Fiberglass Chopped Strand Mat Combination Mat Slide Mat

Fiberglass Chopped Strand Mat Combination Mat Slide Mat

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Loading Port:: China main port

Payment Terms:: TT OR LC

Min Order Qty:: 1 kg

Supply Capability:: 5000 kg/month

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Product Description:

Surfacing Tissue mainly used in the surface layers of FRP products. It features even Fiber distribution, soft feel, level and smooth fiber surface, less glue content, quick resin soak and good pattern fitness. It can improve the product surface property on corrosion resistance, compressive strength, seepage resistance, and longer service life. It is also suitable for spraying; pattern pressing and other FRP pattern technology.

Product Features:
Fast breakdown in styrene
Fiber dispersed evenly
Low binder content
Superior acid corrosion resistance
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

Product Packaging:
Each Surface Tissue is wound onto a paper tube which has an inside diameter of 76mm and the mat roll has a diameter of 330mm. 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 vertically or horizontally placed. For transportation, the rolls can be loaded into a cantainer directly or on pallets.

Fiberglass Chopped Strand Mat Combination Mat Slide Mat
Product Storage:
Unless otherwise specified, 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 50%~75% respectively.

Company Information

CNBM (China National Building Material) Group is the largest comprehensive building materials group in China that in integrate scientific research, manufacturing and logistics into one entity. The largest building materials and equipment specialists in China. Upon State Council approval, today CNBM owned more than 300 subordinate manufacturing factories and servicing companies. There are 6 fully owned public listed companies and 11 partially owned with substantial shares public listed companies. In many of these fields, CNBM is playing the leading role in the building industry in the country.

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Q: What are the typical creep properties of chopped strand composites?: The specific material composition, processing conditions, and environmental factors can cause the creep properties of chopped strand composites to vary. However, there are certain general characteristics that can be associated with these composites. Chopped strand composites, also known as chopped strand mat (CSM) composites, are created by randomly arranging and bonding short glass or carbon fibers with a resin matrix. Due to the random fiber orientation, these composites display anisotropic mechanical properties, including creep behavior. Creep refers to the gradual deformation of a material when exposed to a constant load over time. Various factors, such as fiber distribution, fiber length, fiber orientation, resin type, curing conditions, and the applied load, can influence the creep properties of chopped strand composites. One of the typical creep properties of chopped strand composites is their time-dependent deformation. These composites experience a gradual increase in strain over time when subjected to a constant load. The extent and rate of creep deformation depend on the applied stress level, temperature, and the specific viscoelastic properties of the resin matrix. Another important creep property is the directionality of deformation. Chopped strand composites typically exhibit different creep behavior in the longitudinal (fiber direction) and transverse (perpendicular to fiber direction) directions. This anisotropic behavior is a result of the random fiber orientation and the resulting variations in fiber-matrix interactions. To enhance the creep resistance of chopped strand composites, it is possible to optimize the fiber distribution, fiber length, and orientation during the manufacturing process. In addition, using high-performance resins with improved viscoelastic properties can help minimize creep deformation. It is important to note that the creep properties of chopped strand composites can be significantly affected by environmental conditions, such as temperature and humidity. Elevated temperatures can accelerate creep deformation, while exposure to moisture can impact the fiber-matrix interface, leading to reduced creep resistance. In conclusion, the typical creep properties of chopped strand composites include time-dependent deformation, anisotropic behavior, and susceptibility to environmental factors. Understanding and controlling these properties are crucial for the design and utilization of chopped strand composites in various industries, such as automotive, aerospace, and construction.

Q: What are the different types of glass fibers used in chopped strand?: There are several different types of glass fibers that are commonly used in chopped strand. These include E-glass fibers, S-glass fibers, C-glass fibers, and AR-glass fibers. E-glass fibers are the most commonly used type of glass fiber in chopped strand. They are made from a type of glass called "E-glass," which is known for its high strength and good electrical insulation properties. E-glass fibers are used in a wide range of applications, including automotive parts, construction materials, and electrical insulation. S-glass fibers are another type of glass fiber that is used in chopped strand. S-glass is a type of glass that is known for its high strength and modulus. It is often used in applications that require exceptional mechanical properties, such as aerospace components and military vehicles. C-glass fibers are a type of glass fiber that is made from a type of glass called "C-glass." C-glass is known for its resistance to chemical corrosion, making C-glass fibers suitable for use in applications that involve exposure to harsh chemicals, such as chemical storage tanks and pipes. AR-glass fibers, also known as alkali-resistant glass fibers, are specially designed to resist the alkaline environment that is present in some applications, such as concrete reinforcement. These fibers have a special surface treatment that protects them from degradation when exposed to alkaline substances, making them ideal for use in construction materials. Overall, the different types of glass fibers used in chopped strand offer a range of properties and characteristics that make them suitable for various applications. By choosing the appropriate type of glass fiber, manufacturers can create chopped strand products that meet the specific requirements of their intended use.

Q: Can fiberglass chopped strand be used in the production of insulation blankets?: Indeed, the utilization of fiberglass chopped strand is applicable in the manufacturing of insulation blankets. This lightweight and adaptable material possesses exceptional thermal insulation characteristics. It can be effortlessly manipulated and shaped into insulation blankets, which find extensive use in diverse industries for thermal and acoustic insulation objectives. The incorporation of chopped strands effectively augments the overall insulation efficacy of the blankets, forming a compact and consistent layer of insulation material. Moreover, fiberglass chopped strand exhibits resistance against moisture, chemicals, and fire, thus rendering it an optimal selection for insulation applications.

