Glass Fiber Textiles Thermal Insulation Ceramic Yarn Product

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Loading Port:: Qingdao

Payment Terms:: TT OR LC

Min Order Qty:: 500 m

Supply Capability:: 2000 m/month

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Specifications

1. Ceramic fiber yarn.
2. Classfication Temp:1260C.
3. Low thermal conductivity.

Tech Data:

Colour	White
Al203+sio2% Al203% Fe203%	>=97 >=48 <=1.1
Fiber diameter(um)	2-4
Fiber Iength(mm)	100-200
Bulk density(Kg/m3)	300-700
Moisture %	<=1.0
Thermal Conductivity(Hot face),w/m.k	0.12~0.13(300°C) 0.13~0.16(600°C) 0.17~0.20(1000°C)
Heating liner shringkage(%)	<=3.5(1000°C*3h)
High-temperature loss on lgnition	10	15	20	15	20	25
Safe working temp°C	<=1000			<=450
Acid-resistance and alkali-resistance%	50(10% NaoH After 72 hours) 50(10% N2S04 After 72 hours)
Reinforced material	Stainless Steel			Glass filament

Application:
Ceramic fiber yarn used in producing ceramic fiber tape, ceramic fiber rope, ceramic fiber cloth and fabrics.
Used in high temperature sealing and insulation.

Hitex ceramic fiber yarn is made from alumina silica ceramic fiber, free of asbestos, can be used in different industrial applications under temperatures up to 2300 °F (1260 C) and has excellent chemical stability and strong resistance to thermal shock and corrosion attack. Exceptions are hydrofluoric and phosphoric acids and concentrated alkalis. It also resists oxidation and reduction,

Q: How are glass fiber textiles made?: Fiberglass textiles, also referred to as glass fiber textiles, are produced using a technique known as fiber glassing. This process entails creating fine fibers from molten glass via extrusion. To initiate the process, the glass is melted at an elevated temperature, typically ranging from 1,200 to 1,500 degrees Celsius. Once the glass reaches its molten form, it is then extruded through minuscule apertures within a device called a spinneret. These apertures usually possess a diameter of less than a millimeter, allowing for the generation of extremely delicate fibers. As the molten glass is pushed through the spinneret, it undergoes rapid cooling through the utilization of either air or water jets. This rapid cooling causes the glass to solidify into slender fibers resembling threads. These fibers are subsequently amassed on a revolving drum or conveyor belt, forming a continuous sheet of glass fiber textile. Following the collection of the fibers, they may undergo further treatment to enhance their durability and strength. This may involve the usage of sizing agents or coatings to augment their performance in specific applications. Upon completion of the manufacturing process, the glass fiber textile can be employed in a diverse array of applications. It is commonly utilized as reinforcement in composites, such as fiberglass-reinforced plastic (FRP), due to its exceptional strength-to-weight ratio. Additionally, it finds utility in insulation materials, textiles, and as reinforcement in concrete and other construction materials. In summary, the production process for glass fiber textiles encompasses the melting of glass, extrusion into fine fibers, and subsequent collection and processing of these fibers to generate a versatile and long-lasting textile material.

Q: Can glass fiber textiles be used for making automotive parts or components?: Indeed, glass fiber textiles can be utilized in the production of automotive parts or components. Commonly referred to as fiberglass, glass fiber textiles possess numerous characteristics that render them suitable for use within the automotive industry. To begin, glass fiber textiles are renowned for their exceptional strength-to-weight ratio, a critical factor in automotive applications where lightweight materials are sought after to enhance fuel efficiency and decrease emissions. Fiberglass components can be lighter than their metallic counterparts while still maintaining sufficient strength and durability. Furthermore, glass fiber textiles exhibit remarkable resistance to corrosion, chemicals, and temperature fluctuations. This renders them highly suitable for automotive parts that may be subjected to harsh environmental conditions, such as engine components, body panels, and interior trims. Moreover, fiberglass is an adaptable material that can be easily molded into intricate shapes, enabling the production of customized automotive parts with elaborate designs. This manufacturing flexibility aids in meeting the specific requirements and aesthetic preferences of automotive manufacturers. Additionally, glass fiber textiles possess excellent electrical insulation properties, a crucial aspect for components that handle electrical currents in vehicles, such as circuit boards and wiring harnesses. Fiberglass can serve as a reliable insulation barrier, safeguarding against short circuits and electrical malfunctions. Furthermore, glass fiber textiles exhibit outstanding acoustic properties, making them ideal for automotive parts that necessitate sound absorption or insulation, including interior panels and noise barriers. This contributes to an enhanced overall comfort and driving experience for passengers. In summary, glass fiber textiles present a viable choice for the production of automotive parts or components due to their impressive strength-to-weight ratio, resistance to corrosion and temperature variations, manufacturing versatility, electrical insulation properties, and acoustic capabilities. These qualities make fiberglass an appealing material for improving the performance, efficiency, durability, and comfort of automotive vehicles.

Q: Can glass fiber textiles be used for making protective helmets or headgear?: Yes, glass fiber textiles can be used for making protective helmets or headgear. Glass fiber textiles offer excellent strength and impact resistance, making them suitable for protecting the head against potential injuries. Additionally, they are lightweight and provide good insulation properties, further enhancing their suitability for head protection.

Q: Can glass fiber textiles be used for reinforcement in metals?: Yes, glass fiber textiles can be used for reinforcement in metals. Glass fibers are strong, lightweight, and have good tensile strength, making them an ideal material for reinforcing metals. When embedded in a metal matrix, glass fibers can enhance the mechanical properties of the metal, such as increasing its strength, stiffness, and resistance to deformation. This reinforcement technique, known as fiber reinforcement, is commonly used in industries like automotive, aerospace, and construction, where high-performance materials are required. The combination of glass fibers and metals can create composite materials that offer improved performance and durability compared to metals alone.

