|
Forecast Period
|
2025-2029
|
|
Market Size (2023)
|
USD 42.70 Billion
|
|
CAGR (2024-2029)
|
7.35%
|
|
Fastest Growing Segment
|
Military and Defense
|
|
Largest Market
|
North America |
|
Market Size (2029)
|
USD 65.08 Billion
|
Market Overview
Global
Aerospace Materials Market valued at USD 42.70 Billion in 2023 and is
anticipated to project robust growth in the forecast period with a CAGR of 7.35%
through 2029. The Global Aerospace Materials Market, a sector that has
experienced substantial growth over the years, is primarily driven by the
ever-expanding aviation industry's continuous demand for new aircraft. As
competition within the industry intensifies, the need for lightweight yet
high-strength materials has become increasingly crucial. This has led to a
preference for materials such as aluminium, titanium, and composites, which
offer the desired combination of strength and weight reduction. With the
constant pursuit of innovation and advancements in aerospace technology, the
demand for cutting-edge materials that push the boundaries of performance and
efficiency continues to rise.
Aluminium,
a traditional favorite in the aerospace industry, continues to be widely used
due to its excellent strength-to-weight ratio, easy workability, and relatively
low cost. However, its market share is gradually being eroded by other
materials, particularly composites. Composites, primarily
carbon-fiber-reinforced polymers (CFRPs), are gaining significant ground due to
their inherent lightness and exceptional strength properties. Titanium is
another material that finds substantial application in the aerospace industry
due to its high strength, lightweight, and resistance to temperature and
corrosion. Its use is especially prevalent in high-speed and military aircraft.
However, the high cost of titanium often restricts its usage compared to
aluminium and composites.
The
use of CFRPs in aircraft construction offers numerous advantages. Not only do
CFRPs significantly reduce the weight of the aircraft, leading to greater fuel
efficiency, but they also address critical factors in today's era of escalating
fuel prices and growing environmental concerns. By reducing the overall weight,
aircraft can achieve substantial fuel savings and lower carbon emissions,
making them more environmentally friendly.
In
addition to their lightweight nature, CFRPs offer excellent resistance to
corrosion. This property not only enhances the longevity of the aircraft but
also reduces maintenance costs. With CFRPs, aircraft can withstand harsh
environmental conditions, requiring fewer repairs and ensuring more extended
service life.
As
the aviation industry continues to evolve, the utilization of CFRPs in aircraft
manufacturing is a promising trend. These advanced materials not only provide
improved performance but also contribute to sustainability efforts and
cost-effective operations.
Overall,
the Global Aerospace Materials Market is poised for significant growth in the
coming years, driven by the increasing demand for new aircraft, advancements in
materials science, and the growing emphasis on fuel efficiency and
environmental sustainability. The increasing use of composites at the expense
of traditional materials like aluminium is an ongoing trend that is expected to
continue. Despite the challenges presented by the high cost of certain
materials, the future of this market remains promising, underpinned by the
relentless march of technology and the ever-growing demand for air travel.
Market Drivers
Demand
for Lightweight Materials
One
of the primary drivers steering the Global Aerospace Materials Market is the
insatiable demand for lightweight materials. Aircraft manufacturers are relentlessly
pursuing weight reduction strategies to enhance fuel efficiency and overall
performance. The aviation industry's perpetual quest for fuel savings and
environmental sustainability has propelled a paradigm shift toward materials
that offer superior strength-to-weight ratios. Advanced alloys, composite
materials, and lightweight polymers have emerged as frontrunners in this
pursuit, enabling the development of aircraft with reduced fuel consumption,
lower emissions, and increased payload capacity. The incessant drive for
lighter aircraft to meet stringent regulatory requirements and operational cost
considerations positions lightweight materials as a central force propelling
the aerospace materials market forward.
