Climate-driven divergence in biophysical and economic impacts of agrivoltaics

Increasing global demands for food and energy necessitate innovative land-use solutions. Agrivoltaics, colocating solar photovoltaics with agriculture, shows promise, but its widespread adoption faces complex biophysical and economic trade-offs in a changing climate. Here, we develop an integrated biophysical-economic modeling framework to quantify how agrivoltaics affect biophysical and economic impacts across the Midwestern United States under both current and project climate conditions. We find strong regional divergences driven by climate gradients. In the humid eastern Midwest, solar panel shading limits photosynthesis, leading to reduced yields (maize -24%; soybean -16%) and lower farmers' profitability (maize -16%; soybean -2%) compared to conventional agriculture. Conversely, in the semiarid western region, shading alleviates heat and water stress, moderating yield reductions for maize (-12%) and even boosting soybean yields (+6%), resulting in improved economic returns (-6% for maize; +9% for soybean), for a scenario with 33% photovoltaic ground coverage ratio. Although agrivoltaics generate substantial electrical energy across all regions, high upfront installation costs challenge solar developers compared to standalone solar photovoltaics. However, our analysis identifies "win-win" opportunities where soybean-based agrivoltaics in the semiarid region produce economic benefits for both farmers and solar developers, highlighting the necessity for region-specific designs tailored to local climate conditions. Critically, future climate projections indicate eastward expansion of semiarid conditions, broadening areas where agrivoltaics can mitigate crop yield penalties (even boosting yield) and improve overall profitability, especially under high-emission scenarios. The results provide a mechanistic and economically integrated understanding essential for developing evidence-based and region-specific strategies to scale agrivoltaics in a changing climate.

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Journal
Proceedings of the National Academy of Sciences
Published
2026-03-02
DOI
https://doi.org/10.1073/pnas.2514380123
Primary Topic
Photovoltaic Systems and Sustainability
Type
article
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article

Climate-driven divergence in biophysical and economic impacts of agrivoltaics

Steven A. Kannenberg, Mengqi Jia, DoKyoung Lee, Danica Lombardozzi et al.
Proceedings of the National Academy of Sciences
Photovoltaic Systems and Sustainability
article

Climate-driven divergence in biophysical and economic impacts of agrivoltaics

Steven A. Kannenberg, Mengqi Jia, DoKyoung Lee, Danica Lombardozzi, Matthew A. Sturchio, David M. Lawrence, Fahd Majeed, Carl J. Bernacchi, Alson Time, Paul Mwebaze, Greg A. Barron-Gafford, Madhu Khanna, Evan H. DeLucia, Bin Peng, Kaiyu Guan, Alan K. Knapp, Lei Zhao, James McCall, Jinyun Tang
article en

Abstract

Increasing global demands for food and energy necessitate innovative land-use solutions. Agrivoltaics, colocating solar photovoltaics with agriculture, shows promise, but its widespread adoption faces complex biophysical and economic trade-offs in a changing climate. Here, we develop an integrated biophysical-economic modeling framework to quantify how agrivoltaics affect biophysical and economic impacts across the Midwestern United States under both current and project climate conditions. We find strong regional divergences driven by climate gradients. In the humid eastern Midwest, solar panel shading limits photosynthesis, leading to reduced yields (maize -24%; soybean -16%) and lower farmers' profitability (maize -16%; soybean -2%) compared to conventional agriculture. Conversely, in the semiarid western region, shading alleviates heat and water stress, moderating yield reductions for maize (-12%) and even boosting soybean yields (+6%), resulting in improved economic returns (-6% for maize; +9% for soybean), for a scenario with 33% photovoltaic ground coverage ratio. Although agrivoltaics generate substantial electrical energy across all regions, high upfront installation costs challenge solar developers compared to standalone solar photovoltaics. However, our analysis identifies "win-win" opportunities where soybean-based agrivoltaics in the semiarid region produce economic benefits for both farmers and solar developers, highlighting the necessity for region-specific designs tailored to local climate conditions. Critically, future climate projections indicate eastward expansion of semiarid conditions, broadening areas where agrivoltaics can mitigate crop yield penalties (even boosting yield) and improve overall profitability, especially under high-emission scenarios. The results provide a mechanistic and economically integrated understanding essential for developing evidence-based and region-specific strategies to scale agrivoltaics in a changing climate.

Proceedings of the National Academy of SciencesVol. 123(10)
West Virginia University (US), National Laboratory of the Rockies (US), United States Department of Agriculture (US), University of Arizona (US), Lawrence Berkeley National Laboratory (US), University of Illinois Urbana-Champaign (US), Sustainability Institute (ZA), NSF NCAR Climate and Global Dynamics Laboratory (US), National Center for Supercomputing Applications (US), Institute for Sustainability (GB), Colorado State University (US)
Openalex Percentile: Top 46%
Photovoltaic Systems and Sustainability
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