer with over 35 year of experience in marine circulation, satellite oceanography and air-sea interaction. In January 1985 he started working on satellite oceanography at the ESA in Darmstadt. From 1986 to 1992 he worked at Telespazio as coordinator of the oceanographic group. Since 1992, Dr. Marullo has had a permanent position at ENEA as senior scientist working on satellite oceanography (mainly Ocean Colour and SST). He was P.I. or co-investigator of European and national Projects and has worked on development of SST products and in study the SST diurnal variability. He is member GHRSST (Group for High Resolution Sea Surface Temperature Science Team), GHRSST Diurnal variability Working group, he was chair EARSeL Special Interest Group on remote sensing of the coastal zone. Actually, he is involved in a Copernicus Climate Service project funded by ECMWF as scientific responsible for the ENEA. Activities incused Ocean Color CCI and SST data assessment. He is author or co-author of more than 80 publications in the internationally referred literature.

Luis Millán received the degree in Telecommunications Engineering from the Monterrey Institute of Technology and Higher Education, Mexico City, Mexico, in 2003; the M.S. degree in Radio Astronomy and Space Science from Chalmers University of Technology, Gothenburg, Sweden, in 2005; and the D.Phil. degree in Atmospheric Physics from the University of Oxford, Oxford, U.K., in 2009. Since 2010, he has been a member of the Stratosphere and Upper Troposphere Group at the Jet Propulsion Laboratory, California Institute of Technology, Pasadena, California.

Luis Millán received the degree in Telecommunications Engineering from the Monterrey Institute of Technology and Higher Education, Mexico City, Mexico, in 2003; the M.S. degree in Radio Astronomy and Space Science from Chalmers University of Technology, Gothenburg, Sweden, in 2005; and the D.Phil. degree in Atmospheric Physics from the University of Oxford, Oxford, U.K., in 2009. Since 2010, he has been a member of the Stratosphere and Upper Troposphere Group at the Jet Propulsion Laboratory, California Institute of Technology, Pasadena, California.

Dr. Neigh's recent work has focused on quantifying regional forest disturbances and biomass using a suite of multispectral sensors, spaceborne and airborne LiDAR and sub-meter commercial satellite data to characterize the productivity, structure and carbon content of land surface vegetation. He has extensive experience evaluating vegetation greening and browning trends, mapping land-cover change/biomass and modeled the terrestrial carbon-cycle with disturbance.

Dr. Neigh's recent work has focused on quantifying regional forest disturbances and biomass using a suite of multispectral sensors, spaceborne and airborne LiDAR and sub-meter commercial satellite data to characterize the productivity, structure and carbon content of land surface vegetation. He has extensive experience evaluating vegetation greening and browning trends, mapping land-cover change/biomass and modeled the terrestrial carbon-cycle with disturbance.

As a Meteorology major and PhD in Atmospheric sciences, I have studied many topics in my career. Special interest in the interactions between fields (physics and chemistry) and modulations by atmospheric processes at different scales. Examples: aerosol-cloud-precipitation interactions, measurements of urban/ (particles/gases) and regional environments,(e.g. biomass burning, dust) and urban and regional sources of pollution and their impacts. Other research lines include mesoscale atmospheric processes, and tropical cyclones and their relationship with large-scale environments.

As a Meteorology major and PhD in Atmospheric sciences, I have studied many topics in my career. Special interest in the interactions between fields (physics and chemistry) and modulations by atmospheric processes at different scales. Examples: aerosol-cloud-precipitation interactions, measurements of urban/ (particles/gases) and regional environments,(e.g. biomass burning, dust) and urban and regional sources of pollution and their impacts. Other research lines include mesoscale atmospheric processes, and tropical cyclones and their relationship with large-scale environments.

+5255 56224800 ext 81899

My expertise is in nature-based carbon capture with great interest in sustainable forestry, land use management, and regenerative agriculture for emission reductions or removals and technology for sustainability.

My expertise is in nature-based carbon capture with great interest in sustainable forestry, land use management, and regenerative agriculture for emission reductions or removals and technology for sustainability.

I am using natural radionuclides, as well as those produced by activities such as atomic weapons testing, to study Earth surface processes. The difference of different chemical elements within the decay series provides indeed a large suit of natural clock to study a large range of processes from erosion to sedimentation rates. Whereas my first works were focused on oceanic margin, I apply now this approach in transitional and fresh waters. In addition to better characterize fluxes at the land-ocean interface and impact on water quality, I am now responsible of a high-frequency monitoring in the Gironde estuary to better understand changes in water quality (defined by salinity, temperature, dissolved oxygen, turbidity) and to help local water authorities to define preventive management strategies regarding the EU Water Framework Directive (WFD) to reach “good ecological status” of transitional waters. In brief, I have an initial training in chemistry and marine sciences in a context of climate change, and I could be defined as a marine biogeochemist. From the evolution of my research works, from water column to sediment and toward transitional waters (estuaries) and lakes, I gained skills in freshwater chemistry and sedimentology.

