Fiberglass Mat Tissue Thermal Insulation and Fireproof Thermal Conductivity Glass Wool Insulation Glass Wool

Fiberglass Mat Tissue Thermal Insulation and Fireproof Thermal Conductivity Glass Wool Insulation Glass Wool System 1

Fiberglass Mat Tissue Thermal Insulation and Fireproof Thermal Conductivity Glass Wool Insulation Glass Wool

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 5000 m²

Supply Capability:: 20000 m²/month

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1.Description of Glass Wool Blanket:

Glass Wool Blanket complete glass wool production lines employing latestgeneration technology to manufacture boards, rolled blankets and pipes for residential and industrial thermal and acoustic insulation needs, in compliance with the

top international standards (EN, DIN, ASTM).

Its merit is better in shape, low density and volume, low in thermal conduction, better heat preservation and thermal insulation, fine sound absorption, corrosion-resistant and stable chemical property. Glass wool blanket, glass wool board, glass wool pipe, which made from glass wool, largely use in construction, chemical, electronic, electricity, metallurgy, energy industry and community with good performance in heat preservation, heat insulation, sound absorption.

2.Main features of Glass Wool Blanket:

d): acoustical property

The inside of glass wool is multiaperture, which enhance its absorption quality greatly and thus increase the comfort level of indoor environment.

e): structure quack-proof

Reedy fiber of glass wool lead to better performance in strength in structure, stretching resistance, anti-quack. NO phenomenon of drooping, scatter, collapse emerges in installation and long-term usage.

f): chemical property

Glass woo, with fine property in stable size, can withst and high temperature, thunder, rain, sun shining, acid and alkali and other human and natural factors.

3.Glass Wool Blanket Images:

Thermal Insulation And fireproof thermal conductivity glass wool insulation glass wool

4. Glass Wool Insulation Blanket Technical Parameters:

Property	High/low temperature resistance, oil and fuel resistance, weathering resistance, O zone resistance etc.
Shape	According to your requirement.
Color	Any color is available ,according to your requirements.
Material	NBR, CR, SBR, EPDM, IIR, NR, EP, Silicone, VITON etc.
Hardness	30-90ShoreA
Delivery	In 10 days
Packing	Plastic bag & carton box or according to your requirements.
Application	Electronic field, industrial machine & equipment, house-hold appliance, telecommunication, automobile, medical equipment industry etc.

5.FAQ

We have organized several common questions for our clients，may help you sincerely：

①How about your company？

A world class manufacturer & supplier of Glass Wool Blanket is one of the large scale professional investment casting production bases in China,consisting of both casting foundry forging and machining factory. Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customer’s requirement.

②How to guarantee the quality of the products？

We have established the international advanced quality management system every link from raw material to final product we have strict quality test; We resolutely put an end to unqualified products flowing into the market. At the same time, we will provide necessary follow-up service assurance.

Q: Can fiberglass mat tissue be used for reinforcing fiberglass roofs?: Yes, fiberglass mat tissue can be used for reinforcing fiberglass roofs. Fiberglass mat tissue is a thin, lightweight material made of fine fibers that are bonded together with a binder. It is commonly used as a reinforcing layer in fiberglass composites, providing strength and durability. When it comes to fiberglass roofs, fiberglass mat tissue can be applied as an additional layer to enhance the structural integrity of the roof. It helps to distribute the load evenly across the surface, making the roof more resistant to cracks, leaks, and other damages. Fiberglass mat tissue is typically used in conjunction with other fiberglass products, such as resin and fiberglass cloth, to create a strong composite material. The mat tissue is placed on top of the fiberglass cloth before applying the resin. The resin then saturates the mat tissue, creating a bond between the layers. This combination creates a reinforced fiberglass roof that is stronger and more durable. Furthermore, fiberglass mat tissue can also provide thermal insulation properties to the roof, helping to regulate temperature and reduce energy consumption. It can resist heat transfer, preventing excessive heat buildup in the building during hot weather. Overall, fiberglass mat tissue is an excellent choice for reinforcing fiberglass roofs. It adds strength, durability, and thermal insulation properties to the roof, making it a reliable option for both residential and commercial buildings.

