• FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 1
  • FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 2
  • FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 3
  • FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 4
  • FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 5
  • FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust System 6
FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust

FRP Pultrusion Profiles Grating - Anti-Corrosion and Anti-Rust

Ref Price:
get latest price
Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
60 m
Supply Capability:
70000 m/month

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Specification

Brand:
CMAX
Diameter:
DN50-DN1000
Certificate:
ISO9001
Name:
FRP Pultruded Grating Anti-Corrosion and Anti-rust
Heat Resistance:
120°-160°
Features:
light weight & high strength
Application:
Industry
Stock:
Ready

PRODUCT DESCRIPTION


    Pultruded grating is made by a particular assembly process, which using “I” shape as its main load-bearing and special rod to go through the bearing bar. Pultruded grating include the standard grating and the custom grating, the custom grating can be designed to meet customer’s requirement or special using condition by changing the shape, size and space of the bearing bars, the surface can be covered with lozenge panel, grit panel, or added the anti-slippery sand directly.
    FRP pultruded grating has the most characteristics of molded grating, but it has its distinct advantages, it has very high fiberglass content in the loading direction, so it has very high load capability, it has more superiority when used at wide span, so that the basic support will be decreased and the project cost will be reduced accordingly.


FEATURES


a. anti-corrosion, non-rusty
b. lightweight and high strength
c. anti-flammable
d. anti-fatigue
e. anti-slippery and safety
f. anti-ageing
g. easy to installation and maintenance
h. excellent electromagnetism property


