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April 26, 2026Advanced Energy and Sustainability Research2 citationsOpen Access

Agrivoltaic System Potential to Mitigate Effects of Climate Change in Viticulture

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NHNatalie HanriederSWStefan WilbertASAlvaro Fernández Solas

Key Points

  • This study aims to investigate the potential of agrivoltaic systems to mitigate climate change effects on viticulture.
  • Analyzed historical meteorological data and onsite measurements at two wine-growing sites: Hatzenport, Germany, and Laujar, Spain.
  • Compared projected ambient temperature, precipitation, and solar irradiance against various agrivoltaic installations.
  • Evaluated the impacts of climate change on wine yield and phenological stages for future scenarios.
  • Temperatures at both locations have increased by approximately 2.5°C since 1970.
  • Future projections indicate a potential increase of up to 5.8°C in Hatzenport under 8.5 W m −2 radiative forcing until 2100.
  • Increased likelihood of heat waves and droughts in Laujar by 2100, with phenological stages occurring 10–20 days earlier.

Abstract

Viticulture already faces several climate‐related risks, which will be even more severe in the future. If Agrivoltaics (APV) can help to mitigate challenges associated to climate change still has to be investigated. To address this, we analyze historical meteorological data, onsite measurements, and climate projections to summarize the effect of climate change on wine yield for two wine‐growing sites: Hatzenport, Germany, and Laujar, Spain. We compare projected ambient temperature, precipitation, and global horizontal irradiance to the effects of various APV installations on these parameters. Since 1970, temperatures at both locations have risen by about 2.5°C, and future scenarios show further warming, especially in Hatzenport, where average yearly temperatures are predicted to increase up to 5.8°C under 8.5 W m −2 radiative forcing until 2100. The climate projections indicate that heat waves and droughts are increasingly likely to occur in Laujar by 2100. Phenological stages might occur about 10–20 days earlier in the year 2100, which increases the risk of hail damage and shortened dormancy periods. APV systems have the potential to mitigate those risks by providing protection for the crops, improving microclimate below the photovoltaic modules by reducing air and soil temperatures, and simultaneously generating renewable energy on agricultural land.

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Cite This Study

Hanrieder et al. (2026) studied this question.

synapsesocial.com/papers/69edad6b4a46254e215b5116https://doi.org/10.1002/aesr.70185
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Synergistic benefits of agrivoltaics for grape production and solar energy efficiency in a Mediterranean vineyard2026
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  4. 4Modelling Agrivoltaics in a climate perspective for water-energy-food nexus analysis2024
  5. 5Climatic and design tipping points in agrivoltaic crop production systems. A meta-analysis2025