Q: What are the different reinforcement orientations available for fiberglass mat tissue?: Fiberglass mat tissue offers several reinforcement orientations, each intended for specific purposes in different applications. One common orientation is unidirectional reinforcement, where fibers align in one direction. This orientation provides great strength and stiffness in that alignment, making it suitable for applications requiring resistance to tension or bending forces in a single direction. Another orientation is bidirectional reinforcement, where fibers align in two perpendicular directions. This orientation provides equal strength and stiffness in both directions, making it ideal for applications needing resistance to tension and compression forces. Structural components like panels, pipes, and tanks commonly employ bidirectional reinforcement. A third orientation is randomly oriented reinforcement, where fibers distribute randomly. This orientation offers isotropic properties, meaning it provides similar strength and stiffness in all directions. Random reinforcement is often used in applications requiring uniform strength and flexibility, like automotive parts, boat hulls, and sporting goods. Furthermore, hybrid reinforcement orientations are available, combining different fibers or orientations to meet specific performance requirements. These hybrids offer a combination of strength, stiffness, flexibility, and other desired properties, making them suitable for a wide range of applications. Overall, the choice of reinforcement orientation for fiberglass mat tissue depends on the application's specific requirements, including desired mechanical properties, forces to be resisted, and other performance considerations.

Q: How is fiberglass mat tissue made?: Fiberglass mat tissue is made by combining thin strands of glass fibers with a binder material, such as polyester or acrylic, to form a non-woven fabric. These glass fibers are typically manufactured through a process called pultrusion, where molten glass is pulled through tiny openings to create continuous filaments. The filaments are then chopped into shorter lengths and dispersed randomly onto a moving conveyor belt. As the fibers move along the conveyor, the binder material is sprayed onto them to ensure adhesion and form a cohesive mat. The mat is then heated to cure the binder and solidify the structure, resulting in a strong and flexible fiberglass mat tissue.

Q: How does the density of fiberglass mat tissue impact its performance?: The performance of fiberglass mat tissue is significantly impacted by its density. This nonwoven material is made up of glass fibers that are randomly dispersed and held together by a binder. Density refers to the number of fibers present in a given volume of the material. Increased density of fiberglass mat tissue generally leads to enhanced mechanical properties and performance. The higher density means there are more glass fibers in each unit volume, resulting in improved strength, stiffness, and durability. This makes the material more resistant to tearing, puncturing, and abrasion, which is especially important in applications where the tissue is exposed to harsh conditions or heavy loads. Furthermore, higher-density fiberglass mat tissue offers superior thermal insulation properties. The increased fiber content allows for better heat resistance, making it suitable for applications that require thermal protection, such as insulation boards or fireproofing materials. Conversely, lower density of fiberglass mat tissue can offer advantages in certain applications. Lower-density tissues are generally more flexible and have better conformability, allowing them to easily adapt to irregular surfaces or complex shapes. This makes them suitable for applications where flexibility or conformability is a primary requirement, such as in the automotive or aerospace industries. In conclusion, the density of fiberglass mat tissue is critically important in determining its performance characteristics. Whether a higher or lower density is preferred depends on the specific requirements of the application, taking into account factors such as strength, stiffness, durability, thermal insulation, flexibility, and conformability.

Q: Can fiberglass mat tissue be used for repairing fiberglass shower stalls?: Yes, fiberglass mat tissue can be used for repairing fiberglass shower stalls. Fiberglass mat tissue is a versatile material that is commonly used for reinforcing and repairing fiberglass structures, including shower stalls. It is designed to provide strength and durability to the repaired area, ensuring a long-lasting and reliable fix. When used in combination with a suitable fiberglass resin, fiberglass mat tissue can effectively repair cracks, holes, and other damages in fiberglass shower stalls. However, it is important to carefully follow the manufacturer's instructions and guidelines for proper application and curing to ensure the best results.

Q: What is the flexibility of fiberglass mat tissue?: The flexibility of fiberglass mat tissue is high, as it can easily bend and conform to different shapes and surfaces without breaking or losing its structural integrity.

Q: How does the porosity of fiberglass mat tissue affect its performance?: The porosity of fiberglass mat tissue plays a significant role in determining its performance. Porosity refers to the density of tiny pores or holes in the material, which affects the material's ability to absorb and hold fluids, as well as its strength and durability. Firstly, the porosity of fiberglass mat tissue influences its absorption capability. A higher porosity allows the tissue to absorb more fluids, such as resins or binders, during the manufacturing process. This absorption is crucial as it ensures better adhesion between the fiberglass mat and the bonding material, resulting in a stronger and more durable end product. Secondly, the porosity of the fiberglass mat tissue affects its strength and stiffness. Lower porosity generally indicates higher density and a more tightly packed structure, resulting in increased strength and stiffness. This is beneficial in applications where the material needs to withstand high mechanical stresses or act as a structural component. Additionally, the porosity of the fiberglass mat tissue impacts its thermal and acoustic insulation properties. Higher porosity typically leads to better thermal and acoustic insulation due to the increased number of air pockets within the material. These air pockets act as barriers, reducing heat transfer and sound transmission, making the material suitable for applications requiring thermal or acoustic insulation. Furthermore, the porosity of fiberglass mat tissue can influence its filtration capabilities. If the material has a high porosity, it can trap and hold particles more effectively, making it suitable for use in filtration systems. Conversely, a low porosity may allow for better flow rates, making it more suitable for applications where fluid permeability is important, such as drainage applications. In summary, the porosity of fiberglass mat tissue affects its performance in various ways. It determines its absorption capability, strength, stiffness, thermal and acoustic insulation properties, filtration capabilities, and fluid permeability. Therefore, understanding and controlling the porosity of fiberglass mat tissue is essential to ensure optimal performance in a wide range of applications.

