I am Principal Investigator in the Spanish National Research Council (CSIC) at the Instituto de Ciencias Matemáticas (ICMAT) in the Applied Mathematics department where I lead the Geophysical Fluid Dynamics Group. Our work addresses the development of novel dynamical systems tools and computational techniques for providing new insights into geophysical flows. In these topics I have published numerous articles in leading journals and have been Principal Investigator of several national and international projects. I am Executive Editor of the EGU journal “Nonlinear Processes in Geophysics” and between 2016-2018 member of the Scientific Advisory Committee of Science Europe. I have served as evaluator for several research agencies including the Research Executive Agency (REA) of the European Commission.

I am Principal Investigator in the Spanish National Research Council (CSIC) at the Instituto de Ciencias Matemáticas (ICMAT) in the Applied Mathematics department where I lead the Geophysical Fluid Dynamics Group. Our work addresses the development of novel dynamical systems tools and computational techniques for providing new insights into geophysical flows. In these topics I have published numerous articles in leading journals and have been Principal Investigator of several national and international projects. I am Executive Editor of the EGU journal “Nonlinear Processes in Geophysics” and between 2016-2018 member of the Scientific Advisory Committee of Science Europe. I have served as evaluator for several research agencies including the Research Executive Agency (REA) of the European Commission.

+34-91-2999762

Professor of Ecole des Ponts ParisTech, Director of the Chair “Hydrology for Resilient Cities”, Ecole des Ponts ParisTech (endowed by Veolia), General Engineer, Corps of Bridges Waters and Forests Research on analysis, understanding and modelling of the nonlinear variability of geophysical and environmental fields, and more recently of their interactions with urban systems. Especially known for his pioneering works on multifractals and generalized scale invariance in geophysics, in particular in hydrology and meteorology. 2 books, 2 edited books, 200 papers indexed by the Web of Science with a H factor= 46 and over 6.000 citations, as well as some 40 papers in other books and journals. AGU Elected Union Fellow (2017), EGU Lewis Fry Richardson Medal (2015), Silver Medal of Paris City (2009), AGU Edward Lorenz Lecturer (2008)

Professor of Ecole des Ponts ParisTech, Director of the Chair “Hydrology for Resilient Cities”, Ecole des Ponts ParisTech (endowed by Veolia), General Engineer, Corps of Bridges Waters and Forests Research on analysis, understanding and modelling of the nonlinear variability of geophysical and environmental fields, and more recently of their interactions with urban systems. Especially known for his pioneering works on multifractals and generalized scale invariance in geophysics, in particular in hydrology and meteorology. 2 books, 2 edited books, 200 papers indexed by the Web of Science with a H factor= 46 and over 6.000 citations, as well as some 40 papers in other books and journals. AGU Elected Union Fellow (2017), EGU Lewis Fry Richardson Medal (2015), Silver Medal of Paris City (2009), AGU Edward Lorenz Lecturer (2008)

+33 1 6415 3633

I have worked for more than 40 years on numerous aspects of the dynamics of geophysical fluids, especially the dynamics of the atmospheres of the Earth and telluric planets. I have worked on the development of numerical models of the atmospheric circulation, with application to numerical weather prediction. A large part of my activity has been devoted to the problem of assimilation of observations and to inverse problems.

I have worked for more than 40 years on numerous aspects of the dynamics of geophysical fluids, especially the dynamics of the atmospheres of the Earth and telluric planets. I have worked on the development of numerical models of the atmospheric circulation, with application to numerical weather prediction. A large part of my activity has been devoted to the problem of assimilation of observations and to inverse problems.

+32-(0)2-3730552

I am an applied mathematician with research interests in dynamical systems, data assimilation problems in earth sciences, and most recently, dynamics of the Indian summer monsoon. After my Ph.D. at the Univ. of Texas at Austin and postdocs at SAMSI, UNC Chapel Hill, and MSRI, Berkeley, I joined TIFR in 2007 at the Centre for Applicable Mathematics (TIFR-CAM), Bangalore, moved to ICTS-TIFR in 2013, and to IISER-Pune in 2021.

