本文研製一部感應式功率傳輸系統，文中繞製兩個圓盤型線圈，作為一次側及二次側的耦合電感，透過磁場耦合的方式達成感應式功率傳輸。在電路架構方面，可分為兩級，前級為降壓轉換器，其目的為調整後級的輸入電壓，達成輸出電流控制。後級為LCC諧振轉換器，採用定頻操作，並利用LCC補償電路補償漏感效應，減少虛功。
本文所提LCC補償電路相較於串/串補償電路，具有更佳的線圈錯位容忍能力。為了提升系統效率，文中透過調整二次側諧振槽參數達成零電壓切換，減少開關切換損失。
本文採用的預測型控制器是以離散的方式實現，相較於離散時域的比例積分控制器，預測型控制具有較佳的暫態響應與加載能力。最後使用德州儀器公司生產的TMS320F2808數位訊號處理器作為控制核心，實現本文的相關電路控制法則。實測結果與模擬分析相當吻合，說明本文所提方法的正確性與可行性。

This thesis investigates the implementation of an inductive power transfer system with LCC compensation circuit. Two circular coils are used as the primary and secondary coupling inductors to achieve the inductive power transfer. There are two stages in the main power circuit. The first stage is a buck converter to adjust the input voltage of the second stage. The second stage is an LCC resonant converter, which is operated at a constant switching frequency. In addition, the LCC compensation circuit is used to compensate the influence of leakage inductance to reduce reactive power.
Compared with the series-series compensation circuit, the LCC compensation circuit has better tolerance of the misalignment between the primary coil and the secondary coil. To increase the efficiency of the inductive power transfer system, a zero voltage switching condition is achieved by tuning the secondary resonant tank parameters.
A predictive controller is implemented in the discrete-time domain. Compared with the discrete-time PI controller, the predictive controller has better transient responses and load responses. Finally, a TMS320F2808 digital signal processor, manufactured by Texas Instrument, is used as a control center to realize the control algorithms. Experimental result can validate the simulation result to show the correctness and feasibility of the proposed methods.

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