Q: How is fiberglass mat tissue used in the production of chemical storage tanks?: Fiberglass mat tissue serves as a reinforcement material in the manufacturing of chemical storage tanks. It is combined with resin to create a composite material that offers strength, durability, and protection against different chemicals. By layering the fiberglass mat tissue within the tank structure, its structural integrity is enhanced, and the risk of leakage is prevented. During the manufacturing process, resin, typically polyester or epoxy, is impregnated into the fiberglass mat tissue to establish a strong bond between the fibers and the matrix. This impregnated mat is then placed on a mold or mandrel and covered with additional layers of resin and mat, resulting in a laminate. The number of layers and thickness can vary based on the desired tank specifications and the chemicals it will store. The combination of fiberglass mat tissue and resin yields outstanding corrosion resistance, making it ideal for storing a wide range of chemicals. Fiberglass is inherently non-reactive and can endure exposure to harsh chemicals, acids, and alkalis without compromising the tank's structural integrity or degrading. Hence, fiberglass mat tissue is the preferred material for chemical storage tanks as it guarantees the safety of stored chemicals and minimizes the risk of leaks or contamination. Moreover, the utilization of fiberglass mat tissue enables the production of tanks with complex shapes and sizes. It can be easily molded and formed into various configurations, providing flexibility in design. This ensures that chemical storage tanks can be tailored to specific requirements and seamlessly integrated into diverse industrial applications. In conclusion, fiberglass mat tissue is indispensable in the manufacturing of chemical storage tanks. It reinforces the tank structure, offers chemical resistance, and facilitates the fabrication of tanks with diverse shapes and sizes. When combined with resin, it creates a durable and corrosion-resistant composite material, ensuring the secure storage of chemicals in a variety of industrial settings.

Q: How does the fiber orientation of fiberglass mat tissue affect its strength?: The strength of fiberglass mat tissue is heavily influenced by the orientation of its fibers. Fiberglass mat tissue is a composite material consisting of glass fibers that are randomly distributed and held together by a binder material. When the fibers are randomly oriented, the material exhibits isotropic strength properties. This means that it has similar mechanical properties, such as tensile strength and stiffness, in all directions. Random fiber orientation provides an even distribution of load-bearing capability throughout the material, making it resistant to both tensile and compressive forces from any direction. Alternatively, when the fibers are oriented in a specific direction, the material becomes anisotropic. This means that it has directional strength properties. In this case, the material is stronger and stiffer along the direction of the fibers, while its strength decreases in other directions perpendicular to the fiber orientation. This anisotropic behavior is due to the fact that the fibers primarily bear the load, while the binder material provides support and cohesion between the fibers. By manipulating the fiber orientation during manufacturing, it is possible to customize the strength and performance characteristics of fiberglass mat tissue for specific applications. For example, in the construction industry, where strength is required in a particular direction for reinforcing concrete, or in the aerospace industry, where structural components need maximum strength along a specific load path, the fibers can be aligned accordingly. In conclusion, the fiber orientation of fiberglass mat tissue directly impacts its strength. Random fiber orientation results in isotropic strength properties, providing balanced strength in all directions. Alternatively, specific fiber alignment creates anisotropic strength properties, allowing for enhanced strength along the direction of the fibers. This ability to control fiber orientation enables the customization of fiberglass mat tissue to meet the specific strength requirements of different industries and applications.

Q: Is fiberglass mat tissue suitable for insulation in pharmaceutical plants?: Fiberglass mat tissue is not typically suitable for insulation in pharmaceutical plants. Pharmaceutical plants require insulation materials that meet specific requirements, such as being non-porous, non-shedding, and resistant to moisture and chemicals. Fiberglass mat tissue is a porous material and may shed fibers, which can contaminate the pharmaceutical production environment. Additionally, it may not provide adequate resistance to moisture and chemicals, which are common in pharmaceutical plants. It is recommended to use insulation materials that are specifically designed and certified for pharmaceutical applications to ensure they meet the necessary standards and regulations for insulation in these sensitive environments.

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