Wind Turbine Composites Market By Product Type (Glass Fiber Composites, Carbon Fiber Composites, Hybrid Composites, Resin Systems, Core Materials), By Application (Blade Manufacturing, Nacelle Components, Tower Components), By End-Use Industry (Onshore Wind Turbines, Offshore Wind Turbines), and By Region; Global Insights & Forecast (2024 – 2030)

As per Intent Market Research, the Wind Turbine Composites Market was valued at USD 13.9 billion in 2023 and will surpass USD 21.7 billion by 2030; growing at a CAGR of 6.6% during 2024 - 2030.

The wind turbine composites market plays a crucial role in the renewable energy sector, contributing to the development of more efficient, durable, and cost-effective wind turbine components. Composites, including glass fiber, carbon fiber, and hybrid materials, are used extensively in wind turbine blades, nacelles, towers, and other structural parts due to their lightweight, high strength, and resistance to environmental conditions. With the increasing global focus on renewable energy, the demand for advanced wind turbine composites is expected to rise, driven by the growth of both onshore and offshore wind projects. The market is highly dynamic, with advancements in materials technology and innovations designed to improve performance, sustainability, and cost-effectiveness.

Product Type Segment is Largest Owing to Glass Fiber Composites

In the product type segment, glass fiber composites are the largest sub-segment due to their cost-effectiveness and superior mechanical properties for wind turbine applications. Glass fiber composites offer a combination of strength, lightweight characteristics, and resistance to fatigue, making them ideal for large-scale wind turbine blades. This material is used extensively in onshore and offshore wind turbine blades, where it helps optimize energy efficiency while maintaining durability under harsh environmental conditions. As wind turbine size continues to increase to capture more wind energy, the demand for glass fiber composites remains strong, reinforcing its position as the largest sub-segment in the market.

The continued adoption of glass fiber composites is also driven by their relative affordability compared to alternative materials such as carbon fiber. This makes them an attractive option for both established turbine manufacturers and new market entrants looking to balance performance with cost. With technological advancements aimed at further enhancing the properties of glass fiber composites, their demand is expected to continue expanding in the coming years.

Application Segment is Fastest Growing Owing to Blade Manufacturing

Blade manufacturing is the fastest-growing application segment in the wind turbine composites market. The demand for larger, more efficient blades to improve the energy output of wind turbines has led to an increased need for advanced composite materials. The evolution of wind turbine blade design, including longer blades and improved aerodynamics, requires the use of high-performance composites that can provide the necessary strength-to-weight ratio. As turbine manufacturers strive to increase turbine efficiency and performance, composites like glass and carbon fibers are crucial in the production of these larger blades.

This growth is further supported by the rise of offshore wind energy projects, which require even more durable and efficient blades to withstand challenging environmental conditions. Blade manufacturing is becoming more advanced, incorporating hybrid composites that combine the benefits of different materials, resulting in improved strength, longevity, and energy generation capabilities. As the global wind energy industry pushes toward increasing the scalability and performance of turbines, the demand for composite materials in blade manufacturing will continue to accelerate.

End-Use Industry Segment is Largest Owing to Onshore Wind Turbines

The onshore wind turbine sector is the largest end-use industry in the wind turbine composites market. Onshore wind turbines are widely deployed across various regions due to their cost-effectiveness and proven performance. The lower installation and maintenance costs, compared to offshore wind turbines, have made onshore wind farms a preferred choice for many countries aiming to expand their renewable energy capacity. Consequently, the demand for composites used in onshore wind turbine blades, nacelles, towers, and other components remains high.

Onshore wind projects continue to account for the largest share of global wind energy generation, particularly in regions such as North America, Europe, and China. The strong growth in onshore installations, coupled with advancements in turbine technology, is driving the sustained demand for composites in this segment. As countries work toward achieving renewable energy targets, the onshore wind sector will continue to dominate the market for wind turbine composites.

Region Segment is Fastest Growing Owing to Asia-Pacific

Asia-Pacific is the fastest-growing region in the wind turbine composites market. The region's rapid industrialization, coupled with increasing energy demand, has led to substantial investments in renewable energy, particularly in wind power. Countries such as China, India, and Japan are focusing on expanding their wind energy capacity, which has significantly increased the demand for wind turbine components made from advanced composites. In particular, China, as the largest producer and consumer of wind turbines, is driving the market's growth in the region.

The Asia-Pacific region’s commitment to achieving renewable energy targets, along with favorable government policies, is fostering rapid expansion in wind turbine installations, both onshore and offshore. With the region's significant potential for wind energy generation, Asia-Pacific is expected to continue leading the global wind turbine composites market in terms of growth rate.

Competitive Landscape and Leading Companies

The competitive landscape of the wind turbine composites market is characterized by the presence of several key players that are focused on enhancing their product offerings through technological innovation, mergers and acquisitions, and partnerships. Leading companies in the market include Vestas Wind Systems, Siemens Gamesa Renewable Energy, LM Wind Power, TPI Composites, and Hexcel Corporation. These companies are heavily involved in the research and development of new composite materials, such as hybrid composites, to improve the performance of wind turbines.

