Thermal Shock Resistance

This is a high-density refractory made from the RS series. It offers high strength, thermal shock resistance, and high thermal conductivity, making it suitable for a wide range of furnace applications.

This refractory material has high refractoriness and chemical resistance. This highly corrosion-resistant material maintains its shape and strength even under harsh conditions, making it suitable for use in the sintering of electronic materials.

This is a silicon carbide-based refractory material bonded with silicon nitride. It offers excellent high-temperature strength and thermal shock resistance, maintaining its strength even in harsh environments.

This is a refractory material with a mullite crystal structure. It features high refractoriness and thermal shock resistance, and is lightweight, strong, and suitable for a wide range of applications.

This is a refractory material made primarily from fused magnesia. It minimizes wear and offers high corrosion resistance, delivering excellent performance in applications such as setters and crucibles.

This refractory material is made by adding a special binder to alumina raw material and firing it at high temperatures. It features high purity, high refractoriness, and high-temperature stability, and offers a wide range of properties.

This is a high-precision, high-resolution 3D printing solution that combines 3D printing technology with the unique Ceramics sintering technology developed by Mitsui Kinzoku .

This is a silicate-bonded silicon carbide-based refractory material. With its high-temperature strength, wear resistance, and thermal shock resistance, it helps extend the furnace's service life and reduce maintenance.

It is a solution raw material for tantalum, niobium, and other difficult-to-solve elements. It has excellent handling properties and is useful in various applications such as catalysts, film deposition, and sol-gel.