High-Temperature Composite Material – Delivering Results, Reliability, and Rock-Solid Dependability
A composite material is formed by two or more elements with significantly diverse chemical and physical properties that, when combined, provide a material with qualities distinct from the constituent elements. The melting temperature of high-temperature composite materials is usually specified by their maximum application temperature, which is heavily reliant on the applied stress level & corrosive environment resistance.
Analysts anticipate that the market will grow due to the growing demand for high-temperature composites in various industries during the forecast period.
Increasing applications in space exploration, production, defense, electronics, transportation, telecommunications, and medicine are driving up demand for high-temperature composite materials. High-temperature composites are designed for a highly specific range of applications. These composite resins can withstand temperatures of up to 1600 degrees. Companies prefer polymer reinforced high-temperature composites over metal-reinforced resins as they perform much better under fatigue and are lighter. High-Temperature Composites were created to withstand moderate to high temperatures as well as highly harsh environmental conditions while being lightweight. Polyimide resin, for example, has good thermal-oxidative stability, allowing it to withstand high-temperature combustion without breaking molecular bonds. The resin's remarkable resistance to fire, smoke, and high temperatures makes it perfect for use in a variety of applications.
In addition, rising geopolitical tensions in the Middle East and the South China Sea are fueling the demand for modern defense equipment including hypersonic missiles, jet fighters, surveillance drones, and communication and spy satellites. Fighter jet engines, external bodies, nozzles, air defense systems, blades, and propellers, cutting edges on ballistic missiles, and fire-resistant material for submarine propulsion compartments all use high-temperature composite resin. As a result, the need for high-temperature composite resin will rise as the sale of defense equipment rises. For example, as tensions between Iran and the UAE rise, the United States has committed to sell US$23.37 billion in advanced defense equipment to the UAE, including F-35 Lightning II aircraft & MQ-9B unmanned aerial systems. Competitors in the High-Temperature Composite Market also use technology launches, acquisitions, and R&D efforts as important strategies. For example, Ube Industries, Ltd. announced in March 2020 that it will buy Premium Composite Technology North America, Inc. (PCTNA). With this acquisition, UBE will be able to open production facilities in Japan, Thailand, and Spain, as well as provide vehicle parts to manufacturers.
The complex recycling process can act as a constraint on market growth at a global level.
Various methods of recycling composites are being investigated by organizations in order to prevent pollution and the impact of global warming. The structure of thermoset resin is cross-linked, making remolding difficult or impossible. Recycling composite is a complicated procedure. Furthermore, the expense of recycled composite material is higher than that of new composite material. As a result, the majority of composite materials end up in landfills. According to the National Composite Centre, 90 percent of composite waste in the United Kingdom is disposed of in landfills. As a result, the difficulty of recycling thermoset composites is a stumbling barrier, slowing the market's growth.
By type, the ceramic matrix composite material segment is anticipated to witness a significant market share during the forecast period.
These specialized composites occupy the majority of the market share due to the rising demand for ceramic matrix composite materials in the aerospace & defense industries. High-temperature ceramic is used for the piston recess walls, bearings, braking discs, and cylinder sleeves. Ceramic matrix composite materials are gaining popularity as their applications in petrochemical, nuclear, and inertial confinement fusion grow. The aerospace and defense industries have been driving the development of high temperatures because of attributes such as low weight, lower fuel consumption, less nitride oxide emission, with reduced noise.
By application, the aerospace and defense industries are anticipated to propel the market during the forecast period.
These resins are used to make engine parts, interiors, and external structures for fighter planes, missiles, and satellites, among other aerospace and defense components. The high-temperature composites industry is growing due to the rising demand for high-temperature composite combat jets like the F-35. As a result, any growth in demand for aerospace and defense equipment will drive demand for High-Temperature Composite even higher. According to the American Aerospace Industry AIA report released in 2019, the American aerospace and defense industry generated US$929 billion in revenue in 2018, up 4.17 percent from 2017. As a result, the demand for High-Temperature Composite Market is anticipated to rise as the aerospace and military industries grow.
According to regional analysis, the High-temperature composite material market in North America is expected to hold a significant share during the projected period.
The market is expanding due to an increased market for high-temperature composites in the automobiles, nautical, aviation, & aerospace, and defense industries across the region. For manufacturing defense equipment, high-temperature composite resins offer qualities such as fire resistance, better resistance, and lightweight, as well as a greater defense budget. They are also appropriate for application in a variety of industrial verticals, including aerospace and defense, automotive, and manufacturing, due to their exceptional features. According to a report released by the US Department of Defense in 2019, the US defense budget for 2019 totaled US$686 billion, up from US$611.8 billion in 2018. Furthermore, according to a report published by the International Trade Administration in 2020, the Canadian aerospace and military industry increased from worth US$22.3 billion in 2017 to US$24 billion in 2019. As a result, the need for high-temperature composite resins is being fueled by the burgeoning aerospace industry and rising defense budgets.
COVID-19 Insights
The COVID-19 epidemic hampered the global economy, causing enormous issues in a range of economic sectors around the world. The aerospace & defense, automobile, electronics industries, and building and construction sectors, among others, bore the brunt of the crisis, with demand for high-temperature composite materials halting. MRI and C scanners, surgical target devices, X-ray couches, tables, and equipment all used modern composite prepregs despite the epidemic.
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