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Carbon Fiber Adoption in Wind Turbine Blades to Grow Significantly

On June 24, Astute Analytica, a global analyst and consulting firm, published an analysis of the global carbon fiber in wind turbine rotor blades market, 2024-2032 report. According to the report’s analysis, the global carbon fiber in wind turbine rotor blades market size was approximately $4,392 million in 2023, while it is expected to reach $15,904 million by 2032, growing at a CAGR of 15.37% during the forecast period of 2024-2032.

The core points of the report regarding the application of carbon fiber in wind turbine blades include the following sections:

  • By region, the Asia-Pacific carbon fiber market for wind power is the largest in 2023, accounting for 59.9%;
  • By wind turbine blade size, carbon fiber has a high application proportion of 38.4% in the size of 51-75 m blades;
  • From the perspective of application parts, the application proportion of carbon fiber in wind turbine blade wing beam cap is as high as 61.2%.

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The main trends in the development of wind turbine blades in recent years include:

  1. Technological advances in manufacturing: continuous improvements in carbon fiber production processes and material properties;
  2. Increasing blade length: the demand for longer and lighter blades is growing in order to improve energy capture and efficiency;
  3. Regional market growth: driven by rising energy demand and government support policies, the market in the Asia-Pacific region has expanded significantly.

The most significant challenges to the application of carbon fiber in wind turbine blades include the following:

  1. High initial investment costs: carbon fiber production and integration into wind turbines requires significant capital;
  2. Supply chain and raw material availability, which requires a continuous supply of high quality carbon fiber materials;
  3. Technical and manufacturing barriers: challenges in scaling up production and reducing costs to compete with traditional materials such as glass fiber.

About 45% of new wind turbine blades built in 2024 are made of carbon fiber, and 70% of new offshore wind installations on board in 2023 use carbon fiber blades

Total global installed capacity exceeds 1 TW by 2023.This rapid expansion underscores the industry’s key role in advancing renewable energy solutions to combat climate change, and one of the key drivers behind its high growth rate is the growing demand for more efficient and durable materials in wind turbine construction, particularly carbon fiber for rotor blades.

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The superior properties of carbon fiber materials as compared to traditional glass fibers are driving the surge in demand for carbon fibers for wind turbine rotor blades. Carbon fiber has a high strength-to-weight ratio, which is critical for improving the performance and longevity of wind turbines.Around 45% of newly manufactured rotor blades in 2024 were made with carbon fiber, a 10% increase from the previous year. This trend is driven by the need to produce larger, more efficient turbines capable of generating higher outputs; in fact, the average capacity of turbines has risen to 4.5 megawatts (MW), an increase of 15 percent from 2022.

Astute Analytica’s in-depth analysis of the carbon fiber in wind turbine blades market reveals several key statistics that underscore the high growth trend of carbon fiber in this segment. Notably, the global wind energy capacity has reached 1,008 GW, an increase of 73 GW in 2023 alone. around 70% of new offshore wind installations in 2023 (totaling 20 GW) use carbon fiber blades due to their enhanced resistance to harsh marine environments. In addition, the use of carbon fiber has been shown to extend the life of blades by 30% and reduce maintenance costs by 25%, a key factor for industry stakeholders aiming to optimize operational efficiency.

In addition, policy incentives and government mandates to achieve carbon neutrality by 2050 have accelerated investment in upgrading existing wind farms, with 50% of retrofit projects in 2023 involving the replacement of fiberglass blades with carbon fiber alternatives.

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Carbon fiber airfoil caps are key to improving wind turbine efficiency, with 70% of new wind turbine blades expected to have carbon fiber airfoil caps by 2028

Thanks to the superior specific strength and durability of carbon fiber spar caps, a study shows that carbon fiber spar caps can improve blade performance by up to 20%, resulting in longer blades and higher energy capture. Carbon fiber spar caps have played a critical role in the 30% increase in wind blade length over the past decade.

carbon fiber spar caps

Another reason for using carbon fiber spar caps in wind turbine blades is that it reduces the weight of the blade by 25%, which reduces material and transportation costs. In addition, the fatigue life of the carbon fiber spar cap is 50% higher than conventional materials, which reduces maintenance costs and extends the life of the turbine.