Technological
Advancements in Composite Materials
A
key driver accelerating the Global Aerospace Materials Market is the continuous
advancement in composite materials technology. Composite materials,
particularly carbon-fiber-reinforced polymers (CFRP), are gaining prominence
for their exceptional strength, durability, and corrosion resistance. The
aerospace industry is witnessing a surge in the utilization of composites in
various aircraft components, including fuselage structures, wings, and interior
elements. The evolution of composite manufacturing processes, such as automated
lay-up techniques and resin infusion methods, enhances production efficiency
and cost-effectiveness. Technological breakthroughs, such as the development of
nanocomposites and hybrid materials, further expand the application spectrum,
driving the adoption of composite materials across different segments of the
aerospace industry.
Increasing
Aircraft Production Rates
Rising
aircraft production rates globally constitute a significant driver for the
Aerospace Materials Market. The burgeoning demand for air travel, driven by
factors like increasing middle-class populations, urbanization, and
globalization, is fueling the need for new aircraft. Major aerospace OEMs,
including Boeing and Airbus, are responding to this demand by ramping up
production rates. This surge in aircraft manufacturing directly translates to
an increased demand for aerospace materials. Whether it be aluminum alloys for
structural components or advanced materials for cutting-edge aerodynamic
designs, the elevated pace of aircraft production is a pivotal force propelling
the growth of the aerospace materials industry.
Stringent
Regulatory Standards and Fuel Efficiency Imperatives
Stringent
regulatory standards imposed by aviation authorities worldwide act as a
compelling driver for innovation and development in aerospace materials.
Regulatory bodies, such as the Federal Aviation Administration (FAA) and the
European Union Aviation Safety Agency (EASA), set stringent requirements for
the safety, durability, and environmental impact of aircraft materials.
Compliance with these standards necessitates continuous research and
development efforts by aerospace materials manufacturers. Furthermore, the
imperative to enhance fuel efficiency and reduce carbon emissions places
additional pressure on the industry to adopt materials that contribute to
lighter, more aerodynamic, and environmentally sustainable aircraft designs. As
a result, aerospace materials companies are driven to invest in cutting-edge
technologies and materials that align with the evolving regulatory landscape
and the industry's commitment to sustainability.
Growing
Focus on Superalloys for High-Temperature Applications
The
increasing emphasis on high-performance materials capable of withstanding
extreme temperatures and harsh operating conditions is a notable driver for the
Aerospace Materials Market. Superalloys, known for their exceptional heat
resistance, corrosion resistance, and strength at elevated temperatures, play a
crucial role in components subjected to extreme thermal environments, such as
aircraft engines and propulsion systems. With the continual evolution of
propulsion technologies, including the development of high-bypass turbofan
engines and next-generation propulsion systems, the demand for advanced
superalloys has intensified. Aerospace materials manufacturers are thus driven
to innovate and enhance the capabilities of superalloys to meet the evolving needs
of modern aircraft propulsion systems.
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Key Market Challenges
Cost
Pressures and Material Affordability
A
significant challenge facing the Global Aerospace Materials Market revolves
around the persistent pressure to manage costs while ensuring the affordability
of advanced materials. The aerospace industry is characterized by stringent
cost constraints, heightened by factors such as intense market competition,
fluctuating fuel prices, and economic uncertainties. Advanced materials,
including high-performance alloys and composites, often come with elevated
production costs, research and development expenses, and intricate
manufacturing processes. This presents a dilemma for aerospace manufacturers
and materials suppliers, as the need for cutting-edge materials to meet
regulatory and performance requirements clashes with the imperative to maintain
cost-effectiveness. Striking a balance between material innovation and cost
management remains a critical challenge, necessitating continuous efforts to
optimize production processes, explore cost-effective alternatives, and foster
efficient supply chain strategies.
The
affordability challenge extends beyond the initial material costs to encompass
the entire lifecycle of aerospace components. The maintenance, repair, and
overhaul (MRO) phase adds another layer of cost considerations, prompting the
industry to seek materials with extended lifespan, reduced maintenance
requirements, and enhanced durability. Innovations in materials science,
process optimization, and collaborative efforts across the aerospace supply
chain are essential to address the challenge of balancing material excellence
with economic feasibility.
