• Fiber Glass Stitched Combo Mat(E-glass Fiber) System 1
  • Fiber Glass Stitched Combo Mat(E-glass Fiber) System 2
  • Fiber Glass Stitched Combo Mat(E-glass Fiber) System 3
Fiber Glass Stitched Combo Mat(E-glass Fiber)

Fiber Glass Stitched Combo Mat(E-glass Fiber)

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Loading Port:
Shanghai
Payment Terms:
TT or LC
Min Order Qty:
20000 kg
Supply Capability:
200000Kg Per Month kg/month

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1.Brief Introduction

E-Glass Stitched Chopped Mat (450g/m2~900g/m2) is made by chopping continuous strands into chopped strands and stitching them together. The product has a maximum width of 110 inches. This product can be used in manufacturing boat manufacturing and tubes.

2.Product Features
Fast breakdown in styrene
Good wet-through and fast wet-out in resins, rapid air lease
Superior acid corrosion resistance


3.Product Specifications

Item

Over Density

Moisture Content

Chop Density

Polyester Yarn

Width

(g/m2)

(%)

(g/m2)

(g/m2)

(mm)

EMK300

309.5

≤0.15

300

9.5

50-3300

EMK380

399

380

19

EMK450

459.5

450

9.5

EMK450

469

450

19

EMC0020

620.9

601.9

19

EMC0030

909.5

900

9.5

Special specification can be produce according to customer requirements.
Fiber Glass Stitched Combo Mat(E-glass Fiber)

4.FAQ

Packaging:
E-Glass Stitched Chopped Strand Mat is wound onto a paper tube which has an inside diameter of 76mm and the mat roll has a diameter of 275mm. The mat roll is wrapped up with plastic film,and then packed in a cardboard box or wrapped up with kraft paper. The rolls can be  horizontally placed. For transportation, the rolls can be loaded into a cantainer directly or on pallets.
Storage:
Unless otherwise specified, E-Glass Stitched Chopped Strand Mat should be stored in a dry, cool and rain-proof area. It is recommended that the room temperature and humidity should be always maintained at 15℃~35℃ and 35%~65% respectively.

 