I am an applied mathematician with research interests in dynamical systems, data assimilation problems in earth sciences, and most recently, dynamics of the Indian summer monsoon. After my Ph.D. at the Univ. of Texas at Austin and postdocs at SAMSI, UNC Chapel Hill, and MSRI, Berkeley, I joined TIFR in 2007 at the Centre for Applicable Mathematics (TIFR-CAM), Bangalore, moved to ICTS-TIFR in 2013, and to IISER-Pune in 2021.

+7-(0)495-3334100

laboratory, theoretical numerical and field studies on environmental flows

laboratory, theoretical numerical and field studies on environmental flows

+1-(0)574-6319346

My work on nonlinear dynamics in geoscience includes the study of critical transitions and tipping points in general nonlinear dynamical systems , in particular climate models as well as in ecological systems. Furthermore I work on the interplay of mesoscale hydrodynamic flows with biological growth and biogeochemical processes, especially on the impact for vortices and fronts on the formation of (harmful) plankton blooms. Another field of research constitutes of pattern formation in vegetation models. Additionally I work on network approaches to investigate the stability of food webs and plant-pollinator networks, as well as the impact of climate change on biodiversity and metacommunity structures.

My work on nonlinear dynamics in geoscience includes the study of critical transitions and tipping points in general nonlinear dynamical systems , in particular climate models as well as in ecological systems. Furthermore I work on the interplay of mesoscale hydrodynamic flows with biological growth and biogeochemical processes, especially on the impact for vortices and fronts on the formation of (harmful) plankton blooms. Another field of research constitutes of pattern formation in vegetation models. Additionally I work on network approaches to investigate the stability of food webs and plant-pollinator networks, as well as the impact of climate change on biodiversity and metacommunity structures.

+49-(0)441-7982790

I am an expert on climate change, global warming, extreme events, climate modeling, weather and climate risks. I regularly interact with the media and the general public and school students.

I am an expert on climate change, global warming, extreme events, climate modeling, weather and climate risks. I regularly interact with the media and the general public and school students.

Richard Gloaguen (Ph.D “Communitatis Europae” 2000) did a Post-Doc at Royal Holloway University of London ( 2000-2003). He led the Remote Sensing Group at TU Bergakademie Freiberg (2003-2013). He now leads the division “Exploration Technology” at the Helmholtz-Institute Freiberg for Resource Technology. Interests: UAV-based hyperspectral imaging, laser-induced fluorescence, remote sensing-based tectonic geomorphology and multisource multiscale remote sensing integration.

Richard Gloaguen (Ph.D “Communitatis Europae” 2000) did a Post-Doc at Royal Holloway University of London ( 2000-2003). He led the Remote Sensing Group at TU Bergakademie Freiberg (2003-2013). He now leads the division “Exploration Technology” at the Helmholtz-Institute Freiberg for Resource Technology. Interests: UAV-based hyperspectral imaging, laser-induced fluorescence, remote sensing-based tectonic geomorphology and multisource multiscale remote sensing integration.

+493512604424

Physics of disordered systems forms the basis for most of my research in the geosciences. This includes water and air flow in permeable media, solute and gas diffusion, advective solute transport, reactive solute transport, scaling of chemical weathering and soil formation, vegetation growth and productivity and, finally, the water partitioning at the terrestrial Earth's surface known as "water balance," or Budyko theory. With a water balance obtained by optimizing the ecosystem net primary productivity, we then develop a theory for NPP which is in agreement with data. The same water balance equations predict successfully the range of streamflow elasticity values at any particular aridity index. The chemical weathering and vegetation growth are critical for geochemistry and carbon cycling. The soil formation has influence on geomorphology and landsliding. Also, past publications in Eos (20 years ago) showed how small environmental changes could influence the solid earth.

