超穎介面與表面晶格共振產生暗模態與連續域內束縛態之研究
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基於其應用面的不同,超穎介面能以金屬材料或是介電質材料來進行製作。
以金屬材料來說,由於表面電漿子(surface plasmon)的高侷域電場特性,極小的模態體積被廣泛應用在非 ...
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本論文永久網址: 複製永久網址Twitter研究生:楊振弘研究生(外文):Yang,Jhen-Hong論文名稱:超穎介面與表面晶格共振產生暗模態與連續域內束縛態之研究論文名稱(外文):StudiesandApplicationsofMetasurfacesandSurfaceLatticeResonancewithDarkResonanceStateandBoundStatesintheContinuum指導教授:陳國平指導教授(外文):Chen,Kuo-Ping口試委員:黃承彬、盧廷昌、李柏璁、朱士維、陳國平、吳品頡口試委員(外文):Huang,Chen-Bin、Lu,Tien-Chang、Lee,Po-Tsung、Chu,Shi-Wei、Chen,Kuo-Ping、Wu,Pin-Chieh口試日期:2020-11-17學位類別:博士校院名稱:國立交通大學系所名稱:光電系統博士學位學程學門:工程學門學類:電資工程學類論文種類:學術論文論文出版年:2020畢業學年度:109語文別:英文論文頁數:115中文關鍵詞:表面電漿子、米氏共振、表面晶格共振、連續域內束縛態、雷射、超穎介面、暗模式共振外文關鍵詞:surfaceplasmon、Mieresonance、surfacelatticeresonance、boundstatesinthecontinuum、laser、metasurface、darkmoderesonance相關次數:
被引用:0點閱:157評分:下載:17書目收藏:0
傳統的光學元件(如透鏡、波片、濾光片等),已經存在了幾個世紀,而大部分的光學元件都是利用傳統機械式的工法製作,導致元件尺寸以及功能受限。
近幾年來,基於拓譜光子學的蓬勃發展以及奈米製程技術的進步,超穎介面(Metasurfaces)以其多元的相位調控與奈米尺度的光學調變贏得了許多研究者的關注。
基於其應用面的不同,超穎介面能以金屬材料或是介電質材料來進行製作。
以金屬材料來說,由於表面電漿子(surfaceplasmon)的高侷域電場特性,極小的模態體積被廣泛應用在非線性光學研究、吸收器以及偵測器應用。
相對於金屬材料,介電質材料低損耗的特性有利於設計高效率的被動元件,因此被廣泛運用在相位調控以及超穎透鏡(Metalens)上。
除了上述兩種材料以外,螢光材料也是被大量應用在主動發光的超穎介面上,但是若需要達到居量反轉(populationinversion),則必須在超穎介面上得到更高品質因子(Qualityfactor)的共振。
在超穎介面或是二維陣列奈米結構的研究領域中,表面晶格共振(surfacelatticeresonance)可以在靠近瑞利異常(Rayleighanomaly)的波長附近提供更高品質因子的共振。
本論文利用表面晶格共振的特性,成功在介電質超穎介面上實現窄頻吸收器、高飽和彩色像素等諸多不同應用。
為了更進一步在螢光材料上達成居量反轉,本團隊利用混合表面晶格共振(hybrid-surfacelatticeresonance)產生法諾共振(Fanoresonance)以提升品質因子,成功達到居量反轉產生雷射。
並且更進一步利用法諾共振下建設性干涉與破壞性干涉的重疊產生暗模態(Darkmode),在沒有損耗的情況下,該模態又為連續態中的束縛態(boundstatesinthecontinuum),其無損耗又具有無窮大品質因子的特性,促成低閾值(1.25nJ)雷射得以在本文中實現。
本論文以金、矽、氮化矽為主要材料,進行超穎介面的設計與實驗,其中包含金屬超穎介面感測器、金屬-介電質混和超穎介面吸收器、矽超穎介面窄頻吸收器、氮化矽超穎介面高飽和色彩像素結合氮化矽波導,以及氮化矽表面晶格共振下的連續態中的束縛態低閥值雷射。
Traditionalopticalcomponents(e.g.,lens,waveplates,andfilters)haveexistedforcenturies.However,becausemostoftheopticalcomponentsarefabricatedbymechanicalengineeringmethods,thesizeandfunctionalityarelimited.Inrecentyears,duetothedevelopmentoftopologicalopticsandadvancementofnanofabricationprocesses,metasurfaceshaveattractedmanyattentionsofresearchersbythevariousphasecontrollingandnano-scaleopticaltuning.Basedondifferentapplications,metasurfacescanbefabricatedbydielectricandmetallicmaterials.Formetallicmetasurfaces,duetothehighlocalizedfieldsofsurfaceplasmon,theextremelysmallmodevolumehavebeenwidelyappliedtononlinearoptics,absorbers,anddetectors.Comparingwithmetals,despitethemodevolumeofdielectricmetasurfacescannotachievethesmallmodevolume,thelowlosspropertystillbenefitstodesignefficientpassiveopticaldevicesandwidelyapplytometalens.