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1. | EXECUTIVE SUMMARY |
1.1. | Introduction |
1.2. | Types of active glass |
1.3. | Passive versus active smart glass |
1.4. | Physical principles |
1.5. | Main market categories, drivers and technologies |
1.6. | Ten year market outlook of smart glass |
1.7. | Volumetric market outlook |
1.8. | Global smart glass market in 2018 and 2028 |
1.9. | Assumptions and analysis |
1.10. | Price assumptions |
1.11. | Drivers |
1.12. | Primary needs |
1.13. | Past forecasts from the industry |
1.14. | IDTechEx past forecast |
1.15. | Progress is being made |
2. | INTRODUCTION |
2.1. | Smart glass technologies |
2.2. | Temperature responsive materials |
2.3. | Chromogenic and Light Scattering Phenomena |
2.4. | Mature electrically-active glass technologies |
2.5. | Making transparent materials electrically active |
2.6. | Basic configurations |
2.7. | Smart glass for structural electronics |
2.8. | Overview of market drivers |
2.9. | Barriers to adoption |
3. | ARCHITECTURAL GLASS MARKET |
3.1. | Glass Windows - from structural to functional elements |
3.2. | Float glass markets: smart glass context |
3.3. | Float glass market |
3.4. | Building glass market |
3.5. | Drivers in architectural markets |
3.6. | Building-Integrated photovoltaics |
3.7. | Buildings have a major impact on energy consumption |
3.8. | Building-Integrated Photovoltaics |
3.9. | LEED certification |
3.10. | Combinations of smart glass |
3.11. | Samsung OLED window |
4. | AUTOMOTIVE GLASS MARKET |
4.1. | Glass technology for automotive and transport |
4.2. | Consolidation of automotive glass manufacturers in the market |
4.3. | The global glazing alliances |
4.4. | Smart glass in transport |
4.5. | Opportunity: smart glass in electric and hybrid vehicles |
4.6. | China car market dominates |
4.7. | Drivers and trends for automotive smart glass |
4.8. | Value-added features for cars |
4.9. | Large smart windows for autonomous buses and taxis |
4.10. | Smart glass to enable moving / commuter work rooms |
4.11. | Case-study: IFEVS solar-only microcars Italy |
4.12. | Electrochromic glass adoption in transport segment |
4.13. | Avionic electrochromic glass |
4.14. | Smart glass installations in aircraft |
5. | ELECTRONIC SHADING |
5.1. | Electronic shading technologies |
5.2. | Electrochromic glass markets |
5.3. | Electrochromic technology is the dominant smart glass |
5.4. | Technology comparison |
5.5. | Optofluidic Smart Glass |
5.6. | Electronic shading for marine applications |
6. | ELECTROCHROMIC GLASS |
6.1. | Introduction |
6.2. | Multi-layer structure |
6.3. | Basic principle |
6.4. | Counter electrode layer developments |
6.5. | List of thin-film materials |
6.6. | Options for transparent conducting films |
6.7. | Generations of electrochromic glass |
6.8. | Performance of electrochromic glass generations |
6.9. | First generation electrochromic glass |
6.10. | Limitations of first generation electrochromics |
6.11. | Manufacturing process |
6.12. | Electrochromic window manufacturing process |
6.13. | Improvements to electrochromic devices |
6.14. | Second generation electrochromic devices |
6.15. | Third generation electrochromic devices |
6.16. | Basic principle of third generation electrochromics |
6.17. | Transmittance spectra of third generation electrochromics |
6.18. | Third generation electrochromic devices |
6.19. | Institute of Science of Materials from the Autonomous University of Barcelona |
6.20. | Metal nanowires for electrochromic glass |
6.21. | Flexible electrochromic technology |
6.22. | Argil |
6.23. | Argil electrochromic glass advantages |
6.24. | Argil EC Film |
6.25. | Comparison of Argil multilayer structure |
6.26. | Process and value chain entry for Argil |
6.27. | Electrochromic glass markets |
6.28. | Electrochromic glass: markets, trends and applications |
