對稱之一維光子晶體複合結構週期數 m 從 1 增至 4，缺陷模態的穿透峰越 2005 年，由 Subramanian 教授的研究團隊使利用玻璃層夾空氣層製作一維 光子晶體，並在 10 至 20 GHz 的範圍內，探討空氣層的厚度對於光子能隙
表 5.1 不同一維光子晶體結構特性整理表。
授研究團隊在測定電場作用下液晶分子的應答時間時，其液晶盒為毫米級 厚度 [63]；又如美國中佛大（University of Central Florida）的吳詩聰教授研 究團隊於 2012 年也製作出具有毫米級厚度之液晶盒，並測量其在電場中的
2. 毫米波的部分雖已有基本的液晶傾角資料庫，但資料庫範圍不夠大，因 此必須擴大範圍，使模擬的準確性提高。此外，光譜波段尺度可再精細 化。
具有光子能隙的光子晶體可應用於諸多光學元件，如波導、光學膜、反 射鏡、光開關、通道分波器、波長分割多工器（wave division multiplxers）， 抗反射鍍膜等。一維光子晶體的應用不僅只在可見光及毫米波段，紅外通訊 及太赫茲頻段之一維光子晶體的應用研究正方興未艾，因此，將本文所述一 維光子晶體光學模擬程式擴大，使其涵蓋可見光波至毫米波段為未來值得 投入的工作。如此一來，本團隊在可調控一維光子晶體的研究成果將更加豐 盛。
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