In the field of industrial equipment wear protection, Three-in-one Ceramic Composite Plates have become a star product in the mining, power, steel and other industries with its unique "ceramic + rubber + steel plate" three-layer composite structure. This structural design breaks through the performance limitations of traditional single-material linings and achieves a perfect combination of impact resistance, wear resistance, lightweight and long life.
The structure analysis of Three-in-one Ceramic Composite Plates
1. Wear-resistant ceramic Layer
High-purity alumina ceramics (Al₂O₃ content ≥ 92%) are used, and the hardness is second only to diamond (Rockwell hardness HRA ≥ 85). The ceramic layer is inlaid or bonded through a special process, and the surface is smooth and dense, which can resist material erosion and cutting wear, and is especially suitable for harsh working conditions such as high-hardness ores and coal powder.
2.Middle rubber layer: buffer layer
High-strength natural rubber or synthetic rubber is used to form an elastic buffer layer after vulcanization. It has three functions:
Impact resistance: absorb more than 80% of the impact energy to prevent ceramics from breaking due to brittleness.
Noise reduction and shock absorption: reduce equipment operation noise and vibration transmission.
Seal and prevent loosening: compensate for installation gaps through elastic deformation to prevent material penetration.
3. Steel plate base: Easy installation
The steel plate provides overall structural strength, ensuring that the liner can be welded and easily installed, while dissipating local stress and extending service life.
Application of Three-in-one Ceramic Composite Plates : The preferred solution for heavy-duty conditions
Mine crusher/ball mill lining
Coal transportation system for thermal power plants
Ship unloader chute for port terminals
Sintering conveyor line for steel plants
Three-in-one Ceramic Composite Plates design not only reduces equipment maintenance costs, but also provides innovative solutions for the green upgrade of industrial equipment through its lightweight and long life characteristics. This structural innovation is redefining the industry's understanding of the performance of wear-resistant materials and becoming a new benchmark for cost reduction and efficiency improvement in the heavy industry sector.
