• FIBER REINFORCE PLASTIC  REINFORCED ROOFING System 1
  • FIBER REINFORCE PLASTIC  REINFORCED ROOFING System 2
  • FIBER REINFORCE PLASTIC  REINFORCED ROOFING System 3
  • FIBER REINFORCE PLASTIC  REINFORCED ROOFING System 4
FIBER REINFORCE PLASTIC  REINFORCED ROOFING

FIBER REINFORCE PLASTIC REINFORCED ROOFING

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Loading Port:
Tianjin
Payment Terms:
TT or LC
Min Order Qty:
10000 m.t.
Supply Capability:
100000 m.t./month

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Specifications

Easy Reliable Installation
green initiative
thermal insulation and insulating
color fidelity lasting

FIBER REINFORCE PLASTIC  REINFORCED ROOFING

Detailed Product Description

1.Easy Reliable Installation
2.green initiative
3.thermal insulation
4.color fidelity lasting.long service life
5.Heat and sound insulation
6.Strong mechanical capacity

FIBER REINFORCE PLASTIC  REINFORCED ROOFING

ASA roof tile

Shengyu  synthetic resin roofing tile coated with ASA resin, is aspecial 3-layer co-extruded roofing tile. As the top layer material, ASAanti-climate engineering resin is extraordinary suitable for outdoor use. Thespecifi technical performances permit installation of the tile both industrialand civil applcations. Synthetic resin roofing tile has been exported in largequantity to Europe, Africa, South America, Asia, etc..

Long service time, Traditional appearance, Anti-corrosion, Rich color, Easyto install, Sturdy slab, Resistant to wind

Specification

Type

Royal

Thickness

3.0mm

Width

720mm

Length

the multiple of 219mm

Weight

6kg±0.1kg

Surface

Matte or Glazed

Color

China Red, Red, Dark Red,  Grey, Black, Terracotta

Performance

As top layer material, Geloy engineering resinmade by GE is extraordinarily suitable for outdoor use. Even exposed toultra-violet radiation, dampness, heat, chillness and impact, the productsremain the stability of color and physical properties. Tests held in Aging Testcenter of Arizona and Florida prove that is less than 5 within 10 years.

Royal roof tile has passed 10,000h accelerated aging test in China NationalCenter for Test of Chemical Building Materials. The test result of Shengyu Royal tile is 3.85.

FIBER REINFORCE PLASTIC  REINFORCED ROOFING

Anti-impact and Low Temperature Resistant

Falling sphere impact test: a 1kg steel ball falls freely from height of 2meters onto Royal tile, which has no crack. The tile is impacted by the fallingsphere for ten times at low temperature without damage. After ten cycles offreeze and melting, there is no swelling, frothiness, peeling-off or crack.

Anti-corrosion performance

Geloy ASA resin Royal roof tile has great performance in anti-corrosion test,which will not decline by erosion of rain and snow. Geloy resin is resistant tomany chemicals such as acid, alkali, salt, etc. Therefore, it is suitable foroutdoor application in costal area with serious salt fog corrosion and areawith heavy air pollution.

Self-cleaning

The surface of Royal roof tile is dense and smooth, being of lotus effect. Itdoesn't absorb dust after rain, thus it stays as clean as new.


Anti-load

Royal tile has strong anti-load performance. The test, conducted by ShanghaiMunicipal Building Material Component Quality Supervision and Test Station,proves that in condition of 660mm supporting span and 150kg applied load, thereis no crack in the tile.


Light Weight

One standard piece of 720mm Royal roof tile weighs 5.8±0.1kg, against apiece of 1050mm Roma roof tile 6.1±0.1kg.  

Environment-friendly

With China Environmental labeling product Certificate, this product can becompletely recycled.












