有機電子材料的機會(2007年至2015年) 是由出版商NanoMarkets在2007年12月所出版的。
這份英文市場調查報告書包含135 Pages 價格從美金595起跳。
有機電子正逐漸做為各種電子產品的平台,廣泛受到利用。預計不僅小型的,連大型的OLED顯示器都會在不久的將來在電視市場中普及。
本報告書內容包括: 未來8年內的有機電子材料市場預測及預測、目前使用的材料及未來的應用領域、未來的市場動向、開發動向等。內容綱要摘記如下:
實施概要
第1章 介紹
第2章 有機電子材料的進化
- 介紹
- 有機電子材料的重要性能標準
- 有機電子中使用的有機材料種類
- 電導性、半導性材料
- 誘電性材料
- 發光材料
- 光致發電性材料
- 電激發光及電子紙材料
- 膠囊化、屏障材料、彈性
- 電路板
- 有機電子材料的主要課題
- 本章的重點回顧
第3章 利用有機電子材料的製造技術演進
- 介紹
- 沈澱技術
- 印刷有機材料
- 旋轉塗佈
- 熱拷貝及雷射顯像
- 本章的重點回顧
第4章 對有機電子設備的影響
- 介紹
- 新素材將如何改變OTFT的未來
- 有機記憶體材料
- 有機光致發電性改善
- 有機LED改善
- 拋棄型電子
- 有機電子材料動向的其他影響
- 本章的重點回顧
第5章 概況介紹
第6章 未來8年內的預測
- 預測方法
- 有機電子材料的價格動向
- 材料別有機電子材料預測
- 用途別有機電子材料預測
- 製造工程別有機電子材料預測
Abstract
"Organic electronics" is widely proposed as a platform for a broad and growing
range of electronics products. Small organic LED displays already generate
hundreds of millions of dollars. Larger OLED displays will penetrate the
television market in the not-too-distant future. Considerable resources are
being thrown into making substantial businesses out of organic RFIDs,
backplanes based on organic thin-film transistors (OTFTs) and organic solar
cells. Organic electronics-based sensors, memory and lighting are not far
behind.
As a result of these innovations, conductive polymers, organic photovoltaic
materials and other organics used in organic electronics have prospects for
moving from a markets measured in kilograms to ones measured in metric tons.
At the same time interest in organic electronics is spurring considerable
research activity and new product innovations. Small molecule inks, hybrid
organic/inorganic materials, and even biological materials are being
commercialized for use in various electronics applications.
However, there are also challenges. Organic materials typically exhibit
conductivities that are orders of magnitude lower than the silicon
semiconductor industry has come to expect. There are also remain major issues
about environmental stability of such materials; issues that are spurring
growth for encapsulation/barrier materials. And in some quarters there are
serious questions being raised about whether organic electronics may not
ultimately fail, its role in large-area and thin-film electronics stolen by
cheaper and better performing inorganic nanomaterials.
This report analyzes and forecasts the prospects for organic electronics
materials in the coming eight years. In the report, we review the range of
materials currently be utilized for organic electronics applications and
explore interesting research directions that are being taken in universities
and industrial labs. We also investigate how the organic materials markets are
changing and being changed by manufacturing approaches and how the recent
developments are enabling new and improved organic electronics devices.
The report also includes approximately 20 strategic profiles of leading
suppliers of materials for organic electronics, and forecasts of demand for
these materials in both revenues and volume terms. In these forecasts we break
out the market by type of material, manufacturing technology and application.
