本論文提出一套非接觸式電能傳輸系統之最佳化線圈填滿度設計流程。有鑑於在設計非接觸電能傳輸系統中當感應線圈設計不良時，系統傳能效率會不如預期，傳統設計感應線圈只能使用經驗法則，實際繞製線圈並測試該線圈是否有達到理想需求，因此本文提出一方法，有限元素模擬、ANFIS數學模型及改良式模糊粒子群演算法在擬定規格之情形下，找出符合規格之最佳線圈填滿度設計方法，以解決在設計線圈時無法設計出最佳線圈導致傳輸效率低落的情況。設計流程為利用有限元素模擬軟體建立ANFIS數學模型再使用改良式模糊粒子群演算法尋找該規格下之最佳解，接著與對照組線圈做趨勢驗證，實驗結果顯示，量測最佳化線圈與對照組線圈系統輸出功率，比較整體系統效率為最佳化線圈83.14 %較高。

The optimal coil design process for a wireless power transfer system is proposed in this study. In consideration of the effect of bad induction coil design in the wireless power transfer system on the system power transfer efficiency, traditional design of induction coil simply uses rules of thumb and the actual winding coil is tested the achievement to the ideal requirement. A system combined with algorithm to find out the optimal coil design, according to the preset specifications, is proposed in this study to solve the problem of low transmission efficiency. For the design process, Finite Element is utilized for establishing the ANFIS model and adaptive weighted fuzzy particle swarm optimization is used for searching the optimal solution under the specifications. It is then tested and compared with the reference coil. The experimental result reveals that, by measuring the system output power between the optimal coil and the reference coil, the overall system efficiency is increased to 83.14 %.

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