Q:Are FRP pultrusion profiles resistant to caustic solutions?
Yes, FRP pultrusion profiles are generally highly resistant to caustic solutions. The inherent chemical resistance of fiberglass-reinforced plastic (FRP) combined with the corrosion-resistant properties of the pultrusion manufacturing process make FRP pultrusion profiles an excellent choice for applications involving caustic solutions.
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 suitable for the manufacturing of antenna masts?
Yes, FRP pultrusion profiles are suitable for the manufacturing of antenna masts. FRP pultrusion profiles offer several advantages such as high strength-to-weight ratio, corrosion resistance, and excellent electrical insulation properties. These characteristics make them ideal for antenna mast construction, as they can withstand various environmental conditions and provide reliable support for antennas.
Q:Can FRP pultrusion profiles be used in the construction of wastewater treatment tanks?
Indeed, wastewater treatment tanks can effectively utilize FRP pultrusion profiles. These profiles are renowned for their exceptional strength-to-weight ratio, resistance to corrosion, and longevity, making them an optimal option for harsh environments such as wastewater treatment facilities. To manufacture FRP pultrusion profiles, continuous fibers like glass or carbon are drawn through a resin bath and subsequently through a heated die to attain the desired shape. This process yields profiles with consistent cross-sections and outstanding mechanical properties. In the construction of wastewater treatment tanks, FRP pultrusion profiles can serve various purposes. They can function as structural components, like beams, columns, and bracing systems, offering the necessary strength and rigidity to support the tank structure. Additionally, FRP profiles can reinforce concrete structures, bolstering their durability and resistance against chemical attack from the wastewater. Moreover, FRP pultrusion profiles can be engineered to endure the corrosive impact of the chemicals and gases found in wastewater treatment tanks. Unlike conventional materials such as steel or concrete, FRP exhibits a high resistance to corrosion, guaranteeing an extended service life and reduced maintenance expenses. Furthermore, FRP profiles provide advantages in terms of installation and transportation. They are lightweight, enabling easier handling and diminished labor requirements during construction. The modular nature of FRP profiles also facilitates swift assembly and disassembly, simplifying maintenance and modifications. Overall, incorporating FRP pultrusion profiles in the construction of wastewater treatment tanks offers numerous benefits, including superior strength, corrosion resistance, durability, and ease of installation. These advantages render FRP a dependable and cost-effective choice for wastewater treatment facilities.
Q:What are the limitations of FRP pultrusion profiles?
There are several limitations associated with FRP (Fiber Reinforced Polymer) pultrusion profiles. 1. Limited Shapes and Sizes: Pultrusion technology is primarily suitable for producing linear profiles with constant cross-sections. It is challenging to create complex shapes or profiles with varying cross-sections using this manufacturing process. 2. High Initial Costs: The initial setup costs for pultrusion equipment can be quite high, making it less economically viable for smaller production runs. The machinery and molds required for pultrusion can be expensive and may require significant investment. 3. Limited Material Choices: While FRP pultrusion profiles offer excellent strength and corrosion resistance, the range of materials available for pultrusion is relatively limited. Typically, only a few types of reinforcing fibers, such as glass or carbon, are used. This limitation restricts the range of properties and applications of pultruded profiles. 4. Surface Finish: Pultruded profiles often have a rough surface finish, which may not be suitable for certain applications where a smooth or aesthetically pleasing appearance is desired. Additional steps, such as post-processing or coating, may be required to achieve the desired surface finish. 5. Tolerance Control: Maintaining tight dimensional tolerances can be challenging in pultrusion due to the inherent nature of the process. Variations in resin flow, fiber distribution, and curing can affect the final dimensions of the profile, which may require additional quality control measures. 6. Limited Design Flexibility: Unlike traditional manufacturing methods like extrusion or injection molding, pultrusion offers limited design flexibility. The constant cross-section of pultruded profiles restricts the ability to incorporate intricate features or varying thicknesses in the design. 7. Brittle Behavior: FRP pultrusion profiles tend to exhibit brittle behavior when subjected to high impact or sudden loads. While they possess high strength and stiffness, they may not have the same toughness as other materials like metals, making them prone to fracture under certain conditions. Despite these limitations, FRP pultrusion profiles offer numerous advantages such as high strength-to-weight ratio, corrosion resistance, and design versatility within their limitations. These profiles find applications in industries such as construction, aerospace, automotive, and marine, where their unique properties outweigh the drawbacks.
Q:Can FRP pultrusion profiles be used in the automotive manufacturing industry?
Certainly! Fiber Reinforced Polymer (FRP) pultrusion profiles have the potential to be utilized within the automotive manufacturing sector. These profiles possess a number of advantages that render them appropriate for automotive applications. To begin with, one of the key benefits of FRP profiles is their lightweight nature, which aids in reducing the overall weight of vehicles. This is of utmost importance in enhancing fuel efficiency and decreasing emissions. Moreover, the reduced weight of FRP profiles enables improved handling and enhanced performance. Additionally, FRP profiles exhibit exceptional mechanical properties, including high strength and stiffness. These properties make them well-suited for integration into structural components of vehicles, such as chassis, body panels, and frames. FRP profiles are able to withstand heavy loads and offer excellent impact resistance, thereby ensuring the safety of both the vehicle and its occupants. Furthermore, FRP profiles possess outstanding corrosion resistance, a quality that is particularly advantageous in automotive applications. In contrast to traditional materials like steel, FRP profiles are impervious to rust and corrosion. Consequently, they are ideally suited for deployment in various automotive environments, including those that involve exposure to moisture, chemicals, and salt. Moreover, FRP pultrusion profiles can be customized to meet specific design requirements, thereby affording flexibility in the manufacturing process. They can be produced in a range of shapes and sizes, which allows for the design of intricate components. This design flexibility also permits customization and optimization of vehicle performance. Lastly, FRP profiles possess excellent thermal and electrical insulation properties. This renders them appropriate for applications where minimizing electrical conductivity or providing thermal insulation is necessary. On the whole, the combination of the lightweight nature, high strength, corrosion resistance, design flexibility, and insulation properties of FRP pultrusion profiles positions them as an ideal choice for deployment within the automotive manufacturing industry. Their usage can contribute to the development of more efficient, safe, and durable vehicles.
