Top articles
- High-purity 99.7% alumina ceramics helpful to semiconductor manufacturing technology
- Alumina Ceramic Grinding Balls: High-Efficiency Solutions for Industrial Grinding
- How to Select Suitable Wear-Resistant Ceramic Lining Tiles in the Mining Industry
- Advantages of Ceramic Rubber Composite Liners in Industrial Applications
- How to Install Alumina Ceramic Liners for Long-Lasting Adhesion?
- 99% alumina bulletproof ceramics are the preferred materials for protective devices
- Alumina Ceramic Substrates:Characteristics,Advantages,Disadvantages,and Applications
- Why do alumina industrial ceramics wear out?
- The reason of abrasion resistant ceramic tiles falling off when pasted on equipment
- Seven aspects of advantages & applications of alumina ceramic substrates
Latest articles
- High-purity 99.7% alumina ceramics helpful to semiconductor manufacturing technology
- Alumina Ceramic Grinding Balls: High-Efficiency Solutions for Industrial Grinding
- How to Select Suitable Wear-Resistant Ceramic Lining Tiles in the Mining Industry
- Advantages of Ceramic Rubber Composite Liners in Industrial Applications
- How to Install Alumina Ceramic Liners for Long-Lasting Adhesion?
- Welcome to EXPOMIN 2025
- 99% alumina bulletproof ceramics are the preferred materials for protective devices
- Alumina Ceramic Substrates:Characteristics,Advantages,Disadvantages,and Applications
- Why do alumina industrial ceramics wear out?
- Chemshun Ceramics Chinese New Year Holiday Notice
Your browsing history

Wear-resistant engineering ceramics
Engineering ceramics have a high application potential for wear-protection of different working parts used for extraction, processing, conveying, and dust collection equipment in mining and mineral industries, as well as some structural rotating parts. The high alumina (Al2O3 content from 91 to 99.5 wt.%), alumina–zirconia, zirconia, and silicon carbide-based ceramics (ABSC) have been studied. They have high mechanical properties, including hardness that is greater than many processed materials, and they are able to withstand high temperatures (greater than 1300°C) and thermal shocks.
These Engineering ceramics successfully resist various solid and liquid abrasive and corrosive media transported at high velocities and pressures, and at cavitation; they may replace hard metals widely used for wear- and corrosion-protection. The features of the compositions, microstructure, and physical properties of these ceramics, as well as the wear resistance test results, are discussed. The factors affecting wear resistance of ceramics are emphasized; they may be subdivided by the factors dealing with microstructure and properties of Engineering ceramics, and by the factors dealing with application conditions (e.g. type of abrasive media, velocity, impingement angle, and others). Wear mechanisms for dense homogeneous oxide ceramics and for coarse heterogeneous ABSC are To be more in-depth.