Composite Materials for Green Energy Markets 2026-2046: Sustainable Technologies, Players & Trends
Reinforced polymer composites (carbon fiber, glass fiber) for wind turbines, EV batteries, hydrogen pressure vessels, solar panels; sustainable composite manufacturing; interviews with key industry players; granular 20-year forecasts
显示全部
说明
内容、图表列表
常见问题解答
价格
Related Content
Composite materials have long played a transformative role across industries, enabling high-performance, lightweight solutions in aerospace, automotive, and construction. More recently, they are becoming pivotal to the green energy transition. With increasing pressure on industries to meet decarbonization goals and sustainability targets, fiber-reinforced polymer (FRP) composites, particularly glass and carbon fiber-based systems, are finding new applications in renewable energy infrastructure. From wind turbine blades and EV battery casings to hydrogen storage tanks and tidal energy systems, composites are being leveraged to improve performance, extend system lifetimes, and reduce costs.
IDTechEx's report "Composite Materials for Green Energy Applications 2026-2046: Trends, Technologies & Sustainability Outlook" provides a comprehensive assessment of composite material applications in green energy, evaluating market trends, technical specifications, and regulatory influences that are driving material adoption. Benchmarking of material innovations, sustainability progress, and application requirements helps to formulate granular 20 year forecasts for the use of composites across key renewable energy technologies, with the market predicted to exceed US$78 billion by 2046.
The green energy applications of composites covered in this report
Composites Enabling Green Energy Technologies
Wind energy remains one of the most established sectors for composite deployment, with FRPs used extensively in the manufacturing of turbine blades. Continuous improvements in fiber architecture and resin systems, combined with advancements in blade manufacturing processes, have enabled the production of longer and more durable blades. This has allowed wind turbines to scale from modest outputs to capacities exceeding 15 MW. As global wind power capacity continues to expand, so too does the demand for high-performance composites.
In electric vehicles (EVs), polymer composites are contributing to critical lightweighting efforts aimed at improving range and drivetrain efficiency. Both glass and carbon fiber-reinforced composites are being adopted for battery enclosures by major automakers including Volkswagen, Kia, and General Motors. These materials offer strength and stiffness with minimal added weight, but challenges persist in areas such as thermal management and electromagnetic interference (EMI) shielding - key concerns in mitigating battery fire risk. IDTechEx's report explores the material innovations underway to address these technical hurdles, including advanced fibers and resins and multi-material designs.
Carbon fiber composites are also playing a central role in the expansion of the hydrogen economy. Their high strength-to-weight ratio and corrosion resistance make them ideal for manufacturing pressure vessels used in hydrogen storage and transport. As the market shifts toward larger, lighter, and more efficient storage systems, composite adoption is increasing, especially with the development of linerless Type V pressure vessels, which eliminate the need for metallic linings and enable even further weight reduction.
Beyond these headline applications, composite materials are also being adopted in other renewable energy domains. Solar panel frames are beginning to incorporate composites to reduce weight and increase resistance to corrosion and mechanical fatigue. In marine energy, including tidal and wave power systems, FRP components offer low maintenance requirements and high performance in harsh environments. In geothermal installations, composite piping and casing systems are being deployed in corrosive subsurface conditions where traditional steel alternatives underperform.
Composites Face Sustainability and Material Circularity Challenges
Despite their many performance advantages, composite materials, particularly those based on thermosetting resins, face significant sustainability challenges. Traditional thermoset based FRPs are notoriously difficult to recycle due to their covalently crosslinked polymer matrices, which resist breakdown and require high-energy recycling for material recovery. As global regulatory bodies tighten controls on waste and emissions, manufacturers are under growing pressure to develop more circular composite solutions.
One response has been the development of recyclable resin systems, including thermoplastic matrices and next-generation thermosets such as vitrimers. Vitrimer resins, which incorporate dynamic covalent bonding, offer a promising balance between performance and recyclability. Companies such as Westlake Epoxy and Techstorm are actively developing these materials for commercial-scale applications.
Additionally, the use of bio-based materials and natural fiber reinforcements is gaining momentum in low- and medium-performance applications where environmental impact is prioritized over extreme mechanical performance. While limitations in moisture resistance and mechanical strength preclude their use in critical structural components such as turbine blades, natural fiber composites are increasingly used in automotive interiors, consumer goods, and non-load-bearing infrastructure.
