• Fiberglass Chopped Strand e-glass Fiber for Thermoplastic System 1
  • Fiberglass Chopped Strand e-glass Fiber for Thermoplastic System 2
  • Fiberglass Chopped Strand e-glass Fiber for Thermoplastic System 3
Fiberglass Chopped Strand e-glass Fiber for Thermoplastic

Fiberglass Chopped Strand e-glass Fiber for Thermoplastic

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

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Description:

E-Glass Fiber Chopped Stands for Thermoplastic are based on silane coupling agent and special sizing formulation, compatible with PA,PBT/PET, PP, AS/ABS, PC, PPS/PPO,POM, LCP;
E-Glass Chopped Stands for thermoplastic are known for excellent strand integrity, superior flowability and processing property, delivering excellent mechanical property and high surface quality to its finished product.

E-glass Fiber Chopped Strands For Thermoplastic

Product Features:
Extremely low resin demand, delivering low viscosity to BMC paste
High impact strength; High LOI rate
High strand stiffness; Compatible with rubber
E-glass Fiber Chopped Strands For Thermoplastic

 

Product Specifications:

Property

Fibre diameter

Moisture Content

Size Content

Chop

(%)

(%)

(%)

(%)

Mathods

IS01888

ISO3344

ISO1887

3mm

±10

≤3.0

0.1±0.05

98

6mm

9mm

12mm

Packaging:

A:We have our own factory , we are on this business more than 10 years. 

Each bag can be taken 15-25kgs)。 Could also take a big container bag.

 E-glass Fiber Chopped Strands For Thermoplastic

FAQ:

1..Is your company  a factory or trade company?

A:We have our own factory , we are on this business more than 10 years. 

2.Who will pay for the express cost ?

A: We can support you free samples ,but express cost will be paid by you .

3.How long is the delivery time?

A:within 10-15 days after receiving deposit.

