Wind Energy Calculator — Wind Turbine Output | Blackridge Research

Wind Energy Calculator

Estimate annual energy output from a wind turbine. The foundation of every wind farm feasibility study.

Free · No signup · By the analysts at Blackridge Research · Updated 2026-07-18

Inputs

Results

What this means

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Adjust the inputs to calculate.

About the Wind Energy Calculator

Wind energy output depends on turbine size, wind speed, and capacity factor.

This calculator estimates annual energy production for wind projects.

Formula

            Annual Output = Turbine Size × 8,760 × 0.35 × (Wind Speed / 10)
          
TS
— Turbine Size (MW)
WS
— Wind Speed (m/s)
CF
— Capacity Factor
AO
— Annual Output (MWh)

How to use this calculator

  1. 1

    Enter turbine size

    Turbine capacity in megawatts (MW).

  2. 2

    Enter wind speed

    Average annual wind speed in m/s at hub height.

Example calculations

Utility wind turbine

A 3 MW turbine with 8 m/s average wind speed.

Annual Output = 3 × 8,760 × 0.35 × (8/10) = 7,358 MWh.

Annual output:
7,358 MWh
Capacity factor:
28.0%

The 3 MW turbine produces 7,358 MWh annually at 8 m/s wind speed.

Interpreting your results

Higher wind speeds produce more energy. Wind speed is the most important factor.

Capacity factors of 25-45% are typical for wind projects.

Need the market data behind this calculator?

The Wind Energy Calculator is only as good as its inputs. Blackridge Research publishes syndicated market reports with vetted market sizes, growth rates, and competitive landscapes across 40+ industries — and builds custom studies when the shelf report doesn't exist.

Industry applications

Business

  • Wind farm development: estimate energy production.
  • Investment decisions: evaluate wind project viability.
  • Renewable energy planning: assess wind resources.

Construction

  • Wind farm construction: plan wind project capacity.
  • Site assessment: evaluate wind resource potential.

Research

  • Energy analysis: evaluate wind economics.
  • Feasibility studies: wind project viability.

Common mistakes to avoid

  • ✗ Overestimating wind speed

    Use measured wind speed data, not optimistic assumptions.

  • ✗ Using average wind speed

    Use the distribution of wind speeds, not just the average.

Frequently asked questions

What is a good wind speed for wind energy?

Above 6 m/s at hub height is generally viable. Above 8 m/s is excellent.

What is a typical capacity factor for wind?

25-45% depending on location and turbine technology.

Glossary

Capacity factor:
Actual output divided by maximum possible output over a period.
Hub height:
The height of the wind turbine rotor center.
Wind shear:
The increase in wind speed with height above ground.

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