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1. | EXECUTIVE SUMMARY |
1.1. | Drivers for Display Innovation: OLED Displays |
1.2. | Evolution of the OLED industry |
1.3. | Investments in OLED Displays |
1.4. | Global OLED Production Capacity |
1.5. | Drivers for Display Innovation: QDOT, MicroLED, E-Paper and Beyond |
1.6. | OLED Display Market 2019-2020 by Value and SQ Meters |
1.7. | OLED Display Forecasts 2020-2030 by Value |
1.8. | OLED Display Forecasts 2020-2030 by Area (Sq Meters) |
1.9. | OLED Display Forecasts 2020-2030 Area (sqm) by Form Factor (Rigid versus Flexible) |
1.10. | OLED Display Forecasts 2020-2030, Panel Numbers by Form Factor (Rigid versus Flexible) |
1.11. | OLED Displays for Cellphones 2020-2030, by number of units, form factor and value |
1.12. | When will foldable displays take off? |
1.13. | Printed OLED Displays (RGB light emitters predominately made by printing), Value, $ Millions |
1.14. | OLED Displays for Tablets and Computers 2020-2030, by number of units, form factor and value |
1.15. | OLED Displays for TV 2020-2030, by number of units, form factor and value |
1.16. | OLED Displays for TV: Outlook |
1.17. | OLED Displays for Automotive 2020-2030, by number of units, form factor and value |
1.18. | OLED Displays for Wearables 2020-2030, by number of units, form factor and value |
1.19. | OLED Displays for Industrial and Professional Equipment 2019-2029, by number of units, form factor and value |
1.20. | OLED Displays for Microdisplays 2020-2030, by number of units, form factor and value |
1.21. | OLED Displays for Other Applications 2020-2030, by number of units, form factor and value |
1.22. | Ten-year forecast for different QD solutions in displays in area by M sqm (film, colour filter, on chip, edge optic, emissive QLED, etc.) |
2. | OLED TECHNOLOGIES |
2.1. | Drivers for OLED displays |
2.2. | OLED vs. LCD |
2.3. | OLED operating mechanism |
2.4. | OLED Display Sizes |
2.5. | OLED versus LCD: Colors |
2.6. | Why choose OLED over LCD? |
2.7. | OLED power consumption can be lower than LCD |
2.8. | Evolution of the OLED industry |
2.9. | Evolution of Form Factors of Displays for Cellphones and Tablets |
2.10. | Detailed history of OLED display |
2.11. | Market is still currently dominated by mobile phones |
2.12. | More than 1 billion mobile AMOLED displays shipped by Samsung by 2016 |
2.13. | Smartphones: AMOLED gaining market shares |
2.14. | OLED Tablets are getting bigger and more affordable |
2.15. | Product trends: Bigger, better, faster |
2.16. | Large Area OLEDs: "White OLED" approach for TVs |
2.17. | The White OLED approach |
2.18. | LG supplies OLED panels to TV manufacturers |
2.19. | Competition in the TV market |
2.20. | The challenge of Rec 2020 |
2.21. | New standard for Ultra HD |
2.22. | QLED: the next generation of OLED? |
2.23. | Main advantages over OLED |
2.24. | Samsung: quantum dots and the OLED dilemma |
2.25. | Quantum Dot OLED Hybrid Displays: Progress from Samsung |
3. | FLEXIBLE, FOLDABLE AND PLASTIC OLED DISPLAYS |
3.1. | Roadmap towards flexible AMOLED displays and flexible electronics devices |
3.2. | First step towards flexible: OLED on plastic substrate |
3.3. | The rise of plastic and flexible AMOLED |
3.4. | Case study: the Apple Watch |
3.5. | Case study: Motorola shatterproof screen |
3.6. | Key components needed for flexible AMOLED displays |
3.7. | From rigid OLED, to flexible and foldable OLED |
3.8. | Two different methods to manufacture on plastic |
3.9. | Choice of flexible substrates |
3.10. | Rayitek: rising challenger to Kolon on c-PI substrates? |
3.11. | Three TFT technologies for flexible displays |
3.12. | TFT technologies for flexible displays |
3.13. | Metal Oxide production process |
3.14. | IGZO enables large sized OLED TVs |
3.15. | Challenges with Organic TFTs |
3.16. | Apple LTPO Backplane: Power Saving By Combining LTPS and IGZO |
4. | OLED MATERIAL STACK |
4.1. | How do OLEDs work? |
4.2. | RGB vs White OLED |
4.3. | Fluorescence OLED materials (FL) |
4.4. | Phosphorescent OLED (PhOLED) |
4.5. | Evolution of materials in RGB OLED |
4.6. | Evolution of materials in WOLED |
4.7. | OLED Materials: Supplier Landscape and Market Shares |
4.8. | TADF: next class of materials? |
4.9. | TADF: Latest results |
4.10. | Hybrid TADF + Fluorescence OLED |
4.11. | General material comparison |
4.12. | How are the materials deposited today? |
4.13. | FMM limits scale, material utilization and PPI |
4.14. | OLED photolithography: the need? |