Q: Can fiberglass chopped strand be used in the production of automotive dashboards?
Yes, fiberglass chopped strand can be used in the production of automotive dashboards. Fiberglass chopped strand is a type of reinforcement material that is made up of short fibers of fiberglass. It is commonly used in the manufacturing of various automotive components, including dashboards. Fiberglass chopped strand offers several advantages that make it suitable for this application. Firstly, it provides excellent strength and rigidity, which is essential for dashboards as they need to withstand various forces and impacts. The chopped strand reinforcement enhances the overall structural integrity of the dashboard, making it more durable and resistant to deformation. Additionally, fiberglass chopped strand is lightweight, which is crucial in automotive applications where reducing weight is a priority for fuel efficiency and performance. This lightweight property allows for better fuel economy and improved vehicle handling. Moreover, fiberglass chopped strand offers good dimensional stability, meaning that it retains its shape and form under different temperature and humidity conditions. This is particularly important for dashboards as they are constantly exposed to changing environmental conditions. Furthermore, fiberglass chopped strand can be easily molded into complex shapes and contours, allowing for design flexibility in automotive dashboard production. This enables manufacturers to create dashboards with aesthetically pleasing designs and ergonomic features. In summary, fiberglass chopped strand is a suitable material for the production of automotive dashboards due to its strength, lightweight nature, dimensional stability, and molding capabilities. Its usage in dashboards helps in achieving durability, improved fuel efficiency, performance, and design flexibility.
Q: What are the abrasion resistance properties of fiberglass chopped strand?
The exceptional abrasion resistance properties of fiberglass chopped strand are well-known. This is due to its unique composition of glass fibers, which renders it highly resistant to wear and tear caused by friction and rubbing. Furthermore, the high tensile strength of fiberglass chopped strand enables it to withstand abrasive forces without breaking or deteriorating. Because of these qualities, it is widely preferred in industries where abrasion resistance is of utmost importance, such as automotive manufacturing, construction, and marine applications. Moreover, the smooth surface of fiberglass chopped strand reduces friction and minimizes the risk of abrasion, thereby enhancing its overall durability. In conclusion, fiberglass chopped strand is highly esteemed for its exceptional abrasion resistance properties, making it a dependable and long-lasting material for various industrial applications.
Q: How does the UV resistance of fiberglass chopped strand compare to other reinforcing materials?
The UV resistance of fiberglass chopped strand is generally considered to be superior compared to other reinforcing materials. Fiberglass is inherently resistant to UV radiation and does not degrade or weaken when exposed to sunlight for prolonged periods. Other materials like carbon fiber or aramid fibers may require additional protective coatings or treatments to maintain their UV resistance.
Q: Are there any health and safety concerns associated with handling fiberglass chopped strand?
Yes, there are health and safety concerns associated with handling fiberglass chopped strand. Fiberglass can release small, sharp fibers into the air when it is handled or disturbed. These fibers can irritate the skin, eyes, and respiratory system if inhaled or come into contact with. It is important to use proper personal protective equipment such as gloves, goggles, and a mask when handling fiberglass chopped strand to minimize the risk of exposure. Additionally, proper ventilation and containment measures should be in place to prevent the spread of fibers and to ensure a safe working environment.
Q: How does the fiber volume fraction of fiberglass chopped strand-reinforced composites affect their properties?
The fiber volume fraction of fiberglass chopped strand-reinforced composites has a significant impact on their properties. Fiber volume fraction refers to the volume of the fibers in the composite material relative to the total volume of the composite. As the fiber volume fraction increases, several properties of the composite material improve. One of the most notable improvements is in the mechanical strength of the composite. Fiberglass fibers are known for their high tensile strength, and as the volume fraction of fibers increases, the overall strength of the composite material increases. This means that the composite can withstand higher loads and stresses without failure. Moreover, the stiffness of the composite material also increases with an increase in fiber volume fraction. Fiberglass fibers are rigid and have a high modulus of elasticity, which contributes to the overall stiffness of the composite. This increased stiffness enhances the structural integrity of the composite and makes it more resistant to deformation under load. Additionally, the fiber volume fraction influences the thermal and electrical conductivity of the composite. Fiberglass fibers are known to have low thermal and electrical conductivity. Therefore, as the fiber volume fraction increases, the composite becomes less conductive in terms of heat and electricity. This property is desirable in many applications where insulation or electrical resistance is required. However, it is important to note that there is an optimum fiber volume fraction for achieving the best overall properties. If the fiber volume fraction is too low, the composite may not have sufficient reinforcement, leading to lower strength and stiffness. On the other hand, if the fiber volume fraction is too high, the fibers may become congested, resulting in a less uniform distribution and potential voids or defects in the material, which can reduce the overall properties. In conclusion, the fiber volume fraction plays a crucial role in determining the properties of fiberglass chopped strand-reinforced composites. Increasing the fiber volume fraction enhances the mechanical strength, stiffness, and thermal/electrical insulation properties of the composite material. However, it is important to find the optimal fiber volume fraction to achieve the desired properties without compromising the material's integrity.
