• Prefabricated Industrial Steel Structure Building System 1
  • Prefabricated Industrial Steel Structure Building System 2
Prefabricated Industrial Steel Structure Building

Prefabricated Industrial Steel Structure Building

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
100 m.t.
Supply Capability:
10000 m.t./month

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Prefabricated Industrial Steel Structure Building

 

1.Structure of Prefabricated Industrial Steel Structure Building

 The Prefabricated Industrial Steel Struacture building is one of the normal industrial building nowadays.Which is more and more populare in the industiral area.Its components are manufactuered by the steel material in the factory and prefabricated before entering the site,so the installation is very fast and easy.


2.Main Features of Prefabricated Industrial Steel Structure Building

•Shorter Construction Period
•Safer to Build

•Cost is Lower

•Envirommental

•Stronger especially on resisting the earthquake

3. Prefabricated Industrial Steel Structure Building  

 Prefabricated Industrial Steel Structure Building

 

Prefabricated Industrial Steel Structure Building


 

 

 

 

 

4. Prefabricated Industrial Steel Structure Building Specification

Design&Engineering Service, Steel Building,Space Frames, Portable Cabins, Tubular Steel Structures,basic building elements(built-up welded H-section , hot-rolled H-section, channel, steel column, steel beam),standard frames, secondary framing, roof & wall materials, Tempcon (sandwich) panels

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Project Scope:

industrial plant/workshop/warehouse/factores, airport terminal, highrise building, bridge, commercial center,  exhibition hall, stadium and the like

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Certificate:

 ISO9001:2000 ; ISO14001:2004 and OHSAS18000

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Engineering Design Software:

AutoCAD,PKPM,MTS,3D3S, Tarch, Tekla Structures(Xsteel)V12.0.etc

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5.FAQ of  Prefabricated Industrial Steel Structure Building

 

We have organized several common questions for our clients,may help you sincerely: 

 

①How about your company?

A world class manufacturer & supplier of castings forging in carbon steel and alloy steel,which is one of the largest scale profeesional  investment casting production bases in China, consisting of both casting foundry forging and machining factory.  Annually more than 8000 tons Precision casting and forging parts are exported to markets in Europe,America and Japan. OEM casting and forging service available according to customer’s requirements.

 

②How you guarantee the quality of the products?

We have established the international advanced quality management system.

Every link from raw material to final product we have strict quality test.We resolutely put an end to unqualified produ-cts flowing into the market.  At the same time, we will provide necessary follow-up service assurance.

③How could I get more discount?

Once you cooperate with CNBM, you will enter our customers managing systerm and then we will analysis your credit and the future space we could cooperate. If your credit on the contract keeping is better, your quantity and amount of the contract is is bigger, we will give you better price.



 


 

