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February 9, 2026Frontiers in Horticulture8 citationsOpen Access

Connecting agriculture and renewable energy: insights into microclimatic changes, physiological, biochemical, and yield responses under agrivoltaics: a review

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MPManu PriyaSASandler Hilary A.PJPeter Jeranyama

Key Points

  • The review aims to synthesize knowledge on the interactions between agrivoltaics and plant microclimates, highlighting their physiological and yield responses.
  • Analyzed the interplay between agrivoltaics systems and microclimatic changes.
  • Reviewed physiological and biochemical plant responses under varying light conditions.
  • Explored yield variations among different crop species in agrivoltaic setups.
  • Identified key knowledge gaps regarding molecular adaptations in plants.
  • Moderated light intensity enhances water-use efficiency and stabilizes photosynthetic function.
  • Crop yield responses vary significantly across vegetables, cereals, pulses, and fruit crops.
  • Tailored agronomic strategies are essential for optimizing crop selection in agrivoltaic systems.
  • Challenges include initial investment and varying regional responses to solar panel placement.

Abstract

Agrivoltaics, the synergistic integration of agriculture and solar energy production on the same piece of land, has emerged as a compelling dual-use solution that maximizes land productivity while simultaneously addressing the need for sustainable agricultural practices and renewable energy generation. Despite the growing global interest in this dual-use system, the microclimatic shifts created beneath solar panels and their consequences for crop performance remain insufficiently synthesized. This review highlights the intricate interactions between agrivoltaics systems and plant microclimates, discussing their impacts on various physiological processes, metabolic pathways, and overall yield responses in different crop species. Evidence indicates that moderated light intensity and altered microclimates can enhance water-use efficiency, stabilize photosynthetic function, and trigger beneficial metabolic adjustments; however, responses remain highly species-specific and strongly dependent on regional climate conditions and panel configuration. Yield outcomes vary widely among vegetables, cereals, pulses, and fruit crops, highlighting the necessity for tailored agronomic strategies and crop selection within agrivoltaic designs. A critical knowledge gap identified in this review concerns the limited understanding of molecular and omics-level responses underlying plant adaptation to agrivoltaic environments. We further provide a detailed and interdisciplinary overview of adaptive agronomic strategies, and optimal crop selection, tailored to agrivoltaic systems. Despite the benefits of land use efficiency and simultaneous food and energy production, challenges remain concerning initial investment, technological adaptation, social and legal barriers, and shade-induced yield penalties. Further research in this area will be critical to enhancing the agricultural, environmental, and economic sustainability of agrivoltaics while simultaneously augmenting their practical utility and appeal to farmers in the future.

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Cite This Study

Priya et al. (2026) studied this question.

synapsesocial.com/papers/698978dff0ec2af6756e7186https://doi.org/10.3389/fhort.2026.1645374
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