Growing applications across the building, construction and transportation sectors are about to support steady growth of the Glass Fiber Reinforced Polymer (GFRP) composite market over the next few years. GFRP composite, with lower density means lower weight, higher strength to weight ratio, and corrosion resistance in aggressive environments is a material of increasing choice able to be a viable substitute to traditional materials steel and aluminium.
Global demand is likely to grow steadily, the market is projected to grow from USD 21.7 Billion in 2025 to USD 47.3 Billion in 2035, factoring in a compound annual growth rate (CAGR) of 8.1% in the forecast duration. This is assisted by increased investment in renewable energy projects, the design of better infrastructure and manufacturing processes that improve constantly.
A key driver is government policies to cut emissions and incentivize energy efficiency. In automotive and transportation industries, increased application of GFRP composites efforts reducing weight of vehicles, enhancing fuel economy, and aligning strict regulations. Even in the wind power sector, there is significant reliance on these materials to make turbine blades lighter but stronger, making it possible not only to generate energy but also minimize maintenance.
Emerging economies of Asia-Pacific and Latin America are rapidly industrialising and developing infrastructure, which is propelling the GFRP products demand growth in the local construction and energy sectors. GFRP composites with its attractive characteristics (light-weight, corrosion resistance, high tensile strength, etc.) is now on the increase in the construction industry to reinforcing bridges, facades and other load-carrying structures where high durability is paramount.
 Composites Market.png "Glass Fiber Reinforced Plastic (GFRP) Composites Market")
In addition, changing technology such as Decentralized Energy Systems, Self-powering Buildings, and others would change how the energy systems interact amongst the city infrastructure that will demand GFRP system in construction and will provide numerous opportunities for market expansion.
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The global GFRP composites market has a stronghold on North America owing to the presence of major industries in construction, automotive, and wind energy. Region has a robust manufacturing base & is also ongoing push for light weighting in the automotive segment, which continues contributing to GFRP composites demand.
To adhere to tighter standards for fuel efficiency and emissions set by regulators such as the Environmental Protection Agency (EPA) and the National Highway Traffic Safety Administration (NHTSA), major auto makers in the United States and Canada are incorporating GFRP components into vehicle models.
Another major cornerstone is North America's wind energy sector. According to one industry group, the American Wind Energy Association, or AWEA, the demand for wind turbines is expected to be strong for several years, and that demand is driving demand for advanced GFRP materials that enable longer and more efficient turbine blades. From leading global suppliers to cutting-edge research centers, these developments are also further solidifying North America as a top growth market for GFRP composites.
Germany, France, and the United Kingdom lead the way in Europe for the adoption of GFRP composites into transport, renewable energy, and building applications, as the market for those materials matures and expands.
The ambitious objectives of the Green Deal and various regional renewable energy projects have resulted in a boom in investments in wind farms and infrastructure development, leading to a growing demand for composite materials with higher performance. Readers of a certain vintage will recall that the automobile industry - especially that of Germany - is still seeking ways to lighten automobiles and improve fuel economy.
GFRM composites are being used by major automobile companies like Volkswagen and BMW to strengthen vehicle bodies in compliance without emissions regulations of the European Union (EU). The EU has a strong propensity to drive carbon footprints down in every industry so you can expect to see Europe stay as an important player in the global market for GFRP composites.
The use of GFRP rebar’s, panels, and cladding materials is seeing a steady growth in the construction industry due to their corrosion resistance, ability in design flexibility, and lower lifecycle cost. As governments and private builders invest further in sustainable building materials and energy-efficient buildings, the use of GFRP composites in meeting these goals will grow.
GFRP composites market share is projected to witness the highest growth in the Asia-Pacific region, due to rapid industrialization, infrastructure projects, and increased energy demand. Some of the most noteworthy among them, including China, India, Japan, and South Korea, are implementing GFRP material in their major infrastructure upgrades, wind turbine & solar power installations, and transportation networks.
The increased demand for GFRP composites in the wind power industry is driven by China's dominance in this field. The country has ambitious goals for renewable energy capacity and the development of large offshore wind farms, which has increased demand for lighter and tougher turbine blades and structural components. India's emerging construction industry is also rapidly adopting GFRP material for its infrastructure and bridges, as well as urban development, aided on schemes such as "Smart Cities Mission" and investment in affordable housing.
