AI Article Synopsis

  • As wind and solar energy grow in Europe's electricity mix, understanding their variability over time is crucial for reliable power generation.
  • The study highlights how different weather patterns can lead to significant fluctuations in wind power across the continent, with average generation varying between 22 GW to 44 GW, and an expectation to triple by 2030 under current plans.
  • By strategically deploying wind resources in regions like the Balkans, rather than the North Sea, Europe could drastically reduce output variations and enhance consistency in energy generation, while also suggesting that expanding solar power capacity could help mitigate low-wind conditions locally.

Article Abstract

As wind and solar power provide a growing share of Europe's electricity1, understanding and accommodating their variability on multiple timescales remains a critical problem. On weekly timescales, variability is related to long-lasting weather conditions, called weather regimes2-5, which can cause lulls with a loss of wind power across neighbouring countries6. Here we show that weather regimes provide a meteorological explanation for multi-day fluctuations in Europe's wind power and can help guide new deployment pathways which minimise this variability. Mean generation during different regimes currently ranges from 22 GW to 44 GW and is expected to triple by 2030 with current planning strategies. However, balancing future wind capacity across regions with contrasting inter-regime behaviour - specifically deploying in the Balkans instead of the North Sea - would almost eliminate these output variations, maintain mean generation, and increase fleet-wide minimum output. Solar photovoltaics could balance low-wind regimes locally, but only by expanding current capacity tenfold. New deployment strategies based on an understanding of continent-scale wind patterns and pan-European collaboration could enable a high share of wind energy whilst minimising the negative impacts of output variability.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC5540172PMC
http://dx.doi.org/10.1038/nclimate3338DOI Listing

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