실리콘 카바이드 파이버 시장

Based on its form, the silicon carbide fiber market can be divided into continuous and woven silicon carbide fiber products. With increased industrial production coming out of aerospace & defense sectors and power industry using continuous silicon carbide fiber for creating nuclear reactors as main drivers.

High-temperature resistant

Silicon carbide fiber’s high temperature resistance makes it an excellent reinforcing material for metals and plastics, producing composites with both high tensile strength and modulus of elasticity. Furthermore, silicon carbide fiber electrodes are widely used in furnaces and induction cookers as an industrial heating source; additionally it may be doped with nitrogen, phosphorus, aluminum or gallium dopants to produce n-type and p-type semiconductors.

Silicon carbide stands up well to high temperatures while being chemically stable and dimensionally stable, which makes it an excellent material choice for wafer tray supports and paddles in semiconductor furnaces, as well as being used as kiln liners, wear plates and liner tubes in electronics manufacturing plants.

Nuclear facility construction across both developed and developing nations is progressing quickly, which could increase demand for energy & power components that contain silicon carbide fiber insulation materials such as power reactors that use them extensively as insulation material.

Methods for producing high-temperature resistant silicon carbide fibers consist of three steps: procuring precursor fibers through polycarbosilane melt spinning, immersing these precursor fibers in reaction monomers for soaking and curing treatment to achieve an ideal ratio between cross-linking layer thickness and fiber diameter of 0.1-0.99 and finally cracking under inert gas to obtain SiC fibers that offer excellent temperature resistance as well as reduced manufacturing costs and suitable flexural properties. The final products possess excellent high temperature resistance, low manufacturing costs and good flexural properties for their applications.

Reinforcement material

Silicon carbide fiber is used as a reinforcement material in ceramic matrix composites (CMC). Its properties make it suitable for use in many energy industry applications such as coal power plants and nuclear reactors as well as in heat-resistant curtains and belts. Silicon carbide fiber’s resistance to high temperatures and durability make it an excellent choice as an ingredient in CMC reinforcement materials, such as thermal resistance curtains or belts.

Since 2008, significant advances have been made in silicon carbide fiber manufacturing techniques, leading to near-stoichiometric small diameter fibers with properties suitable for most ceramic matrix composite (CMC) and nuclear applications. Unfortunately, manufacturing costs still limit their usage.

Silicon carbide fiber demand in North America is increasing quickly as aerospace and military industries expand, driven by strong commercial aircraft demand as well as rising defense expenditure in the region. Increased spending should fuel increased hybrid aluminium metal matrix composites reinforced with silicon carbide fiber reinforcement.

The global silicon carbide fiber market can be divided up by form and application. Continuous silicon carbide fibers held the largest market share in 2023 and are projected to experience compound annual compound annual growth at an expected compound annual compound annual growth rate of 35.9% from 2024-2030. These easy to work with fibers can easily be integrated into complex-shaped components while their radiation resistant nature draws attention from nuclear power generation industries.

Metal matrix composites

Silicon carbide fiber can help aircraft engines cut weight and cost by decreasing weight-bearing materials used. But its production presents its own set of challenges; such as being able to withstand high temperatures without cracking; as well as corrosion-resistance and fatigue resistance properties in its materials.

One option for improving composites would be the creation of new metals that provide better matches between reinforcement materials and reinforcement metals, leading to stronger and more durable composites. Another approach might involve using ceramic matrices that make composites lighter while still permitting fibers to be shaped into various forms.

Boron fiber-reinforced aluminum matrix composites produced for jet engine components have the advantage of being two times stronger and more heat-resistant than nickel-based alloys, but cost about $100 less per pound to produce – representing a significant improvement over conventional nickel alloys that are currently standard across most aircraft components.

For creating boron-reinforced metal matrix composites, silicon carbide fibers must first be coated with metal to enhance their wettability with the matrix metal and be piled and heated under pressure before being filled in between each stack by using matrix metal powder mixed with an organic binder.

애플리케이션

Silicon carbide fiber is a form of refractory material used in multiple applications, including heat-resistant materials for jet engines and ceramic matrix composites, reinforcement material for high temperature belts and filter cloths, filtering high temperature gases or metals through filter cloth filters and key component in silicon carbide-reinforced metallic matrix composites – applications which should contribute significantly to revenue growth within the market.

By 2024, woven Silicon Carbide Fiber will likely dominate the global market due to its superior mechanical properties and manufacturing flexibility. Woven silicon carbide fiber can be easily woven into different structures such as hoses, tubes, or bags and features excellent wear-resistance making it a top choice for automotive parts.

Silicon Carbide Fiber can outshone traditional nickel-based superalloys by being two times stronger and 20% lighter, with improved chemical stability, chemical durability, heat resistance, thermal conductivity and durability. Furthermore, SiC crystalline structure can withstand higher levels of tensile stress without deformation or breakage.

American Elements offers an impressive range of advanced materials for aerospace and electronics use in the US. These include SiC fibers from Sylramic produced by COI Ceramics Inc and packaged on 3 inch cardboard spools; it can be woven or taped according to individual customer requests in multiple weave patterns; additionally it comes in multiple sizes and lengths for ultimate flexibility.