In South Korea and Japan transport industry also witness the high usage of GFRP composites in high-speed trains, electric cars, and airplane components. Further focus on reducing carbon emissions and energy efficiency, these countries are preserving the perfect setting for the actual use of lightweight composite materials.
Aside from aforementioned industries, the booming electronics sector in Asia-Pacific is finding GFRP composites value in printed circuit boards, enclosures, and a host of other items. This is primarily attributed to the superior electrical insulation value, thermal stability, and mechanical properties provided by these composites
Challenges
Opportunities
Between 2020 and 2024, the Glass Fiber Reinforced Plastic (GFRP) composites market experienced significant growth driven by increasig demand for lightweight, high-strength, and corrosion-resistant materials across multiple industries. The automotive, aerospace, construction, and renewable energy sectors heavily adopted GFRP composites due to their superior mechanical properties, durability, and resistance to environmental degradation.
Manufacturers focused on enhancing material strength, thermal stability, and impact resistance to meet evolving industry needs. The shift toward lightweight, fuel-efficient vehicles and aircraft further boosted demand, as regulatory bodies imposed stricter emission norms requiring the adoption of general and advanced materials to improve energy efficiency.
The construction industry emerged as one of the leading consumers of GFRP composites, incorporating them into bridge reinforcement, structural panels, rebar, and corrosion-resistant infrastructure components. Governments and municipal authorities promoted the use of fiber-reinforced materials for long-lasting, maintenance-free construction projects, particularly in marine environments, chemical processing facilities, and high-humidity areas.
The push toward sustainable infrastructure projects led to increased R&D investments in recyclable GFRP materials and eco-friendly resin formulations, reducing the environmental impact of composite production.
Technological advancements played a key role in the market’s expansion, with the development of high-performance thermoplastic composites, automated fiber placement (AFP) techniques, and AI-powered quality control systems.
The adoption of 3D printing technology enabled manufacturers to produce complex, customized GFRP components with enhanced precision and reduced material wastage. Additionally, AI-integrated real-time monitoring systems helped optimize production processes, ensuring consistent quality and reducing defects in composite manufacturing.
Regulatory agencies, including the European Chemicals Agency (ECHA), Environmental Protection Agency (EPA), and Federal Aviation Administration (FAA), introduced stringent guidelines regarding fire resistance, emissions control, and safety compliance for composite materials.
These regulatory shifts prompted manufacturers to develop low-emission resins, flame-retardant GFRP composites, and bio-based reinforcement fibers to meet evolving standards. Companies also focused on reducing styrene emissions and increasing the recyclability of GFRP composites to align with circular economy principles and reduce material waste.
Despite these advancements, the high production costs, recycling challenges, and fluctuating raw material prices posed hurdles to market expansion. The COVID-19 pandemic further disrupted supply chains, leading to shortages of glass fibers, resins, and curing agents, which impacted production volumes.
However, as industries recovered and investments in automation, sustainability, and advanced manufacturing techniques increased, the GFRP composites market continued its upward trajectory. The industry’s push toward cost-effective, high-performance composites paved the way for further innovation and widespread adoption across new application areas.
Between 2025 and 2035, the Glass Fiber Reinforced Plastic (GFRP) composites market will undergo a transformation fueled by AI-driven material innovation, smart composites with embedded sensors, and sustainable manufacturing processes.
Industries will increasingly adopt next-generation GFRP composites that offer self-healing properties, enhanced recyclability, and nanotechnology-based reinforcements for superior mechanical performance. The demand for lightweight, high-strength materials will further accelerate in the electric vehicle (EV) sector, hydrogen-powered transportation, and next-generation aircraft, where reducing weight is critical for improving energy efficiency.
Sustainability will become a major focus, leading to the development of fully recyclable GFRP composites, bio-based resins, and eco-friendly reinforcement fibers. Companies will integrate circular economy principles into composite production, utilizing waste-derived glass fibers, bio-resins, and low-energy curing techniques to minimize the environmental footprint.
