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プリンテッド、有機とフレキシブルエレクトロニクス 2020-2030年：予測、技術、市場：市場データと技術と用途の評価：市場を網羅した全体像を提供

Printed, Organic and Flexible Electronics 2020-2030: Forecasts, Technologies, Markets

この調査レポートは、プリンテッドエレクトロニクス、有機エレクトロニクス、フレキシブルエレクトロニクス、3つのタイプのエレクトロニクス市場を詳細に調査・分析し、市場全体像を解説しています。主... もっと見る

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IDTechEx アイディーテックエックス	2019年9月16日	US$6,500 電子ファイル（1-5ユーザライセンス）ライセンス・価格情報・注文方法はこちら	620	英語

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サマリー

この調査レポートは、プリンテッドエレクトロニクス、有機エレクトロニクス、フレキシブルエレクトロニクス、3つのタイプのエレクトロニクス市場を詳細に調査・分析し、市場全体像を解説しています。

主な掲載内容　※目次より抜粋

エグゼクティブサマリーと結論
プリンテッドエレクトロニクスの市場成長要因、教訓と戦略
導電性インク
ディスプレイ
1. OLEDディスプレイ
2. 電気泳動ディスプレイと双安定ディスプレイ
3. エレクトロクロミックディスプレイ
4. フレキシブルLCDs
LEDとOLED照明
太陽電池
プリンテッド、フレキシブル電池
センサ
ロジックとシステム
印刷技術、硬化、焼結とシステム構築
企業プロフィール

Report Details

This report provides the most comprehensive view of the printed, organic and flexible electronics industry, giving detailed ten year forecasts by device type along with assessment of the trends, capabilities and market successes (and failures). The market is analyzed by each key component type in addition to assessing the market value by printed vs non printed, rigid vs flexible and much more.

Impartial assessment

In the report IDTechEx Research appraises each enabling technology component by virtue of its market need - not technology push. We draw on over fifteen years of knowledge tracking this sector on a global scale which culminates in this report providing detailed, refined forecasts, strategic positioning and assessment of trends, "hot topics" and unmet opportunities. Coverage of the technology is without hype - critically assessing the technology capabilities and genuine opportunities with realistic outlook based on our leading market insight.

Report Structure

The report is based on extensive primary interviews with suppliers across the value chain (including materials supply, equipment providers, component makers and system integrators), through to end user / OEM interviews to understand the user requirements. Research has been conducted globally based on our extensive contact database of the industry.

Each of the key enabling components are covered in turn in this report, being:

Conductors (used in a wide range of applications with growth from In Mold Electronics, e-textiles, RF/electro-magnetic interference shielding and much more)
Logic and memory (growth areas include smart packaging)
OLED displays (growth areas being plastic and foldable OLEDs)
Printed Quantum Dot (QD) Displays and hybrid QD-OLED displays
OLED lighting (addressing niche premium priced applications versus the incumbent LED lighting)
Electrophoretic and other bistable displays (growth in electronic shelf labels while color versions of information signs are improved)
Electrochromic displays (new products for smart packaging and smart labels)
Electroluminescent displays (in steady decline)
Other displays
Batteries (with companies focussing on electronic skin patches and other wearables)
Photovoltaics (with focus on building integrated PV and new technologies including perovskite PV)
Sensors (nine types are analyzed)

For each of the above sectors, the report covers:

Latest technical progress
Current and emerging applications
Market size - now and forecast through to 2029
Trends, challenges and opportunities
Key players and profiles of players

In addition, the report includes assessment of the application of printed, organic and flexible electronics to different industries specifically including automotive & transportation, consumer electronics, consumer goods, wearable electronics and others.

The value chain, go to market strategies and case studies of success and failure are given. This widely referenced IDTechEx report brings it all together, with particular focus on applications and quantative assessment of opportunities.

Market sizing

IDTechEx Research finds that the total market for printed, flexible and organic electronics will grow from $41.2 Billion in 2020 to $74 billion in 2030. The majority of that is OLEDs (organic but not mainly made by printing); printed biosensors; and printed conductive ink (used for a wide range of applications, but predominately PV). On the other hand, stretchable electronics, logic and memory, flexible batteries and capacitive sensors are much smaller segments but with strong growth potential.

A snapshot of the printed, organic and flexible electronics industry is shown below.

For each component ten year forecasts to 2030 are provided, with a breakdown of printed vs printed and rigid vs flexible.