Regulatory Pressures Accelerating Sustainable Innovation
Governmental and regulatory initiatives are playing a crucial role in driving the shift toward sustainable composite solutions. The wind and automotive sectors are especially affected, given their high volumes of composite waste and the environmental risks associated with end-of-life materials. In Europe, several nations - including Germany, France, and the Netherlands - have enacted legislation restricting the landfilling of wind turbine blades. The EU's broader Waste Framework Directive further mandates member states to implement robust waste reduction and material recovery programs throughout product life cycles. As these regulations tighten, the adoption of recyclable and bio-based composites is set to accelerate.
Market Outlook
The future of composite materials in green energy is one of rapid growth, driven by the twin imperatives of performance and sustainability. The need for lighter, stronger, and longer-lasting components is increasing across every major renewable energy segment. At the same time, environmental mandates are accelerating the development and adoption of recyclable and bio-derived alternatives.
With in-depth analysis of fiber and resin technologies, application-specific requirements, and global market dynamics, IDTechEx's latest report offers critical insight into the evolving role of composites in the green energy transition. As industries race to meet their climate targets, composite materials will remain a key enabler - shaping the technologies that power a cleaner, more sustainable future
Key Aspects
This report provides critical market analysis of the sustainable composites market along with detailed assessment of the green energy applications of composite materials. This includes:
In depth review of the fiber reinforced composite materials market
- Assessment of raw materials and the entire composite material value chain, including for carbon fiber and glass fiber reinforced polymer composites
- Analysis of the traditional and emerging manufacturing methods for fiber reinforced polymer composites
Detailed analysis of the key and emerging trends for sustainable composite
- Review of the methods to recycle composite materials, along with benchmarking of the major players developing recycling technologies
- Outline of the major regulatory trends driving sustainable innovations for composite materials
- Assessment of recyclable composite material technologies and players developing recyclable resin systems
- Coverage of the bio-based composite material markets and benchmarking of systems
Assessment of the major green energy applications for fiber reinforced polymer composites
- Review of the traditional and emerging applications including electric vehicle battery covers, hydrogen pressure vessels, wind turbines, solar power, tidal power and geothermal power
- Assessment of the key material requirements and trends for each application
Market analysis throughout
- Detailed assessment of the sustainable composite materials market, including company profiles
- Forecasts for the green energy applications of composites for the period 2026-2046 segmented by application area and composite type
- In depth cost analysis of carbon fiber and glass fiber reinforced polymers helps to formulate market revenue for the next 20 years
| Report Metrics | Details |
|---|---|
| Historic Data | 1990 - 2024 |
| CAGR | The global composites for green energy market is predicted to reach over US$78 billion by 2046, growing at a CAGR of 9% from 2026. |
| Forecast Period | 2026 - 2046 |
| Forecast Units | Market demand (metric tons), Market values (US$) |
| Segments Covered | Composite material demand segmented by carbon fiber and glass fiber reinforced polymers (EV battery covers, hydrogen fuel cell EV pressure vessels, wind turbine blades, solar panels), composite market value by application, composite material waste production (wind turbine blades) |
从 IDTechEx 访问分析师