SPECIFICATION


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 the construction of outdoor signage?
Certainly, outdoor signage can utilize FRP pultrusion profiles. These profiles possess remarkable qualities, including durability, strength, and the ability to withstand different environmental conditions, rendering them ideal for outdoor use. Typically, these profiles consist of a combination of fiberglass reinforcement and resin matrix, resulting in a lightweight yet robust material. Outdoor signage often confronts harsh weather conditions, such as rain, sun exposure, and temperature fluctuations. FRP pultrusion profiles exhibit excellent resistance to corrosion, UV rays, and moisture, ensuring that the signage retains its structural integrity and visual appeal over time. Moreover, FRP pultrusion profiles offer customization options to fulfill specific design requirements, offering flexibility in creating distinctive and captivating outdoor signage. These profiles can be effortlessly shaped, cut, and assembled, making them a versatile choice for signage applications. In essence, the construction of outdoor signage can undoubtedly benefit from the use of FRP pultrusion profiles due to their durability, resistance to environmental conditions, and design flexibility.
Q: Can FRP pultrusion profiles be used in aerospace applications?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles can be used in aerospace applications. These profiles offer a combination of strength, lightweight, and corrosion resistance, making them suitable for various aerospace components such as structural supports, fairings, and interior panels. Additionally, FRP pultrusion profiles have high fatigue resistance and can withstand extreme temperatures, enhancing their suitability for aerospace use.
Q: Can FRP pultrusion profiles be used in the construction of railway sleepers?
The use of FRP (Fiber Reinforced Polymer) pultrusion profiles is indeed possible in the construction of railway sleepers. These profiles possess a range of advantages that render them suitable for this particular application. To begin with, the lightweight yet robust nature of FRP pultrusion profiles makes them an ideal option for railway sleepers. They boast high strength-to-weight ratios, enabling them to withstand heavy loads and reliably support the weight of trains. Moreover, their lightweight constitution facilitates transportation and installation, thereby reducing construction time and costs. Additionally, FRP pultrusion profiles exhibit a high resistance to corrosion, a crucial aspect for railway sleepers. Unlike traditional materials such as wood or steel that are prone to corrosion when exposed to moisture and chemicals, FRP profiles are non-corrosive. Consequently, they do not necessitate regular maintenance or replacement due to rust or decay. Furthermore, these profiles offer exceptional durability and longevity. They can withstand UV radiation, extreme temperatures, and chemicals, ensuring a longer lifespan compared to conventional materials. As a result, the need for frequent replacements is minimized, leading to reduced maintenance and lifecycle costs. Moreover, FRP pultrusion profiles can be tailored to meet specific design requirements. They can be manufactured in various shapes and sizes to accommodate different railway sleeper designs, providing flexibility in construction. Additionally, they can be produced in different colors, allowing for aesthetic customization. Lastly, FRP pultrusion profiles possess excellent electrical insulation properties, a critical factor for railway sleepers. They are capable of providing insulation between the train tracks and the ground, preventing electrical interference and ensuring safe operation. In conclusion, FRP pultrusion profiles are a suitable choice for constructing railway sleepers due to their lightweight yet strong composition, corrosion resistance, durability, customization options, and electrical insulation properties.
Q: How do FRP pultrusion profiles perform in high-vibration applications?
High-vibration applications are where FRP (Fiber Reinforced Polymer) pultrusion profiles truly excel. The exceptional properties of FRP materials make them an ideal choice for these situations. To begin with, FRP pultrusion profiles are renowned for their impressive strength-to-weight ratio. Unlike traditional materials like steel or aluminum, FRP profiles are significantly lighter while still possessing remarkable strength and rigidity. This lightweight quality reduces the overall mass of the structure, resulting in lower vibration amplitudes. Furthermore, FRP materials boast outstanding damping characteristics. Damping refers to a material's ability to dissipate energy and decrease vibration amplitudes. In comparison to other materials, FRP pultrusion profiles have a higher damping coefficient, meaning they can more effectively absorb and dissipate vibrations. This minimizes the transmission of vibrations throughout the structure, reducing the risk of resonance and fatigue failure. In addition, FRP pultrusion profiles demonstrate exceptional resistance to fatigue and corrosion. Vibrations can cause cyclic loading, which can lead to fatigue failure over time. However, the inherent properties of FRP materials, including their excellent tensile strength and resistance to environmental factors, make them highly resilient to fatigue and corrosion. This guarantees the longevity and durability of the profiles, even in high-vibration environments. Moreover, FRP pultrusion profiles offer immense design flexibility, allowing for customized shapes and sizes that can be tailored to specific applications. This flexibility allows engineers to optimize the profiles' performance in high-vibration scenarios by adjusting the geometry and composition to enhance their dynamic characteristics. In summary, FRP pultrusion profiles are exceptionally suited for high-vibration applications due to their lightweight nature, excellent damping characteristics, resistance to fatigue and corrosion, and design flexibility. These profiles provide a reliable and durable solution that can effectively withstand the challenges posed by vibrations, ensuring safe and efficient operation in such environments.
Q: Are FRP pultrusion profiles resistant to alkalis?
Yes, FRP pultrusion profiles are generally resistant to alkalis.
Q: Can FRP pultrusion profiles be used in the construction of train or subway platforms?
Yes, FRP pultrusion profiles can be used in the construction of train or subway platforms. FRP (Fiber Reinforced Polymer) offers excellent strength, durability, and corrosion resistance, making it suitable for high-traffic areas like train or subway platforms. Additionally, FRP pultrusion profiles can be customized to meet specific design requirements, making them a versatile choice for platform construction.
Q: Can FRP pultrusion profiles be used in wastewater or sewage treatment plants?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles can be used in wastewater or sewage treatment plants. FRP materials have excellent corrosion resistance, which makes them ideal for use in environments where exposure to chemicals, moisture, and harsh conditions is common, such as wastewater treatment plants. FRP pultrusion profiles offer numerous advantages over traditional materials like steel or concrete. They are lightweight, yet extremely strong and durable, making them easy to install and resistant to damage or degradation over time. Additionally, FRP profiles are non-conductive and have good thermal insulation properties, which can be beneficial in certain applications within wastewater treatment plants. Furthermore, FRP materials do not corrode or rust, even when exposed to aggressive chemicals and gases commonly found in wastewater or sewage treatment plants. This corrosion resistance significantly extends the lifespan of FRP pultrusion profiles, reducing the need for frequent maintenance and replacement. In summary, due to their corrosion resistance, durability, and other beneficial properties, FRP pultrusion profiles are a suitable choice for various applications in wastewater or sewage treatment plants, including walkways, platforms, handrails, grating, and structural supports.
Q: How to install GRP mark pile
The life of the font (because the FRP material should be polished and polished before printing, so that the printed fonts can be longer and a little bit less concrete)
Q: Can FRP pultrusion profiles be used in the construction of wind turbine blades?
Indeed, FRP pultrusion profiles have the capability to be utilized in the construction of wind turbine blades. There are several advantages offered by FRP pultrusion profiles that render them suitable for this purpose. To begin with, FRP pultrusion profiles possess a lightweight yet robust nature, a crucial characteristic for wind turbine blades since they must endure the aerodynamic forces exerted by the wind. The high strength-to-weight ratio of FRP pultrusion profiles permits the creation of longer and more effective blades. Moreover, FRP pultrusion profiles exhibit exceptional corrosion resistance properties, a vital attribute for wind turbines that are exposed to harsh weather conditions. In contrast to traditional materials like steel, FRP does not corrode, thereby ensuring an extended service life for the wind turbine blades. Additionally, FRP pultrusion profiles are customizable to satisfy specific design requirements. This flexibility allows for the optimization of blade performance by tailoring the shape, thickness, and stiffness of the profiles to maximize energy capture and minimize fatigue. Furthermore, FRP pultrusion profiles possess good fatigue resistance, enabling them to endure repeated loading cycles without experiencing significant performance degradation. This is particularly crucial for wind turbine blades, which encounter cyclic loading due to wind gusts and changes in wind direction. Lastly, FRP pultrusion profiles are electrically non-conductive, a beneficial trait for wind turbine blades as it eliminates the risk of electrical discharge during operation. In conclusion, the lightweight, strong, corrosion-resistant, and customizable nature of FRP pultrusion profiles makes them an outstanding choice for the construction of wind turbine blades. This contributes to the advancement of more efficient and durable wind energy systems.
Q: What are the limitations of using FRP pultrusion profiles?
There are several limitations to using FRP (Fiber Reinforced Polymer) pultrusion profiles. Firstly, they have a limited range of shapes and sizes compared to traditional construction materials like steel or wood. This restricts their applicability in certain design scenarios. Secondly, FRP pultrusion profiles are sensitive to high temperatures and can deform or lose their structural integrity when exposed to extreme heat. This limits their use in applications where high temperatures are involved, such as industrial processes or fire-prone environments. Additionally, FRP pultrusion profiles are more susceptible to UV degradation and can become brittle over time when exposed to sunlight. This necessitates the use of protective coatings or UV stabilizers, increasing the overall cost and maintenance requirements. Furthermore, due to the nature of pultrusion manufacturing process, it can be challenging to incorporate complex features or intricate designs into FRP profiles. This makes them less suitable for applications requiring intricate shapes or intricate structural connections. Lastly, FRP pultrusion profiles are generally more expensive than traditional materials like steel or wood. Despite their numerous advantages such as high strength-to-weight ratio, corrosion resistance, and electrical insulation properties, the higher upfront cost can be a deterrent for some projects or industries with budget constraints.

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