By using high thermal conductivity SiC in regenerative burner-type furnaces, we achieve efficient heat utilization. This innovation ensures enhanced fuel economy and a longer lifespan due to its exceptional strength, thermal shock resistance, and chemical resilience.
Our porous ceramic SiC honeycomb filters feature a unique pore distribution control, enabling low-pressure loss and high particulate matter (PM) capture performance. Additionally, these filters exhibit excellent low thermal expansion and thermal shock resistance.
SiC has a significantly higher thermal conductivity compared to general alumina. This excellent thermal conductivity enables efficient heat exchange, contributing significantly to gas savings and the realization of a carbon-neutral society.
SiC exhibits superior thermal shock resistance compared to alumina and corundum mullite. It can withstand sudden temperature changes, making it suitable for use in high-temperature environments.
SiC can propose various materials depending on the application. It can meet diverse needs with options such as silicon-containing SiC known for its strength, recrystallized SiC usable even under high-temperature oxidation atmospheres, nitride bonded SiC, and composite materials of silicon carbide and silicon nitride.
SiC experiences minimal decline in strength and high-temperature creep deformation. Therefore, it is widely used as a structural material inside furnaces (e.g., kiln furniture, beams, rollers, heater protection tubes, etc.).