Wind turbine control systems aim to optimize energy capture, minimize mechanical stress, and ensure grid stability. Maximizing noise generation is not a primary objective.

A wind turbine controller performs all of the mentioned functions to optimize energy capture, minimize mechanical stress, and ensure safe operation.

Variable speed control allows the turbine to operate at a variable speed, enabling it to capture more energy at low wind speeds.

Pitch control adjusts the blade angle of attack to regulate the power output and protect the turbine from excessive loads.

An anemometer is used to measure wind speed, while a wind vane measures wind direction.

Yaw control systems orient the turbine to face the wind, maximizing energy capture and reducing mechanical stress.

Stall control allows the turbine blades to stall at high wind speeds, reducing power output and protecting the turbine from damage.

Power converters in wind turbines convert AC power generated by the turbine to DC power, which is then fed to the grid.

Variable speed control allows the turbine to operate at a variable speed, reducing mechanical stress on the turbine components.

Supervisory control systems monitor overall turbine performance, detect faults, and initiate appropriate actions to ensure safe and efficient operation.

Power meters measure the power output of wind turbines.

Gearboxes in wind turbines increase the rotational speed of the generator to match the grid frequency.

Constant speed control maintains a constant generator speed, which is crucial for grid stability.

SCADA (Supervisory Control and Data Acquisition) systems supervise and control multiple wind turbines, enabling remote monitoring and operation.

Tachometers measure the rotational speed of the generator in wind turbines.