Governments and regulatory bodies will enforce stricter compliance standards, requiring manufacturers to transition toward low-emission, energy-efficient, and sustainable composite production methods. The industry will witness a rise in closed-loop recycling systems that allow GFRP materials to be repurposed into new composite structures without degrading their performance.
Advanced AI-powered predictive modeling and machine learning algorithms will revolutionize material design, enabling manufacturers to simulate mechanical behavior, optimize composite formulations, and reduce prototyping costs.
The integration of smart composites embedded with IoT sensors will enhance real-time monitoring capabilities, allowing industries to track material health, detect structural fatigue, and perform preventive maintenance before failures occur. These innovations will be particularly beneficial in aerospace, civil engineering, and wind energy applications, where continuous monitoring of composite integrity is crucial for safety and longevity.
The wind energy sector will emerge as a dominant consumer of GFRP composites, driven by the global shift toward renewable energy sources. Manufacturers will focus on developing ultra-large wind turbine blades reinforced with high-performance glass fiber composites, enhancing efficiency and durability while reducing maintenance costs.
Similarly, next-generation hydrogen storage tanks and pressure vessels will incorporate high-strength GFRP materials, enabling safe and efficient storage solutions for clean energy applications.
The construction industry will continue to adopt GFRP rebars, bridge reinforcement panels, and corrosion-resistant structural elements, replacing traditional steel-based infrastructure components.
The marine and offshore industries will increasingly use GFRP composites for ship hulls, offshore platforms, and subsea pipelines, leveraging their lightweight, non-corrosive properties to improve operational efficiency. Innovations in fire-resistant and high-temperature GFRP composites will further expand their use in high-risk industrial environments, rail transport, and aerospace interiors.
By 2035, robotic-assisted manufacturing, 3D-printed composite structures, and AI-driven material discovery will redefine the GFRP composites market, enabling cost-efficient, high-performance, and sustainable composite solutions.
The combination of nanotechnology-enhanced reinforcements, smart self-monitoring composites, and automated production lines will push the boundaries of material science, unlocking new possibilities across transportation, infrastructure, renewable energy, and defense applications.
Market Shifts: A Comparative Analysis 2020 to 2024 vs. 2025 to 2035
| Market Shift | 2020 to 2024 |
|---|---|
| Regulatory Landscape | Government imposed strict emission norms, fire resistance, and sustainability compliance of composite materials. |
| Technological Advancements | They all improved production efficiency, such as in the case of thermoplastic composites, AI-driven quality control, and automated fiber placement (AFP). |
| Industry Applications | Automotive, aerospace, construction, and wind energy led the demand for GFRP composites. |
| Adoption of Smart Equipment | Manufacturers integrated AI-driven defect detection, automated resin infusion, and 3D printing for complex geometries. |
| Sustainability & Cost Efficiency | Companies focused on reducing styrene emissions, increasing recyclability, and optimizing material formulations. |
| Data Analytics & Predictive Modeling | AI-powered predictive maintenance, structural integrity monitoring, and composite failure simulations improved asset management. |
| Production & Supply Chain Dynamics | COVID-19 disruptions caused raw material shortages, resin supply constraints, and production delays. |
| Market Growth Drivers | Demand surged due to lightweight structural components, emission reduction targets, and infrastructure investments. |
| Market Shift | 2025 to 2035 |
|---|---|
| Regulatory Landscape | Regulatory bodies will mandate full recyclability, low-energy production techniques, and biodegradable composite resins for sustainability. |
| Technological Advancements | The adoption of self-healing composite, nano-reinforced fiber, and IoT-embedded smart material will change up the performance of the materials drastically. |
| Industry Applications | Expansion into hydrogen storage, electric aviation, AI-integrated smart structures, and next-gen infrastructure will drive market growth. |
| Adoption of Smart Equipment | AI-powered robotic manufacturing, digital twin-based material simulations, and smart composite monitoring systems will enhance production efficiency. |
| Sustainability & Cost Efficiency | Development of fully biodegradable GFRP composites, circular economy-based material reuse, and low-energy composite curing will become industry standards. |
| Data Analytics & Predictive Modeling | Machine learning-based material discovery, blockchain-enabled composite traceability, and real-time AI-driven material optimization will revolutionize material science. |
| Production & Supply Chain Dynamics | AI-optimized global supply chains, decentralized composite production hubs, and blockchain-secured material sourcing will improve resilience. |
| Market Growth Drivers | Growth will be driven by smart, self-repairing composites, AI-integrated material monitoring, and next-generation renewable energy solutions. |
United States glass fiber reinforced plastic composite market is expanding with rising automotive light weightening, infrastructure upgrading activity, and composite product demand utilized in wind power application.
