The global Aerospace Composites Market Study analyzes and forecasts the market size across 6 regions and 24 countries for diverse segments -By Fiber (Carbon Fiber Composites, Ceramic Fiber Composites, Glass Fiber Composites, Others), By Matrix (Polymer Matrix, Ceramic Matrix, Metal Matrix), By Application (Interior, Exterior), By Manufacturing Process (AFP/ATL, Lay-up, Resin Transfer Molding, Filament Winding, Others), By Aircraft (Commercial Aircraft, Business & General Aviation, Civil Helicopter, Military Aircraft, Others).
Aerospace composites are advanced materials composed of two or more constituent materials with significantly different physical or chemical properties, combined to create a high-strength, lightweight structure. These composites offer exceptional strength-to-weight ratios, corrosion resistance, and design flexibility, making them ideal for aerospace applications. The market for aerospace composites is driven by the demand for fuel-efficient aircraft, increased payload capacity, and reduced maintenance requirements. Aerospace composites are used in aircraft structures, engine components, interior panels, and other critical parts, where their superior mechanical properties contribute to improved performance and operational efficiency. Further, advancements in composite manufacturing processes, such as resin infusion, automated lay-up, and additive manufacturing, are expanding the application possibilities and driving down production costs. As aerospace manufacturers to prioritize lightweighting and sustainability, aerospace composites are expected to play a pivotal role in shaping the future of aircraft design and manufacturing.
The market report analyses the leading companies in the industry including Albany Engineered Composites, General Electric Company, Gurit Holding AG, Hexcel Corp, Hyosung, Kineco Kaman, Lee Aerospace inc, Materion Corp, Mitsubishi Chemical Holdings, Nippon Graphite Fiber, Owens Corning, PRF Composite Materials, Quantum Composites, Rolls-Royce, SGL Group, Solvay S.A., Spirit Aerosystems, Teijin Ltd, Toray Industries Inc, Victrex, and others.
A significant market trend for Aerospace Composites is the increasing adoption of lightweight materials in aircraft manufacturing, driven by the need to improve fuel efficiency, reduce emissions, and enhance performance. Aerospace composites, with their high strength-to-weight ratio, durability, and corrosion resistance, are increasingly replacing traditional metallic materials in aircraft structures, components, and interiors. As airlines and aircraft manufacturers strive to meet stringent fuel efficiency standards, lower operating costs, and comply with environmental regulations, there is a growing preference for composites that offer weight savings, aerodynamic efficiency, and structural integrity. This trend reflects a broader industry shift towards lightweighting and material optimization in aerospace manufacturing to address the challenges of rising fuel prices, environmental sustainability, and competitive pressures.
A significant market driver for Aerospace Composites is technological advancements in composite materials, manufacturing processes, and design methodologies, combined with stringent performance requirements for modern aircraft. With continuous research and development efforts, manufacturers are able to engineer composites with improved mechanical properties, fatigue resistance, fire retardancy, and damage tolerance, meeting the rigorous safety, reliability, and regulatory standards of the aerospace industry. Additionally, advancements in manufacturing technologies such as automated layup, resin infusion, and additive manufacturing enable the production of complex composite structures with reduced production time, waste, and cost. The demand for aerospace composites is further driven by performance requirements for next-generation aircraft such as increased range, payload capacity, and operational efficiency, prompting aircraft OEMs and suppliers to incorporate composites into their design and manufacturing processes to meet market demands.
An attractive opportunity in the Aerospace Composites market lies in expanding into emerging applications and markets beyond traditional aircraft structures and components. Sectors such as unmanned aerial vehicles (UAVs), space exploration, urban air mobility (UAM), and defense present promising avenues for the application of aerospace composites. In UAVs and drones, composites offer lightweight, high-strength solutions for airframes, wings, and payloads, enabling longer flight times, higher payloads, and enhanced maneuverability. In space exploration, composites are utilized for spacecraft components, satellite structures, and propulsion systems, providing durability, thermal stability, and radiation resistance in harsh space environments. Additionally, composites are increasingly being used in emerging aerospace markets such as UAM for electric vertical takeoff and landing (eVTOL) vehicles, where lightweight materials are essential for achieving efficiency, range, and safety requirements. By exploring and capitalizing on opportunities in emerging applications and markets, aerospace composite manufacturers can diversify their product portfolio, expand their customer base, and drive innovation in the aerospace industry.