Physics of disordered systems forms the basis for most of my research in the geosciences. This includes water and air flow in permeable media, solute and gas diffusion, advective solute transport, reactive solute transport, scaling of chemical weathering and soil formation, vegetation growth and productivity and, finally, the water partitioning at the terrestrial Earth's surface known as "water balance," or Budyko theory. With a water balance obtained by optimizing the ecosystem net primary productivity, we then develop a theory for NPP which is in agreement with data. The same water balance equations predict successfully the range of streamflow elasticity values at any particular aridity index. The chemical weathering and vegetation growth are critical for geochemistry and carbon cycling. The soil formation has influence on geomorphology and landsliding. Also, past publications in Eos (20 years ago) showed how small environmental changes could influence the solid earth.

Expert on space science, plasma physics and computer simulations

Expert on space science, plasma physics and computer simulations

My main expertise is Nonlinear Processes which is not on the list. In particular, scaling, fractals, multifractals, turbulence.

My main expertise is Nonlinear Processes which is not on the list. In particular, scaling, fractals, multifractals, turbulence.

I am active in developing mathematical and physical tools for studying the climate system. I received the 2010 EGU Arne Richter Award, the 2018 LMS Whitehead Prize, the 2020 EGU L.-F. Richardson Medal, the 2021 AGU Lorenz Lecture, and the 2022 SIAM Mathematics of Planet Earth award. Since 2022 I am a member of Academia Europaea.

I am active in developing mathematical and physical tools for studying the climate system. I received the 2010 EGU Arne Richter Award, the 2018 LMS Whitehead Prize, the 2020 EGU L.-F. Richardson Medal, the 2021 AGU Lorenz Lecture, and the 2022 SIAM Mathematics of Planet Earth award. Since 2022 I am a member of Academia Europaea.

I am Principal Investigator in the Spanish National Research Council (CSIC) at the Instituto de Ciencias Matemáticas (ICMAT) in the Applied Mathematics department where I lead the Geophysical Fluid Dynamics Group. Our work addresses the development of novel dynamical systems tools and computational techniques for providing new insights into geophysical flows. In these topics I have published numerous articles in leading journals and have been Principal Investigator of several national and international projects. I am Executive Editor of the EGU journal “Nonlinear Processes in Geophysics” and between 2016-2018 member of the Scientific Advisory Committee of Science Europe. I have served as evaluator for several research agencies including the Research Executive Agency (REA) of the European Commission.

I am Principal Investigator in the Spanish National Research Council (CSIC) at the Instituto de Ciencias Matemáticas (ICMAT) in the Applied Mathematics department where I lead the Geophysical Fluid Dynamics Group. Our work addresses the development of novel dynamical systems tools and computational techniques for providing new insights into geophysical flows. In these topics I have published numerous articles in leading journals and have been Principal Investigator of several national and international projects. I am Executive Editor of the EGU journal “Nonlinear Processes in Geophysics” and between 2016-2018 member of the Scientific Advisory Committee of Science Europe. I have served as evaluator for several research agencies including the Research Executive Agency (REA) of the European Commission.

+34-91-2999762

Nadiga is a scientist at LANL with expertise in climate dynamics and modeling. His other areas of research include fluid dynamics, dynamical systems and UQ. He received his M.S. and Ph.D from Caltech in aeronautics and physics after completing his batchelor’s at IIT, Madras, India. He has held adjunct faculty positions at the University of Colorado, Boulder and University of New Mexico, Albuquerque. He regularly mentors postdocs and graduate students, lectures at various summer schools, and is involved in other science-related community service. Please contact him at balu@lanl.gov for research opportunities

Nadiga is a scientist at LANL with expertise in climate dynamics and modeling. His other areas of research include fluid dynamics, dynamical systems and UQ. He received his M.S. and Ph.D from Caltech in aeronautics and physics after completing his batchelor’s at IIT, Madras, India. He has held adjunct faculty positions at the University of Colorado, Boulder and University of New Mexico, Albuquerque. He regularly mentors postdocs and graduate students, lectures at various summer schools, and is involved in other science-related community service. Please contact him at balu@lanl.gov for research opportunities

5056679466

Doctorate 1988 University of Tübingen Habilitation 1992 University of Tübingen 1990-1994 Scientist, C.N.R.S. in Grenoble, France 1994-1998 Privatdozent (assistant Professor), University of Bayreuth 1998-present Professor, University of Oldenburg 2010-2018 Head of Fraunhofer IWES department Fluid and System dynamics areas of research - nonlinear dynamics, extreme events, stochastic models, Fluid dynamics, turbulence, wind energy, water waves, earth quakes, avalanches