With the stringent fuel consumption and emission standards, the USA automotive industry is moving towards light-weight materials as glass fiber reinforced plastic composites substitute metal for car bodies, frames, and even interior components. Large automobile companies such as Ford, General Motors, and Tesla use glass fiber reinforced plastic composites to reduce the quantity of fuel used and offering more protection for cars from crash.
Biden's Infrastructure Investment and Jobs Act worth 1.2 trillion is also driving demand for the applications of glass fiber reinforced plastic composites for use in bridges, pipelines, and mass transit buildings. The corrosion-resistant, long-lasting nature of glass fiber reinforced plastic composite-strengthened concrete structures makes them a popular choice to emerge as an accepted substitute for traditional steel reinforcement material in the country's infrastructure back-yard projects.
Secondarily, increased use of renewable resources has driven demand in the market for wind blades constructed of glass fiber reinforced plastic composites. With expanding offshore wind farms as well as onshore ones, increasing composite technology is being implemented by way of the United States Department of Energy to enhance and extend wind power.
| Country | CAGR (2025 to 2035) |
|---|---|
| USA | 7.2% |
United Kingdom market for glass fiber reinforced plastic composites continues to enhance with development in the technology of aerospace composites, augmented use of green construction, and growing needs of marine end-use.
The UK also hosts high-end-of-the-range aerospace producers such as Rolls-Royce, Airbus, and BAE Systems that are making investments in light composite materials to make aircraft more fuel-efficient and less harmful to the environment through minimized carbon emissions. Glass fiber reinforced plastic composites pervade the wings, fuselage panels, and internal components of aircraft with increased strength and aerodynamic performance.
UK green building projects are also stimulating demand for glass fiber reinforced plastic composites in modular construction, bridge refurbishment, and structural panels. Green building operations and governmental policy push for low-carbon building materials are stimulating growing applications of glass fiber reinforced plastic composites in low-carbon building
Apart from this, the UK sea heavy industry is also seeing increased applications of glass fiber reinforced plastic composite materials in boats, yacht ships, and offshore oil rigs. Glass fiber reinforced plastic composites have improved saltwater corrosion resistance due to their composition, and these are therefore especially well-suited for extended marine use.
With ongoing innovation in aero-space materials, growth in green building, and increasing uses in the marine industry, the UK glass fiber reinforced plastic composites market is expected to experience steady growth.
| Country | CAGR (2025 to 2035) |
|---|---|
| UK | 7.0% |
The market for glass fiber reinforced plastic composites is growing firmly in the European region due to rising demand for lightness in cars, rising investment in wind power, and rising industrial uses.
Since the EU is attempting to reduce carbon emissions, the auto industry is adopting glass fiber reinforced plastic composites at a very rapid rate in order to enhance the efficiency of vehicles. Leading European automakers like Volkswagen, BMW, and Renault are using glass fiber reinforced plastic composites in electric vehicle (EV) bodies to conserve weight and enhance EV battery range.
European wind sector is one of the largest growth impetus areas for glass fiber reinforced plastic composites, where the lead roles of installing offshore wind farms have been played by Denmark, Germany, and Spain. Production of blades by wind turbine firms is finding increasing usage of glass fiber reinforced plastic composites that are contributing towards better efficiency and toughness of the turbine in unfavourable climatic conditions.
Furthermore, the EU focus on green infrastructure is driving applications of glass fiber reinforced plastic composites in buildings, transport, and water treatment facilities. With the increasing demand for material efficiency, extended product lifecycle, and green technologies, the European market for glass fiber reinforced plastic composites will grow exponentially.
| Country | CAGR (2025 to 2035) |
|---|---|
| European Union (EU) | 7.5% |
The Japanese glass fiber reinforced plastic composite market is progressing steadily with the help of advanced technology development of production, increased application in electric vehicles (EVs), and increasing application in aerospace.