Regulatory
Compliance and Certification Complexity
Navigating
the intricate landscape of regulatory compliance and certification poses a
substantial challenge for the Global Aerospace Materials Market. The aerospace
industry operates under stringent safety and quality standards set by aviation
authorities worldwide, including the Federal Aviation Administration (FAA),
European Union Aviation Safety Agency (EASA), and other regional regulatory
bodies. Material manufacturers must meticulously adhere to these standards to
ensure the airworthiness of aircraft components.
The
challenge lies in the evolving nature of regulatory requirements, which demand
continuous adaptation and compliance updates. Introducing novel materials or
modifying existing ones necessitates rigorous testing, validation, and
certification processes, contributing to time and resource-intensive endeavors.
The lengthy and intricate certification procedures can impede the rapid
adoption of innovative materials, delaying their integration into aircraft
manufacturing.
Furthermore,
the global nature of the aerospace industry amplifies the complexity, as
materials must comply with a myriad of international regulations. Achieving
regulatory harmonization and streamlining certification processes across
jurisdictions become imperative challenges for aerospace material
manufacturers. Collaboration between industry stakeholders and regulatory
bodies is essential to establish standardized certification procedures and
facilitate the efficient approval of new materials.
Supply
Chain Disruptions and Material Availability
The
Global Aerospace Materials Market grapples with the challenge of supply chain
disruptions and the availability of critical raw materials. The aerospace
supply chain is highly complex, involving a network of global suppliers
providing specialized materials and components. Disruptions, whether caused by
geopolitical tensions, natural disasters, or unexpected events such as the
COVID-19 pandemic, can have cascading effects on the availability and delivery
of aerospace materials.
The
challenge is twofold: first, ensuring a stable supply of raw materials, and
second, mitigating the impact of disruptions on the production timeline. Many
advanced aerospace materials rely on specific alloys, rare earth elements, or
composite components that may face geopolitical or logistical challenges.
Material manufacturers must proactively manage these risks through
diversification of suppliers, strategic stockpiling of critical materials, and
the development of resilient supply chain strategies.
The
demand for aerospace materials is often cyclical, influenced by factors such as
aircraft production rates, economic conditions, and geopolitical stability.
Balancing material availability with market fluctuations becomes a delicate
challenge, requiring agile supply chain management and risk mitigation
strategies. Collaborative efforts between aerospace OEMs, material suppliers,
and regulatory bodies are vital to establish resilient supply chains that can
withstand disruptions and ensure a consistent flow of materials to meet
industry demands.
Environmental
Impact and Sustainability Considerations
The
growing emphasis on environmental sustainability poses a multifaceted challenge
for the Global Aerospace Materials Market. Aircraft manufacturers and materials
suppliers face increasing scrutiny regarding the environmental impact of
materials throughout their lifecycle, from extraction and manufacturing to
disposal or recycling. The aerospace industry's commitment to reducing carbon
emissions and adopting more sustainable practices amplifies the challenge of
developing and utilizing materials with lower environmental footprints.
The
challenge encompasses various dimensions, including material selection,
manufacturing processes, and end-of-life considerations. Aircraft materials
must not only meet stringent performance requirements but also align with
sustainability goals. This necessitates the exploration of eco-friendly
materials, such as recycled alloys, bio-based composites, and sustainable
polymers, while maintaining the structural integrity and safety standards
demanded by the aerospace industry.
Moreover,
the challenge extends to the reduction of waste generated during the
manufacturing process and the disposal of end-of-life aircraft components.
Circular economy principles, which involve recycling, repurposing, or reusing
materials, are gaining prominence. Aerospace material manufacturers need to
invest in research and development to innovate sustainable materials, optimize
manufacturing processes for environmental efficiency, and collaborate with
industry stakeholders to establish standardized sustainability practices.
