Products

Superior Performance: Combines ceramic material benefits (high temperature resistance, corrosion resistance, insulation) with precision machining (sub-micron accuracy)—outperforming metal/plastic in harsh, high-precision scenarios. Long Service Life: Wear resistance and chemical inertness extend part lifespan 5-10 times compared to metal (e.g., ceramic bearings last 3x longer than steel bearings). Energy Efficiency: Low friction (e.g., ceramic bearings) and low density (e.g., Si₃N₄) reduce energy consumption in rotating machinery (e.g., EV motors). Purity & Compatibility: Non-toxic, non-porous, and non-magnetic—suitable for food, pharmaceutical, and MRI applications.

Longer Service Life: Wear resistance and corrosion resistance are 5-10 times higher than metal pistons—reduces maintenance costs and downtime (e.g., ceramic engine pistons last 2-3x longer than aluminum alloy versions). Higher Operating Temperatures: Withstands 1000°C+ temperatures (vs. 300-500°C for metal)—enables machinery to operate at higher efficiencies (e.g., gas turbines with ceramic pistons have 10-15% higher thermal efficiency). Improved Energy Efficiency: Low density (silicon nitride) reduces reciprocating inertia, and low friction reduces energy loss—automotive engines with ceramic pistons can achieve 5-10% better fuel economy. Corrosion Resistance: Inert to most acids, alkalis, and seawater—eliminates rust and material degradation in harsh chemical/marine environments. Reduced Lubrication Needs: High wear resistance allows dry or minimal lubrication—lowers maintenance costs and avoids lubricant contamination in food/chemical applications.

Ceramic Advantages Superior Optical Precision: Dimensional tolerance ±0.001 mm and low thermal expansion ensure laser alignment stability—critical for high-precision applications (e.g., semiconductor lithography). Excellent Thermal Management: AlN/SiC ceramics dissipate heat 3-7x faster than metal/plastic—prevents high-power laser diode burnout and extends component lifespan. EMI Immunity: Insulating ceramics avoid electromagnetic interference—ensures reliable performance in communication lasers and medical systems. Environmental Resistance: Resists high temperatures (up to 1600°C), humidity, and chemicals—suitable for harsh industrial, automotive, or space environments. Long-Term Reliability: Wear resistance and corrosion resistance reduce maintenance needs—laser systems with ceramic holders have a lifespan 2-3x longer than those with plastic/metal holders.

Ceramic rotor shafts and rings are high-performance precision components widely used in rotating machinery (e.g., motors, pumps, bearings, turbines). Their core material is typically advanced technical ceramics—selected based on application requirements for wear resistance, corrosion resistance, thermal stability, or electrical insulation

99% alumina ceramic valve plate is a critical functional component in fluid control valves, where the core plate structure is fabricated from 99% high-purity alumina ceramic (Al₂O₃ content ≥99%, with trace impurities such as SiO₂, MgO, and CaO accounting for the remaining 1%).

99% alumina ceramic versions leverage the material’s intrinsic advantages: ultra-high hardness, exceptional wear resistance, strong corrosion resistance, and high-temperature stability. These properties make the valve ideal for controlling abrasive, corrosive, or high-temperature fluids (e.g., slurry, acid/alkali solutions, high-temperature gases) where metal valves are prone to wear, corrosion, or deformation—significantly extending service life and ensuring consistent flow control accuracy.

For terminal blocks, steatite ceramic is favored for its excellent electrical insulation, good mechanical strength, and cost-effectiveness—making it a mainstream choice for medium-to-low voltage electrical connection scenarios, especially where high-temperature resistance and insulation reliability are required

High purity and density, ensuring stable and reliable performance. Excellent wear resistance, high temperature resistance, and electrical insulation. Good chemical stability, suitable for harsh working environments. High dimensional accuracy and surface finish after precision machining.

● Mechanical Field : It is used to manufacture high - speed motor shafts and transmission components of precision machine tools, ensuring the stability and reliability of equipment operation. ● Chemical Field : In chemical pumps, mixers and other equipment, it can resist the erosion of strong - corrosive chemicals. ● Electronic Field : In semiconductor manufacturing equipment, it can meet the requirements of high - precision processing technology for components. ● Aerospace Field : It can be used to manufacture shaft - type components of aero - engines, providing a guarantee for the safe flight of aircraft. ● Medical Field : It is used to manufacture medical devices such as dental implants and artificial joints, and its biocompatibility and mechanical properties are beneficial to improve the service life and safety of medical devices.

  • Excellent Electrical Insulation: It has high volume resistivity and dielectric strength, performing stably even in high-frequency electric fields, which makes it ideal for insulating applications. • Low Thermal Conductivity: It exhibits good heat insulation, effectively reducing heat transfer and suitable for scenarios requiring thermal protection. • Mechanical Durability: It possesses moderate compressive and flexural strength, along with good wear and impact resistance, ensuring long-term use in harsh environments. • Chemical Stability: It is resistant to most acids, alkalis, and organic solvents, maintaining structural integrity in corrosive conditions. • Easy Processability: It can be easily shaped and machined into various sizes without cracking or deformation, meeting customized requirements.

Ceramic Advantages 1). Strong acid resistance2). Strong insulation3). Strong adsorption4). High thermal insulation performance 5). Chemical stability6). High compressive strength

Ceramic Advantages 1). Strong acid resistance2). Strong insulation3). Strong adsorption4). High thermal insulation performance 5). Chemical stability6). High compressive strength