$heat insulation refractory Welding Pillow fiberglass fabric made 550C- 1000C System 1$

$heat insulation refractory Welding Pillow fiberglass fabric made 550C- 1000C$

$heat insulation refractory Welding Pillow fiberglass fabric made 550C- 1000C System 1$

heat insulation refractory Welding Pillow fiberglass fabric made 550C- 1000C

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Loading Port:: Shanghai

Payment Terms:: TT OR LC

Min Order Qty:: 1 m.t.

Supply Capability:: 111 m.t./month

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Specifications

Welding Pillow fiberglass fabric made
Welding pillow, fire resistance pillow, it is made of fiberglass

Description:
Welding pillow, fire resistance pillow, it is made of fiberglass and insert with glass wool or ceramic wool, sewing it into pillow, it is good welding products while need pillow shape fire resistance.
We can manufacture all kinds of welding pillor, fire resistance pillow as per customer request. Just contact our sales for details.
Outside Materials : fiberglass fabrics, Silica fabrics, heat treated fiberglass fabrics, silicone coated fiberglass fabrics, Ceramic fiber fabric, Carbonizedfiber fabrics, Aluminum coated fiberglass fabrics, Acrylic coated fiberglass fabrics.
Inside Materials: Glass fiber wool, ceramic fiber wool

Temperature resistance: 500 Deg. C . to 1000 Deg. C.

Size: as per customer request

Q:Is glass fiber textile lightweight?: Yes, glass fiber textile is lightweight. Glass fiber is made from thin strands of glass that are woven together to form a textile material. This material is known for its lightweight properties, making it a popular choice in various industries such as aerospace, automotive, and construction. The lightweight nature of glass fiber textile allows for easier handling, transportation, and installation, while still providing high strength and durability. Additionally, its light weight contributes to energy efficiency in applications such as insulation and composites. Overall, glass fiber textile is an ideal choice when a lightweight material with excellent performance characteristics is required.

Q:Are glass fiber textiles resistant to moisture damage?: Yes, glass fiber textiles are highly resistant to moisture damage.

Q:Can glass fiber textiles be used in insulation boards?: Yes, glass fiber textiles can be used in insulation boards. Glass fiber textiles are often used as a reinforcement material in insulation boards due to their excellent thermal and acoustic insulation properties. The glass fibers provide strength and stability to the boards, making them more durable and resistant to damage. Additionally, glass fiber textiles have low thermal conductivity, meaning they can effectively reduce heat transfer and improve energy efficiency. Overall, glass fiber textiles are a common choice for insulation board manufacturing, providing effective insulation and enhanced performance.

Q:Can glass fiber textile be used in acoustic panels?: Yes, glass fiber textile can be used in acoustic panels. Glass fiber textiles, such as fiberglass cloth, have excellent sound absorption properties due to their porous structure. When used in acoustic panels, the glass fiber textile absorbs sound waves and reduces the reflection and reverberation of sound, thereby improving the acoustics of the room. Additionally, glass fiber textiles are lightweight, durable, and fire-resistant, making them suitable for use in acoustic panels. They can be easily installed and are available in various thicknesses and densities, allowing for customization to meet specific acoustic requirements. Overall, glass fiber textiles are a popular choice for acoustic panels due to their effective sound absorption capabilities and versatility.

Q:What are the limitations of glass fiber textiles?: Glass fiber textiles have several limitations. Firstly, they are brittle and can break easily under high impact or stress, making them less suitable for applications that require flexibility or durability. Additionally, glass fiber textiles have poor resistance to high temperatures, which can cause them to weaken or lose their structural integrity. They are also prone to abrasion and can be easily damaged by sharp objects or rough handling. Lastly, glass fiber textiles can be less comfortable to wear or use due to their stiffness and lack of breathability.

Q:How is glass fiber textile made?: Glass fiber textile, also known as fiberglass textile, is made through a process called fiberglass manufacturing. The process begins with melting raw materials, primarily silica sand, at high temperatures to create molten glass. Other ingredients such as limestone, soda ash, and alumina may also be added to the mixture to modify the properties of the resulting glass fiber. Once the glass is in its molten state, it is then forced through tiny holes in a platinum alloy bushing, known as a spinneret. This process, called extrusion, allows the molten glass to form continuous filaments. These filaments are extremely thin, typically ranging from 9 to 13 micrometers in diameter. As the filaments emerge from the spinneret, they are rapidly cooled and solidified by passing through a series of water-cooled chambers. This solidification process is crucial in maintaining the integrity and strength of the glass fibers. After being solidified, the continuous glass filaments are collected onto spools, forming what is known as a glass fiber roving. This roving is then further processed to create different types of glass fiber products, including glass fiber textiles. To produce glass fiber textiles, the glass fiber roving is first pulled apart into individual filaments and then twisted together to form a yarn. The yarn can be treated with a sizing agent to improve its handling and processing characteristics. It can also be coated with a protective finish to enhance its performance and durability. The glass fiber yarn is then woven or knitted on specialized machinery to create various types of textiles, such as fabrics, tapes, or mats. The weaving or knitting process interlocks the glass fibers, creating a strong and flexible structure. Once the glass fiber textiles are produced, they can be used in a wide range of applications, including reinforcement in composites, thermal and acoustic insulation, filtration, electrical insulation, and construction materials. Overall, the production of glass fiber textiles involves melting raw materials into molten glass, extruding the glass through a spinneret to form continuous filaments, solidifying the filaments, collecting them into rovings, and further processing them into yarns. These yarns are then woven or knitted to create various glass fiber textiles with different properties and applications.