Material
Performance and Technological Limitations
The
pursuit of higher aircraft performance and efficiency confronts the Global
Aerospace Materials Market with the challenge of pushing the boundaries of
material capabilities. As aircraft designs evolve to incorporate advanced
technologies, including electric propulsion systems and next-generation
aerodynamics, the demand for materials with unprecedented performance
characteristics becomes paramount. Aerospace materials must withstand extreme
conditions, including high temperatures, pressures, and dynamic stresses, while
maintaining structural integrity and durability.
The
challenge lies in overcoming the inherent limitations of existing materials and
developing new solutions that meet the evolving demands of modern aerospace
technologies. For example, the shift towards electric propulsion systems
introduces new challenges related to thermal management, electrical
conductivity, and weight considerations. Materials capable of addressing these
challenges, such as advanced thermal-resistant composites and conductive
polymers, are areas of active research and development.
Technological
limitations also affect the manufacturability of advanced materials. The
intricate processes required to produce certain materials, such as complex
composite structures or advanced alloys, can pose challenges in terms of
scalability, cost-effectiveness, and reproducibility. Innovations in
manufacturing technologies, including additive manufacturing and automated
processes, are essential to overcome these challenges and unlock the full
potential of cutting-edge aerospace materials.
Key Market Trends
Advancements
in Composite Materials
A
prominent trend in the Global Aerospace Materials Market is the continual
advancements in composite materials. Composites, particularly carbon
fiber-reinforced polymers (CFRP), are gaining widespread acceptance in the
aerospace industry due to their exceptional strength-to-weight ratio, corrosion
resistance, and design flexibility. The trend is characterized by ongoing
research and development efforts aimed at enhancing the performance of
composites, making them more resilient to extreme conditions, and expanding
their application spectrum.
As
aircraft manufacturers increasingly opt for lightweight materials to improve
fuel efficiency and reduce emissions, composites have become integral to modern
aerospace design. The trend extends beyond traditional composites to include
the exploration of nanocomposites and hybrid materials. Nanocomposites leverage
nanotechnology to enhance material properties, offering improved strength,
conductivity, and thermal resistance. Hybrid materials combine different types
of composites or integrate traditional materials with composites to achieve
synergistic effects.
The
aerospace materials industry is witnessing collaborations between material
manufacturers, research institutions, and aerospace OEMs to push the boundaries
of composite technology. Advanced manufacturing techniques, such as automated
lay-up processes and out-of-autoclave curing methods, contribute to the
scalability and cost-effectiveness of composite production. This trend aligns
with the industry's pursuit of lightweight construction without compromising
structural integrity, setting the stage for the continued dominance of
composites in aerospace applications.
Sustainable
Materials and Circular Economy Practices
A
transformative trend in the Global Aerospace Materials Market revolves around
the increasing emphasis on sustainability and circular economy practices. The
aerospace industry, driven by environmental concerns and regulatory pressures,
is actively seeking materials that minimize ecological impact throughout their
lifecycle. Sustainable materials, including recycled alloys, bio-based
composites, and environmentally friendly polymers, are gaining traction as the
industry strives to reduce its carbon footprint.
The
trend extends to manufacturing processes, where aerospace materials companies
are adopting eco-friendly practices to minimize waste, energy consumption, and
emissions. The incorporation of circular economy principles involves designing
materials and components with end-of-life considerations in mind, facilitating
easier recycling, repurposing, or reuse. Collaborative initiatives between
aerospace OEMs, materials suppliers, and recycling facilities are emerging to
establish standardized practices for recycling aerospace materials.
Sustainability
certifications and eco-labeling for aerospace materials are becoming more
prevalent, providing transparency to stakeholders and end-users about the
environmental impact of materials. The trend towards sustainable aerospace
materials aligns with broader industry goals of achieving net-zero carbon
emissions and fostering responsible resource management. As environmental
considerations continue to shape the aerospace agenda, the adoption of
sustainable materials is poised to become a defining characteristic of the
industry.