Japan has leading automobile manufacturers such as Toyota, Honda, and Nissan that are investing heavily in glass fiber reinforced plastic composite material for light EV body structures. The shift towards clean and efficient transport is driving the application of glass fiber reinforced plastic composites in battery encasings, vehicle body structures, and structural reinforcement.
Japan's space technology is also seeing growing applications of glass fiber reinforced plastic composites in aircraft manufacturing, with Japan's Mitsubishi Heavy Industries and Kawasaki Aerospace being some of the companies manufacturing light-weight, fuel-efficient aircraft components.
Aside from that, Japan's infrastructure development projects are rendering glass fiber reinforced plastic composites fashionable in earthquake-resistant building, bridge, and subway tunnel constructions. Through their resistance to environmental stress and strength, glass fiber reinforced plastic composites are now part of Japan's drive for infrastructure resiliency.
With continuous innovation in material science, growing demand in automotive and aerospace sectors, and increasing focus on infrastructure durability, the Japanese composites glass fiber reinforced plastic market is expected to see sustained growth.
| Country | CAGR (2025 to 2035) |
|---|---|
| Japan | 7.3% |
South Korean glass fiber reinforced plastic composite market is increasing steadily due to the progress of electronics technology, increased investment in wind energy, and widening demand for light-weight materials in the automotive sector.
South Korea, a global electronic manufacturing leader, uses Samsung and LG glass fiber reinforced plastic market composites for strong yet lightweight electronic casings as well as circuit board reinforcement. Usage of highly advanced glass fiber reinforced plastic composites is on the rise with high-temperature-resistant corrosion-free material needs in high-end electronic equipment.
The domestic renewable energy market is also expanding rapidly, with offshore wind farm projects driving the use of glass fiber reinforced plastic composites in turbine blades and structures. The use of glass fiber reinforced plastic composites in turbine blades and support structures.
In addition, South Korean carmakers such as Hyundai and Kia are using glass fiber reinforced plastic market composites in electric and fuel cell cars to improve car performance and fuel efficiency.
With firm government backing of renewable power, high-tech usage in electronics, and increasing investments in light-weight automotive materials, the South Korean glass fiber reinforced plastic market composites market will see a substantial growth.
| Country | CAGR (2025 to 2035) |
|---|---|
| South Korea | 7.4% |
Polyester and epoxy resins occupy a huge market segment of the Glass Fiber Reinforced Plastic (GFRP) composites market because of the industries' affinity for producing products that utilize light, high-strength, and resistant materials to maximize performance, toughness, and efficiency in energy because they are applicable to numerous uses. The resins are used to play a critical function to provide structural reinforcement, chemical protection, and mechanical property enhancement in the automobile, construction building, and wind energy sectors.
The most commonly employed matrix material in GFRP composites nowadays is epoxy resin, possessing satisfactory mechanical properties, chemical resistance, and dimensional stability. Epoxy-type GFRP composites possess improved adhesion, thermal stability, and fatigue behavior compared to traditional materials and are well-suited for structure and high-performance applications.
Growing demand for epoxy resin-based GFRP composite materials in lightening, light-strengthened composites from the aerospace, automotive, and wind industries drove application, with market participants seeking to substitute traditional thermoplastics and metals with corrosion-resistance-based, long-term durable materials. Research has proven that epoxy-based GFRP composite materials enhance impact resistance exponentially, decrease part weights, and enhance energy efficiency, thus attaining enhanced performance while in dynamic operation.
Utilization of epoxy composites in wind turbine blades, aerospace applications, and high-speed rail components has concentrated market demand, as these items require materials with long fatigue life, tensile strength, and environmental stability.
Growing application of epoxy-based GFRP composites in marine, chemical process, and construction sectors has further accelerated the growth of the market, as epoxy resins are more resistant to moisture, inert to chemicals, and provide UV protection, enabling long-term structural integrity in aggressive environments.
The future epoxy formulations with self-healing, bio-based, and improved fire resistance have attained maximum sustainability, safety, and performance to enable wider usage in green industries.