(data masked for sample)

Company Profiles

IDTechEx Research continuously monitors hundreds of companies in this field, with the primary research used as a basis of the report. In addition, the report includes detailed profiles of over 50 companies.

If you are looking to understand the big picture, the opportunity, the problems you can address, or how you can start to use these technologies and the implications involved, this report is a must-buy. Researched by multilingual IDTechEx analysts and experts based eight countries in four continents, this report builds on 15 years of research of the industry.

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Summary

主な掲載内容　※目次より抜粋

エグゼクティブサマリーと結論
プリンテッドエレクトロニクスの市場成長要因、教訓と戦略
導電性インク
ディスプレイ
1. OLEDディスプレイ
2. 電気泳動ディスプレイと双安定ディスプレイ
3. エレクトロクロミックディスプレイ
4. フレキシブルLCDs
LEDとOLED照明
太陽電池
プリンテッド、フレキシブル電池
センサ
ロジックとシステム
印刷技術、硬化、焼結とシステム構築
企業プロフィール

Report Details

Impartial assessment

Report Structure

Each of the key enabling components are covered in turn in this report, being:

Conductors (used in a wide range of applications with growth from In Mold Electronics, e-textiles, RF/electro-magnetic interference shielding and much more)
Logic and memory (growth areas include smart packaging)
OLED displays (growth areas being plastic and foldable OLEDs)
Printed Quantum Dot (QD) Displays and hybrid QD-OLED displays
OLED lighting (addressing niche premium priced applications versus the incumbent LED lighting)
Electrophoretic and other bistable displays (growth in electronic shelf labels while color versions of information signs are improved)
Electrochromic displays (new products for smart packaging and smart labels)
Electroluminescent displays (in steady decline)
Other displays
Batteries (with companies focussing on electronic skin patches and other wearables)
Photovoltaics (with focus on building integrated PV and new technologies including perovskite PV)
Sensors (nine types are analyzed)

For each of the above sectors, the report covers:

Latest technical progress
Current and emerging applications
Market size - now and forecast through to 2029
Trends, challenges and opportunities
Key players and profiles of players

Market sizing

A snapshot of the printed, organic and flexible electronics industry is shown below.

For each component ten year forecasts to 2030 are provided, with a breakdown of printed vs printed and rigid vs flexible.

(data masked for sample)

Company Profiles

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Table of Contents

EXECUTIVE SUMMARY AND CONCLUSIONS

1.1.

Summary

1.2.

Definitions

1.3.

Description and analysis of the main technology components of printed, flexible and organic electronics

1.4.

Market potential and profitability

1.5.

Current market size

1.6.

Total Market Size by Component 2020-2030

1.7.

Printed versus non-printed electronics

1.8.

Market Size for Printed Electronics Components and Materials 2020-2030

1.9.

Total market value of printed versus non-printed electronics 2020-2030

1.10.

Findings on printed versus non-printed electronics

1.11.

Flexible/conformal versus rigid electronics

1.12.

Key components needed for flexible AMOLED displays

1.13.

Market size of Flexible/ Conformation Electronics 2020-2030

1.14.

Market value of flexible/conformal versus rigid electronics chart and table

1.15.

Market by territory

1.16.

The value chain and unmet needs

1.17.

The Value Chain: Printed, Flexible & Organic Electronics

1.18.

The value chain is unbalanced

1.19.

But many have shifted to provide complete solutions because they are Pioneering New Market Creation

1.20.

Go to Market Strategies

1.21.

Strategy 2: Replace or do something simple in existing electronics/electrics

1.22.

Strategy 3: Creating New Markets

1.23.

What end users want - results from end user surveys

1.24.

More companies are moving downstream to offer complete products

1.25.

Hybrid Electronics

MARKET DRIVERS, LESSONS AND STRATEGIES FOR PRINTED ELECTRONICS

2.1.

What is Printed, Flexible, Organic Electronics?

2.2.

Printed, organic and flexible electronics value

2.3.

Features that are associated with Printed Electronics

2.4.

Giant industries collaborate for the first time

2.5.

Recent Investments

2.6.

Printed electronics in the retail industry

2.7.

Printed electronics in healthcare

2.8.

Printed electronics in wearable technology

2.9.

Printed electronics in vehicles

2.10.

Printed electronics in consumer electronics, IoT, etc.

2.11.

Creating successful new products leveraging the benefits of printed electronics is challenging

2.12.

