Wind Turbine Composite Materials Market

Wind Turbine Composite Materials Market Analysis and Forecast by Fiber Type, Resin Type, Production Method, Application, Region, and Country, 2023-2033

Composite Materials Drive Wind Turbine Efficiency, Propelling Market Growth Globally

Category: Chemicals & Materials Published Date : Oct-23 ID: CVC0184 Format: PDF Pages: 300


The wind turbine composite materials market is undergoing significant changes, powered by technological innovations and their pivotal role in enhancing wind turbine efficiency. As essential components of wind energy generation, these materials are reshaping the renewable energy sector and opening new growth prospects worldwide. This report aims to provide a comprehensive overview of the wind turbine composite materials market forecast, trends, and potential areas of expansion. From key industry players shaping the market to demand dynamics across various applications, we will explore multiple aspects to offer valuable insights into the market’s future.

Key Findings in the Wind Turbine Composite Materials Market

  • The market value is projected to rise from $ 11,508.1 million in 2023 to $ 25,076.2 million in 2033.
  • The Compound Annual Growth Rate (CAGR) for this period is estimated at 8.1%.
  • Wind turbine blades represent the largest application segment, accounting for 73.8% of the market.

Drivers in the Wind Turbine Composite Materials Market

One of the primary drivers in the wind turbine composite materials market is the increasing demand for renewable energy sources, particularly wind power. Composite materials are crucial in making wind turbine blades lighter and more durable, contributing to higher energy conversion efficiency. As the world transitions towards cleaner energy solutions, wind turbines play a pivotal role, and composite materials are at the forefront of this transformation.

Another significant driver is the ongoing research and development in composite material technologies. Companies are actively working on developing advanced composites that can withstand harsh environmental conditions, resulting in longer-lasting and more efficient wind turbines. This focus on innovation is expected to drive market growth as wind energy continues to gain prominence.

Challenges in the Wind Turbine Composite Materials Market

One challenge facing the market is the cost of advanced composite materials. While these materials offer improved performance, they can be more expensive to manufacture. Companies are working on cost-effective production methods to address this challenge, but it remains an important consideration for the industry.

Additionally, recycling and sustainability are growing concerns. Disposing of or recycling composite materials at the end of a wind turbine’s life cycle can be complex. Developing sustainable recycling processes and reducing the environmental impact of composites will be critical for long-term market sustainability.

Untapped Opportunities in the Wind Turbine Composite Materials Market

The market presents opportunities in the development of composite materials that are not only high-performing but also eco-friendly and recyclable. Innovations in composite recycling methods and circular economy practices can create new revenue streams. As the wind energy sector expands globally, there is room for growth in manufacturing and supplying composite materials for wind turbine components beyond just blades.

Segment-wise Analysis

Wind Turbine Composite Materials Market, By Application

  • Wind Turbine Blades
  • Nacelles
  • Tower Components
  • Others

The market is segmented based on applications, with wind turbine blades being the dominant segment. Composite materials are extensively used in the construction of longer and more efficient blades. Nacelles and tower components also rely on composite materials for their structural integrity and lightweight properties.

Wind Turbine Blades: This segment is the largest and most significant in the wind turbine composite materials market. Composite materials, such as fiberglass and carbon fiber-reinforced polymers, are extensively used in the construction of wind turbine blades. These materials offer the advantages of lightweight properties and high strength, making them crucial for designing longer and more efficient blades. Wind turbine manufacturers continuously seek advanced composite materials to enhance blade performance, ultimately improving energy conversion efficiency.

Nacelles: The nacelles segment is another key application area for composite materials. Nacelles house critical components of a wind turbine, including the gearbox, generator, and control systems. Composite materials are utilized in nacelle construction due to their structural integrity, corrosion resistance, and lightweight properties. Their contribution to reducing the overall weight of the nacelle helps improve turbine efficiency and energy output.

