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Electronics Reshaped 2020-2040

このレポートはエレクトロニクスのリシェイプに注目し、2040年までの商用化タイムラインや10年間の市場予測を掲載しています。 Report Details Imagine buying sticky tape that makes, store... もっと見る

 

 

出版社 出版年月 価格 ページ数 言語
IDTechEx
アイディーテックエックス
2020年5月18日 お問い合わせください
ライセンス・価格情報
注文方法はこちら
153 英語

※価格はデータリソースまでお問い合わせください。


 

サマリー

このレポートはエレクトロニクスのリシェイプに注目し、2040年までの商用化タイムラインや10年間の市場予測を掲載しています。

Report Details

Imagine buying sticky tape that makes, stores and uses electricity for its sensing, lighting and other functions. Cut off the shape you need and press it in the right place to switch on the features you need. It does not matter if you never use some features. Welcome to the world of edit-able smart materials as electronics and electrics in the new 150 page IDTechEx report, "Electronics Reshaped 2020-2040"
 
Buy electrically smart material you feed into your 3D printer then make whatever structure you wish. No need for a case. Squeeze your squashy battery, cut your supercapacitor or self-powered sensing and lighting into awkward spaces. Apply programmably-stretchable electronics sheet, the area determining several electrical parameters. Morphing electrical materials anyone? Enjoy photovoltaic and paint you apply when and where you wish, the thickness determining the performance. Thermoelectric paint is coming.
 
IDTechEx looked at 63 research programs. The majority target apparel/textile and medical/healthcare industries; then building/campus/home, then many other sectors.
 
It will delight the added value materials suppliers and horrify the traditional electronics and electrical engineering industries where they are bypassed. The trend is seen in 2.2 GW of thin film solar being installed in 2020 because this copper indium gallium diselenide is flexible and light-weight for building facades etc. Renovagen will even sell you 300kW reels to unroll like a carpet and use as a microgrid. Electrics and electronics become added-value materials.
 
Research groups have demonstrated batteries, sensors and triboelectric harvesting you cut to shape and they still work. Customizable, fabric-like power sources can be cut, folded or stretched without losing function. Perovskite and quantum dot photovoltaics show promise for photovoltaic paint. In many cases, the new technologies are not just edit-able, they replace other functions from load-bearing parts to regular paint and building cladding - two or three for the price, space, weight of one. That can justify high margins.
 
Industrial supply chains are being bypassed, parts are being eliminated and value-added material companies see huge opportunities ahead for this electrically-smart feedstock, reels and paint. Where they sell electrical ink to the start of traditional production lines, they will sell cleverer versions direct to many other industries.
 
The report, "Electronics Reshaped 2020-2040" has an executive summary and conclusions with new infograms explaining what it is, many examples and possibilities, winners and losers. See 33 primary conclusions, a 2020-2040 commercialisation timeline and ten forecasts for addressable markets. The introduction explains more, giving depth on conformal, stretchable and morphing electronics as material, particularly edit-able forms. Chapter 3 is on batteries to go anywhere and Chapter 4 does that for supercapacitors. Chapter 5 interprets research on photovoltaics as feedstock for the user. Chapter 6 is on solar tape and structures, Chapter 7 on forthcoming photovoltaic, thermoelectric and triboelectric paint. Chapter 8 covers triboelectric nanogenerators material as motion harvesting the user can customize. Chapter 9 reveals complete circuits in plastic sheet you cut to shape and dedicate. Chapter 10 explains Papertronics taking you into the world of low-cost electronic packaging and biodegradability. Chapter 11 explains how everything from your computer case to your car body could be made from load-bearing electrically-smart material. Finally, Chapter 12 reveals where reconfigurable metamaterials and composites are headed in this context.

 



