本論文提出兩種反飽和的方法，包括零電壓向量注入法及參考命令修正法，應用在同步磁阻驅動系統，以達到良好的暫態響應及加載響應。文中，首先討論同步磁阻電動機的結構、特性及數學模型。其次，介紹所提出的反飽和方法，此方法能提供低的超振量及快速的安定時間。相關的設計方法在文中說明。
本文使用TMS-320F-28335的數位信號處理器作為控制核心，執行所提出的兩種反飽和方法。實測結果證實本文所提方法的正確性及可行性。

關鍵詞：反飽和，同步磁阻電動機，數位訊號處理器。

The thesis proposes two anti-windup methods, including zero voltage vector injection method and reference command correction method, for a synchronous reluctance drive system to achieve good transient responses and load disturbance responses. In this thesis, first, the configuration, characteristics and mathematical model of the synchronous reluctance motor are discussed. Then, the proposed anti-windup methods are presented. The methods can provide lower overshoot and faster setting time when compared to the drive system without using anti-windup mechanism. The details are discussed in this thesis.
A digital signal processor TMS-320F-28335, is used as the control center to execute the proposed two anti-windup methods. Experimental results validate the correctness and feasibility of the proposed methods.

Key words: anti-windup, synchronous reluctance motor, digital signal processor.

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