According to a 2009 National Renewable Energy Laboratory (NREL) report, a modern wind farm in the United States requires approximately 34.5 hectares (ha) per megawatt (MW) of nameplate capacity, with a standard deviation of ±22.4 ha. To account for potential complexities in siting, a conservative estimate uses the mean plus one standard deviation, or 57 ha/MW. This figure includes both the direct footprint (turbines, roads, substations) and the surrounding lease or project area needed for spacing and environmental considerations.
For a 220 MW wind farm:
Agricultural Impact: South-West Oxford and Malahide are prime agricultural regions in Ontario, known for crops like corn, soybeans, and wheat. A wind farm of this scale could disrupt thousands of acres of farmland, even if much of the leased land remains farmable. Construction activities, such as building access roads and turbine foundations, may compact soil, reducing crop yields.
Regulatory Requirements: In Ontario, wind farms must comply with the Ontario Building Code and municipal bylaws, including setback requirements (e.g., 550 meters from noise receptors like homes). These regulations may increase the total land area needed to meet spacing and zoning standards.
Comparison to Similar Projects: The Cedar Point Wind Farm in Colorado, a 252.3 MW facility, occupies about 20,000 acres (8,094 ha) of leased land, suggesting the Cedar Flats estimate is within a plausible range for a slightly smaller project.
This by-law provides detailed zoning information, including agricultural land designations.
Malahide’s zoning maps delineate various land use zones, including agricultural areas.
This tool identifies bird and bat concentration areas in the Great Lakes basin, which can help in understanding migratory patterns.
Provides real-time analysis maps of nocturnal bird migration intensities across North America.