Q: Is fiberglass chopped strand compatible with different recycling processes?
Certainly! Fiberglass chopped strand is indeed compatible with diverse recycling procedures. This adaptable material, fiberglass, can undergo recycling through an array of methods, including mechanical recycling, chemical recycling, and thermal recycling. In the mechanical recycling approach, the fiberglass chopped strand can be shredded and transformed into fresh fiberglass products. Conversely, chemical recycling involves disassembling the fiberglass into its fundamental constituents, which can then be utilized to generate novel materials. In contrast, thermal recycling utilizes heat to convert the fiberglass into energy or other beneficial byproducts. Through these distinct recycling processes, the fiberglass chopped strand can be efficiently recycled and repurposed, eliminating the need for landfill disposal and thus making it an environmentally-conscious alternative.
Q: Is fiberglass chopped strand suitable for architectural applications?
Architectural applications can benefit greatly from the use of fiberglass chopped strand. This versatile material offers numerous advantages and is well-suited for architectural purposes. It is lightweight, strong, durable, and resistant to corrosion, making it an excellent choice for a variety of architectural components. When it comes to architectural applications, fiberglass chopped strand has a wide range of uses. It can be used to reinforce architectural panels, walls, and ceilings, providing additional strength and stability. Furthermore, fiberglass can be molded into different shapes and forms, allowing architects to explore creative design possibilities. Architects can also utilize fiberglass chopped strand to create distinctive architectural features like columns, domes, and arches. Its malleability enables it to be easily shaped and formed into intricate designs, offering architects the flexibility to create visually appealing structures. Another advantage of fiberglass chopped strand is its resistance to fire and chemicals. This makes it suitable for architectural applications where fire and chemical resistance are crucial factors to consider, especially in industrial or commercial buildings. Moreover, fiberglass chopped strand is a cost-effective alternative to materials like steel or concrete. It requires less maintenance and has a longer lifespan, making it a cost-efficient choice for architectural projects. In conclusion, fiberglass chopped strand is an ideal material for architectural applications due to its lightweight nature, strength, durability, corrosion resistance, fire resistance, chemical resistance, and cost-effectiveness. Its versatility and ability to be molded into various shapes and forms make it an excellent choice for architectural components and features.
Q: How does the fiber orientation affect the impact resistance of fiberglass chopped strand composites?
The fiber orientation significantly influences the impact resistance of fiberglass chopped strand composites. When the fibers are aligned in the direction of impact, they can effectively distribute and absorb the applied load, resulting in improved impact resistance. Conversely, if the fibers are randomly oriented or misaligned, the load distribution is less efficient, leading to reduced impact resistance. Therefore, proper fiber orientation plays a critical role in enhancing the impact resistance of fiberglass chopped strand composites.
Q: Is fiberglass chopped strand suitable for the production of automotive spoilers?
Yes, fiberglass chopped strand is suitable for the production of automotive spoilers. It is a commonly used material in the automotive industry due to its high strength-to-weight ratio, durability, and ease of molding into complex shapes. Additionally, fiberglass is resistant to corrosion and can be easily painted or coated to achieve the desired finish.
Q: How does the fatigue resistance of the chopped strand affect its performance?
The performance of a chopped strand is significantly affected by its fatigue resistance. Fatigue resistance refers to a material's ability to withstand repeated loading and unloading cycles without experiencing a significant decrease in its mechanical properties or structural integrity. When chopped strand is used as a reinforcement material in various composite applications, its fatigue resistance directly impacts the durability and reliability of the final product. In dynamic or high-stress environments, the chopped strand must be able to endure repetitive stress without excessive deformation, degradation, or failure. A chopped strand with high fatigue resistance will exhibit enhanced performance compared to a material with lower fatigue resistance. It will be able to withstand a greater number of loading cycles before showing signs of mechanical deterioration, such as cracking, delamination, or loss of stiffness. The fatigue resistance of chopped strand is influenced by various factors, including the fibers used, the manufacturing process, and the composite matrix material. Fibers with higher tensile strength, like carbon or aramid fibers, generally have better fatigue resistance compared to weaker fibers such as glass. The manufacturing process, including the alignment and distribution of chopped strands within the composite, can also affect fatigue resistance. Properly aligned and evenly distributed strands can distribute the applied load more evenly, reducing stress concentrations and improving fatigue resistance. The composite matrix material also plays a role in fatigue resistance. The matrix should have good adhesion and compatibility with the chopped strand to ensure efficient load transfer and minimize the development of micro-cracks or failures at the fiber/matrix interface during cyclic loading. In conclusion, the fatigue resistance of chopped strand is crucial for determining its performance. Higher fatigue resistance leads to improved durability, longer service life, and overall better performance in dynamic or high-stress applications. Therefore, it is essential to select chopped strand materials with suitable fatigue resistance properties for specific applications to ensure reliable and long-lasting composite products.

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