Tower Components: Composite materials play a vital role in tower construction. While towers themselves are often made of steel or concrete, composite materials find use in tower components like flanges, access doors, and ladder systems. The use of composites in tower components helps in reducing overall tower weight and simplifies maintenance, contributing to cost-effective and durable wind turbines.

Region-Wise Insights

North America Wind Turbine Composite Materials Market

North America holds a significant position in the global wind turbine composite materials market, driven by a robust wind energy industry, particularly in the United States. The region’s focus on renewable energy and technological advancements in composite materials contribute to its market dominance.

Europe Wind Turbine Composite Materials Market Forecast

Europe is a key player in the wind turbine composite materials market, with a strong presence in wind energy generation. European countries, such as Germany and Denmark, have extensive wind farms that rely on composite materials for efficient turbine operation.

Asia Pacific Wind Turbine Composite Materials Market Outlook

The Asia Pacific region is experiencing rapid growth in the wind turbine composite materials market, driven by the expansion of wind power projects in countries like China and India. The demand for composite materials in this region is expected to increase significantly.

Latin America Wind Turbine Composite Materials Market

Latin America is an emerging market in the wind turbine composite materials sector, with countries like Brazil and Mexico investing in wind energy infrastructure. This presents opportunities for composite material suppliers to cater to the growing demand in the region.

The Middle East and Africa Wind Turbine Composite Materials Market

The Middle East and Africa region is gradually adopting wind energy solutions, offering potential growth prospects for the wind turbine composite materials market. As wind farms are established in this region, the demand for composite materials is expected to rise.

Key Players Shaping the Wind Turbine Composite Materials Market Outlook

The key players in the market are LM Wind Power, Teijin Limited, Gurit Holding AG, Hexcel Corporation, Toray Industries, Inc., Owens Corning, SGL Carbon, and Huntsman Corporation.

I apologize for the misunderstanding. As of September 2021, here are some key activities, including news, mergers, and acquisitions, related to the key players in the Wind Turbine Composite Materials Market:

LM Wind Power: In 2017, GE Renewable Energy acquired LM Wind Power, strengthening its position in the wind energy industry. LM Wind Power continued to innovate in blade design and materials.

-Teijin Limited: Teijin acquired Renegade Materials Corporation in 2018 to expand its aerospace and advanced composite materials business, which may have implications for its wind turbine composite materials division.

-Gurit Holding AG: Gurit continued to collaborate with wind turbine manufacturers and develop new composite materials for more efficient and reliable wind turbine blades.

– Hexcel Corporation In 2020, Hexcel merged with Woodward, Inc. to create a global integrated systems provider for the aerospace and industrial sectors. This merger could impact Hexcel’s composite materials activities in various industries, including wind energy.

Toray Industries, Inc: Toray expanded its carbon fiber production capacity in 2019 to meet the growing demand for lightweight materials, potentially benefiting the wind turbine composite materials sector.

Owens Corning: Owens Corning maintained its focus on supplying glass fiber reinforcements for composites in various industries, including wind energy.

SGL Carbon: SGL Carbon continued to innovate in carbon-based materials, with applications in various sectors, including wind turbine components.

Huntsman Corporation: Huntsman Corporation provided resin systems and adhesives for wind turbine blade manufacturing and may have been involved in various projects to enhance composite materials.


The Wind Turbine Composite Materials Market, from 2023 to 2033, is marked by transformative growth as advanced composites propel wind energy generation. Driving factors include the global demand for clean energy sources and innovations in composite technologies. Challenges encompass material costs and sustainability concerns, spurring the need for eco-friendly solutions. Opportunities lie in recyclable composites and expanding applications. Key players, such as LM Wind Power and Teijin Limited, actively innovate, while mergers like Hexcel Corporation and Woodward, Inc. reshape the industry landscape.