6.29. | Electrochromic glass: markets, trends and applications |
6.30. | Market share |
6.31. | The trend for larger installations |
6.32. | Demand for residential projects? |
6.33. | Drivers |
6.34. | LEED certification |
6.35. | Annual capacity comparison |
6.36. | Production capacity by region |
6.37. | Production capacity by region in 2015 |
6.38. | Advantages of electrochromic glass |
6.39. | Case study: Spirit Lake Casino |
6.40. | Electrochromic glass trend for aerospace |
7. | LIQUID-CRYSTAL GLASS |
7.1. | Liquid-crystal micro droplet films and glass |
7.2. | Multi-layer structure of liquid crystal glass |
7.3. | On and off states |
7.4. | Comparison of liquid-crystal technologies |
7.5. | Scienstry third generation PDLC |
7.6. | NPDLC non-linear refractive index |
7.7. | Performance improvements of NPDLC |
7.8. | Optical data of NPDLC glass |
7.9. | Applications |
7.10. | Price |
7.11. | NPDLC projects |
7.12. | Scienstry: Swift 141 cruise ship with NPDLC glass |
7.13. | Scienstry: circle-vision 350 degree display |
8. | SUSPENDED PARTICLE DEVICES |
8.1. | Suspended particle devices |
8.2. | Multi-layer structure |
8.3. | Performance |
8.4. | Applications and markets |
8.5. | Daimler: Magic Sky Control |
9. | SEMI-TRANSPARENT PV |
9.1. | Overview of technologies |
9.2. | PV technology overview |
9.3. | Emerging transparent solar technologies |
9.4. | Comparison of efficiencies |
9.5. | Case study: smartflex solar facades |
10. | CONVENTIONAL PV EMBEDDED IN GLASS |
10.1. | Solaria: basic principle |
10.2. | Polysolar |
10.3. | Market commentary |
10.4. | DSSC in greenhouses |
10.5. | LUMO technology |
10.6. | LUMO Si + TLSC |
11. | TRANSPARENT LUMINESCENT SOLAR CONCENTRATORS (TLSCS) |
11.1. | Solar concentrator: basic principle |
11.2. | Case study: Physee |
11.3. | Case study: noise barrier solar concentrators |
11.4. | University of Exeter's Solar Squared Solar Cells 2017 |
12. | QUANTUM DOT TLSCS |
12.1. | Quantum dot solar concentrators: basic principle |
12.2. | Quantum dot solar concentrators |
12.3. | Quantum dot solar market |
12.4. | Latest review on quantum dot PV technologies |
12.5. | Quantum dot solar concentrators: SWOT analysis |
12.6. | Case study: Los Alamos |
12.7. | Case study: UbiQD |
12.8. | Case study: Solterra |
12.9. | Magnolia Solar Corporation |
12.10. | Universities of Minnesota and Milano Bicocca advance |
12.11. | QD Solar announcement in 2017 |
12.12. | Thin transparent films could improve solar cells |
12.13. | Light-guiding solar concentrators - ITRI Taiwan |
13. | PEROVSKITES |
13.1. | Perovskites: basic principle |
13.2. | Perovskites have great potential |
13.3. | Perovskite solar spectrum |
13.4. | Oxford PV: tandem solar cells |
13.5. | Potential for perovskite PV in windows |
13.6. | Three in one smart window by NREL |
14. | ORGANIC PHOTOVOLTAICS (OPV) |
14.1. | OPV: basic principle |
14.2. | Development of OPVs |
14.3. | OPV has issues of price and lowest efficiency |
14.4. | Case-study: Ubiquitous Energy |
14.5. | Drivers |
14.6. | Case-study: Kolon Industries |
15. | OLED LIGHTING |
15.1. | Transparent OLED lighting |
15.2. | OLED: price outlook |
15.3. | OLED: Functions |
15.4. | Transparent OLED in vehicles |
15.5. | OLED Market penetration |
15.6. | Technology Progress |
15.7. | OLED Lighting Value Chain |
16. | SUMMARY AND CONCLUSIONS |
17. | COMPANY PROFILES |
17.1. | Argil |
17.2. | Brite Solar |
17.3. | ChromoGenics |
17.4. | Heliatek |
17.5. | Heliotrope |
17.6. | Kinestral |
17.7. | Oxford PV |
17.8. | Physee |
17.9. | Pleotint |
17.10. | Polysolar |
17.11. | Scienstry |
17.12. | Solaria |
17.13. | SolarWindow |
17.14. | SPD Control Systems |
17.15. | Sunpartner |
17.16. | UbiQD |
17.17. | Ubiquitous Energy |
17.18. | View Inc |
スライド | 261 |
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企業数 | 18 |
フォーキャスト | 2028 |