In the Aerospace Composites market segmented by fiber type, the Carbon Fiber Composites segment is the largest category. The large revenue share is primarily due to the exceptional properties and wide-ranging applications of carbon fiber composites in the aerospace industry. Carbon fiber composites offer high strength-to-weight ratio, stiffness, fatigue resistance, and temperature resistance, making them ideal for lightweight structural components in aircraft and spacecraft. These composites are extensively used in aircraft fuselage, wings, empennage, engine components, and interior structures to reduce weight, improve fuel efficiency, and enhance performance. Moreover, carbon fiber composites exhibit excellent fatigue and corrosion resistance, providing long-term durability and reliability in demanding aerospace environments. Additionally, advancements in carbon fiber manufacturing processes, such as continuous fiber production and resin infusion techniques, have led to the development of cost-effective and high-performance carbon fiber composites. As aerospace manufacturers continue to prioritize lightweight materials and fuel-efficient aircraft designs, the Carbon Fiber Composites segment maintains its leading position in the Aerospace Composites market.
Within the Aerospace Composites market segmented by matrix type, the Polymer Matrix segment is the fastest-growing category. The market growth is driven by increasing adoption of polymer matrix composites in the aerospace industry. Polymer matrix composites offer a combination of high strength, low weight, corrosion resistance, and design flexibility, making them suitable for a wide range of aerospace applications. These composites are used in aircraft structures, interiors, engine components, and secondary structures to reduce weight, improve fuel efficiency, and enhance performance. Moreover, polymer matrix composites can be tailored to specific performance requirements using different reinforcement fibers and resin formulations, allowing for customized solutions for aerospace applications. Additionally, advancements in polymer matrix composite manufacturing processes, such as automated layup techniques and out-of-autoclave curing methods, have led to increased production efficiency and cost-effectiveness. Furthermore, polymer matrix composites offer advantages such as ease of fabrication, repairability, and recyclability, contributing to their growing popularity in the aerospace industry. As aerospace manufacturers continue to seek lightweight and cost-effective materials for aircraft design, the Polymer Matrix segment is poised for sustained rapid expansion in the Aerospace Composites market.
In the Aerospace Composites market segmented by application, the Exterior segment is the largest category. The large revenue share is primarily due to the extensive use and diverse applications of composites in the exterior components of aircraft and spacecraft. Exterior aerospace composites are utilized in critical structural components such as fuselage, wings, empennage, fairings, and engine nacelles. These composites offer exceptional strength-to-weight ratio, corrosion resistance, and durability, making them ideal for withstanding the harsh operating conditions encountered during flight. Additionally, exterior aerospace composites contribute significantly to reducing overall aircraft weight, which leads to improved fuel efficiency, increased payload capacity, and enhanced performance. Moreover, advancements in composite materials and manufacturing processes have enabled the development of complex and integrated composite structures for the exterior of modern aircraft, contributing to their aerodynamic efficiency and aesthetics. As aerospace manufacturers continue to prioritize lightweight construction, fuel efficiency, and advanced materials for next-generation aircraft designs, the Exterior segment maintains its leading position in the Aerospace Composites market.
In the Aerospace Composites market segmented by manufacturing process, the AFP/ATL (Automated Fiber Placement/Automated Tape Laying) segment is the fastest-growing category. The market growth is driven by increasing adoption of AFP/ATL technology in aerospace composite manufacturing. AFP/ATL processes offer high efficiency, precision, and automation, enabling the rapid production of complex composite structures with minimal material waste. These processes utilize advanced robotic systems to accurately place continuous fibers or tape onto a substrate, creating highly uniform and defect-free composite layups. Additionally, AFP/ATL technology allows for the customization of fiber orientation, ply thickness, and stacking sequence, resulting in optimized structural performance and weight savings in aerospace applications. Moreover, AFP/ATL processes are well-suited for producing large and integrated composite components such as aircraft fuselage sections, wings, and engine nacelles, thereby reducing assembly time and cost. Furthermore, advancements in AFP/ATL equipment, materials, and software have improved process reliability, repeatability, and scalability, driving its widespread adoption by aerospace manufacturers. As aerospace industry demands for lightweight, high-performance composite structures continue to grow, the AFP/ATL Manufacturing Process segment is poised for sustained rapid expansion in the Aerospace Composites market.
