Impacts of stratospheric aerosol injection on renewable energy systems

Climate change is one of the 21st centurys major challenges. However, the progress in reducing greenhouse gas emissions is perceived as being too slow. Hence, more radical technologies such as stratospheric aerosol injection are entering discussions to limit climate change. This study presents a methodology for evaluating the effects of injecting 20Mt of SO$_2$ into the atmosphere annually on the global radiative balance, photovoltaic potentials, and renewable energy systems under a targeted temperature reduction of 2°C. Results show that the average annual reduction of PV potentials ranges from 0.25% to 4% up to 12% in Northern Europe during summer. The modeled renewable energy systems largely absorb these reductions resulting in minor capacity shifts with larger changes confined to a few systems. The results show that the inherent flexibility of large scale renewable energy systems helps mitigating changes in cost, but understanding this flexibility is crucial to avoid errors in design.

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Publication Details

Journal
Next Energy
Published
2026-09-12
DOI
https://doi.org/10.1016/j.nxener.2026.100982
Primary Topic
Climate Change and Geoengineering
Type
article
Field-Weighted Citation Impact
0.00

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article

Impacts of stratospheric aerosol injection on renewable energy systems

Heidi Heinrichs, Jochen Linßen, Sebastian Kebrich
Next Energy
Climate Change and Geoengineering
article

Impacts of stratospheric aerosol injection on renewable energy systems

Heidi Heinrichs, Jochen Linßen, Sebastian Kebrich
article en

Abstract

Climate change is one of the 21st centurys major challenges. However, the progress in reducing greenhouse gas emissions is perceived as being too slow. Hence, more radical technologies such as stratospheric aerosol injection are entering discussions to limit climate change. This study presents a methodology for evaluating the effects of injecting 20Mt of SO$_2$ into the atmosphere annually on the global radiative balance, photovoltaic potentials, and renewable energy systems under a targeted temperature reduction of 2°C. Results show that the average annual reduction of PV potentials ranges from 0.25% to 4% up to 12% in Northern Europe during summer. The modeled renewable energy systems largely absorb these reductions resulting in minor capacity shifts with larger changes confined to a few systems. The results show that the inherent flexibility of large scale renewable energy systems helps mitigating changes in cost, but understanding this flexibility is crucial to avoid errors in design.

Next EnergyVol. 13
Helmholtz Association, HORIZON EUROPE Framework Programme
Openalex Percentile: Top 99%
Climate Change and Geoengineering
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