Doctorate 1988 University of Tübingen Habilitation 1992 University of Tübingen 1990-1994 Scientist, C.N.R.S. in Grenoble, France 1994-1998 Privatdozent (assistant Professor), University of Bayreuth 1998-present Professor, University of Oldenburg 2010-2018 Head of Fraunhofer IWES department Fluid and System dynamics areas of research - nonlinear dynamics, extreme events, stochastic models, Fluid dynamics, turbulence, wind energy, water waves, earth quakes, avalanches

I am a physicist, a physical oceanographer and a theoretical climatologist

I am a physicist, a physical oceanographer and a theoretical climatologist

I work at the intersection of nonlinear dynamics models and observations, using ideas from statistical mechanics to create better ways to use models and data, while taking into account their uncertainties. I also work on foundations of wave-current interactions, and stochastic parametrization of longshore currents, breaking waves. I head a group developing an oil spill model. Presently working on adaptive hurricane resilience strategies.

I work at the intersection of nonlinear dynamics models and observations, using ideas from statistical mechanics to create better ways to use models and data, while taking into account their uncertainties. I also work on foundations of wave-current interactions, and stochastic parametrization of longshore currents, breaking waves. I head a group developing an oil spill model. Presently working on adaptive hurricane resilience strategies.

I have developed models of complex systems in nature using observational data. In space weather these studies yielded the earliest predictive models and led to the present study of extremes. Complexity science is a framework for the study of extreme events and makes effective use of big data. This approach, based on the theories of nonlinear dynamical systems and nonequilibrium phenomena, yields quantitative measures of the probabilities of extreme events, thus providing improved risk estimates.

I have developed models of complex systems in nature using observational data. In space weather these studies yielded the earliest predictive models and led to the present study of extremes. Complexity science is a framework for the study of extreme events and makes effective use of big data. This approach, based on the theories of nonlinear dynamical systems and nonequilibrium phenomena, yields quantitative measures of the probabilities of extreme events, thus providing improved risk estimates.

+1-(0)301-4051528

My main research interests are concerned with nonlinear wave dynamics and physical oceanography (general nonlinear wave theory, wind waves, freak waves, internal waves, wave patterns, basic fluid dynamics, instabilities, remote sensing of sea surface and processes in the ocean interior, air-sea interface and the physical processes there, tsunami, tsunami seismic precursors). In 1977-1997 I was at Shirshov Institute for Oceanography (Moscow, Russia), in 1997-2000 was The Benson Ford Professor of Applied Mathematics at the University College Cork (Ireland), since 2000 I am Professor of Applied Mathematics at Keele University (UK).

My main research interests are concerned with nonlinear wave dynamics and physical oceanography (general nonlinear wave theory, wind waves, freak waves, internal waves, wave patterns, basic fluid dynamics, instabilities, remote sensing of sea surface and processes in the ocean interior, air-sea interface and the physical processes there, tsunami, tsunami seismic precursors). In 1977-1997 I was at Shirshov Institute for Oceanography (Moscow, Russia), in 1997-2000 was The Benson Ford Professor of Applied Mathematics at the University College Cork (Ireland), since 2000 I am Professor of Applied Mathematics at Keele University (UK).

+44-(0)1782-733267

I have worked for more than 40 years on numerous aspects of the dynamics of geophysical fluids, especially the dynamics of the atmospheres of the Earth and telluric planets. I have worked on the development of numerical models of the atmospheric circulation, with application to numerical weather prediction. A large part of my activity has been devoted to the problem of assimilation of observations and to inverse problems.

I have worked for more than 40 years on numerous aspects of the dynamics of geophysical fluids, especially the dynamics of the atmospheres of the Earth and telluric planets. I have worked on the development of numerical models of the atmospheric circulation, with application to numerical weather prediction. A large part of my activity has been devoted to the problem of assimilation of observations and to inverse problems.

+33-(0)1-64153623

1 (719) 501-3186

+32-(0)2-3730552