Q: How does the fiber length affect the flow behavior of chopped strand composites?: The fiber length has a significant impact on the flow behavior of chopped strand composites. Chopped strand composites are made by mixing short fibers, typically around 1-3 centimeters in length, with a matrix material such as resin. When the fiber length is shorter, it allows for better dispersion and distribution within the matrix material. This results in a more homogeneous mixture and enhances the mechanical properties of the composite. The shorter fibers also have a higher surface area, which promotes better bonding between the fibers and the matrix material. On the other hand, longer fiber lengths can lead to poor dispersion and clustering within the matrix material. This can result in areas of high fiber concentration, known as fiber bundles, which can negatively affect the mechanical properties of the composite. The longer fibers also have a lower surface area, which can reduce the bonding between the fibers and the matrix material. In terms of flow behavior, shorter fiber lengths generally result in lower viscosity and improved fluidity of the composite mixture. This is because the shorter fibers can more easily slide past each other, allowing the matrix material to flow more freely. On the other hand, longer fiber lengths can increase the viscosity and decrease the flowability of the composite mixture, as the fibers hinder the movement of the matrix material. Overall, the fiber length plays a crucial role in determining the flow behavior of chopped strand composites. The choice of fiber length should be carefully considered to achieve the desired mechanical properties and flow characteristics of the composite material.

Q: Is fiberglass chopped strand suitable for the production of swimming pools?: Fiberglass chopped strand is indeed suitable for swimming pool production. It is a robust and long-lasting material that withstands water, chemicals, and UV rays, making it perfect for constructing swimming pools. The chopped strand variant of fiberglass enables effortless blending with resins and other substances, resulting in a composite that can be molded into various shapes and sizes. Moreover, fiberglass offers remarkable flexibility, allowing it to endure the continuous movement and pressure caused by water in a swimming pool. All in all, fiberglass chopped strand is a dependable and effective material for manufacturing swimming pools, offering enduring performance and a sleek, appealing appearance.

Q: What are the safety precautions for handling fiberglass chopped strand?: When handling fiberglass chopped strand, it is important to follow certain safety precautions. Firstly, it is essential to wear appropriate personal protective equipment (PPE), including gloves, safety goggles, and a dust mask or respirator, to prevent the fiberglass from coming into contact with the skin, eyes, or respiratory system. Additionally, working in a well-ventilated area or using exhaust ventilation systems helps minimize exposure to airborne fiberglass particles. It is crucial to avoid eating, drinking, or smoking while handling fiberglass chopped strand, as this can lead to ingestion of the particles. Proper clean-up and disposal methods should also be followed to prevent the spread of fiberglass particles. Overall, adhering to these safety measures helps reduce the risk of irritation or injury associated with fiberglass chopped strand handling.

Q: Can fiberglass chopped strand be used in the manufacturing of electrical enclosures?: Indeed, the utilization of fiberglass chopped strand is applicable in the production of electrical enclosures. This reinforcing material consists of glass fibers that have been chopped into small fragments. Due to its exceptional electrical insulation properties, it is commonly employed in various industries, including electrical engineering. Incorporating fiberglass chopped strand into the manufacturing process of electrical enclosures can provide them with increased sturdiness and longevity. It effectively enhances the mechanical characteristics of the enclosures, rendering them resistant to impact, corrosion, and other external factors. Moreover, fiberglass chopped strand is non-conductive, a crucial attribute in electrical applications as it effectively prevents any electrical shorts or hazards. Furthermore, fiberglass chopped strand can be effortlessly molded or shaped into intricate forms, making it ideal for manufacturing enclosures with specific requirements or intricate designs. Additionally, it can be combined with other materials such as resins or polymers to create composite materials that offer enhanced performance and versatility. All in all, the utilization of fiberglass chopped strand in the manufacturing process of electrical enclosures provides numerous advantages, including augmented strength, durability, electrical insulation, and design flexibility.

Q: Is fiberglass chopped strand suitable for the production of sports equipment?: Yes, fiberglass chopped strand is suitable for the production of sports equipment. It offers excellent strength and durability, making it ideal for various applications in sports equipment manufacturing.

Q: Can fiberglass chopped strand be used in the production of architectural panels?: Yes, fiberglass chopped strand can be used in the production of architectural panels. Fiberglass chopped strand is a versatile material that offers high strength and durability, making it suitable for various applications, including architectural panels. The chopped strands are typically mixed with a resin and then molded or formed into the desired panel shape. The resulting panel offers excellent mechanical properties, such as high tensile strength, impact resistance, and dimensional stability. Additionally, fiberglass panels can be easily customized to meet specific design requirements, allowing architects and designers to create unique and aesthetically pleasing structures. Overall, the use of fiberglass chopped strand in the production of architectural panels provides a cost-effective and efficient solution for constructing durable and visually appealing building components.

Q: How does the diameter of the chopped strand affect its performance?: The diameter of the chopped strand can significantly impact its performance. A smaller diameter strand typically results in better dispersion and wet-out in the resin matrix, leading to improved mechanical properties and overall performance of the composite material. Additionally, a smaller diameter strand allows for higher fiber loading, increasing the strength and stiffness of the final product. Conversely, a larger diameter strand may provide better impact resistance but can result in reduced flowability during processing and potentially create voids or weak spots in the composite structure.

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