The competition in the market is intensifying as companies strive to address the growing demand for larger, more efficient wind turbines. This has led to a focus on developing high-performance materials that provide the necessary strength, lightness, and durability to withstand the forces acting on wind turbine components, particularly in offshore environments. As the market continues to expand, collaborations and strategic partnerships will play a crucial role in maintaining competitiveness and driving innovation in wind turbine composite materials.

List of Leading Companies:

  • GE Renewable Energy
  • Siemens Gamesa Renewable Energy
  • Nordex SE
  • Vestas Wind Systems
  • Suzlon Energy
  • LM Wind Power
  • Mitsubishi Heavy Industries
  • TPI Composites
  • Saint-Gobain Vetrotex
  • Toray Industries
  • Hexcel Corporation
  • Teijin Limited
  • SGL Carbon
  • Jushi Group
  • Owosso Motor Car Company

Recent Developments:

  • GE Renewable Energy and LM Wind Power have announced the launch of a new, sustainable blade material, designed to reduce production costs and increase blade efficiency for both onshore and offshore turbines.
  • Siemens Gamesa has entered into a partnership with Toray Industries to advance the use of carbon fiber composites in wind turbine blades, aiming to reduce weight and improve blade performance for larger turbines.
  • Vestas Wind Systems unveiled a new offshore turbine blade design that incorporates hybrid composite materials, aimed at improving energy output and reducing the environmental impact of turbine manufacturing.
  • TPI Composites has expanded its manufacturing facilities to meet the increasing demand for wind turbine blades, particularly for offshore installations, further solidifying its position in the global market.
  • Nordex SE has completed the acquisition of advanced composite blade manufacturing technology, enhancing its capabilities in producing high-efficiency wind turbine blades for both onshore and offshore applications.

Report Scope:

Report Features

Description

Market Size (2023)

USD 13.9 Billion

Forecasted Value (2030)

USD 21.7 Billion

CAGR (2024 – 2030)

6.6%

Base Year for Estimation

2023

Historic Year

2022

Forecast Period

2024 – 2030

Report Coverage

Market Forecast, Market Dynamics, Competitive Landscape, Recent Developments

Segments Covered

Wind Turbine Composites Market By Product Type (Glass Fiber Composites, Carbon Fiber Composites, Hybrid Composites, Resin Systems, Core Materials), By Application (Blade Manufacturing, Nacelle Components, Tower Components), By End-Use Industry (Onshore Wind Turbines, Offshore Wind Turbines)

Regional Analysis

North America (US, Canada, Mexico), Europe (Germany, France, UK, Italy, Spain, and Rest of Europe), Asia-Pacific (China, Japan, South Korea, Australia, India, and Rest of Asia-Pacific), Latin America (Brazil, Argentina, and Rest of Latin America), Middle East & Africa (Saudi Arabia, UAE, Rest of Middle East & Africa)

Major Companies

GE Renewable Energy, Siemens Gamesa Renewable Energy, Nordex SE, Vestas Wind Systems, Suzlon Energy, LM Wind Power, Mitsubishi Heavy Industries, TPI Composites, Saint-Gobain Vetrotex, Toray Industries, Hexcel Corporation, Teijin Limited, SGL Carbon, Jushi Group, Owosso Motor Car Company

Customization Scope

Customization for segments, region/country-level will be provided. Moreover, additional customization can be done based on the requirements

