Transparent electronics : from synthesis to applications
Transparent electronics : from synthesis to applications
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DOI：
10.1002/9780470710609
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发表时间：
2010-04
期刊：
影响因子：
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通讯作者：
A. Facchetti;T. Marks
中科院分区：
文献类型：
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作者：
A. Facchetti;T. Marks
前言。1结合光学透明度与电导率：挑战与前景（Julia E.Medvedeva）。1.1简介。1.2传统TCO宿主的电子特性。1.3传统TCO宿主的载流子生成。1.4磁介导TCO。1.5多组分TCO宿主。1.6轻金属氧化物的电子性质。1.7复合氧化物中的载流子离域。1.8展望：理想的TCO。确认。参考文献2透明氧化物半导体：基本原理和最新进展（细野秀夫）。2.2氧化物中的电子结构：半导体中的载流子输运路径。2.3 p型抛掷器的材料设计。2.4层状氧硫族化合物：改进的p型传导和室温稳定的激子。2.5纳米多孔晶体，C12A7：亚纳米笼和笼形阴离子创造的新功能。2.6陶管晶体及其TFT应用。2.7展望。参考文献。p型宽带隙半导体用于透明电子（Janet Tate和Douglas A. Keszler）。3.1简介。3.2应用。3.3 p型宽间隙半导体的挑战。3.4材料。3.5展望与展望。参考文献4氧化铅：合成与应用（Dale L.Perry）。4.1简介。4.2合成方法和途径概述。4.3氧化铅的合成。4.4氧化铅的应用。4.5总结。确认。参考文献5透明导电氧化物在塑料基板上的沉积和性能挑战（Clark I.Bright）。5.1简介。5.2塑料基板的挑战。5.3玻璃与塑料基板的TCO性能比较。5.4 TCO中的电导率机制。5.5定性TCO掺杂模型。5.6塑料衬底上工业TCO沉积方法。5.7开发TCO沉积工艺。5.8控制TCO的E/O性能。5.9透明氧化物电子器件的TSO。5.10 p型TCO和TSO。5.11要点与总结。参考文献。6氧化物半导体：从材料到器件（Elvira Fortunato, Pedro Barquinha, GoncaloGoncalves， Luis Pereira和Rodrigo Martins）。6.2历史背景：从场效应晶体管（fet）到tft。6.3透明氧化物半导体。6.4基于纤维素纸的新兴器件：纸场效应管。6.5结论与展望。确认。参考文献。7碳纳米管透明电极（Teresa M.Barnes和Jeffrey L. Blackburn）。7.1简介。7.2 SWCNTs的手性和能带结构。7.3 SWCNTs的合成、纯化和分散。7.4 SWCNTs网络的沉积。7.5化学掺杂的影响。7.6 SWCNTs和SWCNTs网络的光学性质。7.7 SWCNTs网络的电学性质。7.8薄片电阻和输运测量。7.9 SWCNTs网络的形貌。7.10关于透明SWCNTs网络的文献结果。7.11结论。确认。参考文献8透明非晶氧化物薄膜晶体管在电子纸上的应用（Manabu Ito）。8.1简介。8.2微封装电泳显示。8.3柔性电子纸。8.4透明电子的应用。8.5结论。确认。参考文献9基于透明导电氧化物的溶液处理电子学（Vivek Subramanian）。9.1简介。9.2溶液法制备透明导电氧化物。9.3总结。参考文献10透明金属氧化物纳米线电子学（Roc io Ponce Ortiz, Antonio Facchetti and TobinJ.）标志)。10.1简介。10.2纳米线晶体管。10.3透明纳米线电路和显示器。10.4结论。参考文献。11透明氧化物半导体在柔性电子中的应用（Peter F. Carcia）。11.1简介。11.2氧化锌。11.3氧化铟。11.4 SnO2薄膜晶体管。11.5栅极电介质。11.6塑料衬底上的晶体管。11.7图形。11.8结论。确认。参考文献。12透明OLED显示器（Thomas Riedl）。12.1简介12.2透明oled12.3透明薄膜晶体管。12.4透明有源矩阵OLED显示器。12.5结论确认。参考文献。13氧化物基电致变色（Claes G. Granqvist）。13.1引言。13.2电致变色器件。13.3近期研究成果。13.4总结与结束语。参考文献。14基于有机聚合物的透明太阳能电池（黄劲松，李刚，李卓浩，陈利民，杨阳）。14.1简介。14.2金属多层结构作为透明阴极。14.3透明金属氧化物作为高性能透明太阳能电池的阳极。14.4层压法制备透明太阳能电池。14.5结论与注释参考文献。15基于透明电极的有机电光调制器（FeiYi, Seng-Tiong Ho and Tobin J. Marks）。15.1导论。15.2基于tc的低压高速有机EO调制器。15.3完整设计：高频调制器设计的详细示例。15.4基于tc的有机EO调制器的实验实现及测量结果。确认。参考文献。16萘四羧基二亚胺作为透明有机半导体（Kevin Cua See和Howard E. Katz）。16.1介绍。16.2 nctdi半导体场效应管的初步演示。16.3 NTCDI分子半导体结构的进一步细化。16.4 nctdi半导体在多功能晶体管中的应用。16.5的结论。确认。参考文献。17透明金属氧化物半导体气体传感器（Camilla Baratto, Elisabetta Comini, Guido Faglia, MatteoFerroni, Andrea Ponzoni， Alberto Vomiero和GiorgioSberveglieri）。17.1简介。17.2纳米结构传感。17.3传感用纳米结构的合成。17.4纳米线气体传感。17.5 fin2o3纳米线的化学电阻传感特性。引用。索引。
