本文提出一套具有高彈性化之無線電能感應線圈設計，此研究乃因目前相關領域著重探討補償電容與感應鐵芯結構，對於感應線圈之參數計算上之研究較為有限，因此本文即致力於提出線圈設計方法，並可依系統所需規格進行感應線圈之參數値設計，其中本文利用互感等效模型與阻抗匹配，同時分析非接觸電能輸出特性與諧振增益，且在選定適合之補償架構後，同時模擬線圈磁場強度及耦合係數，並彙整為一套可彈性適用於多種應用場合之感應線圈設計流程。至為驗證本文所提方法之可行性，本文已完成硬體電路實作，並由測試結果得知系統於既定系統規格條件下，確可符合電能傳輸需求，輔以佐證本論文所提之設計方法具有實際應用價值。

This thesis proposes an inductive coil design with high flexibility. Previous studies were mainly focused on the compensation capacitor and coupling structure design. Yet, for the magnetic windings design, the investigation was relatively limited. Therefore, this thesis is aimed to propose a coil design method which can be flexibly adjusted to correspond to system specification. By using the mutual inductance model and impedance matching along with the analysis of contactless power output and resonance features, the method is capable of choosing the appropriate compensation structure, and then combined to be a magnetic windings design flowchart coming high flexibility for applying to different scenarios. To validate the feasibility of this approach, a hardware prototype is completed and experimental results show that this designated circuit achieves a satisfactory efficiency in correspondence to system specifications. These test results support the practical value of the proposed method.

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