Fiber High Silica Cloth

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Fiberglass silica cloth

all models are available

1. fireproof, the fire-protection rate can be achieved between B1 to A2.

2. insulation, thermal insulation, glass fiber characteristics. It has high insulation and heat-perseveration functions, which can make the indoor temperature keep constant, can greatly reduce energy loss.

3.High tensile strength.

4. waterproof, water and steam impermeable.

5. aging- resistant, the life time is very long.

6. high temperature proof. do not become deformed under the temp of 500 c.

Color can be silver, red, black and so on. According to customers' request!

Silicone is a good coating, which can make the fiberglass cloth more soft, higher tensile strengh, better fireproof.

Silica cloth is high temperature fabric used for a wide range of insulation and protection applications in industry, excellent heat resistance.

Silica cloth is a special fiberglass cloth which contains more than 96% silicon dioxide, loss on Ignition less than 10%, it can withstand continuous temperatures of 1000 D.C. for long periods of time, and instantaneous temperatures of up to 1600 D.C. The product has been used extensively in the replacement of asbestos.

Silica fabric is primarily used in hot work such as welding and burning operations. It is useful for high temperature thermal and electrical insulation in severe application environments.


Fiberglass fabric is generally not suitable for use in medical implants. Medical implants require materials that are biocompatible, meaning they do not cause any adverse reactions or harm to the human body. While fiberglass fabric may have desirable properties such as strength, durability, and resistance to high temperatures, it is not commonly used in medical implants due to its potential to cause inflammatory reactions, tissue damage, or toxic effects. Instead, medical implants often employ materials such as titanium, stainless steel, or biocompatible polymers like polyethylene or polyurethane. These materials have undergone extensive testing to ensure they are safe and compatible with the human body. They are also designed to have specific properties that enable them to integrate with surrounding tissues, promote healing, and minimize the risk of complications. In conclusion, fiberglass fabric is not suitable for use in medical implants due to its lack of biocompatibility. It is essential that medical implants are made from materials that are safe, non-toxic, and well-tolerated by the body to ensure successful outcomes and patient safety.
Due to its unique properties, fiberglass fabric is highly effective in high-vibration environments. It possesses inherent stiffness and a high strength-to-weight ratio, making it resistant to vibrations and mechanical stress. When exposed to vibrations, fiberglass fabric efficiently absorbs and disperses the energy, minimizing potential damage and reducing impact. One of the main advantages of fiberglass fabric is its excellent ability to dampen vibrations. It can absorb and dampen vibrations, preventing them from spreading and intensifying throughout the structure. This characteristic is especially important in high-vibration environments, as excessive oscillations can lead to structural fatigue, decreased performance, or even failure. Furthermore, fiberglass fabric is known for its exceptional durability and resistance to corrosion, enhancing its performance in high-vibration environments. It can withstand prolonged exposure to intense vibrations without experiencing degradation or loss of mechanical properties. Additionally, fiberglass fabric offers versatility in design and application. It can be easily molded or woven into various shapes and sizes to meet specific requirements in high-vibration environments. Whether used as a reinforcement material in composites or as a standalone fabric, fiberglass provides reliable and long-lasting performance in demanding conditions. In conclusion, fiberglass fabric is an ideal choice for high-vibration environments due to its stiffness, strength, damping properties, durability, and resistance to corrosion. Its ability to absorb and dissipate vibrations, combined with its design versatility, makes it well-suited for applications where mitigating vibration-related issues is crucial.
Fiberglass fabric plays a crucial role in the production of insulation jackets. It is widely used as an outer layer material due to its exceptional thermal resistance, durability, and fire-retardant properties. Insulation jackets are designed to provide thermal insulation and protect various industrial equipment, pipelines, and machinery from extreme temperatures, moisture, and other environmental factors. When manufacturing insulation jackets, fiberglass fabric is typically employed as the outermost layer. This fabric is made from fine strands of glass that are woven together to form a strong and flexible textile. The structure of fiberglass fabric allows it to trap air between the fibers, creating a layer of insulation that helps to regulate temperature and prevent heat loss or gain. The fiberglass fabric used in insulation jackets is usually coated with a protective layer, such as silicone or acrylic, to enhance its resistance to chemicals, abrasion, and weathering. This coating also improves the fabric's ability to repel moisture, preventing condensation and potential damage to the insulation material. Insulation jackets made with fiberglass fabric offer several advantages. Firstly, fiberglass fabric is highly resistant to high temperatures, making it suitable for applications where insulation is required in hot environments. It can withstand temperatures ranging from -200°C to 540°C (-328°F to 1004°F), ensuring long-lasting protection for the equipment it covers. Secondly, fiberglass fabric is lightweight and flexible, allowing for easy installation and removal of the insulation jackets. Its flexibility enables it to conform to the shape of the equipment, ensuring a snug fit and optimal insulation performance. Furthermore, fiberglass fabric is known for its excellent fire resistance properties. It is inherently non-combustible and does not contribute to the spread of flames, making it a safe material to use in industrial settings. In summary, fiberglass fabric is a vital component in the production of insulation jackets. Its thermal resistance, durability, fire-retardant properties, and ability to repel moisture make it an ideal material for protecting industrial equipment from extreme temperatures and environmental factors.
