AgrivoltaicsAgrivoltaicsCoverage from Deutsche Welle, Energies Media, and others
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Agrivoltaics places solar panels within working agricultural systems rather than treating farmland solely as an energy site.
Raised, spaced, vertical, semi-transparent, or sensor-controlled arrays can generate electricity while crops grow beneath them or livestock graze around them; projects include strawberry greenhouses in France, sheep grazing in the United States, and Jack’s Solar Garden in Colorado. Shade may reduce heat stress and evaporation, but results vary by crop, climate, and design. The approach also raises practical questions about construction costs, machinery access, grid connections, farm economics, land use, and policies that support dual-use development.
It illustrates an operating agrivoltaic model in which sheep grazing can support farm income and solar-site maintenance.
Adirondack Explorer / Jaysa Dold
Key Issues
01
Crop and climate determine yield outcomes
Panel shade can ease heat and water stress, with some trials reporting crop benefits, but effects vary by crop, weather, irrigation, and panel design. Excess shade can reduce growth or yields, and shade cannot replace irrigation during severe drought.
Drawn from 5 articles
02
Costs and project logistics constrain adoption
Agrivoltaics can require costlier structures and changes to farm operations, while grid delays and uncertain project returns complicate deployment. High upfront costs and funding patterns can also favor large operators over smaller farmers and communities.
Drawn from 5 articles
03
Operating projects exist, but deployment remains limited
Agrivoltaics is operating or being tested in crop production, solar grazing, and research settings, but reported worldwide capacity remains below 1% of global solar capacity. These examples establish workable models, not widespread adoption.
Drawn from 4 articles
Key Numbers
30%
maximum recommended shade level
recommended to avoid substantial declines in fruit yield and quality · 2024
“In a 2024 review with Magarelli and Mazzeo, the group recommended keeping shade below 30% to avoid substantial declines in fruit yield and quality.”
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1.84°C
average daytime leaf cooling
tomato leaves beneath panels compared with an open field
“The researchers tested the model using weather data from a hot, humid day at a hypothetical tomato farm in Princeton, New Jersey. Tomato leaves beneath solar panels were 1.84°C cooler on average during the day than leaves in an open field. During peak afternoon heat, the difference reached 7.56°C.”
Energies Media
22.4%
decline in evapotranspiration
crops beneath panels
“The crops received 47% less sunlight beneath the panels, but carbon uptake declined by only 31%. The results suggest that reduced heat stress allowed the plants to photosynthesize more efficiently than they would have in an unshaded field. Evapotranspiration also fell by 22.4%, indicating improved water-use efficiency.”
Energies Media
31%
decline in carbon uptake
crops beneath panels
“The crops received 47% less sunlight beneath the panels, but carbon uptake declined by only 31%. The results suggest that reduced heat stress allowed the plants to photosynthesize more efficiently than they would have in an unshaded field. Evapotranspiration also fell by 22.4%, indicating improved water-use efficiency.”
Energies Media
47%
reduction in sunlight received
crops beneath panels
“The crops received 47% less sunlight beneath the panels, but carbon uptake declined by only 31%. The results suggest that reduced heat stress allowed the plants to photosynthesize more efficiently than they would have in an unshaded field. Evapotranspiration also fell by 22.4%, indicating improved water-use efficiency.”
Energies Media
Looking Back
234 Day Timeline
Articles published over time. Hover any bar for the period and its article count.
New reporting adds a distributional concern to agrivoltaics’ technical and adoption challenges: a review found that about 86% of roughly €775 million in public funding went to large-scale projects, while high upfront costs and grid-connection queues can further disadvantage smaller farmers and communities.
Previously
Agrivoltaics combines solar generation with farming or grazing, and projects across the United States and Europe are testing how panel design and shade affect agricultural production. Panels can reduce heat and water stress, but crop yields vary with conditions and excessive shade can limit growth; higher costs, grid delays, and operational constraints also affect adoption. The evidence points to a site- and crop-specific approach rather than a single expected benefit.
