A wind farm developer plans to install turbines on a 450-acre plot of land. If each turbine requires 12 acres and is spaced 50 meters apart in a grid, how many turbines can be installed if 1 acre equals 4,047 square meters?

Thu, 07 May 2026 22:55:51 +0000

**A wind farm developer plans to install turbines on a 450-acre plot of land. If each turbine requires 12 acres and is spaced 50 meters apart in a grid, how many turbines can be installed if 1 acre equals 4,047 square meters?** As renewable energy accelerates its role in America’s clean power future, large-scale wind farms are becoming a common sight across rural landscapes. Industry teams increasingly analyze precise land use to maximize turbine output—spanning vast plots efficiently while respecting spacing for safety, performance, and infrastructure. A common question emerging in these discussions: how many turbines can realistically fit on 450 acres when each requires roughly 12 acres and demands careful 50-meter grid spacing? This insight reveals both practical engineering limits and growing momentum behind offshore and onshore wind investment. **Why A wind farm developer plans to install turbines on a 450-acre plot of land. If each turbine requires 12 acres and is spaced 50 meters apart in a grid, how many turbines can be installed if 1 acre equals 4,047 square meters?**
The answer lies at the intersection of scalable design and land efficiency. With 1 acre covering 4,047 square meters, the full plot spans 1,819,650 square meters. Each turbine occupies 12 acres (48,564 square meters), plus 50-meter spacing ensures safe, optimal turbine placement—managing turbulence and access routes. This method maximizes energy yield while adhering to industry standards. To calculate turbine capacity:
450 acres ÷ 12 acres per turbine = 37.5