所有报告购买订单均包括与一名专家分析师进行 30 分钟的电话交谈，专家分析师将帮助您将报告中的重要发现与您正在处理的业务问题联系起来。这需要在购买报告后的三个月内使用。
更多信息
| 1. | EXECUTIVE SUMMARY |
| 1.1. | Report introduction |
| 1.2. | Overview of the composite materials market |
| 1.3. | Introduction to composite materials |
| 1.4. | Glass fiber vs Carbon fiber reinforced polymers |
| 1.5. | Thermoset vs thermoplastic composites |
| 1.6. | Composite material suppliers |
| 1.7. | Overview of manufacturing methods for composite materials |
| 1.8. | Volume of composite materials reaching end of life |
| 1.9. | Sustainable composites market drivers: Government regulation |
| 1.10. | Composite End-of-Life Pathways |
| 1.11. | Why is composite recycling traditionally challenging and limited? |
| 1.12. | Companies working to recycle end of life composites - Development stage |
| 1.13. | Overview of the types of sustainable composite materials discussed in this report |
| 1.14. | Comparison of recyclable and traditional resin systems |
| 1.15. | Recyclable resin systems - market landscape |
| 1.16. | Natural fibers offer light weighting incentives but lower mechanical strengths |
| 1.17. | Bio resins can act as drop-in replacements to traditional synthetic resins |
| 1.18. | Composites for green energy applications |
| 1.19. | Thermal resistance remains a concern for composite EV battery casings |
| 1.20. | Composites are enabling growth of the hydrogen economy |
| 1.21. | Wind turbine blade waste is set to grow significantly |
| 1.22. | The major companies developing recyclable resins for the wind turbine blade market |
| 1.23. | GFRP composites could be a promising alternative to aluminium solar frames |
| 1.24. | Tidal turbines require high durability marine-grade composites |
| 1.25. | Significant improvements to composite thermal stability are required for geothermal applications |
| 1.26. | Composite material demand for green energy forecast |
| 1.27. | Composite material revenue for green energy forecast |
| 1.28. | Outlook for sustainable composite materials |
| 1.29. | Outlook for sustainable composites continued |
| 1.30. | Outlook for composite materials for green energy |
| 1.31. | Outlook for composite materials for green energy continued |
| 2. | MARKET FORECASTS |
| 2.1. | Methodology and assumptions |
| 2.2. | Composites for green energy applications market demand |
| 2.3. | Composites for green energy applications market value |
| 2.4. | Composites for electric vehicle battery casing demand |
| 2.5. | Composites for electric vehicle battery casings revenue |
| 2.6. | Composites for FCEV hydrogen pressure vessels demand |
| 2.7. | Composites for FCEV hydrogen pressure vessels revenue |
| 2.8. | Composites for wind turbine blades demand |
| 2.9. | Composites for wind turbine blades revenue |
| 2.10. | Composite wind turbine blade waste forecast |
| 2.11. | Composites for solar panel demand |
| 2.12. | Composites for solar panel revenue |
| 3. | INTRODUCTION TO COMPOSITE MATERIALS |
| 3.1. | Overview of the composite materials market |
| 3.2. | Overview of composite materials |
| 3.3. | Why are composite materials useful? |
| 3.4. | Definition of terms used in this report (I) |
| 3.5. | Definition of terms used in this report (II) |
| 3.6. | Key factors influencing composite properties |
| 3.7. | Composite reinforcement materials |
| 3.8. | Overview of carbon fiber |
| 3.9. | Overview of glass fiber |
| 3.10. | Fiber forms (I) |
| 3.11. | Fiber forms (II) |
| 3.12. | Polymer matrix composites (PMC) and resin systems |
| 3.13. | Overview of resin systems (I) |
| 3.14. | Overview of resin systems (II) |
| 3.15. | Glass fiber vs Carbon fiber reinforced polymers |
| 3.16. | Thermoset vs thermoplastic composites |
| 3.17. | Composite material uses |
| 3.18. | Composites for green energy applications |
| 3.19. | Introduction to sustainable composites |
| 3.20. | Overview of the types of sustainable composite materials discussed in this report |
| 3.21. | Sustainable composites market drivers: Government regulation |