Q:How are steel structures designed to be resistant to corrosion in marine environments?
Steel structures designed for use in marine environments are specifically engineered to be highly resistant to corrosion. This is achieved through a combination of material selection, protective coatings, and proper maintenance. First and foremost, the choice of steel used in marine structures is crucial. Stainless steel, specifically grades such as 316 and 317, are commonly utilized due to their high resistance to corrosion. These grades contain a significant amount of chromium, which forms a passive oxide layer on the surface of the steel, protecting it from the corrosive effects of saltwater and other harsh marine elements. In addition to selecting the appropriate steel grade, protective coatings are applied to further enhance corrosion resistance. One commonly used coating is the application of zinc, either through hot-dip galvanizing or zinc-rich paint. Zinc acts as a sacrificial layer, corroding preferentially to the steel, thus providing an additional barrier against corrosion. Other coatings such as epoxy or polyurethane paints may also be applied to provide an additional layer of protection. Regular maintenance is crucial in ensuring the continued resistance to corrosion in marine environments. This includes routine inspections to identify any signs of damage or wear, as well as cleaning and repainting as necessary. Any damaged or corroded areas should be promptly repaired to prevent further corrosion from spreading. Furthermore, design considerations play a vital role in preventing corrosion in marine structures. Proper drainage and ventilation systems are incorporated to minimize the accumulation of moisture, which can accelerate corrosion. Additionally, the design may include features such as sacrificial anodes, which are attached to the steel structure and corrode in place of the main structure, further protecting it against corrosion. In summary, steel structures in marine environments are designed to be resistant to corrosion through the selection of corrosion-resistant steel grades, application of protective coatings, regular maintenance, and appropriate design considerations. By implementing these measures, the longevity and integrity of steel structures in marine environments can be significantly enhanced.
Q:What are the considerations for designing steel bridges for pedestrians and cyclists?
When designing steel bridges for pedestrians and cyclists, several key considerations need to be taken into account. First and foremost, the safety and comfort of both pedestrians and cyclists should be prioritized. This involves ensuring sufficient width and height clearance for different types of users, as well as incorporating appropriate guardrails or barriers to prevent accidents or falls. Additionally, the bridge's structural integrity should be carefully planned, considering the anticipated loads from pedestrians, cyclists, and potential future developments. The steel materials used should be durable, corrosion-resistant, and capable of withstanding the anticipated traffic and environmental conditions. Accessibility is another crucial factor to consider. The bridge should be designed to be easily accessible for people with disabilities, including the provision of ramps, elevators, or other means of ensuring universal access. Environmental impact should also be taken into consideration. The bridge's design should minimize disruption to the surrounding environment and wildlife habitats, while also considering sustainability aspects such as using recycled materials and implementing energy-efficient lighting systems. Lastly, aesthetics play a role in bridge design, as the structure should blend harmoniously with its surroundings and contribute to the overall visual appeal of the area. Overall, designing steel bridges for pedestrians and cyclists requires a comprehensive approach that considers safety, structural integrity, accessibility, environmental impact, and aesthetics.
Q:How are steel structures designed for resisting wind uplift loads?
Steel structures are designed to withstand wind uplift loads through a combination of structural analysis, engineering principles, and adherence to building codes and standards. The design process involves considering various factors such as the wind speed and direction, the shape and geometry of the structure, the material properties of steel, and the desired level of safety. Firstly, the wind speed and direction are determined based on historical data or specific location requirements. This information helps in estimating the wind loads acting on the structure. Wind tunnel testing or computational fluid dynamics (CFD) analysis can also be employed to obtain more accurate wind load data. Next, the shape and geometry of the structure are crucial in determining the wind resistance. Steel structures are designed with streamlined shapes that minimize the surface area exposed to wind. This reduces the wind pressure and the resulting uplift forces. Additionally, the use of tapered sections or aerodynamic features helps to reduce wind turbulence and enhance the overall stability of the structure. The material properties of steel, such as its strength, flexibility, and ductility, play a significant role in resisting wind uplift loads. The design incorporates appropriate steel sections based on their load-carrying capacity and resistance to bending, buckling, and torsion. High-strength steel alloys are often utilized to increase structural integrity and reduce deflections under wind loads. Adherence to building codes and standards is essential in the design process. National and international codes such as the International Building Code (IBC) provide guidelines for wind load calculations and design requirements. These codes specify factors of safety, load combinations, and permissible stresses to ensure that the steel structure can withstand the anticipated wind uplift loads. In summary, steel structures are designed for resisting wind uplift loads by considering wind speed and direction, optimizing shape and geometry, utilizing appropriate steel sections, and adhering to building codes and standards. Through this comprehensive approach, steel structures can effectively withstand wind forces and ensure the safety and stability of the overall construction.
Q:How are steel structures designed for shopping malls?
