This report is no longer available. Click here to view our current reports or contact us to discuss a custom report.
If you have previously purchased this report then please use the download links on the right to download the files.
1. | EXECUTIVE SUMMARY |
1.1. | Introduction to multifunctional polymer composites |
1.2. | Status of multifunctional composites by application |
1.3. | What is structural electronics? |
1.4. | Multifunctional composite forecasts |
1.5. | What is the end goal? |
2. | INTRODUCTION TO FIBER REINFORCED POLYMERS |
2.1. | Introduction to composites |
2.2. | Composite combinations |
2.3. | Innovations at each step to manufacture an FRP part |
2.4. | Main CFRP players |
2.5. | Global forecast for carbon fiber |
3. | INCORPORATION OF FUNCTIONAL MATERIALS: NANOCARBON AND METALLIZATION |
3.1. | Role of nanocarbon as additives to FRPs |
3.2. | Routes to incorporating nanocarbon material into composites |
3.3. | Types of nanocarbon additives: CNT |
3.4. | CNT market and main players |
3.5. | Trends and players for CNT sheets |
3.6. | Types of nanocarbon additives: CNT yarns |
3.7. | Nanocarbon as fiber sizings |
3.8. | Types of nanocarbon additives: Graphene |
3.9. | Types of nanocarbon additives: Graphene platelets |
3.10. | Graphene main players |
3.11. | Introduction to incorporating metal to polymer composites |
3.12. | Embedded metal foils and meshes |
3.13. | Metallized fiber and fabrics for composites - copper |
3.14. | Metallized fiber and fabrics for composites - nickel |
3.15. | Incorporation of metal nanowires |
4. | ENHANCED ELECTRICAL AND THERMAL CONDUCTIVITY |
4.1. | Key drivers for electrical conductivity enhancements |
4.2. | Routes to electrically conductive composites |
4.3. | Technology adoption for electrostatic discharge of composites |
4.4. | Lightning Strike Protection |
4.5. | EMI shielding |
4.6. | Nanocarbon for enhanced electrical conductivity - CNTs |
4.7. | Nanocarbon for enhanced electrical conductivity - Graphene |
4.8. | Enhanced thermal conductivity - application overview |
4.9. | Composite de-icing - introduction |
4.10. | Composite de-icing strategies - overview |
4.11. | Composite de-icing strategies - comparison |
4.12. | Electrothermal de-icing - fixed wing aircraft |
4.13. | Electrothermal de-icing - helicopters |
4.14. | Electrothermal de-icing - Nanocarbon patents |
4.15. | Electrothermal de-icing - CNT research |
4.16. | Electrothermal de-icing - Graphene research |
4.17. | Electromechanical expulsion - de-icing composites |
4.18. | Thermomechanical expulsion - de-icing composites |
4.19. | EU projects related to De-Icing |
4.20. | De-icing wind turbines |
4.21. | Composite material with embedded de-icing technology market forecast |
4.22. | Heated composites tooling |
4.23. | Conductive composites for thermal dissipation |
4.24. | Pitch-based carbon fiber for higher thermal conductivity |
4.25. | Nanocomposites for enhanced thermal conductivity - CNTs |
4.26. | Nanocomposites for enhanced thermal conductivity - graphene |
5. | EMBEDDED SENSORS |
5.1. | Embedded sensors for structural health monitoring of composites - introduction |
5.2. | Embedded sensors for structural health monitoring of composites - types |
5.3. | Embedded sensors for structural health monitoring of composites - methods |
5.4. | Comparison of fiber optic sensors (FOS) for composite SHM |
5.5. | Advancements in FBG sensors for composites |
5.6. | Coating FBG for inclusion in a composite part |
5.7. | Advancements in distributed FOS |
5.8. | Interrogator for FOS in composite SHM |
5.9. | Piezoelectric embedded wafers and nano-fibres |
