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FRP Working Platform Fibeglass stairs Grating

FRP Working Platform Fibeglass stairs Grating

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
100 pc
Supply Capability:
100000 pc/month

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Item specifice

Stock:
Ready
Application:
Building Construction
Brand Name:
CMAX
Material:
Steel/Aluminum
Standard:
EN74/BS1139

PRODUCT DESCRIPTION


FRP guardrail are made by assembling of FRP pultrusion profiles. They divided into four types, they are standard square type, economic type, standard round type and heighten type, the type of profile and the installation distance, height, position and quantity can be changed per the customer’s requirement, the color also could be selected according the client’s demand.


FEATURES


1. Easily assembled,fast erection and dismantling.

2. High-strength steel tube,safe,durable and dependable.

3. Large selection of ringlock lock size.

4. Special brace lock spacing to match existing inventory.

5. Ringlock scaffolding for stories stacking.

6. Short delivery time,with stock.



SPECIFICATIONS


The standard space between two crossbars is 6 inch or 12 inch.  

Thickness (mm)

Bar width (mm)

Open space (mm)

Open rate (%)  

Approx weight (kg/m 2 )

25.4

15.2

22.8

60

13.2

25.4

15.2

15.2

50

15.9

25.4

15.2

10.1

40

18.5

25.4

40

10.8

21

14.5

38.1

15.2

22.8

60

15.8

38.1

15.2

15.2

50

19.1

38.1

15.2

10.1

40

22.4

50.8

25.4

25.4

50

16.6

50.8

25.4

12.7

33

21.1

 

