• High silica fiberglass cloth resisting 1000Centigrade System 1
  • High silica fiberglass cloth resisting 1000Centigrade System 2
High silica fiberglass cloth resisting 1000Centigrade

High silica fiberglass cloth resisting 1000Centigrade

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
50 m
Supply Capability:
10000 m/month

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Product Description

Silica fiberglass is inorganic fiber that contents more than 96% of SiO2, it's resistant to high temperature, soft point 1700°C, long term service temperature 900 °C, it can work 10 minites at 1450 °C and keeps good state at 1600 °C for 15 seconds. For it's properties of chemical stability, high temperature resistance and ablation resistance, it widely used in aviationand aerospace, metallurgy, chemical, building material and fire fighting industry, etc.

Our factory is the only one that specialized manufacture silica fiberglass in China and has the production line of the whole process from marble making, fiber forming, weaving, and finish. The strength of silica fiberglass made from Na2O-B2O3-SiO2  system glass is 3-5 times higher than that from E glass.  The products sold to more than 20 provinces, cities, autonomous regions and exported to foreign countries.

Silica fiberglass products are available in forms of needled mat, fabric, scrim, staple yarn, chopped strand and cord, etc.

 

Product Properties

 

1> SiO2>=96%

2> soft point nearly 1700°C, long-time working at 900°C

3> low thermal conductivity

4> good chemical stability

5> good electrical insulation

6> low thermal shrinkage

7> Non-asbestos product without pollution

8> good process performance

 

 

 

Product Uses

  • High temperature resistant, insulation and sealing material

  • High temperature ablation resistant material

  • Fireproof material (for fireproof protective clothe, fireproof curtain, fire blanket)

  • Dust collecting in media of high temperature gas and filtration in media of high temperature liquid

