電漿子超穎介面於全彩全像片與電調控光學元件之應用

電調控式超穎介面則以透明導電氧化物材料(氧化銦錫) 的動態電場侷域性為基礎，設計與研究電調控式超穎介面。

我們以閘極調控氧化銦錫的介電係數原理，電調控超穎介面的相位 ... 資料載入處理中... 跳到主要內容 臺灣博碩士論文加值系統 ::: 網站導覽| 首頁| 關於本站| 聯絡我們| 國圖首頁| 常見問題| 操作說明 English |FB專頁 |Mobile 免費會員 登入| 註冊 功能切換導覽列 (159.65.142.206)您好！臺灣時間：2022/06/2123:27 字體大小：       ::: 詳目顯示 recordfocus 第1筆/ 共1筆  /1頁 論文基本資料 摘要 外文摘要 目次 參考文獻 紙本論文 QRCode 本論文永久網址: 複製永久網址Twitter研究生:黃耀緯研究生(外文):Yao-WeiHuang論文名稱:電漿子超穎介面於全彩全像片與電調控光學元件之應用論文名稱(外文):PlasmonicMetasurfaceforVisibleHologramandElectricallyTunableDevices指導教授:蔡定平指導教授(外文):DinPingTsai口試委員:果尚志、嚴大任、黃承彬、黃哲勳、藍永強口試委員(外文):ShangjrGwo、Ta-JenYen、Chen-BinHuang、Jer-ShingHuang、Yung-ChiangLan口試日期:2015-07-31學位類別:博士校院名稱:國立臺灣大學系所名稱:應用物理所學門:自然科學學門學類:物理學類論文種類:學術論文論文出版年:2015畢業學年度:103語文別:英文論文頁數:71中文關鍵詞:超穎材料、超穎介面、電漿子學、超穎全像片、全像術、奈米天線、透明導電氧化物、電調控、場效調控外文關鍵詞:Metamaterials、metasurfaces、plasmonics、meta-hologram、holography、nanoantennas、transparentconductingoxide、electricallytunable、field-effectmodulation相關次數: 被引用:1點閱:486評分:下載:0書目收藏:0 現今視覺的科技日新月異，色彩三原色分光與偏振選擇為主要範疇。