Fiberglass fabric is typically coated using various techniques such as dip coating, roll coating, or spray coating. These methods involve applying a layer of resin or polymer onto the surface of the fabric to enhance its properties, such as improving its strength, flexibility, and resistance to chemicals or fire. The coated fabric is then dried or cured to ensure the coating adheres properly, resulting in a durable and versatile material.
Yes, fiberglass fabric is generally resistant to chemicals in the oil and gas industry. It is known for its excellent chemical resistance properties, making it a suitable material for various applications in this industry.
To protect yourself from potential hazards when working with fiberglass fabric, it is crucial to adhere to certain safety measures. Here are some essential precautions to keep in mind: 1. Personal Protective Equipment (PPE): It is imperative to wear the appropriate PPE, such as goggles or safety glasses, a respirator or mask, gloves, and protective clothing. These items will help reduce the likelihood of inhaling fiberglass particles, getting them in your eyes, or having direct skin contact. 2. Ventilation: Ensuring that the work area has proper ventilation is essential to prevent the buildup of fiberglass dust or fumes. If working indoors, utilize exhaust fans or open windows to facilitate airflow and eliminate any airborne particles. 3. Dust Control: To minimize the generation of fiberglass dust, employ wet methods, such as wetting the fabric before cutting or using a water mist to control airborne particles. Additionally, consider using a dust collection system or vacuum with a HEPA filter to capture any produced fiberglass dust. 4. Cutting and Handling: When cutting fiberglass fabric, utilize suitable tools like shears or a rotary cutter to avoid fraying. Handle the fabric with care to prevent the release of loose fibers into the air. Whenever possible, use pre-cut fiberglass pieces to reduce the need for on-site cutting. 5. Cleanup: Once the work is completed, clean up any fiberglass dust or debris using a vacuum cleaner equipped with a HEPA filter. Avoid using compressed air or brooms as they can disperse particles into the air. Dispose of any waste material in accordance with local regulations. 6. Hygiene: Maintain good personal hygiene by thoroughly washing your hands and face after working with fiberglass fabric. Launder any contaminated clothing separately to prevent cross-contamination. 7. Training: It is crucial to ensure that all individuals working with fiberglass fabric receive proper training on potential hazards, safety procedures, and the correct usage of PPE. Regularly review and update safety protocols to foster a safe working environment. By adhering to these safety precautions, you can minimize the risks associated with working with fiberglass fabric and safeguard your health and well-being.
Yes, fiberglass fabric is suitable for making car covers. It is known for its durability, strength, and resistance to heat and chemicals, making it an excellent choice for protecting vehicles from various environmental elements such as UV rays, rain, and dust. Additionally, its lightweight nature allows for easy handling and storage of the car cover.
There exists a variety of fiberglass fabrics that possess distinct characteristics and serve different purposes. These include: 1. Woven fiberglass fabric: This particular type is the most prevalent, comprising tightly woven fiberglass strands. It is lightweight, flexible, and exhibits excellent strength and fire resistance. Woven fiberglass fabric finds common usage in boat building, aerospace components, and insulation. 2. Non-woven fiberglass fabric: This fabric is formed by bonding randomly oriented fiberglass fibers together. It is frequently employed as a reinforcement material in composite structures, such as wind turbine blades, automotive parts, and sports equipment. 3. Knitted fiberglass fabric: Knitted fiberglass fabric is the result of interlocking loops of fiberglass yarns, resulting in a flexible and stretchable material. It is commonly utilized in applications that necessitate flexibility and conformability, such as the production of thermal insulation blankets and protective clothing. 4. Chopped strand mat: Chopped strand mat is created by randomly aligning short fiberglass strands and bonding them with a binder. It is predominantly used as a reinforcement material in hand lay-up and spray-up processes for manufacturing fiberglass molds, boat hulls, and automotive body panels. 5. Roving fabric: Roving fabric is produced by arranging continuous strands of fiberglass parallel to one another and bonding them together. It is frequently employed as a reinforcement material in filament winding and pultrusion processes for manufacturing pipes, tanks, and structural profiles. In addition to these types, variations of fiberglass fabrics are also available, including those with specialty coatings or treatments to enhance properties like water resistance or electrical conductivity. The selection of a specific type of fiberglass fabric depends on the desired application and performance requirements.
Yes, fiberglass fabrics are available in a variety of colors and finishes.
Fiberglass fabric is available in various thickness options to cater to different needs and applications. The thickness of fiberglass fabric is usually measured in ounces per square yard (oz/yd²) or grams per square meter (g/m²). Common thickness options for fiberglass fabric range from lightweight to heavy-duty. Lightweight fiberglass fabrics typically have a thickness of around 0.5 oz/yd² (17 g/m²) to 1.5 oz/yd² (51 g/m²). These fabrics are commonly used in applications where weight is a concern, such as in the aerospace industry or for lightweight repair work. Medium-weight fiberglass fabrics have a thickness ranging from around 2 oz/yd² (68 g/m²) to 4 oz/yd² (136 g/m²). These fabrics offer a good balance between strength and flexibility, making them suitable for a wide range of applications. They are commonly used in boat building, automotive repairs, and general reinforcement tasks. Heavy-duty fiberglass fabrics are thicker and more robust, typically ranging from 6 oz/yd² (204 g/m²) to 10 oz/yd² (340 g/m²) or more. These fabrics provide excellent strength and durability, making them suitable for demanding applications such as industrial insulation, heavy machinery reinforcement, or in the construction industry. It is important to note that the thickness of fiberglass fabric can affect its handling characteristics, as well as its overall strength and flexibility. Therefore, it is crucial to select the appropriate thickness option based on the specific requirements of the project or application at hand.

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