本論文主旨在針對非接觸式電能傳輸技術應用於電子紙感應牆磚，設計線型感應線圈與多組拾取器組合而成的感應耦合結構。文中首先藉由磁場模擬軟體進行線型線圈與多環矩形線圈模擬分析，選擇磁場分布較均勻之耦合結構，並將線型線圈結構與多環矩形線圈結構以無間距方式提升傳輸效率，其依據模擬結果選用接收電能效率較佳之拾取線圈尺寸。且經由分析操作於諧振之特性，以提升整體系統電能傳輸能力，並利用調變機制以達到有效控制訊號之功能。經由實驗證明，此系統可提供所需能量給予電子紙使用，並藉由控制電路使電子紙變色，實現整體系統架構之可行性。最後，本論文針對單一拾取器進行實測驗證，其最大電能傳輸效率為61.6%。

This thesis aims at the development of the electronic paper induction tiles with line type and multi-block pick-up inductively coupling structure. In this thesis, the magnetic field simulation software is used to simulate the magnetic distribution of the linear coils and the overlapping-matrix coils. The coupling structure with uniform magnetic field distribution and the suitable size of the coil are selected to improve the transmission efficiency. By analyzing the characteristics of the operation in the resonant condition, it can show that the overall system power transfer capability can be improved in this situation. In addition, with the use of the amplitude shift keying(ASK) modulation, the control signal of the electronic paper can be realized and the color of the electronic paper can be changed simultaneously. Based on the experimental results, the maximum efficiency can be up to 61.6%

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