The influence of weather regimes on European renewable energy production and demand

The growing share of variable renewable energy increases the meteorological sensitivity of power systems. This study investigates if large-scale weather regimes capture the influence of meteorological variability on the European energy sector. For each weather regime, the associated changes to wintertime-mean and extreme-wind and solar power production, temperature-driven energy demand and energy shortfall (residual load) are explored. Days with a blocked circulation pattern, i.e. the 'Scandinavian Blocking' and 'North Atlantic Oscillation negative' regimes, on average have lower than normal renewable power production, higher than normal energy demand and therefore, higher than normal energy shortfall. These average effects hide large variability of energy parameters within each weather regime. Though the risk of extreme high energy shortfall events increases in the two blocked regimes (by a factor of 1.5 and 2.0, respectively), it is shown that such events occur in all regimes. Extreme high energy shortfall events are the result of rare circulation types and smaller-scale features, rather than extreme magnitudes of common large-scale circulation types. In fact, these events resemble each other more strongly than their respective weather regime mean pattern. For (sub-) seasonal forecasting applications weather regimes may be of use for the energy sector. At shorter lead times or for more detailed system analyses, their ineffectiveness at characterising extreme events limits their potential

Atmospheric sciences · Climate change · Climatology · Energy storage · Extreme weather · Geography · Meteorology · Physics · Power (physics · Renewable energy · Variable renewable energy · Climate variability and models · Energy Load and Power Forecasting · Environmental Science · Integrated Energy Systems Optimization · Geology

• Skillful prediction of UK seasonal energy consumption based on surface climate information

  Open Access•Samuel Li, Ryan L Sriver et al.•Environmental Research Letters•2023

  Incluir item

• Using power system modelling outputs to identify weather-induced extreme events in highly renewable systems

  Open Access•Aleksander Grochowicz, Koen van Greevenbroek et al.•Environmental Research Letters•2024

  Incluir item

• Resilience metrics to guide back-up investments in the power system during extreme weather

  Open Access•Aleksander Grochowicz, Hannah Bloomfield et al.•Nature Sustainability•2026

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• Identifying atmospheric regimes driving compound renewable and hydro-meteorological anomalies in Europe

  Open Access•Oguz Ozan Yolcan•Utilities Policy•2026

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• Extreme Weather Events and the Energy Sector in 2021

  Open Access•Juan Antonio Añel, Celia Pérez-Souto et al.•Weather, Climate, and Society•2024

  Incluir item

• Assessing the probability of extremely low wind energy production in Europe at sub-seasonal to seasonal time scales

  Open Access•Bastien Cozian, Corentin Herbert et al.•Environmental Research Letters•2024

  Incluir item

• Spatial optimality and temporal variability in Australia’s wind resource

  Open Access•Andrew Gunn, Roger Dargaville et al.•Environmental Research Letters•2023

  Incluir item

• Clear-air turbulence-aware flight routing over the North Atlantic using weather regimes

  Open Access•Mohamed Foudad, Cathie A Wells et al.•Environmental Research Letters•2026

  Incluir item

• Offshore wind resource assessment by characterizing weather regimes based on self-organizing map

  Open Access•Shangshang Yang, Huiling Yuan et al.•Environmental Research Letters•2022

  Incluir item

• Climate change on extreme winds already affects off-shore wind power availability in Europe

  Open Access•Lia Rapella, Davide Faranda et al.•Environmental Research Letters•2023

  Incluir item

• Gaussian copula modeling of extreme cold and weak-wind events over Europe conditioned on winter weather regimes

  Open Access•Paulina Tedesco, Alex Lenkoski et al.•Environmental Research Letters•2023

  Incluir item

• The ERA‐Interim reanalysis

  Open Access•Dick Dee, D P Dee et al.•Quarterly Journal of the Royal…•2011

  Incluir item

• Greenhouse-gas emission targets for limiting global warming to 2 °C

  Open Access•Malte Meinshausen, Nicolai Meinshausen et al.•Nature•2009

  Incluir item

• The proportionality of global warming to cumulative carbon emissions

  Open Access•H Damon Matthews, Nathan P Gillett et al.•Nature•2009

  Incluir item

• The changing sensitivity of power systems to meteorological drivers

  Open Access•Hannah Bloomfield, David Brayshaw et al.•Environmental Research Letters•2018

  Incluir item

• Skilful seasonal prediction of winter gas demand

  Open Access•Hazel Thornton, Adam A Scaife et al.•Environmental Research Letters•2018

  Incluir item

• Effects on power system operations of potential changes in wind and solar generation potential under climate change

  Open Access•Michael Craig, Ignacio Carreño et al.•Environmental Research Letters•2018

  Incluir item

• Inter-annual variability of wind and solar electricity generation and capacity values in Texas

  Open Access•Andrew Kumler, Ignacio Carreño et al.•Environmental Research Letters•2018

  Incluir item

• The relationship between wind power, electricity demand and winter weather patterns in Great Britain

  Open Access•Hazel Thornton, Hazel E Thornton et al.•Environmental Research Letters•2017

  Incluir item

• Skilful seasonal predictions for the European energy industry

  Open Access•Robin Clark, Robin T Clark et al.•Environmental Research Letters•2017

  Incluir item

• Quantifying the increasing sensitivity of power systems to climate variability

  Open Access•Hannah Bloomfield, H C Bloomfield et al.•Environmental Research Letters•2016

  Incluir item