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Market Prospects of Ceramic Matrix Composites

Key Takeaways The global ceramic matrix composites market is expected to grow from USD 11.35 billion in 2021 to USD 12.26 billion in 2022 (CAGR 8.05%) and reach USD 17.15 billion in 2026 (CAGR 8.75%), according to Research And Markets. Ceramic matrix composites combine a ceramic matrix, reinforcing fibers and an interface layer; the fibers overcome the brittleness, mechanical unreliability and low conductivity that limit monolithic ceramics. C/SiC composites toughen silicon carbide with carbon fibers that absorb fracture energy through crack deflection, fiber...

Application of Quartz Glass in Optical Field

Key Takeaways Quartz glass is a single-component silica glass praised as the King of Glass; high-purity quartz glass transmits well across a very wide spectrum from far ultraviolet (160 nm) to far infrared (5 um), which ordinary optical glass cannot match. In optical fiber communication, silica fiber offers high precision, strength, reliability, low energy consumption and simple assembly, and quartz fiber is increasingly important for artificial satellites, deep space exploration and inertial navigation. Quartz glass serves as terminal optical components in the Shenguang-III...

Quartz Glass vs Ordinary Glass: Differences

What is the difference between quartz glass and ordinary glass? Key Takeaways Hardness: quartz glass generally reaches Mohs 7, while ordinary glass only reaches about 5.5 to 6. Light transmission: quartz glass can transmit infrared and ultraviolet rays, while ordinary glass cannot. Color: quartz glass is generally colorless, while ordinary glass is generally colored. High-temperature resistance: red-hot quartz glass does not burst even when placed immediately in water, while ordinary glass bursts immediately once burned red. Use precautions: handle valuable quartz products with care, never exceed...

Silicon Carbide Ceramics: Properties & Applications

Excellent properties and application fields of silicon carbide ceramics Key Takeaways Silicon carbide ceramic is a high-performance structural ceramic combining extreme hardness, high-temperature stability and corrosion resistance. Its properties make it valuable in mechanical seals, armor, semiconductor components and high-temperature fixtures. As a high-performance structural ceramic material, silicon carbide ceramics have excellent comprehensive properties that are unmatched by structural materials such as metals: (1) High temperature strength, small high temperature creep, suitable for various high temperature environments. (2) Low thermal expansion coefficient, high thermal...

Silicon Carbide Wafer Applications & Trends

Silicon carbide wafer application and future development trend Key Takeaways Silicon carbide is the main development direction of the power semiconductor industry. SiC wafers enable devices that run at higher voltage, frequency and temperature than silicon, cutting energy losses in EVs, fast charging and grid equipment. The industry trend is toward larger SiC wafer diameters and lower defect densities. Silicon carbide (SiC) is the main development direction of the power semiconductor industry, and its use in the manufacture of power devices can significantly improve...

Processing Silicon Carbide (SiC): Steps and Tools

How to process silicon carbide? Last reviewed: September 2026 Key Takeaways Silicon carbide is the key material of the power semiconductor industry, but its hardness makes every processing step demanding. SiC processing flows from crystal growth through slicing, grinding and polishing, with diamond-based tooling used at each hard-material step. Silicon carbide (SiC) material is the main development direction of the power semiconductor industry. It is used to make power devices and can significantly improve the utilization rate of electric energy. In the foreseeable future,...

Diamond wire loop saw cut NdFeB magnet

Diamond wire loop saw cutting NdFeB magnet Key Takeaways NdFeB magnets are tetragonal Nd2Fe14B crystals — the strongest commercial permanent magnets in use today and the most common rare-earth magnet across electronics, motors, medical equipment and aerospace. There are two types: bonded NdFeB, which is magnetically isotropic and corrosion-resistant, and sintered NdFeB, which is stronger but corrodes easily and must be plated (zinc, nickel, or nickel-copper-nickel coatings). Traditional cutting routes are reciprocating long-wire saws for large magnets and inner-diameter (ID) slicing machines for small...

Traditional solar cell production process

Traditional solar cell production process Key Takeaways Traditional solar cell production starts with silicon wafer manufacturing and proceeds through texturing, diffusion, etching, coating and metallization. Wafer slicing quality — kerf, TTV and surface damage — directly affects cell efficiency and yield. Before we always described the manufacturing principle and processing process of silicon wafers, today we will describe the production process of traditional solar cells. Traditional cell production can be mainly summarized into 6 steps. From the perspective of the traditional cell manufacturing process,...