Alumina ceramic hexagonal tiles are a key component widely used in the field of industrial wear protection. They are manufactured by high-temperature sintering of high-purity alumina (Al₂O₃), typically with an alumina content of not less than 92%. Their standard hexagonal geometric design ensures tight interlocking and gapless coverage on liner surfaces, effectively preventing material abrasion and impact. This product is primarily used as a protective lining on vulnerable parts of various industrial equipment, significantly extending their service life.
These ceramic tiles are renowned for their exceptional physical and chemical properties. With a Mohs hardness of grade 9, second only to diamond, they offer superior wear resistance. A typical bulk density of 3.6 g/cm³ provides high strength and impact resistance. Furthermore, they possess an extremely low coefficient of friction, excellent corrosion resistance, and stable chemical inertness. They maintain stable performance under high temperatures (with a continuous service temperature up to 1600°C) and harsh operating conditions without causing contamination.
In practical applications, hexagonal alumina ceramic tiles are fixed to substrate surfaces using high-strength adhesives or mechanical methods. Their installation is efficient and maintenance straightforward. They are extensively used in material handling systems across industries such as thermal power, steel, cement, mining, and chemical processing—including pipes, elbows, hoppers, fan blades, and chutes. Their design effectively reduces equipment downtime, lowers maintenance costs, and enhances the continuity and reliability of production systems.
In summary, alumina ceramic hexagonal tiles are a proven and highly efficient wear-resistant material. With outstanding hardness, durability, and broad environmental adaptability, they provide a reliable and cost-effective technical solution for protecting industrial equipment from wear, making them an indispensable component in modern process industries.
Post time: Jan-13-2026