4.15. | The High PPI need for OLED displays |
4.16. | Photolithography polymer OLED |
4.17. | High PPI with photolith on small molecular OLEDs |
5. | PRINTING OLED DISPLAYS |
5.1. | The industry has not given up on printing yet |
5.2. | Inkjet printing can potentially lower production costs |
5.3. | Inkjet printing OLED displays |
5.4. | Inkjet printing: is it worth it? |
5.5. | R G B inkjet printing in displays |
5.6. | Printed OLED Displays: Kay Players |
5.7. | Printed OLED TVs |
5.8. | Inkjet Printing for OLEDs |
5.9. | Inkjet printed AMOLED finally commercial |
5.10. | JOLED Printed OLED Strategy |
5.11. | Solution processed performance level (green) |
5.12. | Solution processed performance level (red) |
5.13. | Solution processed performance level (blue) |
5.14. | Performance of solution process vs VTE: lifetime |
5.15. | UDC: Organic vapour jet printing |
5.16. | Organic Vapor Jet Deposition (OVJD) |
5.17. | Performance of OVJD |
5.18. | Fraunhofer IAP'S ESJET printing |
5.19. | Sumitomo Chemical and CDT |
5.20. | Quantum Dot OLED Hybrid Displays: Progress from Samsung |
5.21. | Printing the TFT backplane |
5.22. | Printing the TFT backplane |
5.23. | Printed OLED Displays (RGB light emitters predominately made by printing), Value, $ Millions |
6. | BARRIER FILMS AND THIN FILM ENCAPSULATION |
6.1. | Thin film encapsulation |
6.2. | Why do we need barriers for OLEDs? |
6.3. | Summary of barrier needs for OLEDs |
6.4. | Plastic substrates fall short of requirements |
6.5. | Challenges with flexible barrier materials |
6.6. | General approaches towards high performance encapsulation |
6.7. | Encapsulation |
6.8. | The basis of the multi-layer approach |
6.9. | Status of R2R barrier films in performance, web width and readiness/scale |
6.10. | From glass to multi-layer films to multi-layer inline thin film encapsulation |
6.11. | TFE is the technology of choice now for plastic and flexible OLED displays |
6.12. | Trends in in-line TFE: reducing thickness by cutting the number of layers in the barrier stack |
6.13. | Trends in TFE: Past, present and future of deposition methods |
6.14. | Inkjet deposition of organic coating |
6.15. | How inkjet printing has enabled thin film encapsulation |
6.16. | Inkjet printing organic layer in thin film encapsulation |
6.17. | Atomic layer deposition for encapsulation technology: will it give rise to single layer barrier films? |
6.18. | Ultra flexible thin glass |
6.19. | Flexible glass: an assessment |
6.20. | Duskan: organic layer for TFEs |
6.21. | Multi layer barrier for bottom barrier layer in flexible/rollable displays |
7. | TRANSPARENT CONDUCTIVE FILMS (TCFS) |
7.1. | Different Transparent Conductive Films (TCFs) |
7.2. | ITO film shortcomings: flexibility |
7.3. | ITO film shortcomings: limited sheet conductivity over large areas |
7.4. | Silver nanowire transparent conductive films: principles |
7.5. | Silver nanowire TCFs |
7.6. | Silver nanowire transparent conductive films: flexibility |
7.7. | Silver nanowire transparent conductive films: target markets |
7.8. | Silver nanowire TCF: haze trade-off |
7.9. | Metal mesh transparent conductive films: operating principles |
7.10. | Metal mesh: etching |
7.11. | Metal mesh: Ag halide patterning |
7.12. | Metal mesh: hybrid |
7.13. | Metal mesh: improvement in gravure offset printing? |
7.14. | PEDOT:PSS is now on a par with ITO-on-PET |
7.15. | Carbon nanotube transparent conductive films: performance |
7.16. | Graphene performance as TCF |
7.17. | Transparent Conductive Film (TCF) Benchmarking |
7.18. | All ITO alternatives are mechanically flexible |
7.19. | Major trends: the threat of alternatives and price wars |
7.20. | Major trends: is there a winning alternative or a one-size-fits all solution? |
8. | FLEXIBLE TOUCH SENSORS FOR FLEXIBLE DISPLAYS |
8.1. | Major trends: transition from add-on to embedded |
8.2. | Major trends: the rise of flexible OLED displays |
9. | OTHER OLED DISPLAY CAPABILITIES |
9.1. | Under/in- display fingerprint sensors require OLED panel |
9.2. | Latest feature: flat panel speaker |
9.3. | Samsung's display integrated sound receiver |
10. | FLEXIBLE OLED DISPLAYS: COMPANY ACTIVITY |
10.1. | Global OLED Production Lines |
10.2. | Samsung Display (SDC) |
10.3. | Samsung demonstrates rollable and stretchable display |
10.4. | Samsung |
10.5. | LG Display (LGD) |
10.6. | LG Display: Large area, transparent and flexible OLED display |
10.7. | BOE |
10.8. | BOE: Flexible OLED displays |
