本論文進行波浪發電機組開發，以永磁同步發電機作為主結構進 行模擬與分析，透過模擬與分析評估電機是否適合台灣海域之現況，並進行相關測試與效益分析，期許所開發之發電機能併入台灣永續綠能供應鏈之中。
本文提出混和式電機之結構，此結構為內轉式電機結合外轉式電機，二者利用鋁板分隔內外轉電機使彼此之磁力線不會互相干擾，可成為兩獨立系統。因波浪發電機需置於海面，發電機組內空間得有效利用是為研究之重點。
首先以實作外轉式波浪發電機為主，配合電機特性設定其參數進行模擬與分析，評估是否此設計符合發電機規格要求，進而製作出電機實體，利用有限元素分析軟體JMAG-Designer了解所設計電機其特性與實做進行比較，量測平台以原動機帶動電機進行測試，透過控制來模擬波浪之轉速。經實測結果確認，電壓、電流有效值準確度達9成以上，驗證實作與模擬相似度高。
另設計內轉原型機，採用轉子斜列技術與田口法進行電機之優化
，使效能更加提升。本研究的執行是針對國內海域的海況進行波浪發電機的設計，有助於提升開發適合國內海域之波浪發電機，未來可提供國內穩定之電能來源，達成穩定國內工業生產及利益民生的多重目標。

This thesis cooperates with the Industrial Technology Research Institute (ITRI) to develop a wave generator set. The relative simulation and analysis of permanent magnet synchronous generator are executed by software to study whether the generator set is suitable and practical for the wave’s condition of Taiwan’s sea area. The relevant tests and benefit analysis are performed to evaluate the feasibility that the developed generator can be incorporated into Taiwan's sustainable green energy.
The rotating structure of the generator is composed by an internal rotating rotor and an external rotating rotor. The internal and external rotating rotors are separated by aluminum plates so that the magnetic lines of force will not interfere with each other, can become two independent systems.
The purpose of the research is focused on the implementation of external rotation wave generator. The parameters according to the characteristics of the generator for simulation and analysis are set to evaluate whether the design meets the requirements. The experimental prototype generator is manufactured based the simulation result. The finite element analysis software JMAG-Designer has been used to simulate and understand the electrical characteristics of the designed generator. Meanwhile, we compared the simulation result with real measurement about the prototype to ensure the simulated and real implementation of the designed prototype are consistent.
The research used the Taguchi experimental method to optimize the generator design in order to raise the overall system efficiency. The implementation of this study is to design and realize practical wave generator according to the sea conditions in the domestic sea area Taiwan, which will be a stable source of domestic electricity.

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