A Massachusetts farm is showing that solar panels do not have to mean surrendering cropland, and that matters because the fight for land is one of the biggest constraints on both clean energy and agriculture.
Massachusetts farm grows crops under solar panels
On Joe Czajkowski’s property in Hadley, 832 solar modules sit about 3.05 meters above the ground, high enough for tractors to work beneath them while corn and other crops keep growing. In that setup, the corn harvest reached roughly 80% of the yield from nearby open rows — a modest trade-off on output, but one that still leaves the land producing both food and power at the same time.
That is the real economic shift here. Agrivoltaics, the practice of combining farming and solar generation on the same parcel, tries to solve a problem that has grown more pressing as land, energy and climate pressures collide. For farmers, the appeal is not just electricity, but a second revenue stream from the same acreage. For the energy system, it is a way to expand solar without taking as much fertile land out of production. For investors, it points to a bigger addressable market for solar equipment, mounting systems and project developers that can design around agriculture instead of competing with it.
The Hadley project spans about 0.89 hectares and has a nameplate capacity of 445 kilowatts DC. Hyperion Systems, the developer, says the rows are spaced about 7.9 meters apart and use single-axis trackers, leaving enough room for a tractor to pass. Czajkowski says he can plow, subsoil and cultivate under the structure, and he gets paid for the land’s energy use on top of the farming income. That combination is what makes agrivoltaics interesting: it can turn a piece of land into a dual-purpose asset rather than forcing an either-or choice.
The numbers also show why the model is attracting attention from researchers and policymakers. The U.S. Department of Energy defines agrivoltaics as using land simultaneously for electricity and agriculture, including crops, pollinators and grazing, as long as the land remains available for food production. In other words, this is not a novelty; it is an attempt to redesign land productivity. The project in Hadley is part of a UMass Amherst study funded by the Energy Department that is tracking soil health, microclimate, crop performance and farm economics across different crops, including broccoli, spinach, sweet corn and now possibly asparagus.
Investors should care because solar’s next phase may depend less on utility-scale fields that compete with farmland and more on flexible deployments that fit into existing agricultural operations. Companies tied to solar hardware and installation could benefit if agrivoltaics spreads from pilot projects into commercial practice. The flip side is that economics still have to work crop by crop and farm by farm. The corn in Hadley still gave up about 20% of yield, and that trade-off will not be acceptable everywhere.
Even so, the long-term case is straightforward: if farmers can preserve most of their output while creating power income from the same land, the model becomes harder to ignore. That makes agrivoltaics worth watching not as a gimmick, but as a potentially durable way to widen the economic footprint of solar while keeping more farmland in production.
| Entity | Gains | Losses |
|---|---|---|
| Farmers | ▲extra income from land | ▼some crop yield |
| Solar developers | ▲more deployable sites | ▼simpler ground-mounted fields |
| Rural communities | ▲local power and farm revenue | ▼unused land use efficiencies |
| Traditional solar projects | ▲lower land conflict | ▼pure utility-scale expansion |