PICTURES




Q:Can FRP pultrusion profiles be used in renewable energy projects?
Certainly, FRP pultrusion profiles are capable of being used in renewable energy projects. They possess a wide range of advantages that make them suitable for various applications within the renewable energy sector. To begin with, FRP pultrusion profiles are both lightweight and strong, which makes them ideal for utilization in wind turbine blades. The lightweight nature of FRP materials allows for increased efficiency in wind energy generation by reducing the load on the turbine, thus enhancing overall performance. Furthermore, the high strength-to-weight ratio of FRP profiles ensures durability and longevity, even in severe environmental conditions. Additionally, FRP pultrusion profiles display exceptional resistance to corrosion, which renders them suitable for employment in solar panel mounting structures and other components exposed to moisture and outdoor elements. This corrosion resistance ensures that FRP profiles maintain their structural integrity and performance over an extended period, diminishing the need for frequent maintenance and replacement. Furthermore, FRP pultrusion profiles can be customized to meet specific project requirements, providing flexibility in design and functionality. They can be easily molded into complex shapes and sizes, facilitating the creation of innovative and efficient solutions for renewable energy projects. Moreover, FRP materials are non-conductive and possess excellent electrical insulation properties, making them suitable for use in electrical enclosures and support structures for renewable energy systems such as solar power plants. In conclusion, FRP pultrusion profiles can be effectively utilized in renewable energy projects due to their lightweight, strong, corrosion-resistant, customizable, and electrically-insulating properties. These characteristics make FRP profiles a reliable and sustainable choice for various applications within the renewable energy sector.
Q:Can FRP pultrusion profiles be used in automotive applications?
FRP pultrusion profiles can indeed be utilized in automotive applications, presenting a myriad of advantages that render them appropriate for such use. Firstly, these profiles possess the dual attributes of being lightweight and strong, which holds immense significance within the automotive industry. As weight reduction stands as a top priority for enhancing fuel efficiency and performance, the commendable strength-to-weight ratio of FRP profiles enables the creation of lighter vehicles that consume less fuel. Secondly, FRP pultrusion profiles exhibit exceptional corrosion resistance, a vital characteristic for automotive applications routinely encountering exposure to various chemicals, moisture, and harsh environments. This corrosion resistance ensures the long-term dependability and durability of the profiles, ultimately reducing maintenance expenses and prolonging the lifespan of automotive components. Moreover, FRP pultrusion profiles offer remarkable design flexibility, thereby facilitating the formation of intricate shapes and geometries that can be customized to meet specific automotive requirements. This flexibility allows for the seamless integration of FRP profiles into numerous automotive components, including body panels, structural supports, interior trims, and suspension parts. Additionally, FRP pultrusion profiles demonstrate high fatigue resistance, a crucial aspect for automotive applications that involve repetitive loading and vibrations. The fatigue resistance of FRP profiles guarantees their enduring performance and aids in averting failures and breakdowns. Lastly, FRP pultrusion profiles are non-conductive, an advantageous attribute in automotive applications necessitating electrical isolation. This property obviates the necessity for supplementary insulation and mitigates the risk of electrical failures and short circuits. All in all, the amalgamation of lightweightness, robustness, corrosion resistance, design flexibility, fatigue resistance, and electrical non-conductivity renders FRP pultrusion profiles suitable for diverse automotive applications, thereby contributing to enhanced performance, fuel efficiency, durability, and safety within the automotive industry.
Q:Are FRP pultrusion profiles resistant to biological growth, such as mold or mildew?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are highly resistant to biological growth, including mold and mildew. FRP materials are inherently non-porous, making it difficult for microorganisms to attach and grow on their surface. Additionally, FRP pultrusion profiles are typically manufactured using a combination of resin and glass fibers, which are both naturally resistant to biological growth. Unlike traditional materials such as wood or metal, FRP does not provide an ideal environment for mold or mildew to thrive. The smooth and non-porous surface of FRP profiles prevents moisture absorption, which is essential for the growth of microorganisms. Furthermore, FRP materials do not contain organic compounds that can support the growth of mold or mildew, making them highly resistant to biological degradation. In applications where resistance to biological growth is crucial, FRP pultrusion profiles offer a significant advantage over alternative materials. They are commonly used in environments with high humidity, moisture, or exposure to water, such as marine, agricultural, or wastewater treatment facilities. Additionally, FRP profiles are frequently employed in indoor applications where mold or mildew growth can be a concern, such as in sanitary areas or food processing plants. Overall, FRP pultrusion profiles provide excellent resistance to biological growth, including mold and mildew. Their non-porous nature, combined with the inherent resistance of the materials used in their manufacturing, make them a durable and long-lasting solution in environments where microbial growth is a potential issue.