Explore the expertise of ChemView Consulting, your strategic ally in the dynamic world of the chemical industry. From market analysis to regulatory compliance, we offer comprehensive solutions for your business needs. Stay updated with our latest insights and updates on social media: Facebook and Linkedin

1.1. Global Market Outlook

1.2. Technology Roadmap

1.3. Supply and Demand Side Trends

1.4. Strategic Success Factors

1.5. Analysis and Recommendation

2.1. Market Taxonomy

2.2. Market Definitions

2.3. Inclusions and Limitations

3.1. Supply Side Overview

3.2. Demand Side Overview

4.1. Macroeconomic Factors

4.2. Forecast Factors

4.3. PEST Analysis

4.4. Porter’s Five Forces

4.5. Value Chain Analysis

4.6. Market Dynamics

4.6.1. Drivers

4.6.2. Restraints

4.6.3. Opportunities

4.7. Patent Analysis

4.8. Trade Analysis

4.9. Investment Feasibility Matrix

4.10. Challenges for New Entrants

4.11. Regulations Overview

4.12. Covid-19 Impact Assessment

4.12.1. Economy/Cluster Projections

4.12.2. Covid-19 Economic Assessment

4.12.3. Potential Impact on Target Market

4.12.4. Recovery Scenario

5.1. Historical Value ($ Mn) and Future Market Value ($ Mn) Projection Analysis

5.2. Demand Y-o-Y Growth Rate Analysis

5.3. Total $ Opportunity Analysis

5.4. Historical Volume (Tons) and Future Market Volume (Tons) Projection Analysis

6.1. Regional Pricing Analysis by Source

6.2. Regional Price Forecast

6.3. Profit Margin Analysis

6.4. Future Price Impact Factors

7.1. Introduction

7.2. Market Trends

7.3. Historical Market Analysis and Market Forecast Analysis

7.3.1. Glass Fiber

7.3.2. Carbon Fiber

7.3.3. Other Fibers

7.4. Market Attractiveness Analysis

8.1. Introduction

8.2. Market Trends

8.3. Historical Market Analysis and Market Forecast Analysis

8.3.1. Epoxy Resin

8.3.2. Polyester Resin

8.3.3. Vinyl Ester

8.3.4. Thermoplastic

8.3.5. Polyurethane

8.3.6. Other Resin Types

8.4. Market Attractiveness Analysis

9.1. Introduction

9.2. Market Trends

9.3. Historical Market Analysis and Market Forecast Analysis

9.3.1. Resin Infusion

9.3.2. Hand Lay Up

9.3.3. Prepreg

9.3.4. Integral Blade Vacuum Infusion

9.4. Market Attractiveness Analysis

10.1. Introduction

10.2. Market Trends

10.3. Historical Market Analysis and Market Forecast Analysis

10.3.1. Blade

10.3.2. Spinner

10.3.3. Nacelle Cover

10.3.4. Other

10.4. Market Attractiveness Analysis


11.1. Introduction

11.2. Market Trends

11.3. Historical Market Analysis and Market Forecast Analysis

11.3.1. North America

11.3.2. Latin America

11.3.3. Western Europe

11.3.4. Eastern Europe

11.3.5. East Asia

11.3.6. South Asia Pacific

11.3.7. Middle East and Africa

11.4. Market Attractiveness Analysis by Region

12.1. Introduction

12.2. Key Market Trends

12.3. Pricing Analysis

12.4. Historical Market Analysis and Market Forecast Analysis

12.4.1. By Country The U.S. Canada

12.4.2. By Production Method

12.4.3. By Application

12.4.4. By Fiber Type

12.4.5. By Resin Type

12.5. Market Attractiveness Analysis

12.5.1. By Country

12.5.2. By Production Method

12.5.3. By Application

12.5.4. By Fiber Type

12.5.5. By Resin Type

12.6. Market Participants Presence Mapping

13.1. Introduction

13.2. Key Market Trends

13.3. Pricing Analysis

13.4. Historical Market Analysis and Market Forecast Analysis

13.4.1. By Country Brazil Mexico Rest of L.A.

13.4.2. By Production Method

