AC6129 Cordierite Refractory Brick

Cordierite Refractory Brick Description

Cordierite Refractory Brick is a type of refractory material made primarily from cordierite, a magnesium aluminum silicate mineral known for its low thermal expansion, high thermal shock resistance, and good insulating properties. These bricks are specifically designed for applications where high resistance to thermal cycling (rapid heating and cooling) is required.

Cordierite Refractory Brick Specifications

Cordierite Refractory Brick Applications

• Kilns and Furnaces: Used in ceramic kilns and industrial furnaces due to excellent thermal shock resistance.
• Ovens: Ideal for pizza and baking ovens, providing consistent and even heating.
• Catalyst Support: Serves as support in automotive catalytic converters and industrial reactors.
• Thermal Insulation: Used in glassmaking and metal processing furnaces for effective insulation.
• Heater Panels: Utilized in electric and infrared heaters for high-temperature resistance.

Cordierite Refractory Brick Packaging

Our Cordierite Refractory Brick is carefully handled during storage and transportation to preserve the quality of our product in its original condition.

FAQs

Q1: What is Cordierite Refractory Brick?

Cordierite Refractory Brick is a type of ceramic brick made from cordierite, a mineral with excellent thermal shock resistance and low thermal expansion. It is commonly used in high-temperature applications, such as kilns, furnaces, and ovens, where consistent temperature resistance is required.

Q2: What are the temperature limits for Cordierite Refractory Brick?

Cordierite Refractory Bricks typically withstand temperatures up to 1,250°C (2,282°F). However, their performance may vary depending on the specific formulation and manufacturing process.

Q3: How does Cordierite Refractory Brick compare to other refractory materials?

Compared to other refractory materials like alumina or silicon carbide, cordierite bricks offer superior thermal shock resistance and lower thermal expansion. However, they may not be suitable for extremely high-temperature applications where materials like alumina or mullite would perform better.