• Pressure-type color plate System 1
Pressure-type color plate

Pressure-type color plate

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Contour colored plate makes use of color coated steel, by rolling and bending into a variety of wave-type pressured plate, which is applies to industrial and civil buildings, warehouses, special construction, the roof of large span steel structure housing, walls and interior and exterior decoration. It has light weight, high strength, rich colors, earthquake proof, fireproof, rainproofand and long life. In addition, it can be used easily. maintenance-free has been widely used. Or cold-rolled steel sheet by cold forming of steel. Organic coated steel sheet (or color steel), galvanized sheet steel, anti-corrosion sheet steel (including asbestos asphalt layer) or other thin steel plate and so on. Pressure plate has a flat, light weight, high strength, good seismic performance, construction, fast, beautiful shape, etc., it is good building material and components, mainly for the building envelope, floor, can also be used for other structures.

Depending on the use of functional requirements, contour plate can be pressed into a wave, hyperbolic wave, rib-shaped, V-shaped, reinforced type. Commonly used for roofing and wall thickness of 0.4 to 1.6 mm for load-bearing floor or when the thickness of the silo 2 to 3 mm or more. Wave height is generally 10 to 200 mm. When not stiffening, its high-thickness ratio should be controlled at 200 or less. When using a long pass roof, the slope can be 2 to 5%, the deflection does not exceed l/300 (l for the calculation of span).  
 
Thin pressure plate due to the original panel, anti-corrosion coating directly affects the quality of life, in order to meet the requirements of processing and rust-proof, coated steel basis having the relevant provisions of the inspection. Thin steel plate under normal circumstances the requirement can also be based, the pressure-type anti-rust paint and then painted, or stainless steel sheet of the original board. Pressure plate used for industrial plant roof, siding, in the general case of no insulation requirements, per square meter of steel about 5 to 11 kg. A thermal insulation requirements, the available mineral wool board, glass wool, foam and other materials for insulation. Combination of pressure plate made of composite slabs and concrete, can save the template can be used as load-bearing structure of wood. At the same time to strengthen the plate with the concrete binding, should be pre-welded on the plate or the suppression of two-way stud stiffeners.

nto the 21st century, high-speed stable development of China's national economy, and color coated steel sheeting from the general industrial buildings around the large, public buildings, such as airport terminals, railway stations, stadiums, concert halls, large theaters, the 2008 Olympic Games venues. Building roof, floor and wall board type power and connect more reasonable, more scientific construction methods like performance more galvanized plate, aluminum-magnesium-manganese alloy plate, titanium plate, stainless steel, etc. R & D, greatly enhanced the level of applied technology of the subtypes metal plate.
Board structure and standards undercut structure, the second generation of the pressure plate of the fastening structure and fasteners hidden connections; CLOSED the Cored The existing mature application; coating plate and pressure plate (substrate) to increase the aluminum plate, galvanized aluminum varieties, coated sheet and partial polyvinyl fluoride (PVDF) coated plates.