Q:How do glass fiber textiles contribute to thermal conductivity?: Glass fiber textiles contribute to thermal conductivity by providing insulation. Glass fibers have a low thermal conductivity, meaning they are not good conductors of heat. When used in textiles, such as in insulation blankets or fabrics, glass fibers create a barrier that prevents the transfer of heat between two different areas or surfaces. This insulation property helps to reduce heat loss or gain in buildings, vehicles, or other applications where temperature control is important. Additionally, glass fiber textiles can also be used to enhance the performance of other materials by providing an extra layer of thermal insulation. Overall, glass fiber textiles contribute to thermal conductivity by reducing heat transfer and improving energy efficiency.

Q:Can glass fiber textile be used in aerospace structures?: Glass fiber textiles, also known as fiberglass, have found extensive use in the aerospace industry for many years. They possess exceptional qualities that render them appropriate for aerospace applications. The high strength-to-weight ratio of glass fiber textiles is one of their primary advantages. Despite being lightweight, they exhibit significant tensile strength, which is crucial in aerospace structures where weight reduction is a priority. This enables the construction of aircraft that are both light and fuel-efficient. Additionally, glass fiber textiles demonstrate excellent resistance to temperature fluctuations, making them suitable for deployment in the extreme conditions encountered in aerospace environments. They can endure high temperatures without experiencing significant degradation, thereby ensuring the structural integrity of aerospace components. Furthermore, glass fiber textiles exhibit commendable resistance to corrosion, a critical characteristic for aerospace structures exposed to diverse harsh environments such as moisture, chemicals, and atmospheric conditions. This attribute guarantees the longevity and durability of aerospace components. Moreover, glass fiber textiles possess outstanding electrical insulation properties, thereby making them appropriate for applications where minimizing electrical conductivity is necessary. This is paramount in aerospace structures to avoid interference with sensitive electronic systems. In conclusion, glass fiber textiles offer numerous advantages that make them an ideal choice for aerospace structures. Their high strength-to-weight ratio, resistance to temperature variations, corrosion resistance, and electrical insulation properties establish them as a dependable and efficient option for aerospace applications.

Q:What are the different reinforcement options for glass fiber textile?: Depending on the desired strength and performance characteristics, glass fiber textiles have several reinforcement options available. 1. Woven Fabric: The most commonly used reinforcement option, woven fabrics interlace glass fibers in patterns such as plain or twill weaves. They offer good strength and stiffness, and find extensive use in composites, concrete reinforcements, and insulation materials. 2. Non-Woven Fabric: Unlike woven fabrics, non-woven fabrics bond or felt glass fibers together without weaving. This option provides excellent uniformity and dimensional stability, making it suitable for filtration media, geotextiles, and thermal insulation. 3. Chopped Strand Mat (CSM): CSM is formed by randomly aligning short glass fibers in a binder material matrix. It offers good strength, easy handling, and the ability to mold into complex shapes. It is commonly utilized in boat building, automotive parts, and corrosion-resistant tanks. 4. Continuous Roving: Continuous roving is a bundle of untwisted glass fibers that provides high tensile strength. It is specifically used for applications requiring exceptional strength, like wind turbine blades, pressure vessels, and aerospace components. 5. Knitted Fabric: Knitted fabrics interlock loops of glass fibers, granting them flexibility and conformability. This makes them suitable for applications that necessitate stretchability, such as sports equipment, medical products, and clothing. 6. Multiaxial Fabrics: Multiaxial fabrics arrange glass fibers in multiple layers or orientations, including unidirectional, biaxial, or triaxial layers. This option offers tailored mechanical properties, improved strength in specific directions, and enhanced impact resistance. It is commonly employed in aerospace structures, automotive parts, and high-performance sports equipment. Manufacturers and designers have a range of choices with these reinforcement options, allowing them to select the most suitable option based on specific requirements for strength, flexibility, conformability, and other performance characteristics.

Q:Are glass fiber textiles resistant to fraying?: Yes, glass fiber textiles are generally resistant to fraying. Glass fibers are known for their high strength and durability, which makes them less prone to fraying compared to other materials like cotton or polyester. The manufacturing process of glass fiber textiles involves weaving the fibers together tightly, creating a strong and tightly-knit fabric structure. This helps to prevent the individual fibers from becoming loose and fraying. Additionally, glass fiber textiles often have a smooth surface, further reducing the likelihood of fraying. However, it is important to note that excessive wear and tear or improper handling can still lead to minor fraying in glass fiber textiles over time.

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