• 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 modular construction?
Yes, FRP pultrusion profiles can be used in modular construction. FRP (Fiber Reinforced Polymer) pultrusion profiles offer several advantages such as high strength-to-weight ratio, corrosion resistance, and design flexibility. These properties make them suitable for various applications in modular construction, including structural elements, cladding, and panel systems. Additionally, FRP pultrusion profiles can be easily molded into different shapes and sizes, making them compatible with the modular construction approach, where standardized components are assembled to create a larger structure.
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: Can FRP pultrusion profiles be used in the aerospace industry?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles can be used in the aerospace industry. FRP materials offer several advantages that make them suitable for aerospace applications. Firstly, FRP profiles have high strength-to-weight ratios, which is crucial in the aerospace industry where weight reduction is a priority. Their lightweight nature allows for fuel efficiency and increased payload capacity. Secondly, FRP pultrusion profiles have excellent corrosion resistance, making them ideal for aerospace applications where exposure to harsh environments is common, such as high altitude, extreme temperatures, and moisture. This resistance to corrosion ensures the durability and longevity of the components, reducing maintenance and replacement costs. Additionally, FRP materials can be tailored to meet specific design requirements, enabling engineers to create complex shapes and structures with ease. This flexibility in design allows for enhanced performance and functionality in aerospace applications. Moreover, FRP pultrusion profiles exhibit excellent fatigue resistance, meaning they can withstand the cyclic loading and stress cycles that are common in aerospace operations. This characteristic ensures the reliability and safety of the components, which is of utmost importance in the aerospace industry. Furthermore, FRP materials offer electrical insulation properties, which can be advantageous in aerospace applications where electrical conductivity needs to be minimized or controlled. This insulation capability contributes to the overall safety and functionality of the components. In conclusion, FRP pultrusion profiles can indeed be used in the aerospace industry due to their high strength-to-weight ratios, corrosion resistance, flexibility in design, fatigue resistance, and electrical insulation properties. These qualities make FRP a viable and attractive choice for various aerospace applications, including aircraft structures, interior components, radomes, and others.
Q: Are FRP pultrusion profiles resistant to hydrocarbons?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are generally resistant to hydrocarbons. The combination of various reinforcing fibers such as fiberglass or carbon fiber with a polymer matrix makes FRP materials highly resistant to chemical corrosion, including hydrocarbons. This resistance makes FRP pultrusion profiles a suitable choice for applications where exposure to hydrocarbons is expected, such as in oil and gas industry, chemical processing plants, or fuel storage facilities. However, it is important to note that the level of resistance can vary depending on the specific type of resin used in the FRP material and the concentration and temperature of the hydrocarbons involved. Therefore, it is recommended to consult with the manufacturer or supplier of the FRP pultrusion profiles to ensure their compatibility with the specific hydrocarbon environment in question.
Q: Are FRP pultrusion profiles resistant to high-pressure water jets?
FRP pultrusion profiles have a general resistance to high-pressure water jets. Their high strength-to-weight ratio, corrosion resistance, and durability make them suitable for applications involving water and harsh environments. The pultrusion manufacturing process ensures thorough resin impregnation of the fibers, resulting in a dense composite material. This density provides high resistance to water penetration, protecting the material from damage by high-pressure water jets. Additionally, FRP pultrusion profiles exhibit excellent chemical resistance, including resistance to water. This ensures that the profiles will not degrade when exposed to high-pressure water jets for extended periods. It is important to note that the specific resistance of FRP pultrusion profiles to high-pressure water jets may vary depending on the resin and fiber combination used. To obtain detailed information about the resistance of specific profiles in a given application, it is recommended to consult the manufacturer or supplier.
Q: How do FRP pultrusion profiles perform in high-wind areas?
Due to their exceptional performance characteristics, FRP pultrusion profiles are highly suitable for use in high-wind areas. These profiles utilize a combination of continuous glass fibers and a polymer resin matrix, resulting in a material that is both lightweight and incredibly strong and durable. One major advantage of FRP pultrusion profiles in high-wind areas is their excellent resistance to corrosion. Unlike traditional materials like steel or wood, FRP does not rust or rot when exposed to moisture or harsh weather conditions. This makes them ideal for regions prone to hurricanes or coastal environments where wind-driven saltwater or heavy rain can cause accelerated deterioration in other materials. In addition, FRP pultrusion profiles have a high strength-to-weight ratio, allowing them to withstand high wind loads without adding excessive weight to structures. Their lightweight nature makes transportation and installation easy, reducing overall costs and construction time in high-wind areas. Furthermore, FRP pultrusion profiles exhibit excellent dimensional stability, meaning they resist warping or deforming under extreme wind pressures. This stability ensures that structures utilizing FRP profiles maintain their integrity and functionality even in the face of strong winds. Moreover, FRP pultrusion profiles can be customized to meet specific wind load requirements. They can be engineered to have specific flexural or tensile strengths, allowing for tailored solutions to suit the demands of high-wind areas. Overall, FRP pultrusion profiles are an excellent choice for structures in high-wind areas due to their corrosion resistance, high strength-to-weight ratio, dimensional stability, and customization capabilities. These profiles provide a reliable, long-lasting, and cost-effective solution for structures exposed to intense wind loads, ensuring the safety and durability of the built environment.
Q: Can FRP pultrusion profiles be used in water treatment plants?