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
Countries Analyzed
North America (US, Canada, Mexico)
Europe (Germany, UK, France, Spain, Italy, Russia, Rest of Europe)
Asia Pacific (China, India, Japan, South Korea, Australia, South East Asia, Rest of Asia)
South America (Brazil, Argentina, Rest of South America)
Middle East and Africa (Saudi Arabia, UAE, Rest of Middle East, South Africa, Egypt, Rest of Africa)
Albany Engineered Composites
General Electric Company
Gurit Holding AG
Hexcel Corp
Hyosung
Kineco Kaman
Lee Aerospace inc
Materion Corp
Mitsubishi Chemical Holdings
Nippon Graphite Fiber
Owens Corning
PRF Composite Materials
Quantum Composites
Rolls-Royce
SGL Group
Solvay S.A.
Spirit Aerosystems
Teijin Ltd
Toray Industries Inc
Victrex
*- List Not Exhaustive
TABLE OF CONTENTS
1 Introduction to 2024 Aerospace Composites Market
1.1 Market Overview
1.2 Quick Facts
1.3 Scope/Objective of the Study
1.4 Market Definition
1.5 Countries and Regions Covered
1.6 Units, Currency, and Conversions
1.7 Industry Value Chain
2 Research Methodology
2.1 Market Size Estimation
2.2 Sources and Research Methodology
2.3 Data Triangulation
2.4 Assumptions and Limitations
3 Executive Summary
3.1 Global Aerospace Composites Market Size Outlook, $ Million, 2021 to 2032
3.2 Aerospace Composites Market Outlook by Type, $ Million, 2021 to 2032
3.3 Aerospace Composites Market Outlook by Product, $ Million, 2021 to 2032
3.4 Aerospace Composites Market Outlook by Application, $ Million, 2021 to 2032
3.5 Aerospace Composites Market Outlook by Key Countries, $ Million, 2021 to 2032
4 Market Dynamics
4.1 Key Driving Forces of Aerospace Composites Industry
4.2 Key Market Trends in Aerospace Composites Industry
4.3 Potential Opportunities in Aerospace Composites Industry
4.4 Key Challenges in Aerospace Composites Industry
5 Market Factor Analysis
5.1 Value Chain Analysis
5.2 Competitive Landscape
5.2.1 Global Aerospace Composites Market Share by Company (%), 2023
5.2.2 Product Offerings by Company
5.3 Porter’s Five Forces Analysis
5.4 Pricing Analysis and Outlook
6 Growth Outlook Across Scenarios
6.1 Growth Analysis-Case Scenario Definitions
6.2 Low Growth Scenario Forecasts
6.3 Reference Growth Scenario Forecasts
6.4 High Growth Scenario Forecasts
7 Global Aerospace Composites Market Outlook by Segments
7.1 Aerospace Composites Market Outlook by Segments, $ Million, 2021- 2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
8 North America Aerospace Composites Market Analysis and Outlook To 2032
8.1 Introduction to North America Aerospace Composites Markets in 2024
8.2 North America Aerospace Composites Market Size Outlook by Country, 2021-2032
8.2.1 United States
8.2.2 Canada
8.2.3 Mexico
8.3 North America Aerospace Composites Market size Outlook by Segments, 2021-2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
9 Europe Aerospace Composites Market Analysis and Outlook To 2032
9.1 Introduction to Europe Aerospace Composites Markets in 2024
9.2 Europe Aerospace Composites Market Size Outlook by Country, 2021-2032
9.2.1 Germany
9.2.2 France
9.2.3 Spain
9.2.4 United Kingdom
9.2.4 Italy
9.2.5 Russia
9.2.6 Norway
9.2.7 Rest of Europe
9.3 Europe Aerospace Composites Market Size Outlook by Segments, 2021-2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
10 Asia Pacific Aerospace Composites Market Analysis and Outlook To 2032