Q:Are FRP pultrusion profiles resistant to alkalis?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are generally resistant to alkalis. This is due to the fact that FRP composites are non-metallic materials that are composed of a polymer matrix reinforced with fibers, such as glass or carbon. The polymer matrix in FRP pultrusion profiles provides excellent resistance to alkalis, making them suitable for applications in environments where alkalis are present, such as chemical processing plants, wastewater treatment facilities, or marine structures. However, the specific resistance of FRP pultrusion profiles to alkalis may vary depending on the type of polymer resin used and the concentration and temperature of the alkali solution. Therefore, it is important to consult the manufacturer's specifications or conduct specific tests to ensure the compatibility of FRP pultrusion profiles with the intended alkali environment.
Q:What types of materials are commonly used in FRP pultrusion?
The manufacturing process of FRP pultrusion involves pulling continuous fibers through a resin bath and then through a heated die, resulting in a composite material with high strength and stiffness. Different types of materials are commonly used in FRP pultrusion, depending on the specific application and desired properties. 1. Fibers: Fiberglass (glass-reinforced polymer) and carbon fibers are the most commonly used in FRP pultrusion. Fiberglass is cost-effective, lightweight, and offers good strength and corrosion resistance. Carbon fibers, on the other hand, are more expensive but provide exceptional strength, stiffness, and lightweight properties. 2. Resins: The resin matrix used in FRP pultrusion provides rigidity and protection against environmental factors. Polyester resin is the most commonly used due to its low cost, ease of handling, and good mechanical properties. Vinyl ester resin is another popular choice, offering improved chemical resistance and heat tolerance compared to polyester. Epoxy resin is used when high strength and durability are required. 3. Additives: The resin matrix can be enhanced with various additives to improve specific properties of the FRP pultruded product. UV stabilizers are commonly used to protect against ultraviolet degradation. Flame retardants can be added to increase fire resistance. Other additives like pigments, fillers, and mold release agents may also be used to achieve desired aesthetics and processing characteristics. By selecting the appropriate combination of fibers, resins, and additives, FRP pultrusion can produce a wide range of composite materials with tailored properties to meet specific application requirements. This versatility in material selection is one of the key advantages of FRP pultrusion, making it suitable for industries such as construction, infrastructure, aerospace, automotive, and marine.
Q:Can FRP pultrusion profiles be used in the construction of chemical storage tanks?
Yes, FRP pultrusion profiles can be used in the construction of chemical storage tanks. FRP (Fiber Reinforced Plastic) offers excellent resistance to corrosion, making it a suitable material for storing chemicals. Pultrusion profiles provide structural support and durability, ensuring the tank's integrity. Additionally, FRP's lightweight nature, high strength-to-weight ratio, and customizable design make it an ideal choice for constructing chemical storage tanks.
Q:Do you have any high temperature resistant resin made of pultruded glass fiber reinforced plastic?
Unsaturated polyester resin can not meet the high temperature requirements, epoxy resin also needs to be synthesized
Q:Are FRP pultrusion profiles resistant to rotting or decaying?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are highly resistant to rotting or decaying. This is because FRP is composed of a combination of fiber reinforcement, such as fiberglass, and a polymer resin matrix. Unlike traditional materials like wood, which are susceptible to rot and decay when exposed to moisture and environmental elements, FRP pultrusion profiles are non-porous and do not absorb water. Additionally, the polymer resin used in FRP is highly resistant to chemical corrosion, making it unaffected by rot-causing agents such as fungi or bacteria. As a result, FRP pultrusion profiles have a significantly longer lifespan and require minimal maintenance compared to traditional materials, making them an excellent choice for applications where resistance to rotting or decaying is essential.
Q:Are FRP pultrusion profiles resistant to chemicals used in mining operations?
FRP pultrusion profiles, commonly referred to as Fiber Reinforced Polymer, generally exhibit resistance to chemicals commonly used in mining operations. These profiles are well-known for their exceptional chemical resistance properties, making them suitable for a variety of corrosive environments, including mining operations. To provide resistance against the vast array of chemicals typically found in mining applications, such as acids, alkalis, solvents, and corrosive gases, the resin matrix used in FRP pultrusion profiles can be carefully selected. Additionally, the reinforcement fibers, often composed of glass or carbon, further enhance the overall chemical resistance of the profile. Moreover, FRP pultrusion profiles are non-conductive, making them an ideal choice for both electrical and mining applications. They are not susceptible to corrosion or degradation when exposed to chemicals, ensuring their durability and longevity in harsh mining environments. However, it is crucial to consider the specific chemicals and concentrations used in mining operations. Although FRP pultrusion profiles generally possess excellent chemical resistance, prolonged exposure to highly aggressive chemicals or high concentrations may necessitate additional measures. These measures could include selecting specific resin systems or applying surface coatings to ensure optimal performance and longevity. To determine the most suitable materials for specific mining chemical environments, it is advisable to consult with FRP manufacturers or experts.
Q:Are FRP pultrusion profiles resistant to impact?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are generally resistant to impact. The combination of the high-strength fibers and the polymer matrix used in the manufacturing process makes FRP profiles highly durable and able to withstand significant impacts without cracking or breaking. Additionally, the pultrusion process ensures that the fibers are uniformly distributed throughout the profile, further enhancing its impact resistance. This makes FRP pultrusion profiles ideal for applications where impact resistance is important, such as in construction, transportation, and infrastructure projects.

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