Composites Use in Wind/Energy Markets

The wind energy market has long been considered the world’s largest market, by volume, for glass fiber-reinforced polymer (GFRP) composites — and increasingly, carbon fiber composites — as larger turbines and longer wind blades are developed, requiring higher performance, lighter weight materials. The outer skins of wind and tidal turbine blades generally comprise infused, GFRP laminates sandwiching foam core. Inside the blade, rib-like shear webs bonded to spar caps reinforce the structure. Spar caps are often made from GFRP or, as blade lengths lengthen, pultruded carbon fiber for additional strength.

Composites power the energy transition and the AI economy
Wind/Energy

Composites power the energy transition and the AI economy

From record-breaking wind installations to composite conductor cores doubling grid capacity, composites are at the center of the infrastructure driving both clean energy and the digital economy.

READ MORE
supplier of essential composite materials
Powder Coating Composite and Plastic

Latest Wind/Energy Articles

VIEW ALL
Sustainability

Vitrimer Chemistry Brings Reversability to Thermoset Resins

CAMX 2026: Techstorm’s patent-pending vitrimer resin platform is designed to recycle at temperatures as low as 80°C, targeting full recyclability for wind turbine blades.

Read More

ACM CRC to Develop Mass-Producible, High-Temp Composite Sucker Rod Guide Design for Oil and Gas

A UQ and ACM CRC collaboration is engineering sucker rod guides that withstand extreme heat, cut labor by 50% and open new domestic and global markets for Oilfield Piping Systems.

Read More

Concordia University Researchers Present 4D Printing Method for Lighter, Faster-Spinning Composite Wind Blades

An “inverse” design approach achieves curved blades for vertical-axis wind turbines that closely match commercial aluminum turbine blades, weigh ~80% less and are able to rotate faster.

Read More

Avanco Highlights Thermoplastic Composite Type 4.5 Pressure Vessels

SNAPSHOT: Combining a plastic liner with thermoplastic composite (TPC) overwrap matches matrix polymers, enables additional benefits for storage applications.

Read More
Wind/Energy

RA Wind Secures Innovation Norway Funding for Robot-Controlled 3D Printing of Wind Turbine Blades

On-site blade manufacturing is part of a broader goal to cut offshore wind costs by 50% through patented modular turbine design using standard industrial components, robotization and AI.

Read More
Recycling

REWIND Project Demonstrates Potential of EOL Wind Blades as Industrial Resources

As European wind sector’s voluntary landfill ban goes live, pan-European Project demonstrates composite material recovery and predictive model for reclaimed material behavior with 90% accuracy.

Watch
VIRTEK IRIS AI COMPOSITE INSPECTION
Advanced polymeric composites
CONTRAX
Airtech
supplier of essential composite materials

Latest Wind/Energy News And Updates

Recycling

Nova Carbon, CMP Composites partner for closed-loop carbon fiber recycling

SNAPSHOT: The French startup will collect and recycle production offcuts from the regional composites manufacturer on a recurring basis, with recycled fiber already used in small offshore wind turbine blades.

Watch
Wind/Energy

TURBO consortium demonstrates real-time resin monitoring, in-line process control in wind turbine blade infusion

CPI’s wireless sensing platform, integrated with Synthesites process monitoring technology, successfully tracked resin flow and temperature enabling ML-based in-line process control during composite infusion trials at NCC and Siemens Gamesa facilities.

Read More
Carbon Fibers

Strohm enters Egyptian market following TCP flowline contract

Strohm wins its first Egypt contract, supplying a 2,000-meter carbon fiber-reinforced PA12 TCP flowline for the WDDM offshore project at a 600-meter water depth.

Read More
Automation

ROMAIN project validates robotic, prepreg patch repair for wind turbine blades

A developed prepreg-based patching system achieved an estimated 50% reduction in lamination and curing time compared to manual repair techniques, with field validation completed on operating turbines in Spain.