Q:Can fiberglass mat tissue be used for decorative applications?
Fiberglass mat tissue is not only limited to its applications in the construction industry, as it can also be utilized for decorative purposes. With its thin and lightweight composition, it serves as an ideal material for reinforcing composites, plastics, and resins. However, its smooth and glossy surface makes it perfect for adding a decorative finish to surfaces. By using fiberglass mat tissue, one can create distinctive textures, patterns, or designs on walls, ceilings, furniture, and even art installations. Its versatility allows for easy shaping, molding, or forming into different shapes, making it suitable for various creative applications. Furthermore, fiberglass mat tissue comes in a variety of colors, allowing for further customization and enhancing its decorative potential. It can be painted or coated with different finishes to achieve the desired aesthetic effect. Additionally, its durability and resistance to moisture, chemicals, and UV radiation make it suitable for both indoor and outdoor decorative applications. To summarize, fiberglass mat tissue offers a smooth surface, versatility, and durability, making it an excellent choice for adding a decorative touch to surfaces. Whether it is used for architectural design, interior decoration, or artistic installations, it provides endless possibilities for creating visually appealing and unique decorative applications.
Q:How is fiberglass mat tissue used in the production of chemical reactors?
Due to its exceptional properties, fiberglass mat tissue is commonly utilized in the production of chemical reactors. Composed of randomly oriented glass fibers bonded together with a binder material, this tissue is ideal for constructing these reactors. A primary application of fiberglass mat tissue in chemical reactors is as a reinforcement material. It is typically applied to the inner surfaces of the reactor to enhance its structural integrity. The combination of glass fibers and binder creates a durable and strong layer capable of withstanding harsh conditions within the reactor, such as high temperatures and corrosive chemicals. Moreover, fiberglass mat tissue acts as a protective barrier against chemical attack. Traditional materials often degrade when exposed to aggressive substances found in chemical reactors. However, the chemical resistance of fiberglass mat tissue makes it highly suitable for such environments. It effectively prevents corrosive chemicals from penetrating the reactor walls, ensuring the long-lasting reliability of the equipment. Additionally, fiberglass mat tissue offers thermal insulation properties to chemical reactors. This is particularly crucial in processes where temperature control is vital. The insulation capabilities of the tissue help maintain the desired temperature within the reactor, preventing heat loss or gain that could negatively impact the efficiency and consistency of chemical reactions. In conclusion, fiberglass mat tissue plays a vital role in the production of chemical reactors by reinforcing the structure, providing chemical resistance, and offering thermal insulation. Its unique properties make it an excellent choice for ensuring the durability, safety, and optimal performance of chemical reactors in various industrial applications.
Q:How does fiberglass mat tissue compare to mineral wool insulation?
Fiberglass mat tissue and mineral wool insulation have different properties and applications. Fiberglass mat tissue is typically used as a reinforcement material for composites or as a facing material for insulation products. It provides good strength, flexibility, and resistance to moisture. On the other hand, mineral wool insulation is primarily used for thermal and acoustic insulation in buildings. It offers excellent fire resistance, sound absorption, and thermal performance. While both materials have their own advantages, the choice between them depends on the specific requirements of the project.
Q:Can fiberglass mat tissue be used for making lightweight automotive parts?
Fiberglass mat tissue is indeed suitable for creating lightweight automotive parts. This material, known for its versatility, is widely used in the manufacturing process of automotive components. It boasts an impressive strength-to-weight ratio, making it perfect for producing durable and high-performing lightweight parts. Furthermore, the ease with which fiberglass mat tissue can be molded into different shapes allows for intricate and customized automotive designs. Its notable resistance to corrosion, chemicals, and temperature changes only adds to its suitability for automotive applications. In conclusion, fiberglass mat tissue is a dependable and cost-efficient option for crafting lightweight automotive parts.
Q:Can fiberglass mat tissue be used for corrosion-resistant applications?
Yes, fiberglass mat tissue can be used for corrosion-resistant applications. Fiberglass mat tissue is made from fine glass fibers bonded with a resinous binder, which provides excellent corrosion resistance properties. The tissue is designed to be used as a barrier layer in various corrosion-resistant applications such as in the construction of tanks, pipes, and vessels that are exposed to corrosive environments. The fiberglass mat tissue acts as a protective barrier, preventing the penetration of corrosive elements and enhancing the durability and longevity of the structure. Additionally, the tissue is lightweight, easy to handle, and can be easily molded into complex shapes, making it an ideal choice for corrosion-resistant applications.
Q:How is fiberglass mat tissue used in the production of chemical storage tanks?
Fiberglass mat tissue is utilized in the production of chemical storage tanks as a reinforcement material. It is typically combined with resin to form a composite material that provides strength, durability, and resistance to various chemicals. The fiberglass mat tissue is layered within the tank structure to enhance its structural integrity and prevent leakage. During the manufacturing process, the fiberglass mat tissue is impregnated with resin, usually polyester or epoxy, to create a strong bond between the fibers and the matrix. This impregnated mat is then placed on a mold or mandrel and subsequently covered with additional layers of resin and mat, forming a laminate. The number of layers and thickness can vary depending on the desired tank specifications and the chemicals it will store. The combination of the fiberglass mat tissue and resin provides excellent corrosion resistance, making it suitable for storing a wide range of chemicals. Fiberglass is inherently non-reactive and can withstand exposure to harsh chemicals, acids, and alkalis without degrading or compromising the tank's structural integrity. This makes fiberglass mat tissue a preferred material for chemical storage tanks, as it ensures the safety of the stored chemicals and minimizes the risk of leaks or contamination. Additionally, the use of fiberglass mat tissue allows for the production of tanks with complex shapes and sizes, as it can be easily molded and formed into various configurations. This flexibility in design ensures that chemical storage tanks can be tailored to specific requirements and can be efficiently integrated into different industrial applications. In summary, fiberglass mat tissue plays a crucial role in the production of chemical storage tanks by reinforcing the tank structure, providing resistance to chemicals, and enabling the fabrication of tanks with diverse shapes and sizes. Its combination with resin creates a durable and corrosion-resistant composite material, ensuring the safe storage of chemicals in various industrial settings.
Q:Does fiberglass mat tissue provide good thermal conductivity?
No, fiberglass mat tissue does not provide good thermal conductivity.
Q:What are the different thickness tolerances for fiberglass mat tissue?
The different thickness tolerances for fiberglass mat tissue can vary depending on the specific manufacturer and product specifications. However, in general, fiberglass mat tissue is available in various thickness tolerances ranging from 0.5 millimeters (mm) to 3 mm. The tolerance refers to the acceptable range of thickness variation within a certain product. For example, a fiberglass mat tissue with a thickness tolerance of +/- 0.5 mm means that the actual thickness of the tissue can vary by up to 0.5 mm in either direction from the specified thickness. The specific tolerance required for a particular application depends on the intended use and the level of precision needed. Thicker fiberglass mat tissues with smaller tolerances are often used in applications that require higher strength and durability, such as in the construction industry for reinforcing concrete or in the manufacturing of composite materials. On the other hand, thinner fiberglass mat tissues with larger tolerances may be used in applications where flexibility and conformability are more important, such as in the automotive industry for insulation or soundproofing purposes. It is important to consult the manufacturer's specifications or contact a supplier for accurate information on the available thickness tolerances for fiberglass mat tissue, as they can vary significantly depending on the specific product and supplier.
Q:What are the different manufacturing processes for fiberglass mat tissue?
Various manufacturing processes exist for fiberglass mat tissue, each aiming to create a distinct mat type with unique characteristics. One prevalent method is the wet-laid process. Initially, glass fibers are chopped into small fragments and dispersed in a water-based slurry. This slurry is then spread onto a moving screen or belt, allowing the water to drain off and generating a mat composed of randomly oriented fibers. Subsequently, the mat is dried and further treated to achieve the desired thickness and density. Another technique is the dry-laid process. Here, glass fibers are first transformed into a loose, fluffy mat using either air or mechanical means. Subsequently, the loose fibers are bound together using a binder material, such as resin or latex, which is sprayed onto the fibers. The binder solidifies, resulting in a cohesive mat with controlled thickness and density. A third process is the stitch-bonded process. In this procedure, individual glass fibers are mechanically stitched together using a series of needles. These needles pierce the fibers and interlock them, producing a bonded fabric. This approach enables the production of mats with high strength and dimensional stability. Lastly, the spunbond process involves extruding molten glass through fine spinnerets to create continuous filaments. These filaments are then accumulated onto a moving belt or screen, where they are bonded together using either heat or a binder. This method generates mats with uniform fiber distribution and high strength. In summary, the selection of a manufacturing process for fiberglass mat tissue depends on the desired properties of the final product, including strength, thickness, density, and dimensional stability. Each process possesses its own advantages and disadvantages, and manufacturers will choose the most suitable method based on their specific requirements.
Q:What is the impact resistance of fiberglass mat tissue?
The impact resistance of fiberglass mat tissue is generally high due to the reinforcing properties of the fiberglass strands, which help to absorb and distribute impact forces.

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