$Glass Fiber and Ceramic Fiber Textiles for Refractory Applications System 1$
$Glass Fiber and Ceramic Fiber Textiles for Refractory Applications System 2$

$Glass Fiber and Ceramic Fiber Textiles for Refractory Applications$

$Glass Fiber and Ceramic Fiber Textiles for Refractory Applications System 1$

$Glass Fiber and Ceramic Fiber Textiles for Refractory Applications System 2$

Glass Fiber and Ceramic Fiber Textiles for Refractory Applications

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Loading Port:: Shanghai

Payment Terms:: TT OR LC

Min Order Qty:: 10 m.t.

Supply Capability:: 100 m.t./month

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Quick Details

Place of Origin:	(Mainland)	Application:	Refractory	Model Number:	LBR11110904
Brand Name:		Color:	pure white	Working Temperature:	1100-1350
Grade:	ST(STANDARD)	Length:	30000mm	Density:	500kg/m3
Width:	10-150mm	Thickness:	2-10mm	Fiber diameter:	3um

Packaging & Delivery

Packaging Detail:	Wrapped by plastic bag inside,protected by carton box outside.
Delivery Detail:	15 days after deposit

Specifications

Ceramic Fiber Tape:
1.Glass-fiber reinforced;
2.Environmental-Friendly;
3.Easy to use;
4.Harmless to human.

Characteristics

Good compression strength.

Non-toxicity, environmental protection.

Low thermal conductivity and low thermal capacity.

Good antacid oil resistance and water vapor resistance.

Ceramic Fiber Textile

The Product Description

Ceramic fiber textile includes Ceramic fiber cloth, strap, twisted rope,

round straided rope and square straided rope.All are made from our high quality

ceramic fiber material. They can be used for high temperature applications up to

2300°F. The rope is reinforced with fiberglass filament, and optional Inconel/alloy

steel wire. Ceramic fiber textiles (cloth, tape and rope) contain a certain amount

of binder material which is normally burned at lower temperature and does not affect

the insulation property.

The three different styles are designed to fit different application needs: twisted rope

is a soft rope, while square and round braid are more dense .

Application

Common applications :door seals or caulking for ovens, furnaces and boilers,

expansion joints, cable or pipe wrapping, high temperature seals or gaskets.

widely used in welding, foundry works, aluminum and steel mills, boiler insulation

and seal, exhaust systems, shipyards, refineries, power plants and chemical plants.

We also provide many other refractory and insulation materials, so if you have demands

about them, pls contact us.

Technical data

Item	Cloth	Tape	Round rope	Square rope	Twisted Rope(Yarn)	Twisted rope(wool top)
Classification Temp °C	1260
Bulk Density kg/m3	500±30
Organic Content	≤15
Working Temp	450(Glassfiber Filament)
Working Temp	1000(Metal Wire )
Loss After Firing(800°C)%	12±2	12±2	12±2	12±2	12±2	8-10
Size	30mx1mx2 30mx1mx3	widen10-120mm length30m	Φ6-50mm	20x20	Φ6-50mm	Φ6-50mm

Any question,pls feel to contact us!

Q:Can glass fiber textiles be treated with flame retardants?: Indeed, flame retardants can be used to treat glass fiber textiles. Flame retardants are substances that are applied to materials in order to decrease their flammability and inhibit the rapid spread of fire. Although glass fiber textiles possess inherent fire-resistant properties due to the nature of glass, the application of flame retardants can offer an additional layer of fire protection. By treating the textiles with flame retardants, the fabric becomes less susceptible to ignition and combustion, rendering it more resilient against flames and reducing the likelihood of fire-related incidents. This proves especially advantageous in situations where fire safety is of utmost importance, such as in the production of protective clothing, curtains, upholstery, and other textile products that must adhere to specific fire safety regulations.

Q:Can glass fiber textile be used in solar panels?: Yes, glass fiber textile can be used in solar panels. It is often used as a reinforcement material for the backsheet or encapsulation layers of solar panels to provide structural support and protection. The glass fiber textile helps in enhancing the durability and longevity of the solar panels, making them more resistant to environmental factors such as moisture, temperature changes, and UV radiation.

Q:How do glass fiber textiles contribute to UV resistance?: Glass fiber textiles contribute to UV resistance because they are made from glass fibers which have inherent UV-blocking properties. These fibers are able to absorb and reflect a significant amount of the UV radiation, thus reducing the amount of harmful UV rays that pass through the textile. This helps to protect the underlying materials, such as furniture or other objects, from UV damage and degradation.

Q:Can glass fiber textile be used in wind turbine blades?: Wind turbine blades can indeed utilize glass fiber textile. Due to its remarkable strength and lightweight characteristics, glass fiber is commonly employed in the manufacturing process of wind turbine blades. Typically, the glass fibers are woven into a textile format and then saturated with resin, resulting in a composite material. This composite material possesses exceptional tensile strength, stiffness, and fatigue resistance, enabling it to withstand the dynamic loads endured by wind turbine blades. Moreover, glass fiber textiles can be easily shaped and molded into intricate blade designs, optimizing aerodynamic performance. All in all, glass fiber textile stands as a widely utilized and efficient material option for wind turbine blades.

Q:How do glass fiber textiles affect the elasticity or stretchability of fabrics?: Glass fiber textiles, also known as fiberglass, have a minimal impact on the elasticity or stretchability of fabrics. While glass fibers themselves possess high tensile strength, when incorporated into fabrics, they do not significantly alter the stretchability. Fabrics with glass fiber textiles may exhibit slightly reduced elasticity compared to pure fabric, but the impact is generally negligible.