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Q: How does steel perform in terms of fire resistance?
Steel performs well in terms of fire resistance. It has a high melting point and retains its structural integrity even at high temperatures. Additionally, steel does not contribute to the spread of fire and can withstand fire exposure for an extended period without collapsing. These qualities make steel a preferred material for fire-resistant structures and help to ensure the safety of occupants in case of a fire.
Q: What are the typical spans and heights achievable with steel structures?
The typical spans and heights achievable with steel structures vary depending on the specific design and engineering requirements. However, steel structures are known for their high strength-to-weight ratio, allowing for longer spans and greater heights compared to other construction materials. In general, steel structures can achieve spans ranging from a few meters to over 100 meters, while heights can range from single-story buildings to skyscrapers reaching hundreds of meters. The versatility of steel as a construction material enables architects and engineers to create innovative and visually striking structures while maintaining structural integrity and safety.
Q: How are steel structures designed for blast impact loads?
Steel structures designed for blast impact loads undergo a rigorous process to ensure their resilience and ability to withstand the immense forces generated by explosions. The design principles for these structures involve several key considerations. Firstly, engineers analyze the potential blast scenarios, including the type of explosive, proximity, and direction of the blast. This helps in determining the magnitude and duration of the blast impact loads that the structure may experience. Next, the structural design takes into account the response behavior of steel materials under blast loading. Steel is known for its high strength and ductility, which allows it to absorb and distribute energy effectively. The design incorporates the appropriate steel grades and structural elements to withstand the sudden and intense forces generated by the blast. To ensure the structural integrity, engineers employ advanced analytical techniques such as finite element analysis (FEA) and computational fluid dynamics (CFD). These tools simulate the blast loading and its effects on the structure, enabling engineers to optimize the design and identify potential weak points. Another important aspect of blast-resistant design is the incorporation of redundancy and robustness. Redundancy refers to the inclusion of multiple load paths in the structure to ensure that even if one element fails, the overall structure remains stable. Robustness, on the other hand, entails designing the structure with additional strength and capacity to handle unexpected variations in blast loads. Special attention is also given to the connections between structural elements. Blast-resistant connections are designed to have sufficient strength and flexibility to accommodate the dynamic nature of blast loads, allowing the structure to absorb and dissipate energy without catastrophic failure. Furthermore, blast-resistant design may involve the use of sacrificial elements or blast-mitigating technologies. Sacrificial elements, such as sacrificial walls or barriers, are strategically placed to absorb the blast energy and protect key structural components. Blast-mitigating technologies, such as blast-resistant coatings or blast-resistant windows, are utilized to minimize the impact of the blast wave on the structure. Lastly, the design process includes comprehensive testing and validation. Physical tests, such as blast testing on scaled models or full-scale structures, are conducted to verify the effectiveness of the design and ensure its compliance with blast-resistant standards and regulations. In conclusion, steel structures designed for blast impact loads undergo a meticulous design process that considers blast scenarios, steel material properties, advanced analytical techniques, redundancy, connections, sacrificial elements, blast-mitigating technologies, and rigorous testing. This multifaceted approach ensures the creation of resilient structures capable of withstanding the extreme forces generated by explosions.
Q: What are the considerations when designing steel structures for governmental and public buildings?
When designing steel structures for governmental and public buildings, there are several important considerations to keep in mind. First and foremost, the structure must meet all relevant building codes and regulations to ensure its safety and compliance with governmental standards. Additionally, the design should prioritize functionality and efficiency, taking into account the intended use of the building and the needs of its occupants. Durability and resiliency are also crucial factors, as governmental and public buildings are often expected to withstand extreme weather conditions and potential security threats. Lastly, aesthetic appeal and integration with the surrounding environment should be considered to create a visually pleasing and harmonious structure that enhances the overall urban landscape.
Q: What are the different methods of steel erection?
There are several methods of steel erection, including crane erection, bolt-up erection, and panelized erection. Crane erection involves using cranes to lift and place steel members into position. Bolt-up erection involves assembling steel members on the ground and then using cranes or other lifting equipment to lift and bolt them into place. Panelized erection involves pre-assembling steel panels on the ground and then lifting and placing them as complete units.
Q: What is the role of steel decking in a structure?
The role of steel decking in a structure is to provide a stable platform for the placement of concrete, acting as a formwork during construction and as a permanent structural component once the concrete has cured. It enhances the structural integrity of the building, improves load-carrying capacity, and offers a safe working platform for workers during construction.
Q: How are steel structures designed to be resistant to vibration and oscillation?
Steel structures are designed to be resistant to vibration and oscillation through various methods. Firstly, structural engineers carefully analyze the dynamic loads and forces that can cause vibrations, such as wind, earthquakes, or machinery. They then design the steel structure with appropriate stiffness and strength to withstand these forces. Additionally, damping devices can be incorporated into the design to dissipate vibrations. These devices can include dampers, such as tuned mass dampers or viscous dampers, which absorb and dissipate energy, reducing the amplitude of vibrations. Furthermore, structural members can be designed with appropriate cross-sectional dimensions and configurations to minimize resonance, which is when the structure's natural frequency matches the excitation frequency, leading to amplified vibrations. By avoiding resonance, the structure remains stable and resistant to excessive oscillations. Overall, the combination of careful analysis, appropriate stiffness, damping devices, and avoidance of resonance ensures that steel structures are designed to withstand and resist vibrations and oscillations effectively.
Q: What is the cost of constructing a steel structure compared to other materials?
The cost of constructing a steel structure is generally higher compared to other materials such as wood or concrete. Steel is a durable and versatile material, but its higher cost is attributed to factors such as the production process, transportation, and installation requirements. However, when considering the long-term benefits of steel, such as its strength, durability, and resistance to various elements, it can be a cost-effective choice.
Q: What is the two steel structure?
It is in the range of a structure (referring to the main structure of the bearing component part) after the completion of construction construction, is relative to the supporting structure, non bearing structure, the steel structure of the retaining structure, such as structural column, beam and lintel, waterproof anti parapet, filling, capping, partition wall steel structure the.
Q: How are steel structures designed to accommodate equipment and machinery loads?
Steel structures are designed to accommodate equipment and machinery loads by considering factors such as the weight and dimensions of the equipment, the dynamic forces it generates during operation, and the required clearances for maintenance and installation. Engineers use computer-aided design software and structural analysis techniques to determine the appropriate size, shape, and strength of the steel members and connections. This ensures that the structure can safely support the loads imposed by the equipment and machinery while maintaining structural integrity and stability.

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