W4. Climate and Environments

Workshop organized by:
- D. Hristopulos  and D. Valenti
- S. Blesic
- P. Ditlevsen, M. Ghil, N. Boers and M. Rypdal

 

Section I

Natural Systems, Complexity and Environmental Modeling: The Triangle of Statistical Physics, Statistics, and Machine Learning.

 D. Hristopulos  and D. Valenti

The aim of this workshop is to bring together contributions on theoretical, experimental, and computational approaches for studying the complexity in natural systems by exploiting tools inspired by statistical physics, spatio-temporal statistics, and machine learning. Statistical approaches and machine learning methods ---which have strong links with statistical physics--- are used to analyze and extract information from complex patterns in environmental data. This workshop aims to highlight such connections and to present novel ideas and methods motivated by statistical physics that can lead to new environmental applications and insights. Both stochastic methods and approaches based on the theory of dynamical systems are welcome. A non-exclusive list of topics of interest includes novel computational and theoretical tools for the analysis of large spatio-temporal data sets, modeling of natural systems as intrinsically nonlinear open systems, methods that address multiple-scale interactions, approaches for the reconstruction and simulation of natural or engineered porous media with non-Gaussian statistics, applications of stochastic differential equations to environmental processes, higher-order upscaling methods, applications of complex network theory, estimation of long-range correlations in environmental systems. Physical phenomena of interest include (but are not limited to): the flow and transport of pollutants in the atmosphere, oceans and subsurface, natural hazards (earthquakes, fires, avalanches, and landslides), heat waves and precipitation.

Section II

Understanding climate, contributing to overall adaptation efforts

 S. Blesic

The most pressing issues facing current interdisciplinary efforts that deal with the complexity of climate change are in advancements in understanding and explaining the physical basis of climate dynamics realized, in parallel, with utilization of that knowledge to effectively contribute to new lines of research that will develop innovative applications that drive particularly adaption efforts. This workshop will be organized to showcase current research and research potential of both paths. Statistical physics community has already done a lot of important work in understanding climate variability. Therefore, the workshop will present statistical physics approaches to understanding of physical aspects of climate phenomena. The workshop will be extended with work that investigates various physical and non-physical phenomena in climatic context, thus contributing to the overall adaptation efforts. These kinds of investigations have an additional appeal, particularly to statistical physics community that standardly works in interdisciplinary areas, for they usually bring together researchers, practitioners and communities with discrete expertise, in order to better understand climate change and its impacts. Focuses of these researches are different but areas of interest are vast and can include any critical issue that climate change threatens to seriously exacerbate. What statistical physics can offer in this context is data- or model-led understandings that are of wider value to the scientific community and applicable local-scale insights.

Section III

Critical transitions and climate change

 P. Ditlevsen, M. Ghil, N. Boers and M. Rypdal

Several components of the climate system have been identified as possessing a potential risk for undergoing abrupt transitions; such components have been called Tipping Elements (TEs). The interaction between different components in the complex Earth system could lead to a cascade of tipping events, with the probability of critical transitions within one TE depending on the evolving state of one or more other TEs. Understanding this kind of cascading behavior and the phenomena underpinning the tipping events involved requires use of statistical physics tools to understand critical transitions in complex systems. Such tools are provided by the theory of fast-slow systems, dynamical and stochastic systems theory, nonlinear time series analysis, and multiple time-scale dynamics. The applications include investigations of paleoclimatic records and present day’s observations, as well as the behavior of TEs in Earth System Models, where computer simulations must be carefully designed to explore the possible transitions.

In this symposium, we invite contributions that further develop and apply methods from statistical physics. Particular emphasis will be placed on the study of climate response to increased greenhouse gas concentrations, climate tipping points, time-dependent forcing and associated pullback attractors in climate evolution, as well as extreme and rare events in observations and models and the uses of statistical mechanics across the hierarchy of Earth System Models.

News

EPS-SNLP Meeting

The summer board meeting of the European Physical Society - Statistical and Nonlinear Physics Division (EPS-SNLP) will be held during the SigmaPhi2021 Conference

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SigmaPhi2021 Europhysics Conference

The European Physical Society (EPS) has recognized the SigmaPhi2021 as Europhysics Conference.

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EPS Researcher Grants

The European Physical Society and the SigmaPhi Conference support the following reserarch grants

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Workshops

W1. Quantum Physics and Machine Learning

Workshop organized by:F. Caruso

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W2. Data Science and Econophysics

Workshop organized by:P. Argyrakis and T. Di Matteo

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W3. Complex Networks: Hidden Geometry and Dynamics

Workshop organized by:B. Tadic and N. Gupte

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W4. Climate and Environments

Workshop organized by:- D. Hristopulos and D. Valenti - S. Blesic - P. Ditlevsen, M. Ghil, N. Boers and M. Rypdal

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W5. Statistical physics of biophysical systems

Workshop organized by: A. Deutsch and B. Hatzikirou

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W6. Statistical Physics of Glasses

Workshop organized by:G. Jug, A. Loidl and H.Tanaka

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W7. Fluctuation-Dissipation Theorem

Workshop organized by:F. Oliveira

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W8. Phase Transition and Topological Phenomena

Workshop organized by:- R. Citro and C. Guarcello - D.I. Uzunov

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W9. Non-Extensive Statistical Mechanics and Kappa Distributions

Workshop organized by:G. Livadiotis, M. Leubner and K. Dialynas

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Special Sessions

S1. Spin Glass Theory and Far Beyond

Special Session organized by G. Parisi and E. Marinari

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S2. Quantum Long-Range Interactions

Special Session organized by S. Ruffo and A. Trombettoni

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S3. Information Geometry and Deformed Statistics

Special Session organized by J. Zhang and H. Matsuzoe

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S4. Entropies and Correlations in Complex Systems

Special Session organized by V. Ilić, J. Korbel and S. Gupta

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Statistical and Nonlinear

Physics Division 

Politecnico di Torino

Italy

 

ISC - CNR

Roma, Italy

 

Technical University of

Crete Chania, Greece

 

Aristotele University of

Thessaloniki, Greece

 

N.C.S.R. Demokritos

Athens, Greece

 

University of Leuven

Belgium

University of Cagliari

Italy

 

AFEA Company

Athens, Greece

 

 

Entropy

MDPI publisher

 

 

EPJ B

edp Scince publisher