本文提出結合非接觸電能傳輸技術與臭氧驅動電路之系統設計拓樸結構，此設計乃由於系統操作在不同負載阻抗與感應線圈間距時，常導致非接觸電能傳輸電路之等效阻抗特性發生改變，故需藉由諧振補償電路與操作頻率之調整修正，期使前級換流器開關可達成零電壓切換效果。另於後級臭氧驅動電路部分，本文係以壓電變壓器作為電路之諧振槽基礎，其諧振元件主由內部等效串聯RLC與一外部並聯電容組成，並整合微控制器回授壓電變壓器輸出端之電流訊號，以實現整體電路之定功率操作。茲為能驗證此電路之實際應用可行性，本文經由電路軟體模擬與硬體實測，測試結果顯示本文所提之電路設計方法確有助於提升整體系統效能提昇，同時可擴增至可攜式商品之開發應用。

The thesis proposes a system design topology combining a contactless energy converter with ozone-driven circuits. This circuit design is motivated because the equivalent impedance of contactless energy converter may vary significantly due to different load impedances and various induction coil gaps. The resonance compensation circuit is hence required to employ with the adjustment of operation frequency, anticipating that the zero-voltage switching of converters at the first stage can be achieved. Next, for the second stage that comes with the ozone-driven circuit, the piezoelectric transformer is used as the resonance tank that consists of RLC circuits connected in series with the external capacitors. This circuit is then integrated with the output current signal of microcontrollers, by which the constant power operation can be better realized. To verify the practicality of this proposed circuit, both the software simulations and hardware realization have been extensively tested. Test results confirm that the proposed design is useful to improve the operation performance while the development of those portable products can be meanwhile benefitted.

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