Description of Ceramic Fiber Board

Ceramic fiber is produced from high purity aluminosilicate material through a strictly controlled high-temperature furnace melting and fiberizing process. Ceramic fiber products are white and odorless, which is suitable for high-temperature applications up to 2300°F. Due to the resistance to high temperatures, good thermal stability, and significant energy-saving effects, ceramic fibers are gradually replacing traditional refractory brick refractories. Comparing to the ceramic blankets, it has higher strength and vacuum forming felt.

Advantages of Ceramic Fiber Board

- Faster temperature cycling
- Lower heat storage
- Lower fuel costs
- Increased productivity
- Lower installation cost
- Easier repairs
- Resistance to thermal shock

Specifications of Ceramic Fiber Board

Applications of Ceramic Fiber Board

Refractory lining for industrial furnaces in walls, roofs, doors, stacks, etc
- Combustion chamber liners, boilers, and heaters
- Back-up insulation for brick and monolithic refractories
- Transfer of molten aluminum and other non-ferrous metals
- Expansion board joints
- Barrier against flame or heat
- Hot face layer for high velocity or abrasive furnace atmosphere

Ceramic Fiber Board FAQs

Q1: What is a Ceramic Fiber Board?

Answer: A Ceramic Fiber Board is a rigid, lightweight, and high-temperature insulating material made from ceramic fibers. It is designed for applications requiring high thermal insulation, structural integrity, and resistance to thermal shock.

Q2: What are the common applications of Ceramic Fiber Boards?

Answer: Common applications include use in furnaces, kilns, and other high-temperature industrial equipment as insulation linings, fire protection in buildings, thermal barriers in aerospace, and in high-temperature gaskets and seals.

Q3: How are Ceramic Fiber Boards manufactured?

Answer: Ceramic Fiber Boards are typically manufactured by combining ceramic fibers with binders and additives, forming them into a sheet or board shape, and then curing them at high temperatures to achieve the desired mechanical strength and rigidity.