Lightweight
Alloys and High-Performance Metals
The
quest for lightweight construction and enhanced performance in aerospace
applications has led to a trend focused on the development of lightweight
alloys and high-performance metals. Traditional materials such as aluminum and
titanium alloys remain essential in aerospace manufacturing, but there is a
growing demand for advanced iterations that offer improved strength,
durability, and corrosion resistance while maintaining a low weight profile.
Lightweight
alloys, including advanced aluminum alloys and magnesium alloys, are gaining
attention for their potential to reduce aircraft weight without compromising
structural integrity. These alloys find applications in structural components,
landing gear, and interior elements. High-performance metals, such as
nickel-based superalloys, are critical for components subjected to extreme
temperatures and pressures, such as aircraft engines.
The
trend involves continuous research and development efforts to optimize the
composition and processing of these materials. Innovations in alloy design,
heat treatment methods, and manufacturing techniques contribute to the
evolution of lightweight and high-performance metals. Additionally, the
integration of additive manufacturing or 3D printing in metal fabrication
processes is opening new possibilities for intricate and optimized component
designs.
Collaborations
between aerospace materials manufacturers and research institutions play a
pivotal role in advancing lightweight alloys and high-performance metals. The
trend aligns with the aerospace industry's pursuit of fuel efficiency, range
optimization, and overall performance enhancement, driving the exploration of
materials that push the boundaries of what is achievable in aerospace
engineering.
Digitalization
and Materials Informatics
The
integration of digitalization and materials informatics is emerging as a
transformative trend in the Global Aerospace Materials Market. Digital
technologies, including artificial intelligence (AI), machine learning (ML),
and materials informatics platforms, are revolutionizing the way materials are
researched, developed, and applied in aerospace applications.
Materials
informatics involves the use of data-driven approaches to accelerate the
discovery and optimization of materials. AI and ML algorithms analyze vast
datasets, including material properties, performance metrics, and simulation
results, to identify patterns, correlations, and potential material candidates.
This trend significantly accelerates the materials development process,
allowing researchers to explore a broader design space and make data-driven
decisions.
The
aerospace industry is leveraging digital twins, virtual simulations, and
computational modeling to predict material behavior under various conditions.
This trend aids in the rapid prototyping of materials and components, reducing
the need for extensive physical testing. Digitalization facilitates a more
agile and efficient materials development cycle, enabling aerospace materials
manufacturers to bring innovative solutions to market faster.
Collaborations
between materials scientists, data scientists, and aerospace engineers are
essential for the successful implementation of digitalization and materials
informatics. The trend not only accelerates materials discovery but also
enhances the overall understanding of material behavior in complex aerospace
environments. As the aerospace industry continues to embrace the digital
revolution, materials informatics is set to play a pivotal role in shaping the
next generation of aerospace materials.
Additive
Manufacturing and 3D Printing
A
transformative trend in the Global Aerospace Materials Market is the widespread
adoption of additive manufacturing, commonly known as 3D printing. Additive
manufacturing techniques are revolutionizing the way aerospace components are
designed, prototyped, and manufactured. This trend is characterized by the
increasing integration of 3D printing across various stages of the aerospace
materials supply chain.
Aerospace
materials manufacturers are leveraging additive manufacturing to produce
intricate components with complex geometries that would be challenging or
impossible to achieve through traditional manufacturing methods. This includes
components with internal structures optimized for weight reduction, improved
aerodynamics, and enhanced performance. The trend extends to the production of
prototypes, small batches, and even critical components for commercial and
military aircraft.
Materials
optimized for additive manufacturing, including specialized alloys and
high-temperature polymers, are gaining prominence. The trend involves
continuous research into materials that exhibit superior performance and
reliability when processed through 3D printing technologies. Aerospace OEMs and
materials suppliers are collaborating to develop certified materials for
additive manufacturing, ensuring compliance with stringent aviation standards.