Indeed, water treatment plants can utilize FRP (Fiber Reinforced Polymer) pultrusion profiles. The utilization of FRP pultrusion profiles in this industry brings forth numerous advantages that render them highly suitable. To begin with, FRP pultrusion profiles possess exceptional resistance to corrosion. Given the aggressive environments found in water treatment plants, where exposure to chemicals and moisture is common, the traditional materials like steel are prone to corrosion and degradation. However, FRP pultrusion profiles are immune to corrosion, making them an ideal choice for water treatment applications. Moreover, FRP pultrusion profiles exhibit remarkable strength-to-weight ratios. This implies that they offer superior structural integrity while being lightweight, rendering them easier to handle and install within water treatment plants. Additionally, their high strength enables them to endure the loads and pressures typically encountered in these environments. Furthermore, FRP pultrusion profiles are non-conductive of electricity. This feature is particularly advantageous within water treatment plants where there may be a necessity to isolate electrical equipment or components to prevent short circuits and safeguard personnel. FRP profiles provide a safe and dependable solution in such cases. Lastly, FRP pultrusion profiles possess a long service life and necessitate minimal maintenance. They do not rot, rust, or corrode, ensuring durability and longevity even in harsh water treatment conditions. This reduces downtime and maintenance costs, making FRP profiles a cost-effective choice for water treatment plant applications. All in all, due to their corrosion resistance, high strength-to-weight ratio, electrical non-conductivity, and long service life, FRP pultrusion profiles are an exceptional option for utilization in water treatment plants. Their usage can contribute to enhanced efficiency, reduced maintenance, and increased durability in water treatment processes.
Q: Are FRP pultrusion profiles resistant to chemicals used in chemical plants?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles are generally resistant to a wide range of chemicals used in chemical plants. FRP materials are known for their excellent chemical resistance properties which make them suitable for various industrial applications including chemical plants. The manufacturing process of pultruded FRP profiles involves impregnating reinforcing fibers with a thermosetting resin, such as polyester, vinylester, or epoxy. These resins are chosen for their resistance to different chemicals and can be customized to meet specific requirements. FRP pultrusion profiles have demonstrated resistance to a range of aggressive chemicals including acids, bases, solvents, and corrosive gases. They are typically unaffected by most common chemicals found in chemical plants, which can include acids like sulfuric acid, hydrochloric acid, and nitric acid, as well as bases like sodium hydroxide. However, it is important to note that the resistance of FRP pultrusion profiles can vary depending on the specific resin system used and the concentration and temperature of the chemicals involved. It is always recommended to consult with the manufacturer or supplier to ensure that the chosen FRP profiles are suitable for the specific chemical environment in a chemical plant.
Q: Are FRP pultrusion profiles resistant to sulfuric acid?
FRP pultrusion profiles display a notable resistance to sulfuric acid and this corrosion resistance is a key advantage they hold over traditional materials like steel or concrete. Sulfuric acid, known for its highly corrosive nature, poses no threat to FRP pultrusion profiles due to the inherent properties of the composite materials used in their construction. The primary reason behind the corrosion resistance of FRP profiles lies in the resin matrix that encases the reinforcing fibers. The commonly utilized resins in pultrusion, namely polyester, vinyl ester, and epoxy, exhibit remarkable chemical resistance, including resistance to sulfuric acid. However, it is essential to acknowledge that the resistance of FRP pultrusion profiles to sulfuric acid can vary based on multiple factors. The concentration and temperature of the acid, as well as the specific resin formulation employed in the profile, can impact the overall resistance. In scenarios involving highly concentrated acid or elevated temperatures, it is advisable to consult the manufacturer or supplier to ensure that the specific FRP profile meets the necessary resistance requirements. On the whole, FRP pultrusion profiles offer a high level of resistance to sulfuric acid, making them apt for a wide range of applications in industries where this corrosive substance may be present, such as chemical processing, wastewater treatment, or mining.
Q: Can FRP pultrusion profiles be used in the construction of shipping containers?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles can be used in the construction of shipping containers. FRP pultrusion profiles offer several advantages that make them suitable for this application. Firstly, FRP pultrusion profiles are extremely strong and durable. They have a high strength-to-weight ratio, which allows for the construction of lightweight shipping containers that can withstand heavy loads and harsh environmental conditions. This is particularly beneficial in the shipping industry, where containers are subjected to rough handling and extreme weather during transportation. Secondly, FRP pultrusion profiles are resistant to corrosion, which is a major concern in the shipping industry due to the exposure to saltwater and other corrosive substances. Unlike traditional materials like steel, FRP does not rust or corrode, ensuring a longer lifespan for the shipping containers. Additionally, FRP pultrusion profiles have excellent thermal insulation properties. This helps in maintaining a consistent temperature within the shipping containers, which is crucial for transporting temperature-sensitive goods such as food, pharmaceuticals, and chemicals. Moreover, FRP pultrusion profiles can be easily customized and fabricated into various shapes and sizes, allowing for design flexibility in the construction of shipping containers. They can be molded to specific dimensions and incorporate features such as reinforcements, fastening points, and integrated insulation. Furthermore, FRP pultrusion profiles are non-conductive and have low thermal conductivity. This makes them an ideal choice for shipping containers that transport sensitive electronic equipment or hazardous materials, as they reduce the risk of electrical and thermal accidents. In conclusion, FRP pultrusion profiles can indeed be used in the construction of shipping containers. Their strength, durability, corrosion resistance, thermal insulation properties, design flexibility, and non-conductive nature make them a reliable and practical choice for this application.

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