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目次

Table of Contents

1. EXECUTIVE SUMMARY AND CONCLUSIONS
1.1. Purpose of this report
1.2. Editable (user-dedicated) electronics and electrics as smart material
1.3. Primary conclusions: what it is, winners and losers
1.4. Primary conclusions: general technology
1.5. Electronics and electrics as cuttable, formable reels or sheet
1.6. Primary conclusions: options for editing/ customising by user
1.7. Primary conclusions: technology specifics
1.8. Commercialisation timeline 2020-2040
1.9. Addressable market forecasts: ten categories
2. INTRODUCTION
2.1. Overview
2.2. Some of the toolkit
2.2.1. User cuts, stretches, morphs, paints feedstock to purpose
2.2.2. Printed LEDs cut to shape and tailored function
2.3. Stretchable, editable electronics
2.3.1. Customisable stretchability
2.3.2. Reconfigurable stretchable systems for multifunctional electronics
2.3.3. Breathable, stretchable, wearable electronics
2.3.4. Customisable, stretchable, wearable self-powered sensors
2.4. Morphing materials
3. BATTERIES TO GO ANYWHERE
3.1. Folding textile batteries
3.2. Battery survives shot, bend, cut
3.3. Any shape anywhere printed batteries: Printed Energy
4. SUPERCAPACITORS TO GO ANYWHERE
4.1. Rollable, foldable supercapacitors
4.2. Spray-on pseudocapacitors
5. PHOTOVOLTAICS BECOMES A FEEDSTOCK FOR THE USER
5.1. Overview
5.2. Basics of flexible photovoltaics: Solar Frontier
5.3. Primary technologies of flexible photovoltaics
5.4. CIGS flexible photovoltaics: Flisom, Empa, Renovagen
5.4.1. Flisom "customizable flexible solar"
5.4.2. CIGS PV in action
6. SOLAR TAPE AND STRUCTURES
6.1. InfinityPV
6.2. Opvius and Armor
7. SPRAY-ON PHOTOVOLTAICS, TRIBOELECTRICS, HYDROGEN GENERATION
7.1.1. Overview
7.1.2. Spray-on and stick-on perovskite photovoltaics
7.1.3. Solterra retrofittable solar film from ink
8. CUSTOMIZABLE TRIBOELECTRIC NANOGENERATORS: MOTION HARVESTING
8.1. Introduction
8.2. 2020 review
8.3. Customizable TENG production using 3D printed imprinter
8.4. Editable circuits in textiles, film
8.5. Battery-free electronics: energy harvesting toys, biosensors, wearables
9. LAMINAR CIRCUITS TO CUT TO SHAPE
9.1. Wireless interface retrofit
9.2. Multifunctional editable materials in life sciences
9.3. Multifunctional washable fabrics and film
9.3.1. Self-powered wearable display
9.4. Customer configurable by stretching
9.5. Sensors in batteryless circuits and more
10. PAPERTRONICS
10.1. Circuits on and in paper
10.2. Paper supercapacitors: roll, fold and cut to purpose
10.3. Editable electronic kirigami
11. ELECTRICALLY SMART VEHICLE BODYWORK AND ELECTRONICS CASING
11.1. Overview
11.2. Stamping vehicles from reels of electrics
11.3. Possible evolution to vehicle bodywork from smart feedstock
11.4. Imperial College UK
11.5. Metal-organic frameworks
12. RECONFIGURABLE METAMATERIALS AND COMPOSITES
12.1. Reconfigurable metamaterials in 3D and 4D printing
12.2. Multifunctional polymer composites
12.3. Self-healing multifunctional materials
12.4. Polymer composites progress in 2020

 

 

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Summary

このレポートはエレクトロニクスのリシェイプに注目し、2040年までの商用化タイムラインや10年間の市場予測を掲載しています。

Report Details

Imagine buying sticky tape that makes, stores and uses electricity for its sensing, lighting and other functions. Cut off the shape you need and press it in the right place to switch on the features you need. It does not matter if you never use some features. Welcome to the world of edit-able smart materials as electronics and electrics in the new 150 page IDTechEx report, "Electronics Reshaped 2020-2040"
 
Buy electrically smart material you feed into your 3D printer then make whatever structure you wish. No need for a case. Squeeze your squashy battery, cut your supercapacitor or self-powered sensing and lighting into awkward spaces. Apply programmably-stretchable electronics sheet, the area determining several electrical parameters. Morphing electrical materials anyone? Enjoy photovoltaic and paint you apply when and where you wish, the thickness determining the performance. Thermoelectric paint is coming.
 
IDTechEx looked at 63 research programs. The majority target apparel/textile and medical/healthcare industries; then building/campus/home, then many other sectors.
 
It will delight the added value materials suppliers and horrify the traditional electronics and electrical engineering industries where they are bypassed. The trend is seen in 2.2 GW of thin film solar being installed in 2020 because this copper indium gallium diselenide is flexible and light-weight for building facades etc. Renovagen will even sell you 300kW reels to unroll like a carpet and use as a microgrid. Electrics and electronics become added-value materials.
 
Research groups have demonstrated batteries, sensors and triboelectric harvesting you cut to shape and they still work. Customizable, fabric-like power sources can be cut, folded or stretched without losing function. Perovskite and quantum dot photovoltaics show promise for photovoltaic paint. In many cases, the new technologies are not just edit-able, they replace other functions from load-bearing parts to regular paint and building cladding - two or three for the price, space, weight of one. That can justify high margins.
 
Industrial supply chains are being bypassed, parts are being eliminated and value-added material companies see huge opportunities ahead for this electrically-smart feedstock, reels and paint. Where they sell electrical ink to the start of traditional production lines, they will sell cleverer versions direct to many other industries.
 