While it has benefits in high-performance applications, epoxy-based GFRP composites also have drawbacks like increased raw material costs, intricate manufacturing, and extended curing times. New rapid-curing epoxy system technologies, AI-based composite material design, and high-tech resin infusion equipment are making production more efficient, cost-saving, and scalable, guaranteeing future market growth for epoxy-based GFRP composites.
Polyester resin has gained general market acceptance, particularly in automotive, construction, and consumer products markets, since companies increasingly utilize low-cost, high-performance GFRP composites for durable, lightweight, and corrosion-resistant applications. Polyester resin-based composites are faster curing than epoxy, less expensive to manufacture, and simpler to process, and thus best suited for mass production and commercial applications.
Increasing uses of durable, weather-resistant materials in building facades, bridges, and industrial components have promoted the use of polyester-based GFRP composites because of their excellent UV resistance, moisture protection, and dimensional stability. Studies indicate that polyester-based composites enhance structural durability, improve impact absorption, and reduce maintenance costs to provide better lifecycle performance.
Expansion in the polyester composite in automotive and marine applications has strengthened the market demand since polyester-based GFRP components offer lightweight strength, better fuel efficiency, and emissions reduction in transport systems.
Innovations in hybrid polyester composite recipes, including reinforced fibers, nanomaterials, and green additives, have also stimulated market demand, as the composites enhance mechanical performance, fire safety, and recyclability, consistent with environmental regulation.
All these advantages in sensitivity to price and flexibility notwithstanding, polyester-based GFRP composites are at a disadvantage in heat resistance being lower, inferior to epoxy in chemical resistance, and being prone to brittleness with excessive stress. Albeit, recent developments in high-performance polyester resin formulation, AI-driven material design optimization, and computerized composite manufacturing processes are improving durability, impact resistance, and scalability, ensuring continued growth of the market for polyester-based GFRP composites.
The transportation industry is among the major consumers of GFRP composites, such as the use of automobile, aviation, and railway companies leveraging fiber-reinforced plastics to the maximum capacity to replace metal parts and upgrade vehicle performance.The GFRP composites possess superior weight-to-strength ratio, corrosion resistance, and design flexibility compared to the traditional materials and can provide ultimate performance in transportation infrastructure.
Increased demand for fuel-efficient, low-emission vehicles has propelled the use of GFRP composites in body panels, structural components, and under-hood applications as auto makers attempt to find lighter weight substitutes to cut carbon emissions and improve fuel efficiency. Studies have revealed that GFRP composites provide a considerable weight reduction to vehicles, improve crash resistance, and reduce production costs, contributing to growing market penetration in the production of electric and hybrid vehicles
Uses of GFRP composites in airframe structures such as fuselage panels, interior fixtures, and landing gear have generated market demand, with market demand from the aircraft industry for light materials in order to achieve optimum fuel efficiency, payload capability, and aerodynamic efficiency.
Greater usage of GFRP composites by high-speed railways and city mass transport systems also boosted the market growth as these are giving protection from vibration, better insulation from heat, and noise reduction, which offer enhanced comfort and energy conservation for passengers.
Though it has an advantage in transport applications, GFRP composites are handicapped by non-recyclability, high cost of production, and unreliability of performance under severe conditions. That is changing with technological developments in AI-based composite material design, self-healing polymer matrix materials, and 3D-printed composite materials that are enhancing cost-effectiveness, longevity, and uptake, guaranteeing sustained market expansion of GFRP composites in transport.
The renewables industry has found high levels of market acceptance, especially among wind turbines, hydroelectric equipment, and solar energy systems, with energy providers increasingly using GFRP composites to achieve maximum material efficiency, minimize maintenance, and deliver higher energy output. GFRP composites exhibit greater durability, corrosion resistance, and light strength compared to other materials, maintaining long-term working conditions under hard environmental conditions.
Growing investment in wind power projects has encouraged applications of GFRP composites for wind turbine blades, nacelle covers, and tower fabrication with manufacturers seeking lighter, strength-rich materials to achieve maximum aerodynamic efficiency and power production capacity. Research indicates GFRP composite wind turbine blades improve energy conversion efficiency, withstand high wind loads, and promote greater operating life, providing improved ROI for renewable energy ventures.
