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1. |
EXECUTIVE SUMMARY AND CONCLUSIONS |
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1.1. |
Summary |
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1.2. |
Definitions |
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1.3. |
Description and analysis of the main technology components of printed, flexible and organic electronics |
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1.4. |
Market potential and profitability |
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1.5. |
Current market size |
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1.6. |
Total Market Size by Component 2020-2030 |
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1.7. |
Printed versus non-printed electronics |
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1.8. |
Market Size for Printed Electronics Components and Materials 2020-2030 |
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1.9. |
Total market value of printed versus non-printed electronics 2020-2030 |
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1.10. |
Findings on printed versus non-printed electronics |
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1.11. |
Flexible/conformal versus rigid electronics |
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1.12. |
Key components needed for flexible AMOLED displays |
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1.13. |
Market size of Flexible/ Conformation Electronics 2020-2030 |
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1.14. |
Market value of flexible/conformal versus rigid electronics chart and table |
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1.15. |
Market by territory |
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1.16. |
The value chain and unmet needs |
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1.17. |
The Value Chain: Printed, Flexible & Organic Electronics |
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1.18. |
The value chain is unbalanced |
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1.19. |
But many have shifted to provide complete solutions because they are Pioneering New Market Creation |
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1.20. |
Go to Market Strategies |
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1.21. |
Strategy 2: Replace or do something simple in existing electronics/electrics |
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1.22. |
Strategy 3: Creating New Markets |
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1.23. |
What end users want - results from end user surveys |
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1.24. |
More companies are moving downstream to offer complete products |
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1.25. |
Hybrid Electronics |
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2. |
MARKET DRIVERS, LESSONS AND STRATEGIES FOR PRINTED ELECTRONICS |
|
2.1. |
What is Printed, Flexible, Organic Electronics? |
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2.2. |
Printed, organic and flexible electronics value |
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2.3. |
Features that are associated with Printed Electronics |
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2.4. |
Giant industries collaborate for the first time |
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2.5. |
Recent Investments |
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2.6. |
Printed electronics in the retail industry |
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2.7. |
Printed electronics in healthcare |
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2.8. |
Printed electronics in wearable technology |
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2.9. |
Printed electronics in vehicles |
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2.10. |
Printed electronics in consumer electronics, IoT, etc. |
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2.11. |
Creating successful new products leveraging the benefits of printed electronics is challenging |
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2.12. |
Cost reduction has been more commercially successful... |
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2.13. |
...but if it is the only differentiator it can struggle |
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2.14. |
Competing on more than cost has been the most successful |
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3. |
CONDUCTIVE INKS |
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3.1. |
Conductive Ink Options |
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3.2. |
Conductive inks and pastes |
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3.3. |
Characteristics of Ag nano inks |
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3.4. |
Flake versus nanoparticle inks |
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3.5. |
Explanation of conductive ink forecasts |
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3.6. |
Conductive Inks/Pastes, Polymer Thick Film (PTF): Key Suppliers |
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3.7. |
Nano particle conductive Inks/Pastes: Key Suppliers |
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3.8. |
Conductive Ink 2019 Market by Application $ millions |
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3.9. |
Conductive inks forecasts 2020-2030 $ millions |
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3.10. |
Conductive Ink in Photovoltaics |
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3.11. |
Silver consumption per PV wafer greatly improves |
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3.12. |
Touch screen market |
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3.13. |
Touch screen edge electrodes: getting finer |
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3.14. |
Automotive industry: Increasing use cases |
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3.15. |
Simple Circuit Printing |
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3.16. |
Structural Electronics |
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3.17. |
3D antennas |
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3.18. |
In-Mold Electronics (IME) |
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3.19. |
In-Mold Electronics (IME) Process and Examples |
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3.20. |
In-Mold Electronic Process |
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3.21. |
Comments on IME requirements |
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3.22. |