| 3.22. | Volume of composite materials reaching end of life |
| 3.23. | Composite End-of-Life Pathways |
| 4. | COMPOSITE MATERIALS AND MANUFACTURING |
| 4.1. | Composite materials and manufacturing routes influence end product properties |
| 4.2. | Fiber Reinforcement Properties |
| 4.3. | Cost of Fiber Reinforcements |
| 4.4. | Innovations to lower the cost and energy intensity of carbon fiber manufacturing |
| 4.5. | Types of resin systems |
| 4.6. | Materials for Composite Cores |
| 4.7. | Material suppliers |
| 4.8. | Overview of the composite manufacturing value chain |
| 4.9. | Overview of manufacturing methods for composite materials |
| 4.10. | Pre-Preg Composites - Fabric type |
| 4.11. | Hand Lay-up / Wet Lay-up |
| 4.12. | Spray Lay-up |
| 4.13. | Injection molding |
| 4.14. | Compression molding |
| 4.15. | Resin Transfer molding (RTM) |
| 4.16. | Vacuum Assisted Resin Transfer molding (VARTM) |
| 4.17. | Pultrusion |
| 4.18. | Filament Winding |
| 4.19. | Autoclave Curing (Prepreg Lay-up) |
| 4.20. | Automated fiber placement - streamlining composite manufacturing |
| 4.21. | Comparison of traditional composite manufacturing methods |
| 5. | METHODS TO RECYCLE COMPOSITE COMPONENTS |
| 5.1. | Introduction to recycling composites |
| 5.2. | Why is composite recycling traditionally challenging and limited? |
| 5.3. | Desire for a circular economy |
| 5.4. | Global Composite and Solid Waste Regulations (I) |
| 5.5. | Global Composite and Solid Waste Regulations (II) |
| 5.6. | Global Composite and Solid Waste Regulations (III) |
| 5.7. | Life Cycle Analysis (LCA) |
| 5.8. | Material Traceability - Implementation of digital product passports |
| 5.9. | The four types of recycling: Process definitions |
| 5.10. | Composite End-of-Life Pathways |
| 5.11. | What is mechanical recycling? |
| 5.12. | Mechanical recycling of composites - Case studies |
| 5.13. | What is Thermal Recycling - Pyrolysis? |
| 5.14. | Pyrolysis recycling of composites - Case studies |
| 5.15. | What is chemical recycling? |
| 5.16. | Chemical recycling of composites - Case studies |
| 5.17. | Companies working to recycle end of life composites - Development stage |
| 5.18. | Volume of composite materials reaching end of life |
| 5.19. | Acciona - Recycling of end-of life wind turbine blades |
| 5.20. | Cygnet Texkimp's composite recycling technology |
| 5.21. | Vartega- Recycling carbon fiber |
| 5.22. | Composite Recycling - Thermolysis Recycling Technique |
| 5.23. | Fraunhofer's wetlaid facility for carbon fiber processing |
| 5.24. | Anmet - Repurposing and Recycling Wind Turbine Blades |
| 5.25. | ZEBRA project - IRT Jules Verne |
| 5.26. | REFRESH project - circular recycling of composite wind turbine blades |
| 5.27. | Overview of composite recycling companies |
| 5.28. | Overview of composite recycling companies |
| 5.29. | Summary of Composite Recycling |
| 6. | RECYCLABLE COMPOSITES |
| 6.1. | Introduction to recyclable composite materials |
| 6.2. | Recyclable resin systems |
| 6.3. | Dynamic Covalent Bonds for Polymer Reprocessing - Vitrimers |
| 6.4. | Vitrimers SWOT |
| 6.5. | Thermoplastics offer inherent processability |
| 6.6. | Recyclable resin systems - market landscape |
| 6.7. | Evonik - Recyclable foam cores |
| 6.8. | Armacell - Recyclable PET foams |
| 6.9. | Aditya Birla - Recyclamine |
| 6.10. | Arkema - Elium |
| 6.11. | Westlake Epoxy - EpoVIVE |
| 6.12. | Techstorm - Vitrimer Resins |
| 6.13. | Swancor - EzCiclo |
| 6.14. | METOL - CBT/PBT |
| 6.15. | Other companies developing recyclable resins |
| 6.16. | Overview of the companies developing recyclable resin systems |
| 6.17. | Comparison of recyclable and traditional resin systems |
| 6.18. | Summary for recyclable composite materials |
| 7. | BIO-BASED COMPOSITES |
| 7.1. | Introduction to bio-composites |
| 7.2. | Challenges of using bio-composites |
| 7.3. | Natural fibers |
| 7.4. | What are natural fibers? |
| 7.5. | Global production of natural fibers |
