By Andi Anderson
Agrivoltaics is an innovative farming approach that combines agriculture and solar energy production on the same piece of land. Instead of viewing farming and solar projects as competing land uses, this system allows both activities to work together, helping farmers generate food and renewable energy simultaneously.
A common concern about solar projects is that they remove valuable farmland from agricultural production. However, agrivoltaic systems demonstrate that many crops can be successfully grown beneath, between, or near solar panels. This approach helps maintain agricultural activity while supporting clean energy generation.
A wide variety of crops are suitable for agrivoltaic production. Row crops such as oats, potatoes, and winter wheat can be integrated into solar systems. Forage crops, including alfalfa, red clover, white clover, field peas, meadow fescue, orchard grass, and sorghum-sudan grass, also have potential in these environments.
Herb production is another option. Crops such as basil, cilantro, mint, parsley, thyme, and coriander can be grown within carefully designed solar projects. Additionally, a range of vegetables can thrive in these systems, including lettuce, spinach, kale, cabbage, broccoli, carrots, onions, garlic, peas, radishes, turnips, peppers, tomatoes, and several other specialty vegetables.
Fruit production opportunities also exist. Small fruits such as blueberries and strawberries, cane fruits like blackberries and raspberries, vine crops including grapes and cantaloupe, and tree fruits such as apples, peaches, and nectarines can potentially be grown alongside solar arrays. Some specialty products, including mushrooms, may also benefit from the unique growing conditions created by solar infrastructure.
The success of agrivoltaic systems depends heavily on proper planning and design. The placement, height, spacing, and orientation of solar panels can significantly influence crop growth and productivity. Because of this, farmers and solar developers must work together early in the planning process to determine the most suitable system configuration.
Agrivoltaics also promotes a broader approach to resource management by connecting food production, energy generation, and water conservation. This integrated strategy helps improve overall land-use efficiency while supporting environmental sustainability.
As interest in renewable energy continues to grow, agrivoltaic systems offer a promising solution for balancing agricultural production with clean energy goals. By allowing crops and solar installations to coexist, farmers can diversify income sources, maximize land productivity, and contribute to a more sustainable future. This innovative model demonstrates that agriculture and solar power can complement one another, creating benefits for farmers, communities, and the environment alike.
Photo Credit: istock-shansekala
Categories: Michigan, Sustainable Agriculture