從超穎材料中多聚體的文獻中發現，光譜具有法諾共振的不對稱線型，此現象伴隨光譜的低穿透與反射特性可應用於電磁感應透明(EIT)，且法諾共振對於介質變化的敏感度，亦使其具備環境介質感測的應用潛力。論文中以奈米球鏡微影術(NLL)取代電子術微影(EBL)並成功製作出奈米尺度的五聚體與七聚體結構。以實驗量測光譜搭配FDTD模擬的光譜與模態分析，表明該五聚體的法諾共振是來自於四聚體與線型三聚體的模態干涉；同時NLL技術因具有可三維堆疊的製程特性，可製作出具光學親手性(OC)特性的傾斜間隙結構，透過FDTD模擬，探討堆疊型的多聚體結構之光學親手性，結果表明傾斜間隙中具有OC值放大之效果，而多聚體結構必須為非對稱排列才具有光學親手性。

Fano resonances in oligomers can be applied in electromagnetically induced transparency (EIT) and refractive index sensing. We use nanospherical-lens lithography(NLL) replacing electron beam lithography(EBL) to fabricate pentamers and heptamers, the finite-difference time-domain(FDTD) method is used to get the simulation spectrums and the mode of oligomers. The experiment spectrum of oligomers matchs well with FDTD simulation. Mode analysis shows the Fano resonances in pentamers are caused by mode interference between tetramer and linear trimer.
Furthermore, slant-stack oligomers also can be fabricated by NLL. We use FDTD simulation to analyze the optical chirality(OC) of slant-stack oligomers. The result shows there is no optical chirality enhancement in symmetry oligomers. At last, we find there is great OC enhancement in L-shape trimer, and slant-stack can enhance the overall OC of this structure in long wavelength region.

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