Cordierite ceramics exhibit a wide range of application potential in the industrial field due to their low thermal expansion, high-temperature stability, chemical corrosion resistance, and strong adsorption capacity, especially in environments with stringent high-temperature and chemical property requirements.

Steatite ceramics offer excellent thermal and electrical insulation properties. With lower costs compared to other ceramic materials like alumina and zirconia, they are commonly used to manufacture insulators, supports, thermostats, and spark electrodes. Various production processes, including dry pressing, injection molding, isostatic pressing, and extrusion, are employed for steatite ceramics.

High-purity wear-resistant ceramic balls have low impurity content and a dense, uniform structure, providing excellent wear resistance and stability in long-term high-strength environments. With high hardness, they can withstand impact and abrasion while maintaining a smooth surface. Their stable chemical properties and corrosion resistance make them suitable for various acidic and alkaline environments, meeting specific industry needs.

The porous ceramic plate has good permeability and strength, with a unique porous structure that ensures uniform airflow distribution and enhances the stability of vacuum adsorption. Its high-temperature and corrosion-resistant properties make it suitable for various industrial environments, while its good mechanical strength allows it to withstand significant loads, ensuring efficient and safe adsorption performance.

Cordierite ceramics, with their low thermal expansion, high-temperature stability, chemical resistance, and strong adsorption properties, demonstrate significant application potential in industrial fields, particularly in environments with stringent high-temperature and chemical requirements.

Utilizing high-purity fine powder as raw material, we meticulously control the parameters of each process step—from raw powder preparation and large-size isostatic pressing to sintering. This approach successfully addresses the machining challenges, such as cracking and chipping, associated with the inherent high hardness and brittleness of ceramic materials. As a result, we achieve miniaturization and high-performance precision of components. Our solutions provide stable and precise planar support in precision manufacturing, enabling effective positioning and movement of workpieces during micro-machining, ensuring high precision and rapid transmission. The internal porous channel design facilitates a uniform gas film.

We use high-purity fine powders as raw materials and control the entire process from raw powder preparation, molding, sintering, grinding, to polishing. This allows us to manufacture electronic ceramic components with complex shapes and high precision, meeting the demands for miniaturization and microfabrication in electronic devices.

We use high-purity fine powders as raw materials and control the processes of raw powder preparation, molding, sintering, grinding, and polishing to manufacture electronic ceramic components with complex shapes and high precision dimensions, meeting the demands for miniaturization and microminiaturization in electronic devices.

Capable of maintaining stability at high temperatures, preventing a decline in grinding performance or damage to the grinding disc due to overheating. The product features a smooth surface, high hardness, and strong toughness.

High-purity alumina ceramic-air-bearing-pad provides effective positioning support for workpieces. When machining high-precision mechanical parts on CNC grinders, these strips ensure stable positioning during processing. With micron-level flatness accuracy, they minimize displacement deviations, ensuring machining dimensions meet high standards. The internal porous design delivers a uniform air film.