Q: Can glass fiber textile be used in wind turbines?: Wind turbines can indeed utilize glass fiber textile. Often referred to as fiberglass, this adaptable material offers numerous benefits for wind turbine applications. Boasting a lightweight composition, impressive strength, resistance to corrosion, and exceptional fatigue properties, it proves to be an ideal choice for the production of wind turbine blades. By incorporating glass fiber textile into wind turbine blades, their performance and efficiency are significantly enhanced. Its remarkable strength-to-weight ratio allows for the creation of longer and lighter blades, thus enabling the capture of a greater amount of wind energy. Additionally, its resistance to corrosion ensures that the blades remain durable and resilient against environmental deterioration, leading to reduced costs associated with maintenance and replacement. Moreover, the malleability of glass fiber textile permits the creation of intricate shapes, facilitating the design of aerodynamically efficient blade profiles. This manufacturing flexibility allows for the production of custom-made blade designs that optimize energy generation and minimize noise production. In summary, the utilization of glass fiber textile in wind turbines is highly suitable due to its lightweight nature, strength, resistance to corrosion, and manufacturing adaptability. Its incorporation into wind turbine blades contributes to improved performance, efficiency, and longevity of these turbines.

Q: Can glass fiber textiles be used in conveyor belts?: Yes, glass fiber textiles can be used in conveyor belts.

Q: Can glass fiber textiles be used in the production of curtains and blinds?: Yes, glass fiber textiles can be used in the production of curtains and blinds. Glass fiber textiles, also known as fiberglass fabrics, are made from fine fibers of glass that are woven together to create a durable and lightweight material. These textiles have excellent thermal insulation properties, as well as being fire-resistant and resistant to chemicals and moisture. When used in curtains and blinds, glass fiber textiles can provide several benefits. They can effectively block out sunlight, reducing glare and heat from entering a room. Glass fiber curtains and blinds can also provide privacy, as they are often made with a tight weave that restricts visibility from the outside. Additionally, glass fiber textiles are known for their durability, making them suitable for long-term use in curtains and blinds. They are resistant to fading, tearing, and other forms of wear and tear, ensuring that they maintain their functionality and appearance over time. Moreover, glass fiber textiles are easy to clean and maintain. They can be easily wiped down or cleaned with mild detergent, making them suitable for environments where cleanliness is important, such as kitchens and bathrooms. In summary, glass fiber textiles can be a viable option for the production of curtains and blinds. They offer thermal insulation, privacy, durability, and easy maintenance, making them a practical choice for both residential and commercial applications.

Q: Can glass fiber textiles be used in soundproofing applications?: Yes, glass fiber textiles can be used in soundproofing applications. Glass fiber textiles, also known as fiberglass, are known for their excellent acoustic properties. They have the ability to absorb sound waves and reduce their transmission through walls, floors, and ceilings. This makes them an ideal material for soundproofing applications in various settings such as recording studios, theaters, offices, and residential buildings. Glass fiber textiles are lightweight, flexible, and can be easily installed as a layer or panel on walls or ceilings. They have a high sound absorption coefficient, meaning they can effectively absorb a significant amount of sound energy. This helps to reduce reverberation and echo within a space, resulting in improved sound quality and speech intelligibility. Moreover, glass fiber textiles also have the advantage of being fire-resistant, which is crucial for safety in soundproofing installations. They have a high melting point and do not release toxic fumes when exposed to fire, making them a safe choice for soundproofing applications. In summary, glass fiber textiles are a suitable material for soundproofing applications due to their excellent acoustic properties, ease of installation, and fire resistance. They can effectively reduce noise transmission, improve sound quality, and create a more comfortable and quiet environment.

Q: Can glass fiber textile be used in air filters?: Yes, glass fiber textile can be used in air filters. The fine fibers of glass in the textile form a dense mesh that efficiently traps and filters out particles from the air, making it an effective material for air purification purposes.

Q: How do glass fiber textiles perform in terms of impact resistance?: Glass fiber textiles are known for their excellent impact resistance. The fibers used in these textiles are made from glass, which is a strong and durable material. This makes them highly resilient to impacts, making them suitable for a wide range of applications where impact resistance is crucial. Glass fiber textiles have a high tensile strength, meaning they can withstand a significant amount of force without breaking or deforming. This property allows them to absorb and distribute the energy from an impact, preventing it from being concentrated on a single point. As a result, glass fiber textiles can effectively resist damage caused by impacts, such as cracks, fractures, or punctures. Moreover, the inherent elasticity of glass fiber textiles contributes to their impact resistance. When subjected to an impact, these textiles can flex and absorb the energy, reducing the risk of breakage. This flexibility also enables them to maintain their shape and structural integrity even after repeated impacts, making them ideal for use in high-impact environments. Furthermore, glass fiber textiles exhibit good resistance to temperature changes, chemicals, and moisture, which further enhances their impact resistance. These textiles can withstand extreme temperatures without losing their structural integrity, making them suitable for use in both hot and cold environments. Additionally, they resist degradation from exposure to various chemicals and moisture, ensuring their durability and impact resistance over time. In summary, glass fiber textiles excel in terms of impact resistance. Their high tensile strength, flexibility, and resistance to temperature changes, chemicals, and moisture make them an excellent choice for applications where impact resistance is crucial. Whether it is in the automotive, aerospace, construction, or sports industries, glass fiber textiles provide reliable protection against impacts, ensuring the longevity and safety of the products they are used in.

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