10.9. | BOE: flexible and printed OLED displays |
10.10. | Ink-jet printed display from BOE |
10.11. | Tinama's flexible OLED display technology |
10.12. | Visionox: ultra flexible OLED displays |
10.13. | JOLED's flexible OLED display technology |
10.14. | JDI |
10.15. | AUO |
10.16. | Changhong |
10.17. | Skyworth |
10.18. | Royole |
10.19. | Denso |
10.20. | Duskan: leading HTL supplier in OLED display industry |
11. | OLED DISPLAYS: MARKET SEGMENTATION AND FORECASTS |
11.1. | OLED Display Market 2017-2018 by Value and SQ Meters |
11.2. | OLED Display Forecasts 2020-2030 by Value |
11.3. | OLED Display Forecasts 2020-2030 by Area (Sq Meters) |
11.4. | OLED Display Forecasts 2020-2030, Panel Numbers by Form Factor (Rigid versus Flexible) |
11.5. | OLED Displays for Tablets and Computers 2020-2030, by number of units, form factor and value |
11.6. | OLED Displays for TV 2020-2030, by number of units, form factor and value |
11.7. | OLED Displays for TV: Outlook |
11.8. | OLED Displays for TV |
11.9. | OLED Displays for Automotive 2020-2030, by number of units, form factor and value |
11.10. | Automotive |
11.11. | OLED Displays for Wearables 2020-2030, by number of units, form factor and value |
11.12. | OLED Displays for Industrial and Professional Equipment 2020-2030, by number of units, form factor and value |
11.13. | OLED Displays for Microdisplays 2020-2030, by number of units, form factor and value |
11.14. | OLED Displays for Other Applications 2020-2030, by number of units, form factor and value |
12. | QUANTUM DOT DISPLAYS |
12.1. | What are quantum dots? |
12.2. | Quantum dots: key characteristics |
12.3. | colour standards for Displays |
12.4. | How LED backlights reduced colour performance |
12.5. | 100% sRGB can be achieved without QD |
12.6. | The challenge of Rec 2020 |
12.7. | Displays: benchmarking various integration methods |
12.8. | Edge optic integration: a technology going obsolete? |
12.9. | Film type integration: growing commercial success but for how long? |
12.10. | Colour filter type: approaching commercial readiness? |
12.11. | On chip integration: improving stability |
12.12. | Emissive type: how far off from commercial readiness? |
12.13. | Key materials: Cd based QDs. Why? |
12.14. | Key issue with Cd based QDs? |
12.15. | Cd free QDs: Narrowing the performance gap |
12.16. | Snapshot of readiness level of various QD applications |
12.17. | Printing in Quantum Dot OLED Hybrid Displays |
12.18. | Ten-year forecast of change in QD technology mix in display sector (%) |
12.19. | Flexible Quantum Dot Displays |
13. | FLEXIBLE ELECTROPHORETIC (E-PAPER) DISPLAYS |
13.1. | Electrophoretic and other bi-stable displays |
13.2. | Electrophoretic e-readers decline - what's next? |
13.3. | The Holy Grail: colour E-paper Displays |
13.4. | New colour display from E Ink without filters |
13.5. | Signage |
13.6. | E ink Holdings |
13.7. | Clearink |
13.8. | The early years of flexible E-ink displays |
13.9. | Flexterra |
14. | FLEXIBLE LCD DISPLAYS |
14.1. | Flexible LCDs |
14.2. | Organic LCD (FlexEnable) |
14.3. | JDI |
14.4. | Flexible LCDs: Conclusions |
15. | OTHER FLEXIBLE DISPLAYS |
15.1. | Electrowetting displays |
15.2. | Electrowetting displays: Liquavista |
15.3. | Electrowetting displays: Etulipa |
15.4. | Electrochromic displays |
15.5. | Ynvisible Electrochromic Displays |
15.6. | AC Electroluminescent displays |
15.7. | EL technology |
15.8. | AC Electroluminescent (EL) Displays |
15.9. | Thermochromic Displays |
16. | FLEXIBLE LIGHTING: LED AND OLED |
16.1. | Value proposition of OLED vs LED lighting |
16.2. | OLED lighting: solid-state, efficient, cold, surface emission, flexible......? |
16.3. | OLED Lighting Status |
16.4. | Cost challenge set by the incumbent (inorganic LED) |
16.5. | Comparing OLED and LED lighting |
16.6. | OLED Lighting is more challenging than OLED displays in terms of lifetime and light intensity requirements |
16.7. | OLED lighting - cost projection |
16.8. | Market announcements |
16.9. | Technology progress |
16.10. | OLED Lighting - market penetration |
16.11. | OLED lighting value chain |
16.12. | S2S Lines: OLEDWorks in Aachen (ex-Phillips line) |
16.13. | S2S lines: LG display: Gen-2 and Gen 5 |
16.14. | R2R line: Konica Minolta |
16.15. | But why is it so difficult to reduce cost? |
16.16. | OLED market forecast |
16.17. | Printed LED lighting |
16.18. | Nth Degree - Printed LEDs |
16.19. | Glossary of Key Terms |
Slides | 315 |
---|---|
Figures | Over 40 |
Forecasts to | 2030 |