• Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 1
  • Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 2
  • Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 3
  • Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 4
  • Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 5
  • Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats System 6
Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats

Chopped Strand Fiberglass Mat (CSM) - 2024 Fiberglass Powder Chopped Stand Mats

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
100 m.t.
Supply Capability:
20000 m.t./month

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Quick Details

Technique:

Chopped Strand Fiberglass Mat (CSM)

Dimensions:

450gsm

Mat Type:

Continuous Filament Mat

Fiberglass Type:

E-Glass

Softness:

softness

Place of Origin:

Jiangxi, China (Mainland)

Brand Name:

cnbm

Model Number:

450gsm

color:

white

fiberglass type:

E glass

product:

e-glass powder chopped stand mats

binder:

powder or emulsion

width:

1040 or 1270mm, as your requirement

weight:

30 or 45kg/roll

paper tube diameter:

90mm

outer diameter of roll:

256mm

packing:

plastic film+carton box + pallet



Packaging & Delivery

Packaging Details:plastic film+carton box + pallet
Delivery Detail:15-20days

Specifications

1.e-glass powder chopped stand mats 
2.binder:power or emulsion 
3.width:1040mm or 1270mm 
4.weight:450gsm

Picture

2015 Fiberglass Powder Chopped Stand Mats

2015 Fiberglass Powder Chopped Stand Mats

2015 Fiberglass Powder Chopped Stand Mats

2015 Fiberglass Powder Chopped Stand Mats

2015 Fiberglass Powder Chopped Stand Mats

2015 Fiberglass Powder Chopped Stand Mats



Q: Can fiberglass chopped strand be used in the production of wind turbine components?
Yes, fiberglass chopped strand can be used in the production of wind turbine components. It is commonly used as a reinforcement material in composite manufacturing processes to enhance the strength and durability of various wind turbine parts, such as blades and nacelles.
Q: Does fiberglass chopped strand improve the dimensional stability of composite materials?
Yes, fiberglass chopped strand can improve the dimensional stability of composite materials. The addition of fiberglass chopped strand helps to reinforce the composite, reducing the likelihood of warping, shrinking, or expanding due to changes in temperature or moisture. This reinforcement enhances the dimensional stability of the composite, making it less prone to distortion or deformation over time.
Q: Does fiberglass chopped strand improve the wear resistance of composite materials?
Yes, fiberglass chopped strand does improve the wear resistance of composite materials. Fiberglass chopped strand is made up of small, randomly oriented fibers that are added to the composite matrix. These fibers enhance the overall strength and durability of the composite material, making it more resistant to wear and tear. The high tensile strength and excellent mechanical properties of fiberglass chopped strand help to distribute stress and impact forces more evenly throughout the composite, reducing the likelihood of surface damage and improving its ability to withstand repeated use and abrasion. Additionally, the presence of fiberglass chopped strand can also enhance the stiffness and impact resistance of the composite, further enhancing its wear resistance. Therefore, incorporating fiberglass chopped strand into composite materials is an effective way to improve their wear resistance and extend their lifespan.
Q: How does the length of the chopped strand affect its performance?
The length of the chopped strand can significantly affect its performance in various applications. Chopped strands are typically used as reinforcements in composite materials, such as fiberglass, to enhance their strength and durability. The length of the chopped strand has a direct impact on its mechanical properties. Longer strands tend to provide higher tensile strength and stiffness, leading to improved structural integrity of the composite material. They also offer better resistance to crack propagation and deformation under load, making them suitable for applications requiring high strength, such as automotive components or construction materials. On the other hand, shorter chopped strands are more easily dispersed and distributed within the matrix, resulting in better interfacial bonding between the strands and the resin. This enhanced bonding improves the overall performance of the composite by increasing its resistance to delamination and improving its impact resistance. Shorter strands are commonly used in applications that require improved toughness and impact resistance, such as boat hulls or sports equipment. Therefore, the length of the chopped strand should be carefully chosen based on the specific requirements of the desired application. Factors such as the desired mechanical properties, processing conditions, and cost considerations should be taken into account when selecting the appropriate length of the chopped strand to achieve optimal performance.
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: How is the delamination resistance of fiberglass chopped strand composites determined?
The delamination resistance of fiberglass chopped strand composites is typically determined through various testing methods. One commonly used method is the interlaminar shear strength (ILSS) test. In this test, a specimen of the composite is prepared with layers of fiberglass and resin, and then subjected to a shear force to measure the resistance to delamination. Another method used to determine the delamination resistance is the mode I interlaminar fracture toughness test. This test evaluates the ability of the composite to withstand crack propagation in a mode I loading condition, where the crack propagates in the plane of the composite layers. The resistance to delamination is measured by analyzing the critical stress intensity factor (KIC) or critical energy release rate (GIC) required for crack propagation. Furthermore, various non-destructive testing techniques, such as ultrasonic testing or acoustic emission monitoring, can be employed to detect and characterize delamination within the composite structure. These techniques allow for the identification and evaluation of the extent and severity of delamination, providing valuable information on the resistance of the composite to delamination. Overall, the delamination resistance of fiberglass chopped strand composites is determined through a combination of destructive and non-destructive testing methods, focusing on the evaluation of interlaminar shear strength, fracture toughness, and the detection of delamination using advanced testing techniques.