As the wind industry works to meet global renewable energy targets, the adoption of carbon fiber wing and spar caps will increase further. It is estimated that 70% of new wind turbine blades will have carbon fiber spar caps by 2028, compared to 45% in 2023. This shift is expected to drive a 22% increase in overall turbine efficiency. With advances in carbon fiber technology increasing the strength of the material by 10 percent and reducing its environmental impact by 5 percent, the field of airfoil caps is expected to dominate and revolutionize wind turbine design, ensuring a sustainable and efficient future for renewable energy.

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51-75 m wind turbine blades dominate the global carbon fiber wind turbine blade market, and the use of carbon fiber blades can increase power generation by 25 percent

Driven by the quest for efficiency, durability and performance, the 51-75 meter carbon fiber segment of the wind turbine blade market has become a dominant force in carbon fiber. The unique properties of carbon fiber make it an ideal material for this size category. The material’s high strength-to-weight ratio is five times that of steel, significantly reducing the total weight of the blade, resulting in improved energy capture and efficiency. This length segment represents the sweet spot where the balance between material cost and performance is optimized, and carbon fiber blades have a 60% market share in this category.

The economics of wind energy have further contributed to the popularity of carbon fiber in this sector. The higher initial cost of carbon fiber is offset by its long life and reduced maintenance. Blades made of carbon fiber have a 20% longer service life in the range of 51-75 meters compared to blades made of conventional materials. In addition, the life cycle cost of these blades is reduced by 15% due to fewer replacements and repairs. In terms of energy output, turbines with carbon fiber blades in this length range can generate up to 25% more electricity, resulting in a faster return on investment. Market data shows that carbon fiber adoption in this segment has grown by 30% per year over the past five years.

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Carbon fiber in wind turbine blades market dynamics are also influenced by the demand for sustainable and renewable energy sources, with wind energy projected to supply 30% of the world’s electricity by 2030. 51-75 m blades are particularly suited for offshore wind farms, where larger and more efficient turbines are critical. Deployment of offshore installations using carbon fiber blades has increased by 40%, driven by government policies and subsidies aimed at reducing carbon footprints. The dominance of this market segment is further underscored by carbon fiber’s 50% contribution to the overall growth of the wind industry, making carbon fiber not just a material choice, but a cornerstone of the future energy infrastructure.

Asia-Pacific’s wind power surge makes it a dominant force in carbon fiber for wind turbine blades

Driven by the booming wind energy industry, Asia Pacific has emerged as a major consumer of carbon fiber for wind turbine blades. With over 378.67 GW of installed wind power capacity in 2023, the region accounts for nearly 38% of the global wind power installed capacity. China and India are the leaders, with China alone contributing a staggering 310 GW, or 89% of the region’s capacity.

In addition, China is a world leader in onshore wind turbine nacelle assembly, with an annual capacity of 82 GW. As of June 2024, China has installed 410 GW of wind energy. The region’s aggressive renewable energy goals, driven by growing energy demand and environmental commitments, require advanced and efficient technologies.

The Asia-Pacific region has leading carbon fiber manufacturers, ensuring a stable supply of carbon fiber and technological innovation. The lightweight nature of carbon fiber allows for larger rotor diameters and improved energy capture efficiency. This has resulted in a 15% increase in energy output for new installations compared to conventional materials. With wind power capacity predicted to grow by 30% by 2030, the adoption of carbon fiber in wind turbines will continue to rise in the Asia-Pacific region.

 

 

Shanghai Orisen New Material Technology Co., Ltd
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Email: grahamjin@jhcomposites.com
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Post time: Jul-18-2024