Cost reduction has been more commercially successful...

2.13.

...but if it is the only differentiator it can struggle

2.14.

Competing on more than cost has been the most successful

CONDUCTIVE INKS

3.1.

Conductive Ink Options

3.2.

Conductive inks and pastes

3.3.

Characteristics of Ag nano inks

3.4.

Flake versus nanoparticle inks

3.5.

Explanation of conductive ink forecasts

3.6.

Conductive Inks/Pastes, Polymer Thick Film (PTF): Key Suppliers

3.7.

Nano particle conductive Inks/Pastes: Key Suppliers

3.8.

Conductive Ink 2019 Market by Application $ millions

3.9.

Conductive inks forecasts 2020-2030 $ millions

3.10.

Conductive Ink in Photovoltaics

3.11.

Silver consumption per PV wafer greatly improves

3.12.

Touch screen market

3.13.

Touch screen edge electrodes: getting finer

3.14.

Automotive industry: Increasing use cases

3.15.

Simple Circuit Printing

3.16.

Structural Electronics

3.17.

3D antennas

3.18.

In-Mold Electronics (IME)

3.19.

In-Mold Electronics (IME) Process and Examples

3.20.

In-Mold Electronic Process

3.21.

Comments on IME requirements

3.22.

New ink requirements: stretchability

3.23.

New ink requirements: portfolio approach

3.24.

General application areas for IME

3.25.

In-Mold Electronics (IME) Case Studies

3.26.

Automotive: direct heating of headlamp plastic covers

3.27.

3D printed electronics

3.28.

Why 3D Printed Electronics?

3.29.

Stretchable inks for E-Textiles

3.30.

Conformal EMI shielding

3.31.

Other Conductive Ink Applications

3.32.

Conductive Ink Summary

3.33.

Company profiles related to this chapter

DISPLAYS

4.1.

Display drivers

4.1.1.

Market drivers

4.1.2.

New and established display technologies compared

4.2.

OLED Displays

4.2.1.

OLED displays

4.2.2.

Why choose OLED over LCD?

4.2.3.

Drivers for Display Innovation: OLED Displays

4.2.4.

Evolution of the OLED industry

4.2.5.

Examples of OLED products

4.2.6.

Global OLED Production Capacity

4.2.7.

OLED Display Market 2017-2018 by Value and SQ Meters

4.2.8.

OLED market forecasts 2020-2030 $ Millions

4.2.9.

OLED Display Forecasts 2019-2029 Area (sqm) by Form Factor (Rigid versus Flexible)

4.2.10.

OLED Display Forecasts 2019-2029 Area (sqm) by Form Factor (Rigid versus Flexible)

4.2.11.

OLED Display Forecasts 2019-2029, Panel Numbers by Form Factor (Rigid versus Flexible)

4.2.12.

First step towards flexible: OLED on plastic substrate

4.2.13.

The rise of plastic and flexible AMOLED

4.2.14.

Case study: the Apple Watch

4.2.15.

Case study: Motorola shatterproof screen

4.2.16.

Key components needed for flexible AMOLED displays

4.2.17.

Roadmap towards flexible AMOLED displays and flexible electronics devices

4.2.18.

When will foldable displays take off?

4.2.19.

Flexible OLEDs: First Foldable Display Comes to Market

4.2.20.

Printing OLEDs

4.2.21.

Inkjet Printing Organic Materials for Thin Film Encapsulation of OLEDs

4.2.22.

Printed OLEDs: Printing RGB materials

4.2.23.

Inkjet printing: is it worth it?

4.2.24.

R G B inkjet printing in displays

4.2.25.

Printed OLED Displays: Key Players

4.2.26.

Printed OLEDs are finally commercial

4.2.27.

Printed OLED TVs

4.2.28.

JOLED: First Commercial Printed OLED Display

4.2.29.

JOLED Printed OLED Strategy

4.2.30.

UDC: Organic vapour jet printing

4.2.31.

Fraunhofer IAP'S ESJET printing

4.2.32.

Printing in Quantum Dot OLED Hybrid Displays

4.3.

Electrophoretic and other bi-stable displays

4.3.1.

Electrophoretic and other bi-stable displays

4.3.2.

Electrophoretic e-readers decline - what's next?

4.3.3.

The Holy Grail: Color E-paper Displays

4.3.4.

New color display from E Ink without filters

4.3.5.

Signage

4.3.6.

Colour Electrophoretic Displays are Available $500 million market for e-paper in 2017

4.3.7.