13.4.3. By Application

13.4.4. By Resin Type

13.4.5. By Fiber Type

13.5. Market Attractiveness Analysis

13.5.1. By Country

13.5.2. By Production Method

13.5.3. By Application

13.5.4. By Resin Type

13.5.5. By Fiber Type

13.6. Market Participants Presence Mapping

14.1. Introduction

14.2. Key Market Trends

14.3. Pricing Analysis

14.4. Historical Market Analysis and Market Forecast Analysis

14.4.1. By Country Germany Italy France U.K. Spain BENELUX Nordics Rest of Western Europe

14.5. By Production Method

14.6. By Application

14.7. By Resin Type

14.8. By Fiber Type

14.9. Market Attractiveness Analysis

14.9.1. By Country

14.9.2. By Production Type

14.9.3. By Application

14.9.4. By Resin Type

14.9.5. By Fiber Type

14.10. Market Participants Presence Mapping

15.1. Introduction

15.2. Key Market Trends

15.3. Pricing Analysis

15.4. Historical Market Analysis and Market Forecast Analysis

15.4.1. By Country Poland Russia Baltics Balkans Rest of Eastern Europe

15.4.2. By Production Method

15.4.3. By Application

15.4.4. By Resin Type

15.4.5. By Fiber Type

15.5. Market Attractiveness Analysis

15.5.1. By Country

15.5.2. By Production Method

15.5.3. By Application

15.5.4. By Resin Type

15.5.5. By Fiber Type

15.6. Market Participants Presence Mapping

16.1. Introduction

16.2. Key Market Trends

16.3. Pricing Analysis

16.4. Historical Market Analysis and Market Forecast Analysis

16.4.1. By Country China Japan South Korea

16.4.2. By Production Method

16.4.3. By Application

16.4.4. By Resin Type

16.4.5. By Fiber Type

16.5. Market Attractiveness Analysis

16.5.1. By Country

16.5.2. By Production Method

16.5.3. By Application

16.5.4. By Resin Type

16.5.5. By Fiber Type

16.6. Market Participants Presence Mapping

17.1. Introduction

17.2. Key Market Trends

17.3. Pricing Analysis

17.4. Historical Market Analysis and Market Forecast Analysis

17.4.1. By Country India ASEAN ANZ Rest of SAP

17.4.2. By Production Method

17.4.3. By Application

17.4.4. By Resin Type

17.4.5. By Fiber type

17.5. Market Attractiveness Analysis

17.5.1. By Country

17.5.2. By Production Method

17.5.3. By Application

17.5.4. By Resin Type

17.5.5. By Fiber Type

17.6. Market Participants Presence Mapping

18.1. Introduction

18.2. Key Market Trends

18.3. Pricing Analysis

18.4. Historical Market Analysis and Market Forecast Analysis

18.4.1. By Country GCC Countries Turkey South Africa Rest of MEA

18.4.2. By Production Method

18.4.3. By Application

18.4.4. By Resin Type

18.4.5. By Fiber Type

18.5. Market Attractiveness Analysis

18.5.1. By Country

18.5.2. By Production Method

18.5.3. By Application

18.5.4. By Resin Type

18.5.5. By Fiber Type

18.6. Market Participants Presence Mapping

19.1. Market Concentration Analysis

19.2. Tier Structure Breakdown

19.3. Market Share Analysis

19.4. Production Capacity Analysis

19.5. Key Strategies Adopted by Top Players

19.6. Start-up Ecosystem

19.6.1. New Player Entry

19.6.2. Strategies Adopted by New Players

19.7. Company Footprint Analysis

19.8. Competitive Dashboard

20.1. Vestas Wind Systems A/S

20.2. TPI Composites, Inc

20.3. Reliance Industries

20.4. Huntsman Corporation

20.5. SGL Carbon

20.6. Owens Corning

20.7. Toray Industries, Inc.,

20.8. Gurit Holding AG

20.9. Teijin Limited

20.10. LM Wind Power

20.11. Hexcel Corporation

20.12. Suzlon Energy Limited

20.13. Enercon GmbH

20.14. Senvion