Q: Does fiberglass chopped strand have any UV resistance?
Yes, fiberglass chopped strand does have some level of UV resistance. However, it is important to note that the extent of this resistance can vary depending on the specific type and quality of the fiberglass material. While some fiberglass chopped strands are specifically designed to have enhanced UV resistance, others may require the application of a protective coating or finish to mitigate the effects of prolonged exposure to sunlight. UV resistance in fiberglass chopped strand is primarily achieved through the addition of various additives and coatings during the manufacturing process. These additives and coatings act as a barrier, preventing the harmful UV rays from penetrating the fiberglass material and causing degradation. It is worth mentioning that even with UV resistance, fiberglass chopped strand may still experience some level of discoloration, yellowing, or degradation over time when exposed to direct sunlight for extended periods. Therefore, it is generally recommended to minimize direct UV exposure and take appropriate protective measures, such as applying a UV-protective coating, when using fiberglass chopped strand in outdoor applications.
Q: How does the fiber-matrix interfacial shear strength of fiberglass chopped strand affect the performance of composites?
The performance of composites is heavily influenced by the interfacial shear strength of fiberglass chopped strand. This parameter specifically refers to the strength of the bond between the fiberglass fibers and the matrix material in a composite. Load transfer capability between the fibers and the matrix is directly affected by the interfacial shear strength. A stronger bond between the fibers and the matrix, resulting from a higher interfacial shear strength, leads to better load transfer and improved mechanical properties of the composite. When the interfacial shear strength is high, stress transfer between the fibers and the matrix during loading becomes efficient. As a result, the composite material exhibits enhanced strength, stiffness, and overall performance. This is particularly important in applications where the composite is subjected to high mechanical loads or structural stresses. Conversely, a weak or low interfacial shear strength can result in poor load transfer, leading to reduced performance of the composite. In such cases, the fibers fail to effectively reinforce the matrix, causing premature failure, decreased strength, and lower overall mechanical properties. Apart from its impact on load transfer, the interfacial shear strength also affects other properties of composites, including fatigue resistance, impact resistance, and dimensional stability. A strong bond between the fibers and the matrix enhances the composite's resistance to fatigue by preventing the initiation and propagation of cracks under cyclic loading. Additionally, a high interfacial shear strength enables the composite to absorb and dissipate energy during impact events, thereby improving its impact resistance. Moreover, the interfacial shear strength plays a role in the dimensional stability of composites. A strong bond between the fibers and the matrix minimizes the occurrence of microcracks and debonding at the interface, reducing the potential for moisture absorption, creep, and dimensional changes over time. In conclusion, the fiber-matrix interfacial shear strength of fiberglass chopped strand has a significant impact on the performance of composites. A strong bond between the fibers and the matrix enhances load transfer, resulting in improved mechanical properties, fatigue resistance, impact resistance, and dimensional stability. Therefore, it is crucial to optimize and control the interfacial shear strength when designing and manufacturing high-performance fiberglass composite materials.
Q: Is fiberglass chopped strand suitable for aerospace interior components?
Indeed, aerospace interior components can be made from fiberglass chopped strand, which is a suitable material. Fiberglass, a lightweight and durable substance, possesses an excellent strength-to-weight ratio, making it an ideal choice for aerospace applications. The manufacturing of interior components, such as panels, partitions, and cabin linings, frequently involves the utilization of chopped strand fiberglass. This material offers good mechanical properties, including high tensile strength and impact resistance, which are crucial for ensuring the safety and performance of aerospace interiors. Furthermore, fiberglass is fire-resistant and capable of meeting the stringent fire safety requirements of the aerospace industry. Consequently, fiberglass chopped strand is a dependable and widely utilized material for aerospace interior components.
Q: Is fiberglass chopped strand suitable for automotive exterior parts?
Yes, fiberglass chopped strand is suitable for automotive exterior parts. Fiberglass is a versatile material that offers several advantages for automotive applications. It is lightweight, strong, and resistant to corrosion, making it an ideal choice for exterior components that need to withstand various weather conditions and provide durability. Additionally, fiberglass chopped strand can be easily molded into different shapes and sizes, allowing for flexibility in design and customization. Overall, fiberglass chopped strand is a reliable and cost-effective option for automotive exterior parts.

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