By mid-2025, agrivoltaic projects worldwide paired solar generation with crops or livestock, reaching 18.4 gigawatts while facing regional yield and cost constraints.
Hosseini and colleagues published a 2026 model showing agrivoltaic panels improved tomato cooling, water efficiency, worker heat exposure, and panel performance in Princeton, New Jersey.
Researchers in southern Ontario found that carefully designed photovoltaic shading increased turnip biomass while supporting potential agricultural and solar revenues in Canada.
RWE commissioned two elevated agrivoltaic plants in Benevento, Italy, providing 19.1 MW of solar capacity above cultivated land under Italy's agricultural-use rules.
8/31/2026 • Policy, Politics & Governance • General
In India, government agencies, researchers and farmer groups are being urged to develop bankable agrivoltaics projects, building on PM-KUSUM and a 100 kWp research facility inaugurated in December 2025.
In 2025, researchers and policymakers across Europe examined agrivoltaics as a way to combine solar generation and farming, while identifying risks to smaller farmers and local communities.
European farmers and energy developers are expanding agrivoltaic projects across Europe as extreme heat and drought increase pressure on crop production.
Josh Pierce and other New York farmers are using sheep to manage vegetation at solar farms across the Adirondacks, with a cattle pilot launched in Fort Covington during summer.
US solar developers are being urged to manage agricultural soils, vegetation, and grazing systems beneath utility-scale photovoltaic arrays across rural America.
Purdue University researchers are evaluating agrivoltaics in Indiana as solar development expands, examining whether combined agricultural and photovoltaic production can improve acceptance and rural resilience.
Giuseppe Ferrara's Italian research group and Princeton researchers are evaluating agrivoltaic systems in Italy and New Jersey, finding reduced heat and water stress alongside potential crop and efficiency tradeoffs.
After a 2023 pilot, The Food Group, U.S. Solar and Conexus Energy made the Big Lake Farm agrivoltaics project permanent in Big Lake, Minnesota, with 10-year leases for three farmers.
University of Wisconsin-Madison researchers began testing agrivoltaic solar systems in 2025 at the Kegonsa Research Campus near Madison, Wisconsin, to measure crop and ecosystem performance.
RWE tested agrivoltaic solar configurations in 2020s Germany near Bedburg's Garzweiler mine to combine renewable electricity generation with wheat, barley, and raspberry production.
The Extended Day-Ahead Market, Western power authorities, Massachusetts researchers, New Jersey farms, and Barber's Farmhouse Cheesemakers demonstrated climate-related cost and efficiency gains in the United States and England.
US farmers, renewable-energy developers, and policymakers are contesting farmland solar development as agrivoltaic projects expand across Texas and other rural regions.
The Vatican plans to build an 80-to-90-megawatt agrivoltaic solar plant at Santa Maria di Galeria near Rome within two years to supply Vatican facilities.
John Czajkowski Farm in Hadley, Massachusetts, is using an 832-panel agrivoltaic system to produce crops and electricity while reducing farm power costs.
Citicore Renewable Energy Corp. is expanding agrivoltaic solar projects in the Philippines to combine electricity generation with crop production and support host communities.
Solar Plus Garden describes a 10 MW polycrystalline solar project combining electricity generation and up to 3,000 garden plots in an Estonian-Serbian agrivoltaic model.
Farmers and solar developers are expanding agrivoltaic projects in 2025 across U.S. agricultural regions, while USDA funding restrictions and local opposition complicate renewable-energy siting.
Square Roots Farm and BlueWave Solar presented a proposed 3,973.2-kilowatt agrivoltaic array in Lanesborough, Massachusetts, while seeking guidance on a scenic-viewshed zoning variance.
Renewable Energy Farmers of America is advising rural landowners across 30 states on wind and solar leases, agricultural integration, and project impacts in the United States.
In 2026, Josef Wimmer tested elevated photovoltaic panels above hop fields near Osseltshausen, Bavaria, to reduce drought stress and supplement farm income.