| 7.6. | The advantages and disadvantages of natural fiber-based composites |
| 7.7. | Natural fibers require surface modifications for composite use |
| 7.8. | Benchmarking of composite fiber reinforcements |
| 7.9. | Case study: Bio-derived resins with natural fibers |
| 7.10. | Case study: Hemp fibers for bio-composites |
| 7.11. | Natural fiber consortium group |
| 7.12. | Flax-based bio-composites for automotive applications |
| 7.13. | Example Bcomp products at JEC world |
| 7.14. | Ecotechnilin |
| 7.15. | Changchun Bochao Auto Parts |
| 7.16. | Other natural fiber products |
| 7.17. | Natural fibers SWOT |
| 7.18. | Outlook for natural fibers within the green energy transition |
| 7.19. | Bio-Resin Systems |
| 7.20. | Introduction to bio-resin systems |
| 7.21. | What are bio-polymers? |
| 7.22. | Types of bio-resin systems |
| 7.23. | Bio-epoxy resin properties, application and opportunities |
| 7.24. | Bio unsaturated polyester resins |
| 7.25. | Bio PFA resins properties, application and opportunities |
| 7.26. | Bio-polyamide resins |
| 7.27. | Bio-polyurethane resin coatings |
| 7.28. | Could bio-degradable polymers be used for composites? |
| 7.29. | Improving mechanical properties of bio-composites with cellulose additives |
| 7.30. | Overview of the companies supplying bio-resins |
| 7.31. | Westlake Epoxy - EpoVIVE bio epoxy resins |
| 7.32. | Entropy Resins - Bio epoxy |
| 7.33. | Cathay Biotech - Bio polyamide resins |
| 7.34. | Arkema - Bio polyamide resin |
| 7.35. | Applied Bioplastics - Bio-based composites for construction |
| 7.36. | Case studies: Use of bio-resin systems in industry |
| 7.37. | Overview of the companies developing bio-resins for composites (I) |
| 7.38. | Overview of the companies developing bio-resins for composites (II) |
| 7.39. | Outlook for bio-resins for composites |
| 8. | APPLICATIONS FOR COMPOSITES IN GREEN ENERGY |
| 8.1.1. | Composites for green energy applications |
| 8.2. | Composites for EV batteries |
| 8.2.1. | What is an electric vehicle? |
| 8.2.2. | Overview of EV battery components and materials |
| 8.2.3. | What's in an EV Battery Pack? |
| 8.2.4. | Major Challenges in EV Battery Design Overview |
| 8.2.5. | Methods for Materials Suppliers to Improve Sustainability for the OEM |
| 8.2.6. | Battery Pack Enclosures |
| 8.2.7. | Battery Enclosure Materials and Competition |
| 8.2.8. | Requirements for effective battery pack enclosures |
| 8.2.9. | Moving Towards Composite Enclosures |
| 8.2.10. | Are Polymer Composites Suitable Battery Housings? |
| 8.2.11. | Project for Composite EV Battery Enclosure Development |
| 8.2.12. | GFRP Enclosure for HV Battery - Envalior |
| 8.2.13. | Thermoplastic Composite Battery Packs - SABIC |
| 8.2.14. | Sheet molded compounds vs resin transfer or liquid compression molding |
| 8.2.15. | SMC for Battery Trays and Lids - LyondellBasell |
| 8.2.16. | SMC EV Battery Cover - Hankuk Carbon |
| 8.2.17. | Advanced Composites for Battery Enclosures - INEOS Composites / ALTA Performance Materials |
| 8.2.18. | Biobased Battery Pack Enclosure - Cathay Biotech |
| 8.2.19. | Composite EV battery impact protection plate - Autoneum |
| 8.2.20. | Alternatives to Phenolic Resins |
| 8.2.21. | Other composite battery enclosure suppliers |
| 8.2.22. | Examples of composite battery enclosures for EVs |
| 8.2.23. | Battery Enclosure Materials Summary |
| 8.2.24. | Energy Density Improvements with Composites |
| 8.2.25. | Cost Effectiveness of Composite Enclosures |
| 8.2.26. | Fire protection and EMI shielding for composites |
| 8.2.27. | Thermal Runaway and Fires in EVs |
| 8.2.28. | Thermal Runaway in Cell-to-pack |
| 8.2.29. | Fire protection regulations for EV batteries |
| 8.2.30. | Fire Protection Materials: Main Categories |
| 8.2.31. | EMI Shielding for Composite Enclosures |
| 8.2.32. | Integrating EMI shielding in composites - James Cropper |
| 8.2.33. | Flame resistant thermosetting composites - IDI Composites |
| 8.2.34. | Graphite Additives for Reactive Coatings - NeoGraf |