10.1 Introduction to Asia Pacific Aerospace Composites Markets in 2024
10.2 Asia Pacific Aerospace Composites Market Size Outlook by Country, 2021-2032
10.2.1 China
10.2.2 India
10.2.3 Japan
10.2.4 South Korea
10.2.5 Indonesia
10.2.6 Malaysia
10.2.7 Australia
10.2.8 Rest of Asia Pacific
10.3 Asia Pacific Aerospace Composites Market size Outlook by Segments, 2021-2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
11 South America Aerospace Composites Market Analysis and Outlook To 2032
11.1 Introduction to South America Aerospace Composites Markets in 2024
11.2 South America Aerospace Composites Market Size Outlook by Country, 2021-2032
11.2.1 Brazil
11.2.2 Argentina
11.2.3 Rest of South America
11.3 South America Aerospace Composites Market size Outlook by Segments, 2021-2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
12 Middle East and Africa Aerospace Composites Market Analysis and Outlook To 2032
12.1 Introduction to Middle East and Africa Aerospace Composites Markets in 2024
12.2 Middle East and Africa Aerospace Composites Market Size Outlook by Country, 2021-2032
12.2.1 Saudi Arabia
12.2.2 UAE
12.2.3 Oman
12.2.4 Rest of Middle East
12.2.5 Egypt
12.2.6 Nigeria
12.2.7 South Africa
12.2.8 Rest of Africa
12.3 Middle East and Africa Aerospace Composites Market size Outlook by Segments, 2021-2032
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
13 Company Profiles
13.1 Company Snapshot
13.2 SWOT Profiles
13.3 Products and Services
13.4 Recent Developments
13.5 Financial Profile
Albany Engineered Composites
General Electric Company
Gurit Holding AG
Hexcel Corp
Hyosung
Kineco Kaman
Lee Aerospace inc
Materion Corp
Mitsubishi Chemical Holdings
Nippon Graphite Fiber
Owens Corning
PRF Composite Materials
Quantum Composites
Rolls-Royce
SGL Group
Solvay S.A.
Spirit Aerosystems
Teijin Ltd
Toray Industries Inc
Victrex
14 Appendix
14.1 Customization Offerings
14.2 Subscription Services
14.3 Related Reports
14.4 Publisher Expertise
By Fiber
Carbon Fiber Composites
Ceramic Fiber Composites
Glass Fiber Composites
Others
By Matrix
Polymer Matrix
Ceramic Matrix
Metal Matrix
By Application
Interior
Exterior
By Manufacturing Process
AFP/ATL
Lay-up
Resin Transfer Molding
Filament Winding
Others
By Aircraft
Commercial Aircraft
Business & General Aviation
Civil Helicopter
Military Aircraft
Others
Countries Analyzed
North America (US, Canada, Mexico)
Europe (Germany, UK, France, Spain, Italy, Russia, Rest of Europe)
Asia Pacific (China, India, Japan, South Korea, Australia, South East Asia, Rest of Asia)
South America (Brazil, Argentina, Rest of South America)
Middle East and Africa (Saudi Arabia, UAE, Rest of Middle East, South Africa, Egypt, Rest of Africa)
Global Aerospace Composites Market Size is valued at $31.5 Billion in 2024 and is forecast to register a growth rate (CAGR) of 12.8% to reach $82.6 Billion by 2032.
Emerging Markets across Asia Pacific, Europe, and Americas present robust growth prospects.
Albany Engineered Composites, General Electric Company, Gurit Holding AG, Hexcel Corp, Hyosung, Kineco Kaman, Lee Aerospace inc, Materion Corp, Mitsubishi Chemical Holdings, Nippon Graphite Fiber, Owens Corning, PRF Composite Materials, Quantum Composites, Rolls-Royce, SGL Group, Solvay S.A., Spirit Aerosystems, Teijin Ltd, Toray Industries Inc, Victrex
Base Year- 2023; Estimated Year- 2024; Historic Period- 2018-2023; Forecast period- 2024 to 2032; Currency: Revenue (USD); Volume