Asynchronous Motor Vector Control Simulation Model

The asynchronous motor vector control simulation model serves as a foundational framework for analyzing motor behavior under various operational conditions. Its implementation typically involves Clarke/Park transformations for reference frame conversion, rotor flux orientation algorithms for decoupling torque and flux components, and PI regulators for current loop control. The model's architecture allows performance prediction in real-world applications through adjustable parameters like switching frequencies, sample times, and machine constants. Designed with modular MATLAB/Simulink blocks, it enables straightforward customization of control strategies (e.g., direct or indirect vector control) and seamless integration of additional features like field weakening or sensorless observers. The code structure employs masked subsystems for parameter encapsulation and includes signal scoping nodes for real-time waveform monitoring. This flexibility makes the model applicable across industries for optimizing motor drive systems, with clear documentation supporting both experienced engineers and newcomers in electric drive simulations.