| 8.2.35. | Polymers addressing thermal runaway (1) - Ascend Performance Materials |
| 8.2.36. | Polymers addressing thermal runaway (2) - SABIC |
| 8.2.37. | Polymers addressing thermal runaway (3) - Asahi Kasei |
| 8.2.38. | Flame-retardant Plastics - Covestro |
| 8.2.39. | LG Chem - Fire Protection Plastic and Barrier Materials |
| 8.2.40. | SABIC's Multifunctional PP STAMAX |
| 8.2.41. | Pyrophobic Systems |
| 8.2.42. | CFP Composites |
| 8.2.43. | Elven Technologies |
| 8.2.44. | Nonwoven fabric for thermal runaway protection - Asahei Kasei |
| 8.2.45. | Summary of composites for EV battery packs |
| 8.3. | Composite for Hydrogen Pressure Vessels |
| 8.3.1. | Overview of hydrogen pressure vessels |
| 8.3.2. | Compressed hydrogen storage |
| 8.3.3. | Hydrogen storage tanks |
| 8.3.4. | Stationary storage systems |
| 8.3.5. | Compressed tube trailers |
| 8.3.6. | Compressed storage vessel classification |
| 8.3.7. | Construction materials for Type 3 and 4 vessels |
| 8.3.8. | Applications for Type 3 & 4 tanks |
| 8.3.9. | Players in Type 3 & 4 technologies |
| 8.3.10. | Type 5 hydrogen storage is emerging |
| 8.3.11. | Onboard FCEV tank suppliers |
| 8.3.12. | Material & manufacturing considerations for pressure vessels |
| 8.3.13. | Composite tank failure |
| 8.3.14. | Liner materials for Type III & IV vessels |
| 8.3.15. | Composite material choice for pressure vessels |
| 8.3.16. | Fiber materials for Type III & IV vessels |
| 8.3.17. | Manufacturing composite hydrogen pressure vessels - filament winding |
| 8.3.18. | Automated fiber placement manufacturing - emerging pressure vessel manufacturing technique |
| 8.3.19. | Cryogenic composite tanks for aerospace |
| 8.3.20. | Cevotec - FPP and Filament Winding in Action |
| 8.3.21. | CONBILITY - Machine systems for hydrogen pressure vessel production |
| 8.3.22. | AZL - Hydrogen pressure vessel optimization potential in various materials |
| 8.3.23. | Summary |
| 8.4. | Composites for Wind Energy |
| 8.4.1. | Introduction to the wind energy sector |
| 8.4.2. | European wind energy market |
| 8.4.3. | APAC wind energy market |
| 8.4.4. | Americas wind energy market |
| 8.4.5. | Wind installations by country (I) |
| 8.4.6. | Wind installations by country (II) |
| 8.4.7. | China's dominance of the wind energy sector |
| 8.4.8. | Global approach to wind turbine manufacturing by Chinese players |
| 8.4.9. | Further details on China's global approach |
| 8.4.10. | Traditional wind turbine structure and materials |
| 8.4.11. | Traditional wind turbine blade structure and materials |
| 8.4.12. | Wind turbine blade size growth |
| 8.4.13. | Hybrid carbon/glass fiber wind turbine blades |
| 8.4.14. | Traditional methods to manufacture wind turbine blades |
| 8.4.15. | Advanced manufacturing techniques for wind turbine blades |
| 8.4.16. | Traditional wind turbine blades are inherently difficult to recycle |
| 8.4.17. | Wind turbine end-of-life management - who pays? |
| 8.4.18. | Wind farm end-of-life management - Repowering wind farms |
| 8.4.19. | Wind turbine blade waste is set to grow significantly |
| 8.4.20. | Recyclable resins for wind turbine blades overview |
| 8.4.21. | Comparison of resins for wind turbine blades |
| 8.4.22. | Wind turbine blade supply chain |
| 8.4.23. | Global wind turbine manufacturing capacity by company |
| 8.4.24. | Companies working to recycle wind turbine blades |
| 8.4.25. | RecyclableBlade - Siemens Gamesa |
| 8.4.26. | Biobased and recyclable resins for wind blades - Westlake Epoxy |
| 8.4.27. | EzCiclo recyclable resin for wind turbine blades - Swancor |
| 8.4.28. | Recyclamine recyclable thermoset resin - Aditya Birla |
| 8.4.29. | Elium thermoplastic resin for wind blades - Arkema |
| 8.4.30. | Vitrimer resins enable recyclability and high durability - Techstorm |
| 8.4.31. | Summary of the companies developing recyclable resin systems for wind turbine blades |
| 8.4.32. | Bio-based resins for the wind energy sector |
