Silicon Carbide Setter Plates

Specially designed for high-temperature industrial kilns, Semicorex silicon carbide setter plates are used to stably support, bear and transport the high-temperature workpieces that need to be fired, like ceramic bodies, metal components.

The Performance of Semicorex Silicon Carbide Setter Plates

1.Excellent high-temperature resistance:

Semicorex silicon carbide setter plates have the ability to stably support workpieces, even when they are exposed to prolonged high-temperature operating conditions. This excellent high-temperature resistance performance allows Semicorex silicon carbide setter plates to maintain their structural integrity in challenging high-temperature operating conditions, which significantly prevent the softening and deformation caused by high temperature.

2.Remarkable thermal conductivity:

Semicorex silicon carbide setter plates possess remarkable thermal conductivity, which enables rapid and uniform heat transfer to the workpieces being fired, ultimately improving the quality of the fired workpieces. This remarkable thermal conductivity also significantly cuts down the firing duration, which greatly helps companies improve production efficiency and reduce energy consumption.

3.Superior thermal shock resistance:

With their superior thermal shock resistance, Semicorex silicon carbide setter plates possess the capability to withstand rapid temperature changes without cracking or damage. This superior thermal shock resistance allows Semicorex silicon carbide setter plates to excel in kilns and high-temperature devices with frequent on-off operations, allowing them to adapt to complex temperature conditions.

4.Exceptional mechanical strength and hardness:

In high-temperature kilns or industrial furnaces, Semicorex silicon carbide setter plates are required to withstand the weight of the fired workpieces. Boasting exceptional mechanical strength and hardness, Semicorex silicon carbide setter plates deliver outstanding supporting performance, stably supporting large batches of workpieces to meet the needs of mass production. This effectively avoids potential friction or collisions between the workpieces and silicon carbide setter plates, thereby minimizing wear on the setter plate surface and prolonging their operational life.