Table of Contents
Executive Summary:
- E.1 Summary of opportunities in the organic electronics materials space
- E.1.1 Opportunities for materials suppliers
- E.1.2 How new development in organic electronics materials is enabling
new applications
- E.2 Recent research and developments
- E.3 Firms to watch
- E.3.1 Strategic investments
- E.4 Summary of eight-year projections of organic electronics materials
Chapter One: Introduction
- 1.1 Background to this report
- 1.2 Goals and scope of this report
- 1.3 Methodology of this report
- 1.4 Plan of this report
Chapter Two: Evolution of Materials for Organic Electronics
- 2.1 Introduction
- 2.2 Important performance criteria for organic electronics materials
- 2.3 Types of organic materials used in organic electronics
- 2.3.1 Polymers
- 2.3.2 Small molecules
- 2.3.3 Oligomers
- 2.3.4 Dendrimers
- 2.3.5 Biological materials
- 2.3.6 Hybrid organic/inorganic materials
- 2.4 Conductive and semiconducting materials
- 2.4.1 Commonly used materials
- 2.4.2 Interesting research directions
- 2.5 Dielectric materials
- 2.6 Light emitting materials
- 2.6.1 Interesting research directions
- 2.7 Photovoltaic materials
- 2.7.1 Pure organic materials
- 2.7.2 Hybrid materials
- 2.8 Electrochromic and e-paper materials
- 2.9 Encapsulation, barrier materials and flexibility
- 2.10 Substrates
- 2.11 Key challenges for organic electronics materials
- 2.11.1 Depreciated silicon fabs
- 2.11.2 Inorganic thin film and printed electronics
- 2.12 Review of main points in this chapter
Chapter Three: Evolution of Manufacturing with Organic Electronic Materials
- 3.1 Introduction
- 3.2 Evaporation techniques
- 3.2.1 Trends in evaporation techniques for organic electronics materials
- 3.3 Printing organic materials
- 3.3.1 Organic inks
- 3.3.2 Perspectives on organic inks
- 3.4 Spin coating
- 3.5 Thermal transfer and laser imaging
- 3.6 Review of main points in this chapter
Chapter Four: Impact on Organic Electronics Devices
- 4.1 Introduction
- 4.2 How new materials can change the prospects for OTFTs
- 4.2.1 Mobility and switching speeds
- 4.3 Materials for organic memories
- 4.4 Expected materials-enabled improvements in organic photovoltaics
- 4.5 Expected materials enabled improvements for OLEDs
- 4.5.1 Displays
- 4.5.2 Lighting
- 4.6 Materials-related aspects of disposable electronics
- 4.7 Other applications-related impacts of organic electronics materials
trends
- 4.8 Review of main points in this chapter
Chapter Five: Profiles
- 5.1 Introduction
- 5.2 Agfa-Gevaert
- 5.2.1 Orgacon Products
- 5.2.2 Customer Relationships
- 5.2.3 New Product and Applications Directions
- 5.3 BASF
- 5.3.1 Sepolid and Interest in CMOS
- 5.3.2 Cooperation with Bosch on Organic PV
- 5.3.3 OLEDs and the Singapore and German Research Centers
- 5.4 Ciba Specialty Chemicals
- 5.4.1 OLED Materials
- 5.4.2 Other Organic Electronics Materials Activities
- 5.5 Degussa/Evonik
- 5.5.1 Approach to Organic CMOS
- 5.5.2 Approach to OTFT Dielectrics
- 5.6 DuPont
- 5.6.1 OLED Materials
- 5.6.2 Relationship with Konarka
- 5.7 DuPont Teijin Films
- 5.8 GE Global Research
- 5.8.1 Projects with USDC
- 5.8.2 Joint Agreement with Tokki
- 5.9 H C Starck
- 5.10 Merck/EMD
- 5.10.1 OLED Materials: livilux
- 5.10.2 Organic Semiconductor Materials and Related Materials: lisicon,
isitron and isitag
- 5.11 Mitsui Chemicals
- 5.12 Novaled
- 5.12.1 Alliances with Other Firms
- 5.12.2 Substrates and Encapsulation Efforts
- 5.13 OLED-T
- 5.13.1 E255a, A New Green Emitter
- 5.13.2 Super K Contrast Enhancement Layer
- 5.13.3 EI-101 A New Electron Injector
- 5.13.4 E746 A New Host Material
- 5.13.5 Materials for Flexible OLED Materials
- 5.13.6 Backlighting Project
- 5.14 Panipol
- 5.14.1 Panipol and an EU Conductive Polymer Project
- 5.15 Plextronics
- 5.15.1 Solvay and Applied Materials Investment
- 5.15.2 Current and Future Products
- 5.15.3 HIL Materials and Work with USDC and Northwestern
- 5.15.4 Cleantech Orientation
- 5.15.5 Flexible Electronics for the Army
- 5.15.6 Conductive Polymers for Touch Technology
- 5.16 Polyera
- 5.16.1 Research at Northwestern University
- 5.16.2 Materials Platforms
- 5.16.3 Alliance with BASF
- 5.17 Rieke Metals
- 5.17.1 Joint Development and Licensing Arrangement with BASF
- 5.18 Sumitomo (Sumation)
- 5.20 Vitex Systems
- 5.20.1 Licensing and Other Relationships
- 5.21 Xerox
- 5.21.1 Xerox Research Centre of Canada
Chapter Six: Eight-Year Forecasts
- 6.1 Forecasting methodology
- 6.2 Pricing trends for organic electronics materials
- 6.3 Forecasts of organic electronics materials by type of material
- 6.4 Forecast of organic electronics materials by application
- 6.5 Forecast of organic electronics materials by manufacturing process
used.