1
Traditional solar PV
Direct site footprint: approximately 700–890 acres.
Farm productivity on occupied land: typically minimal if ordinary farming stops.
+700 to +890acres lost
Agriculture + Energy + Land
Land use that can protect farm output while producing power.
A land-equivalent comparison for a 100 MW project on farmland shows how traditional solar, agrivoltaic design, fossil generation footprints, and yield-enhancing Solargation change agricultural productivity.
Calculation method
Agricultural impact is measured as land-equivalent output loss.
Net agricultural land-equivalent loss = gross project acres × (1 − retained farm productivity).
Negative values mean the field produces a net farm-output gain compared with baseline agricultural productivity.
100 MW farmland comparison
The same power target can create very different land outcomes.
The table-style cards below convert each technology into an agricultural land-equivalent impact, using the assumptions in the right-hand panel.
2
Agrivoltaic PV
Direct site footprint: approximately 700 acres.
Farm productivity retained: approximately 70%–100% in the illustrative case.
+0 to +210acres lost
3
Diesel turbine / generator
Direct site footprint: approximately 12 acres.
Farm productivity on occupied land: 0%, with additional dispersed upstream oil, refining, and transport land impacts.
+12acres lost
4
Natural gas turbine
Direct site footprint: approximately 11 acres.
Farm productivity on occupied land: 0%, with upstream wells, gathering, pipelines, and compressor-station land impacts.
+11acres lost
5
Yield-enhancing Solargation
Direct site footprint: approximately 700 acres at 7 acres per MW.
Farm productivity enhanced: approximately 110%–150% of baseline in the illustrative case.
−70 to −350acres equivalentNet agricultural gain
What the comparison means
Solargation reframes farmland as productive dual-use infrastructure.
Core takeaway
- Traditional solar uses the most farmland if agriculture stops on the site.
- Agrivoltaics can sharply reduce farmland loss by keeping agricultural production active.
- Solargation can turn a solar site into a net agricultural productivity gain under favorable crop, climate, and operating conditions.
Important note
Fossil technologies can appear land-light at the power-plant site, but they also rely on upstream land for fuel extraction, processing, and transport. Agrivoltaic and Solargation productivity values are illustrative and depend on crop type, design, climate, and farm operations.
From land conflict to land productivity.
The land-use advantage is not only putting panels above crops. It is using the same infrastructure to preserve or improve output through shade, irrigation, microclimate, and data-enabled material dispersal.
110%to 150% assumed retained/enhanced productivity
−350acres equivalent at the high end of yield gain
How the technology supports the outcome
A field system designed for shade, water, data, and farm operations.
Solargation is intended to preserve and improve farm output through dual use, microclimate support, water efficiency, irrigation integration, and data-driven material dispersal.
Sources noted in the provided land-use graphic: NREL utility-scale PV land use; Jacobson / Stanford land-footprint compilation for fossil power plants; recent agrivoltaic review reporting land-use efficiency gains up to 200%; University of Arizona / Barron-Gafford agrivoltaic field results showing higher yields for some crops and lower transpiration.
Designed to keep the field working.The land-use case is built around retained agriculture, not simple land conversion.
Explore the land-use case
Energy infrastructure can do more than occupy land.
This land-use page is structured as a responsive HTML5 website that preserves the prior Solargation visual system while explaining the agricultural land-equivalent comparison in a clearer, web-ready format.
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