Q:Do FRP pultrusion profiles have any limitations or drawbacks?
FRP pultrusion profiles indeed have certain limitations and drawbacks that need to be taken into account. One of these limitations is their lower stiffness compared to traditional materials like steel or aluminum. As a result, they may not be suitable for applications that demand high structural rigidity or heavy loads. Another constraint is their susceptibility to creep, which refers to the gradual deformation of the material under a constant load over time. This can adversely affect the long-term performance and durability of the profiles, particularly in scenarios where they face sustained stress. Moreover, FRP pultrusion profiles generally incur higher production costs compared to traditional materials. The manufacturing process involves pultruding continuous fibers through a resin matrix, requiring specialized equipment and expertise. Consequently, the higher production expenses make FRP pultrusion profiles less economically viable for certain applications. Additionally, FRP pultrusion profiles are typically not suitable for high-temperature applications. The resin matrix used in their production can degrade or soften at elevated temperatures, thereby restricting their use in environments where thermal resistance is crucial. Finally, FRP pultrusion profiles may have limited design flexibility compared to other materials. The pultrusion process typically yields profiles with constant cross-sections and limited geometric complexity. Consequently, their use is restricted in applications that necessitate intricate shapes or customized designs. Despite these limitations, FRP pultrusion profiles offer several advantages, such as a high strength-to-weight ratio, corrosion resistance, and electrical insulation properties. Therefore, it is crucial to thoroughly consider the specific requirements of the application before opting for FRP pultrusion profiles.
Q:Are FRP pultrusion profiles resistant to alkaline substances?
FRP pultrusion profiles are known for their general resistance to alkaline substances. By using fiberglass reinforced polymer (FRP) in pultruded profiles, they acquire excellent resistance against a wide range of chemicals, including alkaline substances. The manufacturing process typically involves using a thermosetting polymer, such as polyester or vinyl ester, as the resin. This choice of resin ensures high resistance to alkaline solutions. Additionally, the fiberglass reinforcement adds strength and durability to the profiles, making them highly resistant to corrosion and degradation caused by alkaline substances. However, it is important to note that the specific resistance of FRP pultrusion profiles to alkaline substances may vary depending on the resin formulation and manufacturing process used. Therefore, it is advisable to consult the manufacturer or supplier to confirm that the profiles meet the specific resistance requirements for alkaline environments.
Q:Are FRP pultrusion profiles resistant to chemicals used in food processing?
The resistance of FRP pultrusion profiles to chemicals commonly used in food processing is generally high. FRP, a type of fiberglass reinforced plastic, is well-known for its exceptional chemical resistance, making it a suitable material for various industrial uses, including the food processing industry. These profiles are made by combining resins and fiberglass reinforcements, which give them inherent resistance to a wide array of chemicals. Acids, alkalis, solvents, and many other chemicals often found in food processing environments are typically resisted by FRP pultrusion profiles. This resistance ensures that the profiles will not corrode, degrade, or react with these chemicals, thus maintaining their structural integrity over time. Consequently, FRP pultrusion profiles are regarded as a dependable choice for equipment, structures, and components used in food processing facilities. However, it is important to note that the specific chemical resistance of FRP pultrusion profiles may vary depending on the resin system used in their production. Different resins offer different levels of resistance to specific chemicals. Therefore, it is crucial to carefully select the appropriate resin formulation that matches the specific chemical environment in the food processing industry. To ensure the compatibility of FRP pultrusion profiles with the chemicals commonly used in food processing, it is advisable to consult with the manufacturer or supplier. They can provide detailed information regarding the chemical resistance properties of their FRP profiles and assist in selecting the most suitable materials for the specific application. Additionally, proper maintenance and regular cleaning practices should be implemented to ensure the longevity and sustained chemical resistance of FRP pultrusion profiles in food processing environments.
Q:Can FRP pultrusion profiles be used in the construction of railway platforms?
Yes, FRP (Fiber Reinforced Polymer) pultrusion profiles can be used in the construction of railway platforms. FRP pultruded profiles offer several advantages that make them suitable for this application. Firstly, FRP pultrusion profiles are lightweight yet highly durable. This makes them ideal for railway platforms as they can withstand heavy loads and frequent foot traffic without experiencing significant deformation or degradation over time. Secondly, FRP pultruded profiles have excellent corrosion resistance. This is particularly important for railway platforms, which are often exposed to harsh environmental conditions, including rain, snow, and salt. Unlike traditional materials such as steel or wood, FRP does not rust or rot, ensuring a longer lifespan for the platform. Additionally, FRP pultrusion profiles offer design flexibility. They can be customized to meet specific dimensional and structural requirements, allowing for the creation of platforms of various shapes and sizes. This versatility is beneficial for railway platforms, as they often need to be tailored to fit the available space and accommodate specific railway configurations. Furthermore, FRP pultrusion profiles have good electrical insulation properties. This is important for railway platforms, as they need to be electrically isolated from the tracks to prevent electrical shocks and ensure passenger safety. Lastly, FRP pultrusion profiles are easy to install and require minimal maintenance. They can be prefabricated off-site and quickly assembled on-site, reducing construction time and costs. Moreover, FRP does not require regular painting or sealing, saving both time and money on maintenance. In conclusion, FRP pultrusion profiles are a viable option for the construction of railway platforms due to their lightweight, durability, corrosion resistance, design flexibility, electrical insulation properties, and ease of installation and maintenance.

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