1. Introduction

   1.1. Market Definition

   1.2. Scope of the Study

   1.3. Research Assumptions

   1.4. Study Limitations

2. Research Methodology

   2.1. Research Approach

      2.1.1. Top-Down Method

      2.1.2. Bottom-Up Method

      2.1.3. Factor Impact Analysis

  2.2. Insights & Data Collection Process

      2.2.1. Secondary Research

      2.2.2. Primary Research

   2.3. Data Mining Process

      2.3.1. Data Analysis

      2.3.2. Data Validation and Revalidation

      2.3.3. Data Triangulation

3. Executive Summary

   3.1. Major Markets & Segments

   3.2. Highest Growing Regions and Respective Countries

   3.3. Impact of Growth Drivers & Inhibitors

   3.4. Regulatory Overview by Country

4. Wind Turbine Composites Market, by Product Type (Market Size & Forecast: USD Million, 2022 – 2030)

   4.1. Glass Fiber Composites

   4.2. Carbon Fiber Composites

   4.3. Hybrid Composites

   4.4. Resin Systems

   4.5. Core Materials

5. Wind Turbine Composites Market, by Application (Market Size & Forecast: USD Million, 2022 – 2030)

   5.1. Blade Manufacturing

   5.2. Nacelle Components

   5.3. Tower Components

   5.4. Other Structural Parts

6. Wind Turbine Composites Market, by End-Use Industry (Market Size & Forecast: USD Million, 2022 – 2030)

   6.1. Onshore Wind Turbines

   6.2. Offshore Wind Turbines

7. Regional Analysis (Market Size & Forecast: USD Million, 2022 – 2030)

   7.1. Regional Overview

   7.2. North America

      7.2.1. Regional Trends & Growth Drivers

      7.2.2. Barriers & Challenges

      7.2.3. Opportunities

      7.2.4. Factor Impact Analysis

      7.2.5. Technology Trends

      7.2.6. North America Wind Turbine Composites Market, by Product Type

      7.2.7. North America Wind Turbine Composites Market, by Application

      7.2.8. North America Wind Turbine Composites Market, by End-Use Industry

      7.2.9. By Country

         7.2.9.1. US

               7.2.9.1.1. US Wind Turbine Composites Market, by Product Type

               7.2.9.1.2. US Wind Turbine Composites Market, by Application

               7.2.9.1.3. US Wind Turbine Composites Market, by End-Use Industry

         7.2.9.2. Canada

         7.2.9.3. Mexico

    *Similar segmentation will be provided for each region and country

   7.3. Europe

   7.4. Asia-Pacific

   7.5. Latin America

   7.6. Middle East & Africa

8. Competitive Landscape

   8.1. Overview of the Key Players

   8.2. Competitive Ecosystem

      8.2.1. Level of Fragmentation

      8.2.2. Market Consolidation

      8.2.3. Product Innovation

   8.3. Company Share Analysis

   8.4. Company Benchmarking Matrix

      8.4.1. Strategic Overview

      8.4.2. Product Innovations

   8.5. Start-up Ecosystem

   8.6. Strategic Competitive Insights/ Customer Imperatives

   8.7. ESG Matrix/ Sustainability Matrix

   8.8. Manufacturing Network

      8.8.1. Locations

      8.8.2. Supply Chain and Logistics

      8.8.3. Product Flexibility/Customization

      8.8.4. Digital Transformation and Connectivity

      8.8.5. Environmental and Regulatory Compliance

   8.9. Technology Readiness Level Matrix

   8.10. Technology Maturity Curve

   8.11. Buying Criteria

9. Company Profiles

   9.1. GE Renewable Energy

      9.1.1. Company Overview

      9.1.2. Company Financials

      9.1.3. Product/Service Portfolio

      9.1.4. Recent Developments

      9.1.5. IMR Analysis

    *Similar information will be provided for other companies 

   9.2. Siemens Gamesa Renewable Energy

   9.3. Nordex SE

   9.4. Vestas Wind Systems

   9.5. Suzlon Energy

   9.6. LM Wind Power

   9.7. Mitsubishi Heavy Industries

   9.8. TPI Composites

   9.9. Saint-Gobain Vetrotex

   9.10. Toray Industries

   9.11. Hexcel Corporation

   9.12. Teijin Limited

   9.13. SGL Carbon

   9.14. Jushi Group

   9.15. Owosso Motor Car Company

10. Appendix

A comprehensive market research approach was employed to gather and analyze data on the Wind Turbine Composites Market. In the process, the analysis was also done to analyze the parent market and relevant adjacencies to measure the impact of them on the Wind Turbine Composites Market. The research methodology encompassed both secondary and primary research techniques, ensuring the accuracy and credibility of the findings.

Research Approach -

Secondary Research

Secondary research involved a thorough review of pertinent industry reports, journals, articles, and publications. Additionally, annual reports, press releases, and investor presentations of industry players were scrutinized to gain insights into their market positioning and strategies.

Primary Research

Primary research involved conducting in-depth interviews with industry experts, stakeholders, and market participants across the E-Waste Management ecosystem. The primary research objectives included:

  • Validating findings and assumptions derived from secondary research
  • Gathering qualitative and quantitative data on market trends, drivers, and challenges
  • Understanding the demand-side dynamics, encompassing end-users, component manufacturers, facility providers, and service providers
  • Assessing the supply-side landscape, including technological advancements and recent developments

Market Size Assessment

A combination of top-down and bottom-up approaches was utilized to analyze the overall size of the Wind Turbine Composites Market. These methods were also employed to assess the size of various subsegments within the market. The market size assessment methodology encompassed the following steps:

  1. Identification of key industry players and relevant revenues through extensive secondary research
  2. Determination of the industry's supply chain and market size, in terms of value, through primary and secondary research processes
  3. Calculation of percentage shares, splits, and breakdowns using secondary sources and verification through primary sources

Bottom Up and Top Down -

Data Triangulation

To ensure the accuracy and reliability of the market size, data triangulation was implemented. This involved cross-referencing data from various sources, including demand and supply side factors, market trends, and expert opinions. Additionally, top-down and bottom-up approaches were employed to validate the market size assessment.

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