NP3.2 | Wind, solar power, and river discharge scaling features and their impact on renewable energy
EDI PICO
Wind, solar power, and river discharge scaling features and their impact on renewable energy
Co-organized by ERE2
Convener: Martin Obligado | Co-conveners: Auguste Gires, Ingrid Neunaber, Rudy Calif

Geophysical fields such as wind, solar power or river discharge are known to exhibit extreme variability across a wide range of space-time scales. Such behaviour significantly affects energy harvesting from all these renewable energy sources. The extreme variability and intermittency are actually intrinsic features of renewable energy that require a better understanding in a context of rapid growth and increasing share in the energy mix at global scale. Scaling laws in general are a powerful tool to better understand, analyse, and simulate the underlying extremely variable processes and their non-linear interactions.

This session will bring together scientists and practitioners who aim to better measure, understand and model the extreme variability of geophysical fields and its impact on renewable energy production. Contributions addressing one or several of the following topics are especially targeted:
- Novel high spatial and/or temporal resolution techniques for measuring geophysical fields that are used as resources for renewable energy production
- Novel modelling or characterization tools of the variability of geophysical fields ranging from mm/ms scale to regional / annual scale using various approaches (e.g. scaling, (multi-)fractal, statistic, deterministic, numerical modelling…)
- Novel approaches to better understand and characterize how extreme variability is transferred to power production.

Geophysical fields such as wind, solar power or river discharge are known to exhibit extreme variability across a wide range of space-time scales. Such behaviour significantly affects energy harvesting from all these renewable energy sources. The extreme variability and intermittency are actually intrinsic features of renewable energy that require a better understanding in a context of rapid growth and increasing share in the energy mix at global scale. Scaling laws in general are a powerful tool to better understand, analyse, and simulate the underlying extremely variable processes and their non-linear interactions.

This session will bring together scientists and practitioners who aim to better measure, understand and model the extreme variability of geophysical fields and its impact on renewable energy production. Contributions addressing one or several of the following topics are especially targeted:
- Novel high spatial and/or temporal resolution techniques for measuring geophysical fields that are used as resources for renewable energy production
- Novel modelling or characterization tools of the variability of geophysical fields ranging from mm/ms scale to regional / annual scale using various approaches (e.g. scaling, (multi-)fractal, statistic, deterministic, numerical modelling…)
- Novel approaches to better understand and characterize how extreme variability is transferred to power production.