The
adoption of 3D printing in aerospace materials manufacturing is not limited to
structural components. The technology is increasingly used for fabricating
interior elements, tooling, and even aerospace-grade ceramics. The trend is
driving a shift towards on-demand manufacturing, reduced waste, and increased
design flexibility in the aerospace industry.
Segmental Insights
Aircraft Analysis
The global aerospace materials market is segmented by aircraft into general and commercial, military and defense, and space vehicles, each with distinct requirements and applications within the aerospace industry.
General and commercial aircraft represent a significant segment of the aerospace materials market, driven by the demand for lightweight, durable materials that can withstand the rigors of commercial air travel. These aircraft require materials with high strength-to-weight ratios, corrosion resistance, and fatigue resistance to ensure safety, reliability, and fuel efficiency. Aerospace materials such as aluminum alloys, titanium alloys, and advanced composite materials are commonly used in the construction of airframes, wings, fuselage sections, and interior components for general aviation and commercial airliners.
Military and defense aircraft being the fastest growing segment also rely on specialized aerospace materials tailored to meet the stringent performance requirements of military applications. These aircraft are subjected to extreme operating conditions, including high-speed maneuvers, combat missions, and exposure to hostile environments. Aerospace materials for military and defense applications must exhibit superior mechanical properties, ballistic resistance, and thermal stability to withstand these challenges. Materials such as high-strength steels, nickel-based superalloys, and advanced ceramics are utilized in the fabrication of airframes, engine components, armor plating, and weapon systems for military aircraft.
Space vehicles represent a niche segment of the aerospace materials market, characterized by the unique demands of space exploration and satellite deployment. Spacecraft and satellite platforms require materials capable of withstanding the harsh conditions of space, including vacuum, radiation, and extreme temperature fluctuations. Aerospace materials for space applications must possess excellent thermal insulation, radiation shielding, and structural integrity to ensure mission success and longevity in orbit. Materials such as lightweight composites, beryllium alloys, and specialized coatings are utilized in the construction of spacecraft structures, propulsion systems, solar panels, and payload components for space missions.
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Regional Insights
The global aerospace materials market is segmented by region into North America, Europe & CIS, Asia Pacific, South America, and the Middle East & Africa, reflecting the diverse geographical distribution of aerospace manufacturing activities and demand for aerospace materials.
North America is the largest region in the global aerospace materials market, driven by its strong aerospace industry base, technological innovation, and significant investments in aerospace research and development. The region is home to leading aerospace manufacturers, defense contractors, and suppliers of aerospace materials and components. North America's aerospace sector benefits from a skilled workforce, advanced manufacturing capabilities, and a robust regulatory framework that fosters innovation and quality assurance. Aerospace materials produced in North America are known for their high quality, reliability, and performance, catering to the diverse needs of commercial aviation, defense, and space exploration.
Europe & CIS is another key region in the global aerospace materials market, with a rich heritage in aerospace manufacturing and engineering. The region boasts a strong aerospace industry ecosystem, encompassing aircraft manufacturers, suppliers, research institutions, and aerospace materials manufacturers. Europe & CIS countries have a strong focus on aerospace innovation, sustainability, and competitiveness, driving the adoption of advanced materials and manufacturing processes. Aerospace materials produced in Europe & CIS adhere to stringent quality standards and regulatory requirements, ensuring compliance with safety and performance specifications for aerospace applications.
The Asia Pacific region is witnessing significant growth in the aerospace materials market, fueled by the expansion of the aerospace industry and increasing demand for aircraft in emerging markets. Countries such as China, India, Japan, and South Korea are investing heavily in aerospace infrastructure, manufacturing capabilities, and technological advancements to support domestic aerospace growth and compete globally. The region's aerospace materials market benefits from a skilled workforce, competitive labor costs, and strategic partnerships with international aerospace companies. Aerospace materials produced in Asia Pacific are increasingly gaining recognition for their quality, affordability, and suitability for aerospace applications.