  • Filter for molten metal

  • Distinguisher, insulation material, filtration of automobile and motorcycle

  • Protective material for welding

  • Electricity insulation material

High silica fiberglass cloth resisting 1000Centigrade

High silica fiberglass cloth resisting 1000Centigrade


High silica fiberglass cloth resisting 1000Centigrade

High silica fiberglass cloth resisting 1000Centigrade


Q:How do glass fiber textiles compare to other types of textiles?
Glass fiber textiles are known for their exceptional strength and durability, making them stand out among other types of textiles. Unlike natural fibers like cotton or silk, glass fiber textiles are resistant to heat, chemicals, and harsh weather conditions. They also offer superior insulation properties, making them ideal for applications requiring thermal control. Additionally, glass fiber textiles have a low water absorption rate and are highly resistant to mold, rot, and pests. While they may be less flexible and softer than other textiles, their unique properties make them well-suited for specialized uses such as in aerospace, construction, and automotive industries.
Q:Can glass fiber textile be used in high-temperature applications?
Glass fiber textile is capable of being utilized in high-temperature scenarios. Its exceptional thermal resistance attributes render it suitable for deployment in environments with elevated temperatures. It can endure temperatures of up to 1000°C (1832°F) without compromising its structural integrity or mechanical properties. This renders it an optimal choice for applications including insulation blankets, gaskets, seals, and protective clothing in industries like aerospace, automotive, and industrial manufacturing, where elevated temperatures are prevalent. Moreover, glass fiber textile is renowned for its low thermal conductivity, which aids in minimizing heat transfer and enhancing energy efficiency in diverse high-temperature applications. In summary, glass fiber textile is a dependable and efficient material option for high-temperature environments.
Q:How do glass fiber textiles contribute to chemical resistance?
Chemical resistance is achieved by glass fiber textiles through their inherent properties and manufacturing processes. Firstly, glass fibers possess a high resistance to various chemicals due to their amorphous nature, lacking a regular crystalline structure. This structural characteristic makes glass fibers less vulnerable to chemical attack and degradation compared to natural fibers or synthetic polymers. Moreover, different types of glass can be used in the production of glass fiber textiles, each offering specific chemical resistance properties. For instance, E-glass is commonly utilized for general chemical resistance, while C-glass provides enhanced resistance to alkali chemicals. Manufacturers can customize the textile's chemical resistance by carefully selecting the glass composition. The manufacturing process of glass fiber textiles also contributes to their chemical resistance. Typically, the glass fibers undergo coating or impregnation with chemical-resistant finishes or coatings during production. These additional layers of protection enhance the textile's resistance to chemical attack, ensuring it remains resistant to corrosive substances. Besides their inherent properties and manufacturing processes, glass fiber textiles offer other advantages that contribute to their chemical resistance. They possess high tensile strength and dimensional stability, enabling them to withstand physical stress and maintain their shape even in the presence of harsh chemicals. Furthermore, glass fibers are non-flammable and have low thermal conductivity, making them suitable for applications involving high temperatures or fire hazards. In conclusion, glass fiber textiles contribute to chemical resistance through their inherent properties, manufacturing processes, and the application of additional finishes or coatings. They provide a durable and dependable solution for applications where protection against chemical corrosion is crucial.
Q:Can glass fiber textiles be used in reinforcement of ceramics?
Indeed, ceramics can benefit from the utilization of glass fiber textiles for reinforcement purposes. The incorporation of glass fibers into ceramic materials proves advantageous due to their remarkable attributes including high strength, stiffness, and exceptional resistance against chemical and thermal degradation. By introducing glass fibers, the mechanical properties of ceramics such as tensile strength, toughness, and fracture resistance can be enhanced. Additionally, the incorporation of glass fibers enhances the overall thermal and electrical conductivity of ceramics. Moreover, glass fibers contribute to dimensional stability and hinder the occurrence of cracks or delamination in ceramic structures. In summary, glass fiber textiles serve as a potent option for reinforcing ceramics, enabling the creation of more robust and long-lasting ceramic materials suitable for a variety of applications.
Q:Can glass fiber textiles be used in wind turbine blades?
Yes, glass fiber textiles can be used in wind turbine blades. Glass fiber is a commonly used material in the manufacturing of wind turbine blades due to its excellent strength-to-weight ratio and durability. It is made by weaving glass fibers together to create a textile-like material that is then impregnated with a resin matrix to provide structural integrity. These textiles offer several advantages for wind turbine blades, including high tensile strength, stiffness, and resistance to fatigue and corrosion. Additionally, glass fiber textiles can be easily molded into complex shapes, allowing for the production of aerodynamically efficient blade designs. Overall, glass fiber textiles are a suitable and widely used material in the construction of wind turbine blades.
Q:What are the challenges in manufacturing glass fiber textile?
Manufacturing glass fiber textiles presents numerous challenges. One primary obstacle lies in the intricate and complex process necessary for creating high-quality glass fiber materials. This involves melting glass at extremely high temperatures, drawing the molten glass into fibers, and subsequently weaving or knitting these fibers into textiles. Another challenge arises from the substantial energy consumption required during the manufacturing process. Glass fiber production demands heating the glass to extreme temperatures, which necessitates a significant amount of energy. Consequently, this can lead to high production costs and environmental concerns. In addition, the manufacturing of glass fiber entails the need for specialized equipment and machinery. The production lines must be meticulously designed and maintained to ensure the smooth and efficient creation of textiles. Any malfunction or breakdown in the machinery can result in delays and increased production costs. Furthermore, glass fibers are susceptible to breakage and damage throughout the manufacturing process. Due to the fragility of the fibers, they must be handled with utmost care to prevent any breakage or defects. This adds complexity to the manufacturing process and increases the likelihood of quality control issues. Moreover, the manufacturing process involving glass fibers presents health and safety risks. These fibers can cause irritation to the skin, eyes, and respiratory system. Consequently, manufacturers must implement strict safety protocols and provide protective equipment to safeguard the well-being of workers. Lastly, market demand and competition pose additional challenges in the manufacturing of glass fiber textiles. The industry is highly competitive, necessitating manufacturers to continually innovate and enhance their products to maintain a competitive edge. Meeting the diverse demands of customers while upholding high-quality standards can prove challenging. In conclusion, the manufacturing of glass fiber textiles encompasses a range of challenges, including intricate production processes, high energy consumption, specialized machinery requirements, fragility of the fibers, health and safety risks, and market competition. Overcoming these challenges necessitates ongoing research, development, and investment in technology and processes.
Q:How does glass fiber textile perform in terms of sound absorption?
Glass fiber textile performs well in terms of sound absorption. Due to its unique structure and composition, it has the ability to effectively trap and dampen sound waves, reducing echo and reverberation in a given space. The densely packed fibers of glass fiber textile create a high surface area, which helps to absorb a wide range of frequencies, including low, mid, and high frequencies. This makes it a suitable material for soundproofing applications in various settings, such as recording studios, concert halls, theaters, and even residential and commercial spaces. Additionally, glass fiber textile is also fire-resistant and durable, making it a reliable choice for long-term sound absorption needs.
Q:How do glass fiber textiles affect product durability?
Product durability can be greatly enhanced by the use of glass fiber textiles. Renowned for their strength and ability to resist wear and tear, these textiles are ideal when seeking to reinforce materials and significantly increase product lifespan and strength. Glass fiber textiles possess both strength and lightweight properties, making them perfect for applications where durability is paramount. They boast a high tensile strength, enabling them to withstand heavy loads without breaking or tearing. This makes them well-suited for use in products subjected to high levels of stress, such as automotive parts, construction materials, and sports equipment. Furthermore, glass fiber textiles exhibit exceptional resistance to chemicals, moisture, and UV radiation. This resistance serves as a protective barrier against environmental factors that may compromise product durability over time. For instance, when utilized in boat hulls or outdoor furniture, glass fiber textiles prevent water absorption and shield against the detrimental effects of sunlight exposure. What's more, glass fiber textiles demonstrate excellent dimensional stability. Regardless of extreme conditions like temperature fluctuations or mechanical stress, these textiles retain their shape and structural integrity. Consequently, products reinforced with glass fiber textiles are less prone to warping, deformation, or performance deterioration over time. In conclusion, glass fiber textiles exert a positive influence on product durability by delivering strength, wear and tear resistance, chemical resistance, and dimensional stability. These attributes make them an optimal choice for enhancing the lifespan and performance of diverse products across various industries.
Q:Can glass fiber textiles be used in carpeting?
Indeed, carpeting can make use of glass fiber textiles. Recognized as fiberglass as well, glass fiber textiles possess remarkable properties of thermal and chemical resistance, rendering them suitable for a diverse array of applications, including carpeting. By incorporating glass fiber textiles, carpets can attain enhanced strength and durability, ultimately improving their performance and lifespan. Moreover, these textiles can augment the carpet's ability to resist stains, moisture, and the effects of wear and tear. Additionally, they contribute to superior insulation and soundproofing in areas adorned with carpets. All in all, glass fiber textiles present numerous advantages, positioning them as a feasible choice for carpeting.
Q:How do glass fiber textiles perform in terms of water repellency?
Glass fiber textiles are not inherently water repellent, as they are not naturally hydrophobic. However, they can be treated with water-repellent coatings or finishes to enhance their water repellency and make them suitable for certain applications requiring protection against water.

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