液晶顯示器或數位微鏡裝置組成的全像片以純量光學為基礎，不具有偏振選擇性。

超穎材料或超穎介面則以表面電磁場的純量光學為基礎，在次波長維度下調控光的振幅、相位與偏振性，並廣泛應用於寬頻、寬角度、偏振選擇性相位全像片。

然而，目前超穎材料或超穎介面之工作範圍因為材料限制，難以設計在可見光波段，寬頻工作的超穎材料或超穎介面也難以達到波長分波多工。

另一方面，光訊息可藉由振幅、相位、偏振、頻率、或結合其中幾項來記錄與調控。

以晶片基礎的表面電漿調控器結合奈米尺度的表面電漿結構與光子學元件組合而成，具有最快調控速度與需要最少單位訊號所需能量的優點。

由次波長人造材料的超穎介面具有非凡的光調控特性，在廣闊的電磁波波段具有前瞻的超薄光學元件應用，諸如透鏡、波片、角動量感應器、全像片等。

然而目前的超穎介面調控方式由結構的尺寸、大小所決定，元件製作後性質即已固定，無法調控。

具有動態調控式的超穎介面則為實現動態可重組的超平面光學元件的重要挑戰。

本文主要設計與研究全彩超穎全像片與電調控式超穎介面。

全彩超穎全像片由二維排列的鋁奈米棒/二氧化矽/鋁鏡組成的像素所構成，在可見光波段具有偏振選擇性、波長選擇性影像。

藉由適當的窄頻設計，波長多工、色彩三原色的影像即可組合全彩影像。

各種長度的鋁奈米棒陣列的反射光譜與設計吻合，具有多種顏色並可應用於奈米全彩調色。

電調控式超穎介面則以透明導電氧化物材料(氧化銦錫)的動態電場侷域性為基礎，設計與研究電調控式超穎介面。

我們以閘極調控氧化銦錫的介電係數原理，電調控超穎介面的相位與振幅，並更進一步設計電調控式超穎介面元件。

我們藉由結合半導體物理與電磁波的物理模型來設計與分析電調控式超穎介面。

藉由不同的外加偏壓，我們研究電調控式超穎介面組成的動態相位陣列所形成的動態繞射條紋。

此研究提出了以閘極電調控場效式超穎介面的設計原理，實現主動式超穎介面元件。

Nowadays,visiontechnologiesinvariouscolorapplicationsareprimarilytargetingthethreeprimarycolorsandtheirmixinginconjunctionwithcontroloflightpolarization.Thescalardiffractivepatternofliquidcrystaldisplays(LCD)ordigitalmicro-mirrordevices(DMD)employedinhologramrenderspolarizationunswitchable.Themetamaterialsormetasurfacesemployedsurfaceelectromagneticwavearecapableofshapingbothamplitudephaseandpolarizationoflightoversubwavelengthlengthscales.Theyhavebeenpreviouslyappliedtobroadbandandbroad-anglephasehologramwithpolarization-dependentimagesbutfailedtoyieldcolormultiplexinginthevisiblespectrum.Incontrast,lightinformationcanbemanipulatedeitherinamplitude,phase,polarization,orfrequency,andcombinationthereof.Chipbasedhybrid-plasmonicmodulatorsmadeofincorporatingnanoscaleplasmonicsandclassicphotonicelementshasthefastedmodulationspeedandlowestenergy-per-signalareproposedtoovercomealimitedpropagationlengthandhigherlossofasurfaceplasmon-polariton(SPP)mode.Metasurfacescomposedofsub-wavelengthartificialstructuresshowpromiseforextraordinarylight-manipulationanddevelopmentofultrathinopticalcomponentsoverabroadrangeoftheelectromagneticspectrum.Howeverstructuresdevelopedtodatedonotallowforpost-fabricationcontrolofantennaproperties.Metasurfacesincorporatingdynamicallytunablemethodsoffertheunprecedentedopportunitiesinreconfigurableflatopticaldevices.Inthisdissertation,aphasemodulatedmulti-colormeta-hologram(MCMH)andanelectricallygate-tunablemetasurfaceweredesignandinvestigated.TheMCMHmadeofsandwichstructureofAl-nanorod/SiO2/Al-mirrorarrangedinatwo-dimensionalarrayofpixelsispolarization-dependentandcapableofproducingimagesinthreeprimarycolors.Withproperdesignofthestructure,weobtainresonancesofnarrowbandwidthstoallowforimplementationofthemulti-colorscheme.Experimentalreflectedspectrumforeachkindofnanorodsarrayareinvestigated,whichisinagreementwiththesimulationresultsandcertainlyleadtofullcolorapplicationsusingcolormixing.Wehaveinvestigatedtheintegrationofthetransparentconductorindiumtinoxide(ITO)activeelementstorealizegate-tunablephasedarraysofsubwavelengthantennainareflectarraymetasurfaceconfigurationtoenablegate-tunablepermittivity.Themagneticdipoleresonanceofeachantennainteractswiththecarrierdensity-dependentpermittivityresonanceoftheITOtoenablephaseandamplitudetunability.Amultiphysicsmethodincorporatedsemiconductorphysicsandelectromagneticwavesareconsideredinthedesignandresonanceanalysis.Asimple2-leveldynamicphasegratingisinvestigatedusingthegate-tunablemetasurface.Withdifferentappliedbiases,thecontrollablediffractionpatternshavebeeninvestigatedbydynamicphasegratingsystem.Thisworkprovidesageneraldesignprincipleapplicabletodynamicmetasurfacedevicesbasedongate-tunablefieldeffect. 口試委員會審定書I誌謝II中文摘要IVAbstractVIContentsVIIIListofFiguresXListofTablesXVI1Introduction11.1Holograms11.2Metamaterials,Metasurfaces,andMeta-Holograms21.3TunableMetamaterialsandField-EffectModulation51.4Motivation72Methods92.1GeneralizedSnell''sLaw92.2ComputationalElectromagnetics112.3PhysicalModelofReflectiveMetasurface132.4Computer-GeneratedHologram163AluminumPlasmonicMulti-ColorMeta-Hologram183.1DesignofMCMH193.2EfficiencyandCrosstalkofSingleMeta-Hologram223.3ImagesSizeCorrection273.4FabricationofMCMH283.5ReconstructedImagesandEfficiencyofMCMH303.6AluminumNanorodAnalysis373.7Summary384ElectricallyGate-TunableMetasurfaces404.1AccumulationlayerandENZregionofITO424.2CouplingPlasmonicResonancewithITO454.3DynamicPhaseGrating484.4FabricationofGate-TunableMetasurfaces514.5ExperimentalCharacteristicsofITO534.6ReflectanceandPhaseMeasurements554.7Summary59Bibliography61PublicationList68 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