Preface. List of Contributors. 1 Combining Optical Transparency with ElectricalConductivity: Challenges and Prospects (Julia E.Medvedeva). 1.1 Introduction. 1.2 Electronic Properties of Conventional TCO Hosts. 1.3 Carrier Generation in Conventional TCO Hosts. 1.4 Magnetically Mediated TCO. 1.5 Multicomponent TCO Hosts. 1.6 Electronic Properties of Light Metal Oxides. 1.7 Carrier Delocalization in Complex Oxides. 1.8 An Outlook: Toward an Ideal TCO. Acknowledgements. References. 2 Transparent Oxide Semiconductors: Fundamentals and RecentProgress (Hideo Hosono). 2.1 Introduction. 2.2 Electronic Structure in Oxides: Carrier Transport Paths inSemiconductors. 2.3 Materials Design of p-Type TOSs. 2.4 Layered Oxychalcogenides: Improved p-Type Conduction andRoom-Temperature Stable Excitons. 2.5 Nanoporous Crystal, C12A7: New Functions Created bySubnanometer Cages and Clathrated Anions. 2.6 TAOSs and their TFT Applications. 2.7 Perspective. References. 3 p-Type Wide-Band-Gap Semiconductors for TransparentElectronics (Janet Tate and Douglas A. Keszler). 3.1 Introduction. 3.2 Applications. 3.3 Challenges Associated with p-Type Wide-Gap Semiconductors. 3.4 Materials. 3.5 Outlook and Prospects. References. 4 Lead Oxides: Synthesis and Applications (Dale L.Perry). 4.1 Introduction. 4.2 Overview of Synthetic Methods and Approaches. 4.3 Synthesis of Lead Oxides. 4.4 Applications of Lead Oxides. 4.5 Summary. Acknowledgement. References. 5 Deposition and Performance Challenges of TransparentConductive Oxides on Plastic Substrates (Clark I.Bright). 5.1 Introduction. 5.2 Challenges with Plastic Substrates. 5.3 TCO Performance Comparison Glass Versus PlasticSubstrates. 5.4 Conductivity Mechanisms in TCO. 5.5 Qualitative TCO Doping Model. 5.6 Industrial TCO Deposition Methods on Plastic Substrates. 5.7 Developing a TCO Deposition Process. 5.8 Controlling TCO E/O Properties. 5.9 TSO for Transparent Oxide Electronics. 5.10 p-Type TCO and TSO. 5.11 Key Points and Summary. References. 6 Oxide Semiconductors: From Materials to Devices(Elvira Fortunato, Pedro Barquinha, GoncaloGoncalves, Luis Pereira and Rodrigo Martins). 6.1 Introduction. 6.2 Historical Background: From Field Effect Transistors (FETs)to TFTs. 6.3 Transparent Oxide Semiconductors. 6.4 Emerging Devices Based on Cellulose Paper: Paper FETs. 6.5 Conclusions and Outlook. Acknowledgements. References. 7 Carbon Nanotube Transparent Electrodes (Teresa M.Barnes and Jeffrey L. Blackburn). 7.1 Introduction. 7.2 Chirality and Band Structure of SWCNTs. 7.3 Synthesis, Purification, and Dispersion of SWCNTs. 7.4 Deposition of SWCNT Networks. 7.5 Effects of Chemical Doping. 7.6 Optical Properties of SWCNTs and SWCNT Networks. 7.7 Electrical Properties of SWCNT Networks. 7.8 Sheet Resistance and Transport Measurements. 7.9 Morphology of SWCNT Networks. 7.10 Literature Results on Transparent SWCNT Networks. 7.11 Conclusions. Acknowledgements. References. 8 Application of Transparent Amorphous Oxide Thin FilmTransistors to Electronic Paper (Manabu Ito). 