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January 18, 20260 citationsOpen Access

Development of a Nonlinear Mathematical Model and Gain Scheduling-Based Control for Wind Turbine Test Rig

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MPM. Wahyu PratamaMSMN Romi Amin Setiawan

Key Points

  • The aim is to design a control system for a wind turbine test rig to stabilize output power by regulating torque and pitch angle.
  • Developed a modular wind turbine test rig with a data acquisition system and wind speed controller.
  • Designed a gain scheduling control system for generator torque and pitch angle.
  • Created a nonlinear dynamic model incorporating aerodynamic, drivetrain, generator, and pitch actuator subsystems.
  • Conducted simulations on torque control and pitch control across various wind speeds.
  • Torque controller achieved a maximum power coefficient (Cp) of 0.3476.
  • Optimal tip speed ratio (TSR) maintained at 3.931.
  • Pitch controller tracked references with 1–8.4% error based on wind speed.

Abstract

Universitas Prasetiya Mulya is developing a modular wind turbine test rig equipped with a data acquisition system and wind speed controller. However, the control system still needs to be developed. This research aims to design a control system that maintains turbine output power stability by regulating generator torque and pitch angle using a gain scheduling approach. The developed dynamic model includes aerodynamic, drivetrain, generator, and pitch actuator subsystems, based on experimental and simulation data. The tower and drivetrain are treated as rigid due to high structural integrity. The wind speed range used in modeling is 1–15 m/s, with a rated speed of 6 m/s. Below rated speeds, torque control maximizes power extraction, while above rated speeds, pitch control regulates rotor dynamics. The nonlinear model is linearized at above-rated conditions to obtain PID parameters for accurate pitch reference tracking. Simulation results show that the torque controller maintains a maximum power coefficient (Cp) of 0.3476 and an optimal tip speed ratio (TSR) of 3.931, while the pitch controller tracks references with 1–8.4% error depending on wind speed.

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Cite This Study

Pratama et al. (2026) studied this question.

synapsesocial.com/papers/696c79cde45ebfc9113cd409https://doi.org/10.1051/e3sconf/202668702003/pdf
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