感應馬達系統開發過程中，必須要各個領域專家、各種廠商配合設計，對於控制器設計的專家或廠商，能夠在控制器出廠前做完整的性能測試是很重要的工作。然而昂貴的感應馬達系統不是單一廠商能夠負擔，更何況龐大的系統需要各種領域的專家才能夠安全操作，使得對控制器設計專家或廠商在產品測試遇到極大的困難。本論文採用硬體迴路的設計概念，並且使用超大型積體電路系統設計的技術，設計實現一個應用於感應馬達控制器測試的電路。本論文提出的電路具有高模擬精準度、高執行效能、低成本、簡單使用因此控制器開發者可以快速地應用此電路完成控制器測試。我們的電路也能夠即時反應感應馬達的行為，成功地將電流、轉速等馬達訊號迴授到實體控制器，驗證實體控制器的功能。此外，我們提供了各種不同的電路架構，並且詳列比較模擬三種不同感應馬達的結果，讓控制器開發者可以根據目前的控制器以及驗證平台需求，選擇合適的電路型態。最後，我們將提供的電路整合成高彈性電路矽智財以及對應的使用者圖形介面，讓開發者可以用簡單的圖形介面，得到所想要的模擬電路。

It requires diverse specialties or companies to develop a large induction motor system. For controller developer, it is crucial to give a test and verify the functionality of the controller before leaving the company. Yet the high-price of the whole induction motor system obstructs the controller testing process. Even though the induction motor system is available, it is still extremely insecure to test the controller with physical induction motor system. In the thesis, we provide an induction motor system simulation digital circuit design by adopting the hardware-in-the-loop (HIL) simulation methodology and using the very-large-scale-integrated system design strategies. Our circuit design has a number of features such as high simulation accuracy, high circuit performance, low cost solution and easy-to-use approach. Our circuit can reflect the motor current or rotation velocity response and feedback to the physical controller in real time so that the controller developers can verify their design easily. We also design distinct circuit architectures for different target devices and analyze these circuit properties under three kinds of induction motors so developers can choose proper circuit configuration according to their HIL simulation platform. Finally, we integrate the circuit design and provide an IP Generator GUI for developers to use our design conveniently.

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