Q:What are the different cutting methods for glass fiber textile?: Glass fiber textiles can be cut using various methods, depending on specific requirements and desired results. Firstly, there is scissor cutting, which is the most basic and commonly used method. It involves using sharp scissors or shears to cut through the fabric. However, scissor cutting may not provide clean and precise edges. Another method is hot knife cutting, which utilizes a heated blade to cut through the glass fiber textile. The heat from the blade melts and seals the edges of the fabric, preventing fraying. This method is particularly useful for cutting thick or layered glass fiber textiles. Laser cutting is a highly precise method that employs a laser beam to cut through the glass fiber textile. It offers clean and accurate cuts with minimal fraying, making it ideal for intricate designs or when precise measurements are required. Water jet cutting, on the other hand, uses a high-pressure jet of water to cut through the fabric. This versatile method can handle various thicknesses and types of fabrics. It provides precise and clean cuts without any heat affecting the fabric. Lastly, die cutting involves using a specialized tool called a die with a sharp edge to cut through the glass fiber textile. The die is pressed onto the fabric, creating a clean and accurate cut. Die cutting is commonly used for mass production or when consistent and repeatable cuts are necessary. Each cutting method has its own advantages and limitations, and the choice depends on factors such as the desired outcome, complexity of the design, fabric thickness, and production volume. It is crucial to consider these factors in order to select the most suitable cutting method for glass fiber textiles.

Q:How do glass fiber textiles affect the moisture absorption or release of fabrics?: Glass fiber textiles, commonly known as fiberglass, can significantly affect the moisture absorption or release of fabrics. Due to their hydrophobic nature, glass fibers do not readily absorb moisture from the surrounding environment. This property acts as a barrier, preventing the fabric from absorbing moisture and thus reducing its overall moisture absorption capacity. Additionally, glass fiber textiles have a low moisture regain, meaning they do not hold onto moisture for long periods. This characteristic enables the fabric to release any moisture it may have absorbed quickly, allowing it to dry faster compared to fabrics without glass fiber content. Furthermore, the presence of glass fibers in the fabric can enhance its breathability. As glass fibers do not absorb moisture, they create spaces within the fabric structure that promote air circulation. This improved airflow helps in the evaporation of moisture, leading to increased moisture release from the fabric. Overall, the incorporation of glass fiber textiles in fabrics can reduce their moisture absorption capacity, facilitate faster moisture release, and enhance breathability. These characteristics make glass fiber fabrics suitable for applications where moisture management is essential, such as sportswear, outdoor apparel, and moisture-wicking garments.

Q:How is glass fiber textile made?: Fiberglass textile, also known as glass fiber textile, is created using a process called fiberglass manufacturing. This process begins by melting raw materials, primarily silica sand, at high temperatures to produce molten glass. Additional components such as limestone, soda ash, and alumina may be added to modify the properties of the resulting glass fiber. Once the glass reaches its molten state, it is forced through small openings in a platinum alloy bushing called a spinneret. This extrusion process allows the molten glass to form continuous filaments. These filaments are incredibly thin, typically ranging from 9 to 13 micrometers in diameter. As the filaments exit the spinneret, they are rapidly cooled and solidified by passing through water-cooled chambers. This solidification process is critical for maintaining the strength and integrity of the glass fibers. After solidification, the continuous glass filaments are gathered onto spools, forming a glass fiber roving. This roving is then further processed to produce various types of glass fiber products, including glass fiber textiles. To create glass fiber textiles, the glass fiber roving is initially separated into individual filaments and then twisted together to form a yarn. The yarn can be treated with a sizing agent to enhance its handling and processing characteristics. It can also be coated with a protective finish to improve its performance and durability. The glass fiber yarn is then woven or knitted using specialized machinery to create different types of textiles, such as fabrics, tapes, or mats. This weaving or knitting process interlocks the glass fibers, resulting in a sturdy and flexible structure. Once the glass fiber textiles are manufactured, they can be utilized in a wide array of applications, including reinforcement in composites, thermal and acoustic insulation, filtration, electrical insulation, and construction materials. In summary, the production of glass fiber textiles involves melting raw materials to produce molten glass, extruding the glass through a spinneret to create continuous filaments, solidifying the filaments, collecting them into rovings, and further processing them into yarns. These yarns are then woven or knitted to produce various glass fiber textiles with diverse properties and applications.

Q:Are glass fiber textiles resistant to electricity?: Glass fiber textiles possess resistance to electricity. They are inherently non-conductive and lack the capability to conduct electricity. This quality renders them exceptional insulators, thereby endowing glass fiber textiles with a high level of resistance to electrical current. These textiles find extensive usage in scenarios necessitating electrical insulation, such as in electrical wiring, circuit boards, and electronic devices. Moreover, glass fiber textiles also exhibit resistance to heat, chemicals, and corrosion, thus further augmenting their suitability for electrical applications.

Q:Can glass fiber textile be used in tents for extreme weather conditions?: Glass fiber textile is indeed suitable for use in tents designed for extreme weather conditions. Its exceptional strength and durability make it an ideal choice for withstanding harsh weather elements like strong winds, heavy rain, and snow. Furthermore, glass fiber textiles display remarkable tear resistance and provide excellent insulation, keeping the tent interior warm during cold weather and cool in hot weather. They also possess outstanding water repellency, ensuring that the tent remains dry even in rainy or snowy conditions. In addition, these textiles are lightweight, facilitating easy transportation and setup in various locations. In conclusion, glass fiber textile proves to be a dependable and efficient material for tents in extreme weather conditions.

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