E-Paper Revenues

4.3.8.

The early years of flexible E-ink displays

4.3.9.

Other players in Reflective BiStable Displays

4.3.10.

Electrowetting displays

4.3.11.

Electrowetting displays: Liquavista

4.3.12.

Electrowetting displays: Etulipa

4.3.13.

Electrophoretic and Bi-Stable displays Market Forecasts 2020-2030 $ millions

4.4.

Electrochromic displays

4.4.1.

Electrochromic displays

4.4.2.

Ynvisible Electrochromic Displays

4.4.3.

Electrochromic displays market forecasts 2020-2030

4.5.

AC Electroluminescent displays

4.5.1.

EL technology

4.5.2.

AC Electroluminescent (EL) Displays

4.5.3.

Electroluminescent displays market forecasts 2018-2029 $ millions

4.6.

Thermochromic displays

4.7.

Flexible LCDs

4.7.1.

Flexible LCDs

4.7.2.

Flexible LCDs from FlexEnable

4.7.3.

Flexible LCDs: Conclusions

4.7.4.

Company profiles related to this chapter

LED AND OLED LIGHTING

5.1.

OLED Lighting

5.1.1.

Value proposition of OLED vs LED lighting

5.1.2.

OLED lighting: solid-state, efficient, cold, surface emission, flexible......?

5.1.3.

OLED Lighting Status

5.1.4.

Cost challenge set by the incumbent (inorganic LED)

5.1.5.

Comparing OLED and LED lighting

5.1.6.

OLED Lighting is more challenging than OLED displays in terms of lifetime and light intensity requirements

5.1.7.

OLED lighting - cost projection

5.1.8.

Market announcements

5.1.9.

Technology progress

5.1.10.

OLED Lighting - market penetration

5.1.11.

OLED lighting value chain

5.1.12.

S2S Lines: OLEDWorks in Aachen (ex-Philips line)

5.1.13.

S2S lines: LG display: Gen-2 and Gen 5

5.1.14.

R2R line: Konica Minolta

5.1.15.

But why is it so difficult to reduce cost??

5.1.16.

OLED Lighting Market Forecast

5.1.17.

OLED Lighting Market Forecast 2020-2030 $ millions

5.2.

Printed LED lighting

5.2.1.

Printed LED lighting

5.2.2.

Nth Degree - Printed LEDs

PHOTOVOLTAICS

6.1.

Introduction to photovoltaic technologies

6.2.

Comparison of photovoltaic technologies

6.3.

Efficiencies of Different Solar Technologies: Cells and Modules

6.4.

Printing in crystalline silicon PV

6.5.

Thin film photovoltaics

6.6.

Value propositions—beyond conventional silicon

6.7.

Amorphous silicon

6.8.

CdTe and CIGS

6.9.

DSSCs

6.10.

Organic PV (OPV)

6.11.

OPV: Typical device architectures

6.12.

R2R solution vs R2R evaporation

6.13.

OPV Progress

6.14.

Solution Processed 17.5% tandem OPV (Aug 2018)

6.15.

Examples of Organic PV

6.16.

OPV installations

6.17.

Challenges Commercializing Organic PV

6.18.

Konarka vs Heliatek: a case study

6.19.

Case study: Konarka's failure

6.20.

Heliatek: R2R evaporated OPV

6.21.

Latest progress update

6.22.

Perovskites

6.23.

Research-cell efficiencies of different solar technologies

6.24.

Perovskite structure

6.25.

Working principle

6.26.

Evolution of Perovskite Development

6.27.

Structures/architectures of perovskite solar cells

6.28.

Perovskite solar cell evolution

6.29.

Perovskite PV Commercial Opportunity

6.30.

Perovskite PV Applications and Challenges

6.31.

The Achilles' Heel

6.32.

Efforts to overcome challenges

6.33.

Efforts to overcome challenges

6.34.

Overview

6.35.

Pilot-scale capacity

6.36.

Large scale roll-to-roll printed perovskite solar cells

6.37.

Microquanta Semiconductor

6.38.

Unique features are required where silicon PVs cannot provide

6.39.

Application roadmap of perovskite photovoltaics

6.40.

Market trends and forecasts

6.41.

Company profiles related to this chapter

6.42.

Perovskite Photovoltaics 2018-2028

PRINTED, FLEXIBLE BATTERIES

7.1.

Introduction to batteries

7.2.

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