Horizontal Axis Wind Turbines (HAWTs) are the most common type of wind turbine, featuring a horizontal axis of rotation with two or three blades that capture the wind's energy.

The rotor of a wind turbine is designed to capture the kinetic energy of the wind and convert it into mechanical energy, which is then used to generate electricity.

Vertical Axis Wind Turbines (VAWTs) have a vertical axis of rotation and can capture wind from any direction, making them suitable for urban areas or locations with turbulent wind patterns.

The Betz limit represents the maximum theoretical efficiency of a wind turbine, which is approximately 59.3%. It is determined by the fundamental principles of fluid dynamics and cannot be exceeded by any wind turbine design.

Ensuring the structural stability of a wind turbine requires careful consideration of blade design and materials, tower height and foundation design, and nacelle design and weight distribution.

The nacelle of a wind turbine houses the generator, gearbox, and other electrical components responsible for converting mechanical energy into electricity.

Savonius Wind Turbines have an eggbeater-like shape and can operate at low wind speeds, making them suitable for urban areas or locations with limited wind resources.

The yaw system of a wind turbine is responsible for orienting the turbine towards the wind direction, ensuring optimal energy capture and minimizing structural loads.

Maximizing the energy output of a wind turbine requires careful consideration of blade design and materials, tower height and foundation design, and nacelle design and weight distribution.

The controller of a wind turbine is responsible for regulating the turbine's speed, adjusting the blade pitch, monitoring the turbine's performance, and ensuring safe and efficient operation.

Darrieus Wind Turbines have curved blades and can generate electricity at higher wind speeds, making them suitable for locations with strong and consistent winds.

The gearbox of a wind turbine is used to increase the rotational speed of the rotor, which is typically too low to directly generate electricity.

Blade design and materials play a significant role in minimizing the noise generated by a wind turbine, as they influence the aerodynamic properties and sound emissions of the turbine.

The anemometer of a wind turbine is used to measure wind speed, which is a critical factor in determining the turbine's power output and efficiency.

Savonius Wind Turbines can generate electricity in both directions of rotation, making them suitable for applications where wind direction is variable or unpredictable.