Comparing 10 vendors in Ceramic Matrix Composites across 0 criteria.

Market Presence
Contenders Contenders
Market Leaders Market Leaders
Emerging Companies Emerging Companies
Innovators Innovators
Lancer Systems
Applied Thin Films
CoorsTek
Ultramet
GE
Rolls-Royce
SGL Carbon
Axiom Materials
CFC CARBON
COI Ceramics
Product Footprint
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POWERED BY MARKETSANDMARKETS
May 27, 2024

The Ceramic Matrix Composites Companies quadrant is a comprehensive industry analysis that provides valuable insights into the global market for Ceramic Matrix Composites. This quadrant offers a detailed evaluation of key market players, technological advancements, product innovations, and industry trends. MarketsandMarkets 360 Quadrants evaluated over 22 Ceramic Matrix Composites Companies of which the Top 10 Ceramic Matrix Composites Companies were categorized and recognized as the quadrant leaders.

A ceramic matrix composite is a combination of at least two materials, out of which one is a binding material (called the matrix), and the other is a reinforcement material (which is a fiber). The matrices can be oxide and non-oxide. The fibers can be carbon, oxide, silicon carbide, and others. Ceramic Matrix Composites are classified into oxide and non-oxide based on fiber. Oxide fibers are reinforced into the oxide matrix, whereas non-oxide fibers are reinforced into the non-oxide matrix. These are high-performance composites, which are used in high-temperature applications.

The 360 Quadrant maps the Ceramic Matrix Composites Companies based on criteria such as revenue, geographic presence, growth strategies, investments, channels of demand, and sales strategies for the market presence of the Ceramic Matrix Composites quadrant. While the top criteria for product footprint evaluation included Matrix Type (C/C, C/SiC, Oxide/Oxide, Sic/Sic), Fiber Type (Continuous, Woven, Others), End-Use Industries (Aerospace & Defense, Automotive, Energy & Power, Industrial, Others).

Key trends highlighted in 360 Quadrants:

  • The ceramic matrix composites market is poised for robust growth over the next few years, projected to expand at a compound annual growth rate of 10.5% from 2022 to 2028 as demand rises across major end-use industries like aerospace, automotive, energy, and defense. This rapid growth presents a significant opportunity for ceramic matrix composite manufacturers to capitalize on increasing commercialization by making strategic investments to expand production capacity and enhance their market positioning. A key impact will be the need for ceramic matrix composites companies to focus on R&D and process innovations that can help drive down manufacturing costs and improve scale-up to meet growing demand efficiently while maintaining quality and performance.
  • North America dominated the ceramic matrix composites market in 2023, holding a substantial 37.5% share in terms of value followed by Europe and Asia-Pacific. This leadership position can be attributed to the region's robust aerospace and defense industry, which is experiencing continuous expansion. Key players like General Electric (GE) are strategically increasing production capacities for non-oxide ceramic matrix composites to address the escalating demand within the aerospace and defense sector. The United States, boasting the most dynamic aerospace and defense industry in North America, is poised to be the primary market for ceramic matrix composites due to heightened demand from the commercial aircraft sector. This robust market presence is likely to significantly impact ceramic matrix composites companies in North America, fostering growth opportunities and intensified market competition.
  • The SiC/SiC ceramic matrix composites segment is projected to achieve the highest CAGR among various matrix types, driven by robust demand from LEAP engines. The anticipated cost reduction of SiC fibers is poised to enhance the adoption of SiC/SiC composites throughout the forecast period. This trend is likely to significantly impact ceramic matrix composites companies, particularly those specializing in SiC/SiC formulations, as they stand to benefit from increased market demand and cost efficiencies associated with SiC fiber production.
  • The ceramic matrix composites market is segmented by fiber type into continuous fiber, woven, and others and is currently undergoing significant advancements driven by ongoing research and development efforts. The focus is on innovating new and advanced fibers, such as those based on materials like hafnium carbide (HfC), zirconium carbide (ZrC), and other ceramic composites with enhanced properties for high-temperature applications. This targeted development is anticipated to result in the continuous fiber type of ceramic matrix composites experiencing the second-highest CAGR between 2023 and 2028. This evolution in fiber technology is poised to have a substantial impact on ceramic matrix composites companies, as it opens up opportunities for improved and specialized applications, thereby influencing their market growth and competitiveness.
  • In terms of end-use industry, the aerospace & defense is the largest segment, owing to the properties of these composites such as high damage tolerance, fracture toughness, and high temperature, wear, and corrosion resistance. Whereas, the energy power segment is poised to secure the third-largest market share, driven by opportunities within the energy sector encompassing power generation and renewable energy. Particularly, the demand for high-temperature-resistant materials with enhanced efficiency in gas turbine engines for power plants presents a lucrative avenue for ceramic matrix composites companies. By leveraging the unique properties of ceramic matrix composites, such as heightened thermal resistance, these materials can positively impact power output, diminish emissions, and elevate overall energy efficiency.
  • Furthermore, the evolving landscape of renewable energy, notably concentrated solar power (CSP) systems, opens up additional prospects for CMCs, solidifying their role in shaping the future of sustainable energy technologies. This indicates that the synergy between ceramic matrix composites and the energy power segment is propelling growth and innovation within the industry.
  • Leading entities in the ceramic matrix composites industry, such as General Electric, Rolls-Royce PLC, and SGL Carbon, are actively striving to establish a formidable global footprint. These major players collectively hold a substantial market share, leveraging their technological prowess, expansive geographical reach, diverse product portfolios, and strategic growth initiatives. The important strategies undertaken by most of the companies in the domain include investments & expansions, mergers & acquisitions, and agreements & partnerships. For instance, In January 2023, Rolls-Royce entered into a Memorandum of Understanding with the University of Sheffield in the UK, formalizing their collaboration on the advancement of novel materials in the field of ceramic matrix composites. Additionally, in April 2023, SGL Carbon revealed a strategic partnership with Lancer Systems to jointly explore the development of ceramic matrix composites tailored for application in thermal protection systems.
  • The escalating adoption of ceramic matrix composites in the automotive sector, particularly by luxury and sports car manufacturers for engine components, is propelled by the materials' compelling combination of lightweight, high strength, and durability attributes. These advanced composites offer a viable solution for enhancing efficiency, reducing fuel costs, curbing pollution, and achieving the goal of developing lightweight vehicles. As the automotive industry increasingly prioritizes sustainability and performance, the demand for CMCs is expected to rise further. This surge in demand is likely to significantly impact ceramic matrix composites companies, driving increased production and fostering technological advancements to meet the evolving needs of the automotive sector. Ceramic matrix composites companies may witness a substantial growth opportunity as they cater to the expanding requirements of luxury and sports car manufacturers aiming to capitalize on the benefits of these composite materials for improved automotive performance and environmental sustainability.
  • The rising use of ceramic matrix composites in luxury and sports car engine components, driven by their lightweight, high strength, and durability attributes, is creating a substantial opportunity for ceramic matrix composites companies. This trend is a direct response to the automotive industry's increasing focus on efficiency improvement, fuel cost reduction, pollution control, and lightweight vehicle development. As luxury and sports car manufacturers embrace CMCs to meet these demands, there is a clear market niche for ceramic matrix composites companies, positioning them to thrive in an environment where advanced composites are crucial for enhancing performance and sustainability in the automotive sector.

The Full List

The Full List

Company Headquarters Year Founded Holding Type
Applied Thin Films Skokie, USA 1998 Private
Axiom Materials Santa Ana, USA 2009 Private
CFC CARBON Beijing, China 2006 Private
COI Ceramics San Diego, USA 1999 Private
CoorsTek Golden, USA 1910 Private
GE Boston, USA 1892 Public
Lancer Systems Quakertown, USA 2006 Private
Rolls-Royce London, UK 1906 Public
SGL Carbon Wiesbaden, Germany 1992 Public
Ultramet Pacoima, USA 1970 Private
 