| 8.4.33. | Exploring circularity in the wind industry - Armacell |
| 8.4.34. | Traditional wind turbine blade materials at JEC World 2025 |
| 8.4.35. | Balsa wood - encouraging the sustainable wood sourcing for wind turbine blades |
| 8.4.36. | Vertical axis wind turbines are better suited to urban use |
| 8.4.37. | Modular wind turbine blades - Carbo4Power |
| 8.4.38. | Summary of Sustainable Composites for Wind Turbine Blades |
| 8.5. | Other renewable energy applications |
| 8.5.1. | Overview of other renewable energy applications of composites |
| 8.5.2. | Composites for Solar Energy |
| 8.5.3. | Introduction to the solar industry |
| 8.5.4. | What is a solar panel? |
| 8.5.5. | Traditional solar panelling materials |
| 8.5.6. | Composite material use for solar energy - moving away from aluminium |
| 8.5.7. | Comparison of composite solar framing vs aluminium frames |
| 8.5.8. | Total cost of ownership by solar frame type |
| 8.5.9. | Glass fiber PU composite frames from solar panels - Covestro |
| 8.5.10. | Carbon fiber for solar energy - Levante |
| 8.5.11. | Bio-based composites for the solar energy industry |
| 8.5.12. | Summary of composites for solar energy |
| 8.5.13. | Composites for Tidal Energy |
| 8.5.14. | Introduction to tidal power |
| 8.5.15. | Types of tidal power systems |
| 8.5.16. | Pros and Cons of tidal power |
| 8.5.17. | Horizontal axis turbines are the primary turbine choice |
| 8.5.18. | Tidal turbine projects and deployments |
| 8.5.19. | Performance and design requirements for tidal turbine hydrofoils |
| 8.5.20. | Composite materials for tidal turbine blades |
| 8.5.21. | Thermoplastic tidal turbines - a recyclable resin alternative |
| 8.5.22. | Resin matrix materials - moisture and corrosion resistance |
| 8.5.23. | Summary of composites for tidal energy |
| 8.5.24. | Composites for Geothermal power |
| 8.5.25. | Introduction to Geothermal Energy |
| 8.5.26. | Geothermal energy installations globally |
| 8.5.27. | Global tectonic plates and boundaries - sources of geothermal energy |
| 8.5.28. | How does geothermal power work? |
| 8.5.29. | Comparison of the types of geothermal power plant |
| 8.5.30. | Geothermal power plant material performance requirements |
| 8.5.31. | The components for geothermal power - composite material options |
| 8.5.32. | The feasibility of all-composite geothermal well pipes |
| 8.5.33. | Huisman composite tubulars |
| 8.5.34. | Composite pipes for low-enthalpy geothermal energy - Future Pipe Industries |
| 8.5.35. | Summary of composites for geothermal energy |
| 8.5.36. | Company Profiles |
Ordering Information
Composite Materials for Green Energy Markets 2026-2046: Sustainable Technologies, Players & Trends
£€$元¥₩
电子版（1-5 名用户）
£5,650.00
电子版（6-10 名用户）
£8,050.00
电子版及 1 份硬拷贝文件（1-5 名用户）
£6,450.00
电子版及 1 份硬拷贝文件（6-10 名用户）
£8,850.00
电子版（1-5 名用户）
€6,400.00
电子版（6-10 名用户）
€9,100.00
电子版及 1 份硬拷贝文件（1-5 名用户）
€7,310.00
电子版及 1 份硬拷贝文件（6-10 名用户）
€10,010.00
电子版（1-5 名用户）
$7,000.00
电子版（6-10 名用户）
$10,000.00
电子版及 1 份硬拷贝文件（1-5 名用户）
$7,975.00
电子版及 1 份硬拷贝文件（6-10 名用户）
$10,975.00
电子版（1-5 名用户）
元50,000.00
电子版（6-10 名用户）
元72,000.00
电子版及 1 份硬拷贝文件（1-5 名用户）
元58,000.00
电子版及 1 份硬拷贝文件（6-10 名用户）
元80,000.00
电子版（1-5 名用户）
¥990,000
电子版（6-10 名用户）
¥1,406,000
电子版及 1 份硬拷贝文件（1-5 名用户）
¥1,140,000
电子版及 1 份硬拷贝文件（6-10 名用户）
¥1,556,000
电子版（1-5 名用户）
₩0
电子版（6-10 名用户）
₩0
电子版及 1 份硬拷贝文件（1-5 名用户）
₩0
电子版及 1 份硬拷贝文件（6-10 名用户）
₩0
Click here to enquire about additional licenses.
If you are a reseller/distributor please contact us before ordering.
お問合せ、見積および請求書が必要な方はm.murakoshi@idtechex.com までご連絡ください。
The composite materials market for green energy is forecast to exceed US$78 billion by 2046.
报告统计信息
| 幻灯片 | 334 |
|---|---|
| 预测 | 2046 |
| 已发表 | Jun 2025 |
预览内容
 Sample pages
|
|
|
Customer Testimonial
"IDTechEx consistently provides well-structured and comprehensive research reports, offering a clear and holistic view of key trends... It's my first go-to platform for quickly exploring new topics and staying updated on industry advancements."