Besidesthemetalanddielectric,thegainmaterialisalsowidelyappliedtolightemittedmetasurfaces.However,ifthepopulationinversionrequirestobeachieved,theresonanceswithhigherqualityfactorsarenecessary.Formetasurfacesandtwo-dimensionalnanostructures,resonanceswiththehighqualityfactorcanberealizedbysurfacelatticeresonancesatthewavelengthclosetoRayleighanomaly.Utilizesurfacelatticeresonances,narrowbandabsorbersandhighsaturatedcolorpixelscanbeachievedbydielectricmetasurfaces.Tofurtherreachpopulationinversionwithgainmaterials,qualityfactorofresonancescanbeimprovedbyusinghybrid-surfacelatticeresonancewithFanoresonances.ExploittheoverlapofconstructiveanddestructiveinterferenceinFanoresonance,darkmodecanbegeneratedandalsocalled“boundstatesinthecontinuum”whenalowlosssystemisachieved.Inthisarticle,gold,silicon,andsiliconnitrideareusedasthemainmaterialstodesignmetasurfaces.Theapplicationsareincludingsensors,metal-dielectrichybridmetasurfaceabsorbers,andsiliconmetasurfacesnarrowbandabsorber.Forlowlossmaterials,siliconnitridemetasurfacecolorpixelwithwaveguide,andsiliconnitridelowthresholdboundstatesinthecontinuumlaserarealsosuccessfullydemonstratedinthisthesis.
摘要iAbstractiii誌謝vContentsviiFigureContentsixTableContentsxixChapter1Overview1Chapter2Darkresonancemodeinplasmonicmetasurfaces32.1.Nanoparticledimers&hybridizationmodel32.2.Characterization72.3.Enhancementwithevanescentwave92.4.Summary16Chapter3Metal-dielectrichybridnanostructure183.1.Hybridizationofsiliconnanoparticleandgoldnanoantenna183.2.Avoidresonancecrossing243.3.Unidirectionalabsorptionenhancement273.4.Summary38Chapter4Dielectricmetasurfaceswithlatticeresonance404.1.Kerkereffectwithlossmaterial404.2.Narrowbandabsorber444.3.Losslessdielectricmetasurfacesinstructuralcolors504.4.Highsaturatedcolorpixelswithwaveguide584.5.Summary70Chapter5Boundstatesinthecontinuumlaserwithhybridlatticeresonance735.1HybridsurfacelatticeresonancewithFanoresonance745.2Boundstateinthecontinuum805.3Lasercharacterization885.4Summary93Chapter6Conclusionsandfutureworks95Bibliography97Publications114
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- 1超穎介面介紹與其應用 - 台灣物理學會
超穎介面是一種二維分布的超薄超穎材料,由不. 同幾何形貌的奈米金屬結構分佈於介面上所構成,. 當電磁波入射,並激發奈米金屬結構的電漿子共振.
- 2《Nature》子刊:創新「超穎介面」奈米相機可望拓微創手術應用
相較於傳統相機需使用一套弧形玻璃或塑膠透鏡來將光線聚焦,這種微型相機是透過「超穎介面」(metasurface)這項新材料技術製造而成,該材料可如晶片般生產 ...
- 3奈米「小眼睛」看得更清楚,輕薄如紙的「超穎透鏡」超微光學 ...
超穎介面(Metasurfaces)是一種通過於次波長尺度下操控電磁波特性如相位、振幅與偏振等的光學設計結構,因此對於光電元件微型化的發展有著極大的助益。目前研究學者已成功 ...
- 4光學超穎界面:連續域束縛態於雷射與量子應用-工程技術
基於拓譜光子學的蓬勃發展以及奈米製程技術的進步,超穎介面(Metasurfaces)以其多元的相位調控與奈米尺度的光學調變得到了許多研究學者的關注。
- 5超穎介面新突破清華電機系暨光電所研究成果登國際奈米領域標 ...
超穎介面是一種新的人工材料,其廣義的定義為以次波長尺度的微小結構,在次波長的週期下所排列而成的一種光學表面。與過往常見的光學元件相較,超穎 ...