5.10. | Embedded piezoelectric transducers for NDT |
5.11. | Continuous Vacuum Monitoring for aerospace SHM |
5.12. | Printed sensors for SHM |
5.13. | Nanocarbon Sensors for embedded SHM |
5.14. | Utilising the structural fibers for sensing |
5.15. | Aerospace incorporation for SHM |
5.16. | SHM for wind turbine blades |
5.17. | Composite sensors for the oil & gas sector |
5.18. | Embedding sensors in composite overwrapped pressure vessels |
5.19. | Sensing infusion and curing in composite manufacturing |
5.20. | Patent Analysis |
5.21. | Market Forecast |
6. | ENERGY STORAGE AND HARVESTING |
6.1. | Embedded energy storage for multifunctional composites |
6.2. | Introduction to structural energy storage |
6.3. | Composites with Li-ion embedded batteries |
6.4. | Lessons from Formula E |
6.5. | Utilisation of thin film batteries for embedded energy storage |
6.6. | Stanford University - MES composite |
6.7. | Carbon fiber is useable as an electrode |
6.8. | Evolution and status of structural composite batteries |
6.9. | Chalmers University and KTH - coated fibers |
6.10. | Structural composite supercapacitor - main components |
6.11. | Electrolyte options for supercapacitors |
6.12. | Imperial College London - carbon aerogels |
6.13. | Lamborghini Terzo Millennio - MIT research |
6.14. | BAE Systems - composite supercapacitor and batteries |
6.15. | Significant technology demonstrators |
6.16. | IMDEA - Structural EDLC |
6.17. | Metal oxide nanowires for structural supercapacitors |
6.18. | Structural composite hybrid energy storage |
6.19. | Key challenges still to be tackled |
6.20. | Embedding energy storage conclusions |
6.21. | Energy harvesting introduction |
6.22. | Solar Skins |
6.23. | Embedded Piezoelectric fibers |
6.24. | Other embedded harvesters. |
7. | ADAPTIVE RESPONSE MECHANISMS |
7.1. | Introduction |
7.2. | Applications and Challenges |
7.3. | Morphing wings timeline |
7.4. | Introduction to modes of active morphing |
7.5. | Piezoelectric Actuator Materials |
7.6. | Piezoelectric actuators for morphing composites |
7.7. | Shape Memory Alloys |
7.8. | Electroactive polymer composites |
7.9. | Flexsys - adaptive compliant wing |
7.10. | Active morphing airfoil |
7.11. | Active winglets |
7.12. | Corrugated Morphing Skins |
7.13. | Passive Morphing |
7.14. | Response to UV-light |
7.15. | Bend-Twist coupling |
8. | SELF-HEALING COMPOSITES |
8.1. | Routes to "self-healing" composite parts |
8.2. | Self-healing through rapid polymerisation |
8.3. | Self-healing through reversible crosslinkers |
9. | DATA AND POWER TRANSMISSION |
9.1. | Data and power transmission - introduction |
9.2. | Utilising surface waves for internal data transmission |
9.3. | Coated carbon fibers for data transmission |
9.4. | Horizontally aligned CNTs for data transmission |
9.5. | Embedded wireless sensor networks |
10. | FULLY-INTEGRATED 3D ELECTRONIC SYSTEMS IN COMPOSITE PARTS |
10.1. | What is the end goal? |
10.2. | What is in-mold electronics (IME)? |
10.3. | IME: 3D friendly process for circuit making |
10.4. | Molding electronics in 3D shaped composites |
10.5. | 3D Printing of functional fibers |
10.6. | 3D Printing of composites with embedded sensors - generative design and SHM |
10.7. | 3D Printing of Structural Electronics |
11. | COMPANY PROFILES |
11.1. | Acellent Technologies |
11.2. | Bekaert |
11.3. | Continuous Composites |
11.4. | DexMat |
11.5. | Imperial College Composites Centre |
11.6. | Inca Fiber |
11.7. | N12 Technologies |
11.8. | Tortech Nano Fiber |
11.9. | TWI |
11.10. | Villinger R&D |
スライド | 201 |
---|---|
企業数 | 8 |
フォーキャスト | 2029 |