I am using natural radionuclides, as well as those produced by activities such as atomic weapons testing, to study Earth surface processes. The difference of different chemical elements within the decay series provides indeed a large suit of natural clock to study a large range of processes from erosion to sedimentation rates. Whereas my first works were focused on oceanic margin, I apply now this approach in transitional and fresh waters. In addition to better characterize fluxes at the land-ocean interface and impact on water quality, I am now responsible of a high-frequency monitoring in the Gironde estuary to better understand changes in water quality (defined by salinity, temperature, dissolved oxygen, turbidity) and to help local water authorities to define preventive management strategies regarding the EU Water Framework Directive (WFD) to reach “good ecological status” of transitional waters. In brief, I have an initial training in chemistry and marine sciences in a context of climate change, and I could be defined as a marine biogeochemist. From the evolution of my research works, from water column to sediment and toward transitional waters (estuaries) and lakes, I gained skills in freshwater chemistry and sedimentology.

PhD, 1993; Habilitation thesis 2001 CNRS researcher since 2002.

PhD, 1993; Habilitation thesis 2001 CNRS researcher since 2002.

+33 616635093

PhD in Environmental Science with main focus on statistical data analysis, data quality control, mapping techniques, ocean modelling, regional reanalysis and multi-year products. She participated to several EU funded projects and initiatives such as SeaDataNet, MyOcean, EMODNet and the Copernicus Marine Service.

PhD in Environmental Science with main focus on statistical data analysis, data quality control, mapping techniques, ocean modelling, regional reanalysis and multi-year products. She participated to several EU funded projects and initiatives such as SeaDataNet, MyOcean, EMODNet and the Copernicus Marine Service.

Dr. Hanqin Tian is Director of Center for Earth System Science and Global Sustainability, Schiller Institute Professor and Professor of Earth and Environmental Sciences at Boston College. Dr. Tian has worked across the disciplinary lines of earth system science, ecology, biogeochemistry, hydrology, earth system modeling, remote sensing and data science. His research on global carbon and nitrogen cycling and greenhouse gas emissions is at the leading edge of the field. His research has resulted in over 400 peer-reviewed research articles published in most prestigious journals including over 30 papers in Nature, Science, PNAS and their sister journals. Dr. Tian is a Highly Cited Researcher ranked by Clarivate Web of Science. He was also ranked among the world’s most influential climate scientists by the Reuters List. Dr. Tian is a coordinating lead author for the International Nitrogen Assessment and a contributing author for IPCC AR6. He has served on the Steering Scientific Committee of Global Carbon Project (GCP) and Co-Chair of the International Scientific Committee for Global Nitrous Oxide Budget Assessment. Dr. Tian is elected Fellow of American Association for the Advancement of Science (AAAS), American Geophysical Union (AGU), and Ecological Society of America (ESA). He was named an Andrew Carnegie Fellow (Brainy Award) in 2019.

Dr. Hanqin Tian is Director of Center for Earth System Science and Global Sustainability, Schiller Institute Professor and Professor of Earth and Environmental Sciences at Boston College. Dr. Tian has worked across the disciplinary lines of earth system science, ecology, biogeochemistry, hydrology, earth system modeling, remote sensing and data science. His research on global carbon and nitrogen cycling and greenhouse gas emissions is at the leading edge of the field. His research has resulted in over 400 peer-reviewed research articles published in most prestigious journals including over 30 papers in Nature, Science, PNAS and their sister journals. Dr. Tian is a Highly Cited Researcher ranked by Clarivate Web of Science. He was also ranked among the world’s most influential climate scientists by the Reuters List. Dr. Tian is a coordinating lead author for the International Nitrogen Assessment and a contributing author for IPCC AR6. He has served on the Steering Scientific Committee of Global Carbon Project (GCP) and Co-Chair of the International Scientific Committee for Global Nitrous Oxide Budget Assessment. Dr. Tian is elected Fellow of American Association for the Advancement of Science (AAAS), American Geophysical Union (AGU), and Ecological Society of America (ESA). He was named an Andrew Carnegie Fellow (Brainy Award) in 2019.

6175523664

334-844-3819

6099372536

I specialize in air quality, focusing on aerosols, particulate matter and chemical composition, and trace (polluted and greenhouse) gases utilizing satellite remote sensing, big data, and artificial intelligence (machine and deep learning), and assessing the impacts of air pollution and extreme weather on the environment, health, and climate.

I specialize in air quality, focusing on aerosols, particulate matter and chemical composition, and trace (polluted and greenhouse) gases utilizing satellite remote sensing, big data, and artificial intelligence (machine and deep learning), and assessing the impacts of air pollution and extreme weather on the environment, health, and climate.

+41 44 632 82 78

His research interests include subdaily observation data homogenization; extreme event attribution (air temperature, rainfall, and wind speed); regional climate variability and change; ocean-land-atmos interaction; urbanization; and wind climate and wind energy, through using ground-based observations, satellite retrievals, reanalysis products and climate modelling.

His research interests include subdaily observation data homogenization; extreme event attribution (air temperature, rainfall, and wind speed); regional climate variability and change; ocean-land-atmos interaction; urbanization; and wind climate and wind energy, through using ground-based observations, satellite retrievals, reanalysis products and climate modelling.