8.1 Introduction. 8.2 Microencapsulated Electrophoretic Display. 8.3 Flexible Electronic Paper. 8.4 Application of Transparent Electronics. 8.5 Conclusion. Acknowledgements. References. 9 Solution-Processed Electronics Based on TransparentConductive Oxides (Vivek Subramanian). 9.1 Introduction. 9.2 Solution-Processed Transparent Conductive Oxides. 9.3 Summary. References. 10 Transparent Metal Oxide Nanowire Electronics(Roc io Ponce Ortiz, Antonio Facchetti and TobinJ. Marks). 10.1 Introduction. 10.2 Nanowire Transistors. 10.3 Transparent Nanowire Circuits and Displays. 10.4 Conclusions. References. 11 Application of Transparent Oxide Semiconductors forFlexible Electronics (Peter F. Carcia). 11.1 Introduction. 11.2 Zinc Oxide. 11.3 Indium Oxide. 11.4 SnO2 Thin Film Transistors. 11.5 Gate Dielectrics. 11.6 Transistors on Plastic Substrates. 11.7 Patterning. 11.8 Conclusions. Acknowledgements. References. 12 Transparent OLED Displays (Thomas Riedl). 12.1 Introduction. 12.2 Transparent OLEDs. 12.3 Transparent Thin Film Transistors. 12.4 Transparent Active Matrix OLED Displays. 12.5 Conclusions. Acknowledgements. References. 13 Oxide-Based Electrochromics (Claes G. Granqvist). 13.1 Introduction. 13.2 Electrochromic Devices. 13.3 Some Recent Research Results. 13.4 Summary and Concluding Remarks. References. 14 Transparent Solar Cells Based on Organic Polymers(Jinsong Huang, Gang Li, Juo-Hao Li, Li-Min Chen and YangYang). 14.1 Introduction. 14.2 Multiple Metal Layer Structure as Transparent Cathode. 14.3 Transparent Metal Oxide for Anode of High PerformanceTransparent Solar Cell. 14.4 Transparent Solar Cell Fabricated by Lamination. 14.5 Conclusion and Remarks. References. 15 Organic Electro-Optic Modulators with SubstantiallyEnhanced Performance Based on Transparent Electrodes (FeiYi, Seng-Tiong Ho and Tobin J. Marks). 15.1 Introduction. 15.2 TC-Based Low-Voltage, High-Speed Organic EO Modulators. 15.3 Full Design: A Detailed Example of High-Frequency ModulatorDesign. 15.4 Experimental Realization of a TC-Based Organic EO Modulatorand Measurement Result. Acknowledgements. References. 16 Naphthalenetetracarboxylic Diimides as Transparent OrganicSemiconductors (Kevin Cua See and Howard E. Katz). 16.1 Introduction. 16.2 Initial Demonstration of NTCDI Semiconductor FETs. 16.3 Further Structural Elaboration of NTCDI MolecularSemiconductors. 16.4 Use of NTCDI Semiconductors in MultifunctionalTransistors. 16.5 Conclusion. Acknowledgements. References. 17 Transparent Metal Oxide Semiconductors as Gas Sensors(Camilla Baratto, Elisabetta Comini, Guido Faglia, MatteoFerroni, Andrea Ponzoni, Alberto Vomiero and GiorgioSberveglieri). 17.1 Introduction. 17.2 Sensing with Nanostructures. 17.3 Synthesis of Nanostructures for Sensing. 17.4 Gas Sensing with Nanowires. 17.5 Chemoresistive Sensing Properties ofIn2O3 Nanowires. References. Index.