Our Table Cooperative in south of Portland, Oregon, installs the Lettuce Shine agrivoltaics system to manage crop shade and generate power amid regional warming.
Researchers in a northern-climate study found that 55% transparent neutral solar panels increased lettuce production by 300% while generating electricity in agrivoltaic cold frames.
A Princeton University-led team modeled solar panels in central New Jersey and found agrivoltaic shading reduced tomato farmworker temperatures by about 7 degrees Fahrenheit.
Researchers modeled agrivoltaic tomato production in Princeton, New Jersey, finding solar panels reduced crop heat, water loss, and worker temperatures while sustaining carbon uptake.
Citicore Renewable Energy Corporation deploys agrivoltaics at nearly 200 MW in Batangas, Philippines, guided by Tarlac trials testing turmeric under solar PV.
Agrivoltaics project designs are evaluated by crop-specific farm performance, cost, and repeat adoption, with grazing under standard PV identified as most scalable.
SALSA continues agrivoltaics research in Arizona after foundation funding replaces USDA and DOE support, linking farmworker heat protection with solar generation.
Researchers found that semi-transparent photovoltaics combined with heat pumps could fully electrify tomato greenhouses and cut emissions 71.7% in Southern Ontario.
Researchers in Southern Ontario found that combining semi-transparent solar photovoltaics with heat pumps increased tomato yields and reduced greenhouse emissions by 71.7%.
Colorado State University and Cornell University researchers reported in 2025 that solar arrays improved grass productivity during four years of field study near Longmont, Colorado.
Drought damaged newly planted berries at Byron Kominek's Jack's Solar Garden in Boulder County, Colorado, after irrigation water was cut off during a historically dry 2020s season.
David Moreau and Sun'Agri launched an agrivoltaic vineyard system in early May at Saint-Andre-de-Lidon, France, to protect vines from heat, hail, and frost.
University of Arizona researchers studying agrivoltaics in Casa Grande, Arizona report shaded solar arrays can lower skin temperatures and water use for crops.
In Virginia, agrivoltaics legislation and working-group planning support expanding cattle grazing on utility-scale solar sites through operational measures and farm partnerships.
Studies across Italy, Canada, and Brazil assess agrivoltaics productivity, while China and the US expand solar grazing and mapped site inventories in 2024.
In its first harvest, Ring Road Solar produced 325 cranberry barrels from its agrivoltaic bogs in Plympton, Massachusetts, after picking in late October and early November.
The Food Group, U.S. Solar, and Conexus Energy made their 1-megawatt agrivoltaics project permanent in 2026 at Big Lake Farm in Minnesota, enabling three farmers to grow crops alongside solar panels.
Doral and Kibbutz Ma'ale Gilboa harvested 30 tons of grapes under solar panels on Mount Gilboa, Israel, demonstrating agrivoltaics for heat-stressed farming.
Virginia Senate Bill 340 defines agrivoltaics as solar panels enable concurrent farming and drought-related water savings while renewable capacity expands for data center demand.
Agrivoltaics deployment in the United States combines solar PV generation and crop production to improve land use efficiency while providing farm energy and potential yield support.
U.S. solar farms adopting agrivoltaics and irrigation shading in California, Colorado, Minnesota, Arizona, and Texas aim to improve crop conditions and biodiversity outcomes alongside electricity generation.
After launching as a 2023 pilot, The Food Group, U.S. Solar and Conexus Energy made Big Lake Farm a permanent agrivoltaic project for crop production around solar panels in Big Lake, Minnesota.
Byron Kominek's Jack's Solar Garden in Longmont, Colorado, combines crop production and solar electricity generation to improve farm income and resilience under hotter, drier conditions.
Byron Kominek launched Jack's Solar Garden near Longmont, Colorado, in 2016 to combine solar generation with agrovoltaic crops amid hotter, drier growing seasons.