Frequently Asked Questions (FAQs)
Ceramic Matrix Composites (CMCs) are a class of advanced materials that represent a combination of ceramics and composite materials. They typically consist of ceramic fibers or particles embedded in a ceramic matrix. The fibers or particles act as reinforcement, providing strength and toughness, while the ceramic matrix holds everything together. This combination results in a material with unique properties that aren't found in traditional ceramics.
CMCs offer several significant advantages over traditional materials like metals and monolithic ceramics: High-Temperature Resistance: CMCs can withstand extremely high temperatures, making them ideal for applications in aerospace and industries involving high-temperature processes. Lightweight Design: Compared to many traditional materials, CMCs are lightweight, which is a crucial factor in aerospace and automotive applications, where reducing weight is a priority. Excellent Thermal and Electrical Insulation: They provide excellent thermal and electrical insulation properties, which is valuable in applications where electrical insulation is needed, or thermal protection is essential. Superior Wear Resistance: CMCs are highly wear-resistant, making them suitable for cutting tools, brakes, and other components that experience significant wear and friction. High Specific Strength: CMCs combine high strength with low density, resulting in a high specific strength, which is desirable in lightweight and high-performance applications.
CMCs are typically manufactured using techniques like Chemical Vapor Infiltration (CVI), Liquid Infiltration, and Polymer Impregnation and Pyrolysis (PIP): CVI: In CVI, a preform (made of ceramic fibers or particles) is placed in a chamber where precursor gases are introduced. These gases deposit ceramic material on the preform's surface, gradually building up the matrix. Liquid Infiltration: This method involves immersing the preform in a liquid ceramic slurry, which infiltrates the porous structure of the preform. The composite is then heated to burn off organic components and sinter the ceramics. PIP: PIP starts with a preform impregnated with a polymer. The polymer is pyrolyzed at high temperatures to leave behind a ceramic matrix. The choice of manufacturing method depends on the specific application and desired properties of the CMC.
Silicon carbide (SiC) and carbon fiber-reinforced SiC are popular choices for CMCs due to their high-temperature stability, excellent mechanical properties, and resistance to thermal shock. Oxide ceramics like alumina (Al2O3) are also used, although they have somewhat lower temperature capabilities compared to SiC.
CMCs have found applications in various industries: Aerospace: They are used in aircraft engine components, such as turbine blades and heat shields, due to their ability to withstand high temperatures and reduce engine weight. Automotive: CMCs can be found in brake discs and engine components, where their lightweight and wear-resistant properties are advantageous. Industrial: They are employed in cutting tools, furnace linings, and other applications where high-temperature stability and resistance to wear and corrosion are crucial.
Some challenges in working with CMCs include: Complex Manufacturing: The manufacturing processes for CMCs are intricate and often involve high-temperature processing, making them expensive and time-consuming. High Material Costs: The cost of CMCs can be prohibitive, mainly due to the expense of the raw materials and manufacturing processes. Brittleness: CMCs are inherently brittle, making them susceptible to damage from impacts or stresses. Specialized handling and design considerations are necessary to mitigate this issue.
CMCs are significantly lighter than most metal alloys, making them attractive for weight-sensitive applications like aerospace. They also offer competitive or superior strength, particularly at high temperatures, which is advantageous in high-performance and high-temperature environments.
CMCs have the potential to be more environmentally friendly compared to certain metals. Their lighter weight can contribute to energy savings in transportation applications. Additionally, their lower oxidation rates at high temperatures can extend the lifespan of components, reducing the need for frequent replacements and associated energy and resource use.
Recycling CMCs can be challenging due to their high-temperature processing and complex composite nature. However, researchers are exploring recycling methods to address this issue. In some cases, damaged CMC components may be repaired and reused, depending on the extent of damage and the availability of suitable repair techniques.
The future of CMCs is promising. As technology and manufacturing processes improve, CMCs are becoming more cost-effective and versatile. They are expected to see increased adoption in aerospace, energy, and automotive industries, thanks to their unique combination of properties that address various engineering challenges. Researchers continue to explore new applications and manufacturing methods to expand the use of CMCs in diverse fields.
 
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360 Quadrants

360 Quadrants is a scientific research methodology by MarketsandMarkets to understand market leaders in 6000+ micro markets

360 Quadrants

360 Quadrants is a scientific research methodology by MarketsandMarkets to understand market leaders in 6000+ micro markets

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