Summary
"Nowadays, networks of interacting systems appear in many areas of Science such as physics, chemistry, biology and also engineering and the human sciences. Examples range from solid state physics, to astrophysics, reaction-diffusion equations, transportation systems, the Internet, social networks, opinion models, etc. This vast spectrum of applications has stimulated a broad interdisciplinary endeavour to predict and control the behaviour of so-called ""complex systems"", namely large ensembles of units coupled through an intricate interaction web. While various theoretical and computational approaches to these systems have been developed, from the mathematical perspective, their analysis remains extremely challenging. Very little has been accomplished, especially as the description of the dynamical mechanisms underlying overall functioning is concerned. The proposed project aims to develop a novel rigorous approach to describe the emergence of global behaviour in complex heterogeneous systems, given their microscopic constituents such as individual dynamics and interaction nature/structure. At the interface between pure and applied mathematics, our approach will rely on results from abstract ergodic theory, especially as they have been recently obtained for non-uniformly hyperbolic systems, to address concrete mathematical models exhibiting real-world features."
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More information & hyperlinks
| Web resources: | https://cordis.europa.eu/project/id/843880 |
| Start date: | 01-09-2020 |
| End date: | 31-08-2023 |
| Total budget - Public funding: | 257 619,84 Euro - 257 619,00 Euro |
Cordis data
Original description
"Nowadays, networks of interacting systems appear in many areas of Science such as physics, chemistry, biology and also engineering and the human sciences. Examples range from solid state physics, to astrophysics, reaction-diffusion equations, transportation systems, the Internet, social networks, opinion models, etc. This vast spectrum of applications has stimulated a broad interdisciplinary endeavour to predict and control the behaviour of so-called ""complex systems"", namely large ensembles of units coupled through an intricate interaction web. While various theoretical and computational approaches to these systems have been developed, from the mathematical perspective, their analysis remains extremely challenging. Very little has been accomplished, especially as the description of the dynamical mechanisms underlying overall functioning is concerned. The proposed project aims to develop a novel rigorous approach to describe the emergence of global behaviour in complex heterogeneous systems, given their microscopic constituents such as individual dynamics and interaction nature/structure. At the interface between pure and applied mathematics, our approach will rely on results from abstract ergodic theory, especially as they have been recently obtained for non-uniformly hyperbolic systems, to address concrete mathematical models exhibiting real-world features."Status
CLOSEDCall topic
MSCA-IF-2018Update Date
28-04-2024
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