University of Wisconsin-Madison began 2025 agrivoltaics research at Kegonsa to test solar panel spacing effects on crops, grazing, and land-atmosphere measurements in Wisconsin.
Silicon Ranch is piloting cattle-grazing agrivoltaics in Christiana, Tennessee, using software-controlled solar panel angles to generate electricity and support livestock and farm income.
Cornell University researchers modeled agrivoltaic solar panel tilts and configurations to show wind-sheltering designs can protect crops during extreme winds.
Cornell University researchers used ANSYS Fluent CFD to show HSAT agrivoltaic layouts can reduce shelter-zone crop winds by up to 70 percent while maintaining ventilation.
Belgian greenhouse growers are deploying solar panels, heat pumps, circular materials and peat alternatives in Flanders to reduce climate-related stress, emissions and resource use during the 2020s.
Capital Power began operating Strathmore Solar in Alberta in March 2022, using multi-species grazing and a long-term soil-testing program to manage vegetation and land impacts under bifacial panels.
6/27/2026 • Markets & Industry & Innovation • General
Silicon Ranch plans agrivoltaics in Christiana, Tennessee, pairing solar generation with cattle grazing and using software-controlled panel angles to support animal access.
4/30/2026 • Markets & Industry & Innovation • General
Voltiris and Meier Gemüse installed filtered-light solar modules in spring 2025 at a Rütihof, Switzerland, greenhouse, where the system generated electricity and reduced tomato heat stress.
University of Bonn researchers surveyed nearly 2,000 adults in Germany and found higher willingness to pay for agrivoltaic solar than for conventional open-land solar parks.
Silicon Ranch installed a 40-acre agrivoltaics solar pilot outside Nashville in late April 2026, pairing cattle grazing with tracker-controlled PV generation for Middle Tennessee Electric.
In central Illinois, Pivot Energy agrivoltaics sites use sheep grazing to manage solar vegetation while landowners seek income diversification and rural acceptance.
Bryant Parker and Jessica Parker in Dunlap, Illinois deploy sheep grazing under a 7.1-megawatt solar farm to support agrivoltaics as Illinois expands community solar.
Agrivoltaics advocates farm-first design and measurable dual-use standards to ensure solar pv co-location preserves agricultural value in China, the United States, Europe, and Japan.
Silicon Ranch commercialized the CattleTracker agrivoltaics system at Christiana Solar Ranch in Tennessee, enabling cattle grazing under utility-scale solar and power purchases by Middle Tennessee Electric.
Silicon Ranch launched a cattle-grazing agrivoltaics solar pilot in Christiana, Tennessee, using software-adjusted panel positions to generate about 5 megawatts and support pasture.
University of Seville and Polytechnic University of Madrid researchers tested agrivoltaic photovoltaic shading with regulated deficit irrigation for tomatoes in Madrid and Seville in spring 2024.
Cornell researchers using computational fluid dynamics report that agrivoltaic solar panel row orientation and dynamic tilt can provide wind sheltering comparable or superior to natural windbreaks in farm settings in the USA.
Michigan farmers and conservation groups are protecting farmland through easements while evaluating renewable-energy projects and agrivoltaics amid rising values and climate-related agricultural risks.
In 2026, German farmer Josef Wimmer expanded an agrivoltaic pilot near Osseltshausen, Bavaria, using elevated solar panels to protect hops from heat and drought while generating electricity.
Egyptian agricultural communities and partner organizations are currently testing agrivoltaic solar systems in pilot initiatives across Egypt to address water scarcity and rising temperatures.
Egyptian farmers and research partners are testing agrivoltaic solar panels in South Sinai and other Egyptian sites to reduce crop heat and water stress while generating electricity.
Egyptian farmers and partner organizations are testing agrivoltaic solar panels in South Sinai and other communities to reduce crop heat and water stress.
Solar PV paired with farm production is expanding internationally, with U.S. policy changes in Illinois and Virginia and trials in France and studies in Italy and Brazil.