Read More
Electrical

TS Conductor opens $134 million South Carolina facility for AECC conductor cores

Scaled-up production — up to 20-times capacity at full facility buildout — will enable fast, affordable grid expansion across the U.S.

Read More
Wind/Energy

Baker Hughes, Strohm to develop and qualify TPC ultra-deepwater hybrid flexible pipe

Flowlines and risers exceeding 3,000-meter depths will incorporate Strohm’s corrosion-resistant, low-carbon, zero-failure composite technology for 50% lighter weight, drop-in installation. 

Read More
multi-component injection molding process
supplier of essential composite materials
release agents, purging compounds,process aids
DJ Engineering on Thermwood LSAM
advanced materials development

Featured Posts

The Future of CFRP Pressure Vessels: Larger Sizes, Lightweighting, Data Centers and Space

Hexagon Composites discusses the largest Titan 510 Mobile Pipeline, use of thermoplastic composites for lightweighting modules, towpreg, Chinese carbon fiber and growth from data centers and space. 

Watch
Feature

Composite Conductor Cores Boost Capacity, Cut Cost to Help Power Grids Meet AI Demand

Composite cores have evolved to increase conductor capacity 2X and cut transmission losses by up to 50%, achievable within 1-3 years with existing infrastructure, but also enable sensing and smart, adaptive grids.

Read More

Composites end markets: Energy (2026)

Composites continue to drive energy innovations, from new materials and installations of recyclable wind blades to nuclear CMC and offshore oil pipelines.

Watch
Hydrogen Storage

Composite liquid hydrogen tanks without carbon fiber

Fabrum has 20 years of experience with composites in superconductive systems, has proven its patented triple-skin tanks in fast fill plus containment with 20+ hours of idle time, and continues toward certification.

Watch

GA-EMS industrializing SiC/SiC and other CMC via MAITrX facility

Developing materials used across General Atomics, this lab is onshoring nuclear-grade SiC fiber, innovating SiC foam and promoting collaboration to accelerate CMC production and commercialization.

Read More
Carbon Fibers

Report: Composites and Carbon Fiber Use in Hydrogen Storage

A first-of-its-kind technical report that assesses the materials, manufacturing processes, market and energy trends driving use of carbon fiber composites in global hydrogen (H₂) storage applications for fuel cell-powered trucks, buses, trains and passenger vehicles.   

Read More
advanced materials development
CAMX 2026
supplier of essential composite materials

FAQ: Wind/Energy

What are wind turbine blades made from?

  • The outer skins of wind and tidal turbine blades generally comprise infused, GFRP laminates sandwiching foam core. Inside the blade, rib-like shear webs bonded to spar caps reinforce the structure. Spar caps are often made from GFRP or, as blade lengths lengthen, pultruded carbon fiber for additional strength.
  • Source: Composites end markets: Renewable energy

What energy applications are composites used for?

In renewable energy, fiberglass composites are used, most prominently, to build wind turbine blades and nacelles. Carbon fiber composites are also used to build wind blade spar caps. Hydroelectric turbines, tidal energy turbines and other forms of renewable energy have also made use of composites.

In oil and gas, composites have long been used as a corrosion-resistant metal alternative for a number of applications, including components for protecting wellheads, manifolds and other equipment related to subsea processing, and offshore pipelines themselves.

What happens to wind blades at the end of their lifespan?

As wind energy ramps up, recycling of composite wind blades at their end of life (EOL) – as well as composites and plastics recycling in general – continues to be a topic of concern.

More than 80% of a wind turbine itself is typically metallic and recyclable, but the increasingly long, high-performance composite blades pose more of a challenge.

Efforts include:

      • Near-term: Ramping up existing recycling methods like mechanical chopping up blades or repurposing entire blades for other uses
      • Medium-term: Developing more efficient methods such as chemical recycling (solvolysis) for reclaiming the original fibers from EOL blades for reuse
      • Long-term: Designing and manufacturing wind blades with sustainable/recyclable materials

Source: Moving toward next-generation wind blade recycling

CONTRAX