New ink requirements: stretchability |
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3.23. |
New ink requirements: portfolio approach |
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3.24. |
General application areas for IME |
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3.25. |
In-Mold Electronics (IME) Case Studies |
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3.26. |
Automotive: direct heating of headlamp plastic covers |
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3.27. |
3D printed electronics |
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3.28. |
Why 3D Printed Electronics? |
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3.29. |
Stretchable inks for E-Textiles |
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3.30. |
Conformal EMI shielding |
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3.31. |
Other Conductive Ink Applications |
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3.32. |
Conductive Ink Summary |
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3.33. |
Company profiles related to this chapter |
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4. |
DISPLAYS |
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4.1. |
Display drivers |
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4.1.1. |
Market drivers |
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4.1.2. |
New and established display technologies compared |
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4.2. |
OLED Displays |
|
4.2.1. |
OLED displays |
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4.2.2. |
Why choose OLED over LCD? |
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4.2.3. |
Drivers for Display Innovation: OLED Displays |
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4.2.4. |
Evolution of the OLED industry |
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4.2.5. |
Examples of OLED products |
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4.2.6. |
Global OLED Production Capacity |
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4.2.7. |
OLED Display Market 2017-2018 by Value and SQ Meters |
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4.2.8. |
OLED market forecasts 2020-2030 $ Millions |
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4.2.9. |
OLED Display Forecasts 2019-2029 Area (sqm) by Form Factor (Rigid versus Flexible) |
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4.2.10. |
OLED Display Forecasts 2019-2029 Area (sqm) by Form Factor (Rigid versus Flexible) |
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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 |
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4.2.13. |
The rise of plastic and flexible AMOLED |
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4.2.14. |
Case study: the Apple Watch |
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4.2.15. |
Case study: Motorola shatterproof screen |
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4.2.16. |
Key components needed for flexible AMOLED displays |
|
4.2.17. |
Roadmap towards flexible AMOLED displays and flexible electronics devices |
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4.2.18. |
When will foldable displays take off? |
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4.2.19. |
Flexible OLEDs: First Foldable Display Comes to Market |
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4.2.20. |
Printing OLEDs |
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4.2.21. |
Inkjet Printing Organic Materials for Thin Film Encapsulation of OLEDs |
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4.2.22. |
Printed OLEDs: Printing RGB materials |
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4.2.23. |
Inkjet printing: is it worth it? |
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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 |
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4.3.2. |
Electrophoretic e-readers decline - what's next? |
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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 |
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4.3.6. |
Colour Electrophoretic Displays are Available $500 million market for e-paper in 2017 |
|
4.3.7. |
E-Paper Revenues |
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4.3.8. |
The early years of flexible E-ink displays |
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4.3.9. |
Other players in Reflective BiStable Displays |
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4.3.10. |
Electrowetting displays |
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4.3.11. |
Electrowetting displays: Liquavista |
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4.3.12. |
Electrowetting displays: Etulipa |
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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 |
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4.7.3. |
Flexible LCDs: Conclusions |
|
4.7.4. |
Company profiles related to this chapter |
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5. |
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 |
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5.1.9. |
Technology progress |
|
5.1.10. |
OLED Lighting - market penetration |
|
5.1.11. |
OLED lighting value chain |
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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 |
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5.2. |
Printed LED lighting |
|
5.2.1. |
Printed LED lighting |
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5.2.2. |
Nth Degree - Printed LEDs |
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6. |
PHOTOVOLTAICS |
|
6.1. |
Introduction to photovoltaic technologies |
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6.2. |
Comparison of photovoltaic technologies |
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6.3. |
Efficiencies of Different Solar Technologies: Cells and Modules |
|
6.4. |
Printing in crystalline silicon PV |
|
6.5. |
Thin film photovoltaics |
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6.6. |
Value propositions—beyond conventional silicon |
|
6.7. |
Amorphous silicon |
|
6.8. |
CdTe and CIGS |
|
6.9. |
DSSCs |
|
6.10. |
Organic PV (OPV) |
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6.11. |
OPV: Typical device architectures |
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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 |
|
7. |
PRINTED, FLEXIBLE BATTERIES |
|
7.1. |
Introduction to batteries |
|
7.2. |
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