The report, "Electronics Reshaped 2020-2040" has an executive summary and conclusions with new infograms explaining what it is, many examples and possibilities, winners and losers. See 33 primary conclusions, a 2020-2040 commercialisation timeline and ten forecasts for addressable markets. The introduction explains more, giving depth on conformal, stretchable and morphing electronics as material, particularly edit-able forms. Chapter 3 is on batteries to go anywhere and Chapter 4 does that for supercapacitors. Chapter 5 interprets research on photovoltaics as feedstock for the user. Chapter 6 is on solar tape and structures, Chapter 7 on forthcoming photovoltaic, thermoelectric and triboelectric paint. Chapter 8 covers triboelectric nanogenerators material as motion harvesting the user can customize. Chapter 9 reveals complete circuits in plastic sheet you cut to shape and dedicate. Chapter 10 explains Papertronics taking you into the world of low-cost electronic packaging and biodegradability. Chapter 11 explains how everything from your computer case to your car body could be made from load-bearing electrically-smart material. Finally, Chapter 12 reveals where reconfigurable metamaterials and composites are headed in this context.

 



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Table of Contents

Table of Contents

1. EXECUTIVE SUMMARY AND CONCLUSIONS
1.1. Purpose of this report
1.2. Editable (user-dedicated) electronics and electrics as smart material
1.3. Primary conclusions: what it is, winners and losers
1.4. Primary conclusions: general technology
1.5. Electronics and electrics as cuttable, formable reels or sheet
1.6. Primary conclusions: options for editing/ customising by user
1.7. Primary conclusions: technology specifics
1.8. Commercialisation timeline 2020-2040
1.9. Addressable market forecasts: ten categories
2. INTRODUCTION
2.1. Overview
2.2. Some of the toolkit
2.2.1. User cuts, stretches, morphs, paints feedstock to purpose
2.2.2. Printed LEDs cut to shape and tailored function
2.3. Stretchable, editable electronics
2.3.1. Customisable stretchability
2.3.2. Reconfigurable stretchable systems for multifunctional electronics
2.3.3. Breathable, stretchable, wearable electronics
2.3.4. Customisable, stretchable, wearable self-powered sensors
2.4. Morphing materials
3. BATTERIES TO GO ANYWHERE
3.1. Folding textile batteries
3.2. Battery survives shot, bend, cut
3.3. Any shape anywhere printed batteries: Printed Energy
4. SUPERCAPACITORS TO GO ANYWHERE
4.1. Rollable, foldable supercapacitors
4.2. Spray-on pseudocapacitors
5. PHOTOVOLTAICS BECOMES A FEEDSTOCK FOR THE USER
5.1. Overview
5.2. Basics of flexible photovoltaics: Solar Frontier
5.3. Primary technologies of flexible photovoltaics
5.4. CIGS flexible photovoltaics: Flisom, Empa, Renovagen
5.4.1. Flisom "customizable flexible solar"
5.4.2. CIGS PV in action
6. SOLAR TAPE AND STRUCTURES
6.1. InfinityPV
6.2. Opvius and Armor
7. SPRAY-ON PHOTOVOLTAICS, TRIBOELECTRICS, HYDROGEN GENERATION
7.1.1. Overview
7.1.2. Spray-on and stick-on perovskite photovoltaics
7.1.3. Solterra retrofittable solar film from ink
8. CUSTOMIZABLE TRIBOELECTRIC NANOGENERATORS: MOTION HARVESTING
8.1. Introduction
8.2. 2020 review
8.3. Customizable TENG production using 3D printed imprinter
8.4. Editable circuits in textiles, film
8.5. Battery-free electronics: energy harvesting toys, biosensors, wearables
9. LAMINAR CIRCUITS TO CUT TO SHAPE
9.1. Wireless interface retrofit
9.2. Multifunctional editable materials in life sciences
9.3. Multifunctional washable fabrics and film
9.3.1. Self-powered wearable display
9.4. Customer configurable by stretching
9.5. Sensors in batteryless circuits and more
10. PAPERTRONICS
10.1. Circuits on and in paper
10.2. Paper supercapacitors: roll, fold and cut to purpose
10.3. Editable electronic kirigami
11. ELECTRICALLY SMART VEHICLE BODYWORK AND ELECTRONICS CASING
11.1. Overview
11.2. Stamping vehicles from reels of electrics
11.3. Possible evolution to vehicle bodywork from smart feedstock
11.4. Imperial College UK
11.5. Metal-organic frameworks
12. RECONFIGURABLE METAMATERIALS AND COMPOSITES
12.1. Reconfigurable metamaterials in 3D and 4D printing
12.2. Multifunctional polymer composites
12.3. Self-healing multifunctional materials
12.4. Polymer composites progress in 2020

 

 

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