Growing application of GFRP composites in the production of solar panels and hydroelectric power plant equipment has driven market demand as the materials are structurally stable, water protected, and UV stable, ensuring enhanced performance in extreme environmental conditions.
Evolution of hybrid composite systems based on carbon fiber reinforcements, self-healing resins, and high-performance polymer matrices has maximized thermal resistance, mechanical strength, and long-term sustainability, guaranteeing greater efficiency in renewable energy infrastructure.
Though it has the benefits of application in the energy industry, the GFRP composites have drawbacks like high upfront capital expenses, limitations towards recyclability, and material degradation by extreme temperature variations. Yet, advancements in bio-based composites, AI-forecasted structure analysis, and high-tech nanocomposite coatings are increasing sustainability, value for money, and market outreach, and so guaranteeing continuous growth in GFRP composites in renewable energy technologies.
Growing need for lightweight, high-strength, and corrosion-resistant materials in applications such as automotive, aerospace, construction, and renewable energy industries is driving the growth of the Glass Fiber Reinforced Plastic (GFRP) composites market.
High-performance fiber composites, sustainable resin formulations and AI-driven materials optimization are among the innovations that companies are leveraging to make 3D printing mechanics more durable, structures more robust and cost efficiency greater. The report covers both global companies and specific composite material manufacturers
Market Share Analysis by Company
| Company Name | Estimated Market Share (%) |
|---|---|
| Owens Corning | 15-20% |
| Saint-Gobain S.A. | 12-16% |
| Jushi Group Co., Ltd. | 10-14% |
| PPG Industries, Inc. | 8-12% |
| Chongqing Polycomp International Corp. (CPIC) | 5-9% |
| Other Companies (combined) | 40-50% |
| Company Name | Key Offerings/Activities |
|---|---|
| Owens Corning | Develops high-performance glass fiber composites, continuous filament mats, and thermoplastic reinforcement solutions for automotive, wind energy, and infrastructure applications. |
| Saint-Gobain S.A. | Specializes in glass fiber materials, composite laminates, and sustainable GFRP production for construction, transportation, and marine industries. |
| Jushi Group Co., Ltd. | Manufactures high-strength glass fiber reinforcements, chopped strand mats, and woven roving composites for lightweight structural applications. |
| PPG Industries, Inc. | Provides fiberglass-reinforced resins, lightweight composite materials, and automotive-grade fiber reinforcements for improved impact resistance and durability. |
| Chongqing Polycomp International Corp. (CPIC) | Offers GFRP reinforcement solutions for aerospace, automotive, and sporting goods sectors, focusing on high-performance fiber composites. |
Key Company Insights
Owens Corning (15-20%)
Owens Corning dominates the GFRP composites industry with next-generation fiber reinforcements, structural composite solutions, and energy-efficient composite materials. The firm concentrates on sustainable resin formulations and artificial intelligence material performance analytics.
Saint-Gobain S.A. (12-16%)
Saint-Gobain is a technical expert in industrial glass fiber-reinforced composite materials, bridging lightweight structural solutions and resistant high-impact materials.
Jushi Group Co., Ltd. (10-14%)
Jushi Group manufactures high-quality glass fiber reinforcements, chopped strand mats, and roving composites with better tensile strength and chemical resistance.
PPG Industries, Inc. (8-12%)
PPG Industries provides high-performance fiberglass reinforcements and resin-based composite systems, optimizing strength-to-weight ratio in automotive and aerospace applications.
Chongqing Polycomp International Corp. (CPIC) (5-9%)
CPIC produces high-performance GFRP composites, light structural reinforcements, and hybrid fiber materials, targeting next-generation aerospace and transportation composites.
Other Key Players (40-50% Combined)
A number of next-generation composite material producers make significant contributions to future fiber reinforcements, thermoplastic composites, and bio-based resin systems. These include:
Size of the Glass Fiber Reinforced Plastic is USD 21.7 Billion in 2025.
The Glass Fiber Reinforced Plastic was valued at USD 21.3 Billion in 2023 and is projected to USD 47.3 Billion in USD 2035.
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