本研究提出了新型無線功率傳輸之架構，該技術使用諧振頻率調變，來實現主動式傳輸電力調節，改變線圈電壓供給，以給付不同情況下之負載，來達成無線功率傳輸。
本研究對於現階段無線感應充電進行分析，分析以不同厚度及形狀大小之導磁材料，再予以位置變化來探討整體磁場及傳輸效能之變化，透過設計變量，以此研究、分析各種情況之變化，並得出各種情況合適之應用。
運用現今已漸趨成熟之無線傳輸系統技術，通過內文完整諧振及轉換分析，選用多對一線圈架構進行耦合傳輸，以此達到同軸對臥感應線圈實現方法與耦合傳輸分析，此設計可於多組傳輸線圈進行感應電能轉換並同步予以接收端線圈，提高功率傳輸之效能，再經由整流輸出直流供給負載穩定電源。
本研究經由實作測試，並輔以模擬軟體分析佐證其結果，其成果確實與分析之內容無誤，得此研究供給之非接觸式之功率傳輸，在未來應用上，除了減少電線使用利於環境，更可避免傳統電力導引線造成人員觸電危險、設備真空艙體限制與達到電器隔離效益，此研究概念亦有助益電漿電源系統充電。

This study proposes a new architecture for wireless power transmission. This technology uses resonant frequency modulation to achieve active transmission power regulation and changes the coil voltage supply to pay for loads in different situations to achieve wireless power transmission.
This study analyzes the current stage of wireless induction charging, analyzes the magnetic permeability materials with different thicknesses and shapes, and then changes the position to discuss the changes in the overall magnetic field and transmission performance. Through design variables, we can study and analyze the changes in various situations , And draw suitable applications in various situations.
Using the increasingly mature wireless transmission system technology, through the complete resonance and conversion analysis of the text, the multi-to-one coil architecture is used for coupling transmission, so as to achieve the realization method and coupling transmission analysis of the coaxial counter-coil induction coil. This design can be used in Multiple sets of transmission coils perform inductive energy conversion and synchronize the receiving coils to improve the efficiency of power transmission, and then supply the load with a stable power supply through rectified output DC.
This research is supported by actual tests and is supplemented by simulation software analysis. The results are indeed correct with the content of the analysis. The non-contact power transmission provided by this research will be applied in the future. In addition to reducing the use of wires, it will benefit the environment. It can also avoid the risk of electric shock caused by the traditional power guide wire, the limitation of the equipment vacuum cabin and the benefit of electrical isolation. This research concept also helps to charge the plasma power system.

摘要 iii
誌謝 vi
目次 vii
表目錄 ix
圖目錄 x
第一章 介紹 1
1.1 研究環境與動機 1
1.2 研究目的與做法 3
1.3 內容大綱 4
第二章 主動式傳輸電力調節分析 5
2.1 前言 5
2.2 換流器篩選 7
2.2.1 半橋換流器 7
2.2.2 全橋換流器 8
2.3 感應電能轉換系統之等效電路拓樸 9
2.4 電路諧振補償特性之分析 12
2.4.1 SS諧振補償特性之分析 13
2.4.2 諧振槽特性之分析 19
2.5 整流濾波電路特性之分析 21
2.6 磁場模擬之分析 22
第三章 系統設計 25
3.1 前言 25
3.2 主動式傳輸電力調節之主電路設計 26
3.2.1 全橋換流器 26
3.2.2 MOSFET開關驅動電路 27
3.2.3 感應傳輸線圈設計及補償電路相關參數 29
3.3 主動式傳輸電力調節之方法 37
3.3.1 輸入阻抗相位變化 38
3.3.2 電壓轉換增益曲線 40
3.3.3 電流特性曲線 43
3.4 主動式傳輸電力調節系統實體圖 46
3.5 導磁材料選用與比較 48
第四章 實驗結果 50
4.1 概述 50
4.2 全橋換流器輸出實測 51
4.3 功率晶體開關零電壓切換功能測試 55
4.4 實測主動式傳輸電力調節技術電路之波形 58
4.4.1 實測傳輸端諧振電路波形 58
4.4.2 實測接收端諧振電路波形 62
4.4.3 實測諧振電路輸出特性 65
4.5 系統輸出功率及整體轉換效率測試 67
4.6 實測替換導磁材料時之輸出 72
第五章 結論及未來發展與方向 84
5.1 結論 84
5.2 未來發展與方向 85
參考文獻 86

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