South America represents a growing market for aerospace materials, driven by increasing aerospace investments, defense modernization programs, and expanding aerospace manufacturing capabilities. Countries in South America are focusing on enhancing their aerospace industrial base to support regional economic development and meet domestic demand for aircraft and aerospace components. Aerospace materials produced in South America cater to a range of aerospace applications, including commercial aviation, defense, and space exploration.
The Middle East & Africa region is also witnessing growing demand for aerospace materials, driven by aerospace expansion initiatives, defense procurement, and infrastructure development. Countries in the Middle East & Africa are investing in aerospace infrastructure, technology transfer programs, and partnerships to develop indigenous aerospace capabilities and reduce dependence on imports. Aerospace materials produced in the Middle East & Africa are tailored to meet the specific needs of the region's aerospace industry, supporting both civil and military aerospace applications.
Recent Development
- In 2024, Defense PSU MIDHANI has successfully entered the global supply chain for aero-engine critical materials, marking a significant milestone for the company. This achievement underscores MIDHANI's growing capabilities and reputation as a trusted supplier in the aerospace industry. By supplying critical materials for aero-engines, MIDHANI is poised to play a key role in supporting the development and production of advanced aircraft engines worldwide. This entry into the global supply chain reflects MIDHANI's commitment to excellence and its ability to meet the stringent requirements of aerospace manufacturers. It also highlights the company's contribution to strengthening India's position in the global aerospace market. MIDHANI's participation in the global supply chain is expected to open up new opportunities for collaboration and growth, further enhancing its competitiveness in the aerospace sector.
- In 2023, Dutch-based Arceon secured €350K in funding to advance the development of heat-resistant aerospace materials. This investment will support Arceon's efforts to enhance the performance and reliability of materials used in aerospace applications. With a focus on heat resistance, Arceon aims to address the demanding requirements of the aerospace industry, ensuring safety and efficiency in extreme operating conditions. The funding round underscores investor confidence in Arceon's innovative approach and potential to make significant advancements in aerospace materials technology. This financial boost will enable Arceon to accelerate its research and development efforts, bringing new solutions to market faster and positioning the company as a key player in the aerospace materials sector.
Key Market Players
- 3M Company
- Acerinox, S.A.
- Akzo Nobel NV
- Aluminum Corporation of China Limited
- Arkema SA
- Advanced Technology International (ATI)
- Axalta Coating Systems, LLC
- BASF SE
- Beacon Adhesives Inc.
- CRS Holdings, LLC
By Aircraft
|
By Type
|
By Region
|
- General
and Commercial
- Military
and Defense
- Space
Vehicles
|
|
- North
America
- Europe
& CIS
- Asia
Pacific
- South
America
- Middle
East & Africa
|
Report Scope:
In this report, the Global Aerospace Materials
Market has been segmented into the following categories, in addition to the
industry trends which have also been detailed below:
- Aerospace Materials Market, By Aircraft:
o General and Commercial
o Military and Defense
o Space Vehicles
- Aerospace Materials Market, By Type:
o Structural
o Non-structural
- Aerospace Materials Market, By Region:
o Asia-Pacific
§ China
§ India
§ Japan
§ Indonesia
§ Thailand
§ South Korea
§ Australia
o Europe & CIS
§ Germany
§ Spain
§ France
§ Russia
§ Italy
§ United Kingdom
§ Belgium
o North America
§ United States
§ Canada
§ Mexico
o South America
§ Brazil
§ Argentina
§ Colombia
o Middle East & Africa
§ South Africa
§ Turkey
§ Saudi Arabia
§ UAE
Competitive Landscape
Company Profiles: Detailed analysis of the major companies present in the Global Aerospace
Materials Market.
Available Customizations:
Global Aerospace Materials Market report
with the given market data, Tech Sci Research offers customizations according
to a company's specific needs. The following customization options are
available for the report:
Company Information
- Detailed analysis and profiling of additional
market players (up to five).
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