Overview of High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper

High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper is a lightweight, high-temperature insulation material composed primarily of alumina-silica. It is manufactured through a melting and spinning or blowing process, resulting in a flexible, wool-like textile. This material is engineered to provide exceptional thermal management, conserving energy and protecting equipment in extreme temperature environments across various industries.

Features of High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper

• Excellent Thermal Stability: Withstands continuous operating temperatures up to 1260°C (2300°F) and higher for certain grades, with minimal shrinkage.

• Low Thermal Conductivity: Provides highly efficient insulation, reducing heat loss and improving energy efficiency.

• Lightweight & Low Heat Storage: Offers low thermal mass, enabling rapid heat-up and cool-down cycles for improved process control and energy savings.

• Thermal Shock Resistance: Highly resistant to damage from rapid temperature changes.

• Excellent Flexibility & Resilience: Can be fabricated into blankets, boards, papers, and textiles to fit complex shapes and applications.

• Good Chemical Stability: Resists attack from most corrosive agents, except strong alkalis and hydrofluoric acid.

Specification of High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper

High-temperature resistant ceramic fiber paper handles extreme heat up to 1260°C. This refractory inorganic paper is made from pure alumina-silicate ceramic fibers. It works well for demanding thermal applications needing reliable performance. The paper offers excellent thermal insulation. It reduces heat loss effectively. Good chemical stability means it resists most corrosive agents. Acids and alkalis generally do not damage it. Low thermal conductivity keeps heat contained efficiently. This saves energy.

The material provides good electrical insulation properties. It is lightweight and easy to handle. Cutting and shaping are simple processes. You can cut it with standard tools. Mechanical strength is consistent. The paper stays strong after exposure to high temperatures. It handles thermal shock very well. Rapid temperature changes cause minimal damage. This durability is important for industrial uses.

Its uniform thickness ensures reliable performance. Consistent density provides predictable insulation values. The smooth surface allows easy application. You can wrap it around complex shapes. It bonds well with adhesives when needed. The paper is inorganic and contains no binders. This eliminates smoke or smells during initial heating. Non-combustible properties add safety. It will not burn or support flames.

Typical applications are diverse. It is used for high-temperature gaskets and seals. Furnace and kiln linings often incorporate this paper. It insulates expansion joints effectively. Backing insulation for fireproof doors is common. Thermal barriers in automotive systems use it. Foundry mold linings benefit from its resistance. The paper protects sensitive components from heat. Its versatility makes it a practical solution for many industrial heat management challenges.

Applications of High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper

This ceramic fiber paper handles extreme heat. It withstands temperatures up to 1260°C. The material is made from refractory inorganic ceramic fibers. These fibers give it strength and heat resistance. People use this paper in many hot industrial jobs.

It works well for furnace linings. Workers place it inside furnace walls. It acts as a heat barrier. This saves energy. The furnace heats up faster. It also stays hotter longer. This paper protects the furnace’s outer metal shell. The shell stays cooler. This prevents damage. It makes the furnace last longer.

This paper is good for gaskets. It seals furnace doors and inspection ports. The seal must hold against intense heat. Normal gasket materials burn or melt. This ceramic paper does not. It keeps the seal tight. This stops heat leaks. It also improves safety. Hot gases stay inside the furnace.

People use it for pipe insulation. Hot pipes need covering. This paper wraps around pipes easily. It stops heat loss. Workers stay safer near hot pipes. It protects other equipment nearby. Sensitive parts won’t overheat.

It serves as insulation for electrical parts. Some electrical components get very hot. This paper shields them. It is non-conductive. This prevents electrical shorts. It also protects wiring insulation.

The paper is lightweight. It is easy to cut and shape. Workers handle it with simple tools. They cut it with knives or scissors. They form it to fit complex shapes. This makes installation quick. It saves time and labor costs.

Its thermal properties are excellent. Heat doesn’t pass through it easily. It keeps heat where it belongs. This is vital for efficiency. It resists thermal shock well. Rapid temperature changes won’t crack it. This reliability matters in harsh factories.

Chemical resistance is another benefit. It doesn’t react with many acids or alkalis. This suits it for chemical plants. Molten metal splash won’t harm it. Foundries use it for ladle linings and spill pads.

It provides good sound insulation too. Furnaces and kilns can be noisy. This paper helps dampen the sound. Workers appreciate a quieter environment. Safety standards often require noise control.

People value its long life. It doesn’t degrade quickly under heat. This means less replacement downtime. Maintenance costs stay lower. It offers consistent performance.

Company Profile

Tanki New Materials Co.Ltd. focus on the research and development, production and sales of ceramic products, serving the electronics, ceramics, chemical and other industries. Since its establishment in 2015, the company has been committed to providing customers with the best products and services, and has become a leader in the industry through continuous technological innovation and strict quality management.

Our products includes but not limited to Aerogel, Aluminum Nitride, Aluminum Oxide, Boron Carbide, Boron Nitride, Ceramic Crucible, Ceramic Fiber, Quartz Product, Refractory Material, Silicon Carbide, Silicon Nitride, ect. please feel free to contact us.

Payment Methods

T/T, Western Union, Paypal, Credit Card etc.

Shipment Methods

By air, by sea, by express, as customers request.

5 FAQs of High-temperature resistant 1260°C ceramic fiber paper, refractory inorganic ceramic fiber paper

High-Temperature Ceramic Fiber Paper FAQs

What is this ceramic fiber paper?
This is a special paper. It’s made from inorganic ceramic fibers. It handles extreme heat up to 1260°C (2300°F). It’s lightweight, flexible, and strong. People use it where regular materials fail.

How hot can it really get?
The maximum continuous temperature is 1260°C. Short bursts might reach higher. Don’t exceed 1260°C for long periods. Going too hot damages the paper. It loses strength and insulation value.

Is it safe? Does it contain asbestos?
No, it contains no asbestos. It’s made from alumina-silica materials. These are safe, man-made fibers. Always handle it carefully. Fibers can be irritating. Wear gloves and a dust mask. Good ventilation helps.

Where do people use this paper?
It has many high-heat jobs. It lines furnaces and kilns. It makes gaskets for hot pipes. It wraps exhaust components. It insulates electrical elements. It shields sensitive parts. It fills gaps in fireproofing.

Can I cut and shape it easily?
Yes, you can cut it with regular scissors or knives. You can die-cut it precisely. You can fold or wrap it around shapes. This makes installation simple. Handle it gently. It tears if pulled too hard. It crumbles under heavy pressure.

How well does it insulate?
It provides excellent thermal insulation. Its fibrous structure traps air. This stops heat moving through. It keeps heat in or out effectively. It saves energy. It protects surrounding materials. Its low thermal conductivity is key.