Abstract

The electricity sector is currently considered mainly on the emission side of the climate change equation. In order to limit climate warming to below 2 °C, or even 1.5 °C, it must undergo a rapid transition towards carbon neutral production by the mid-century. Simultaneously, electricity generating technologies will be vulnerable to climate change. Here, we assess the impacts of climate change on wind, solar photovoltaic, hydro and thermoelectric power generation in Europe using a consistent modelling approach across the different technologies. We compare the impacts for different global warming scenarios: +1.5 °C, +2 °C and +3 °C. Results show that climate change has negative impacts on electricity production in most countries and for most technologies. Such impacts remain limited for a 1.5 °C warming, and roughly double for a 3 °C warming. Impacts are relatively limited for solar photovoltaic and wind power potential which may reduce up to 10%, while hydropower and thermoelectric generation may decrease by up to 20%. Generally, impacts are more severe in southern Europe than in northern Europe, inducing inequity between EU countries. We show that a higher share of renewables could reduce the vulnerability of power generation to climate change, although the variability of wind and solar PV production remains a significant challenge.

Highlights

  • The electricity sector is a major contributor to global warming, responsible for 25% of greenhouse gas (GHG) emissions (IPCC WGIII 2014), but it will be impacted by changes in climate through their effects on supply and demand

  • The potential for cooling water uses will become more critical due to river flow reductions combined with water temperature increases, which will affect the usable capacity of thermoelectric power plants

  • We focused on understanding the impacts of climate change for given levels of warming using a limited number of climate model simulations, inducing some uncertainty

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Summary

April 2018

Vulnerabilities and resilience of European power generation to 1.5 ◦C, 2 ◦C and 3 ◦C warming. I Tobin, W Greuell, S Jerez, F Ludwig, R Vautard1,4 , M T H van Vliet and F-M Breon

Introduction
Climate model simulations
Wind power To assess climate change impacts on the
Solar PV power
Hydropower
Thermoelectric power
Results
Synthesis analysis
Discussion and conclusions
Full Text
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