Steel structures for shopping malls are designed with careful consideration of various factors to ensure their safety, functionality, and aesthetic appeal. The design process involves several steps and considerations. Firstly, the design team evaluates the specific requirements of the shopping mall, such as the size, layout, and intended use of the space. This includes assessing the expected load-bearing capacity, as well as any unique architectural or design features desired. Next, structural engineers analyze the site conditions, including soil type, seismic activity, and wind loads, to determine the appropriate structural system. Steel is often preferred for its strength, durability, and flexibility, allowing for large open spaces and versatile designs. Based on this analysis, the engineers develop a structural framework using steel beams, columns, and trusses. These elements are designed to support the weight of the building, including the roof, walls, and any additional features like atriums or skylights. The design must also account for factors such as snow loads, live loads from people and equipment, and potential future expansions. Computer-aided design (CAD) software is commonly used to create detailed 3D models of the steel structure, enabling engineers and architects to visualize the design and identify any potential issues. These models help ensure that the structure meets local building codes and safety standards. During the design process, considerations are made for fire safety, such as the use of fire-resistant materials and the inclusion of proper fire suppression systems. Additionally, the design team incorporates measures to enhance energy efficiency, including insulation, natural lighting, and ventilation systems. Once the design is finalized, it undergoes a thorough review process by the relevant authorities or regulatory bodies to obtain the necessary permits and approvals. Overall, steel structures for shopping malls are designed with a focus on safety, functionality, and aesthetics. The design process involves careful assessment of the site conditions, consideration of the specific requirements of the mall, and adherence to building codes and regulations, resulting in a robust and visually appealing structure.
Q:How are steel structures designed to be resistant to snow and ice loads?
Steel structures are designed to be resistant to snow and ice loads through several measures. These include using appropriate design codes and standards that consider the weight and distribution of snow and ice, determining the maximum expected loads based on geographical location and climate data, considering the shape and slope of the structure to minimize snow and ice accumulation, and ensuring the proper selection of materials and structural elements to withstand these loads. Additionally, steel structures may incorporate measures such as snow guards, which help prevent snow and ice from sliding off the roof in large quantities, reducing the risk of sudden loads and potential structural damage.
Q:How are steel structures designed to resist fatigue?
The resistance to fatigue in steel structures is achieved by incorporating various elements such as material selection, design considerations, and maintenance practices. Steel structures are prone to fatigue due to their exposure to dynamic and fluctuating loads. To combat fatigue, steel structures are typically designed with a sufficient factor of safety to withstand expected loading conditions throughout their intended lifespan. Engineers take into account stress levels, loading frequencies, and potential stress concentrations in critical areas during the design process. This information helps determine the appropriate size, shape, and layout of structural members to minimize stress concentrations and distribute loads effectively. Material selection is a crucial aspect of designing for fatigue resistance. High-strength steels with favorable fatigue properties, such as low alloy steels or steels with controlled microstructures, are often preferred. These materials exhibit higher fatigue endurance limits and better resistance to crack initiation and propagation compared to mild steels. Design details also play a vital role in mitigating fatigue failure. Smooth transitions, adequate fillet radii, and gradual changes in section thickness are incorporated to reduce stress concentrations and prevent crack initiation. Welded connections are carefully designed to minimize stress concentrations at the weld toes, which are common sites for fatigue crack initiation. Regular maintenance and inspection are essential for ensuring long-term fatigue resistance in steel structures. Monitoring the structure for signs of cracking or damage through visual inspections or non-destructive testing techniques allows for timely repairs and preventive measures. Proper corrosion protection and periodic repainting can also enhance the fatigue resistance of steel structures by mitigating the effects of environmental factors. In conclusion, fatigue resistance in steel structures is achieved through a combination of factors such as material selection, design considerations, and maintenance practices. By considering loading conditions, stress concentrations, and utilizing appropriate materials, engineers can ensure the durability and longevity of steel structures subjected to cyclic loading.
Q:What are the design considerations for steel parking structures?
Design considerations for steel parking structures include: 1. Structural stability: The design must ensure the stability and safety of the structure, taking into account factors such as wind and seismic loads. 2. Durability: Steel parking structures should be designed to withstand corrosion and other environmental factors to ensure long-term durability. 3. Functionality: The design should optimize the parking capacity, traffic flow, and ease of use for vehicles and pedestrians. 4. Aesthetics: The visual appeal of the structure should be considered, including facade design, integration with the surrounding environment, and any architectural features. 5. Cost-effectiveness: The design should balance the initial construction cost with long-term maintenance and operational costs. 6. Flexibility: The structure should be designed to accommodate future changes, such as expansion or conversion to other uses, to maximize its lifespan and adaptability. 7. Sustainability: Incorporating sustainable design principles, such as energy-efficient lighting, rainwater harvesting, and green roofs, can minimize the environmental impact of the structure. 8. Safety and security: Design features like well-lit areas, security cameras, and emergency exits should be considered to ensure the safety and security of users. 9. Accessibility: The design should comply with accessibility standards, providing appropriate parking spaces, ramps, elevators, and signage for people with disabilities. 10. Maintenance and ease of construction: Design considerations should include ease of construction, maintenance, and repair to minimize disruptions and ensure the longevity of the structure.
Q:What are the design considerations for steel structures in seismic zones?
The design considerations for steel structures in seismic zones include ensuring the structural integrity and safety of the building during earthquakes. This involves factors such as choosing appropriate materials, designing for ductility and flexibility, using seismic-resistant connections, and implementing proper bracing and reinforcement systems. Additionally, the design must take into account the specific seismic hazard levels and ground motion characteristics of the region to ensure the structure can withstand the expected forces and vibrations caused by earthquakes.
Q:How does steel perform in terms of fire resistance?
Steel has excellent fire resistance properties as it has a high melting point and retains its structural integrity even at high temperatures. This makes it a reliable choice for buildings and structures where fire safety is a concern.
Q:How are steel commercial buildings constructed?
Steel commercial buildings are constructed using a combination of prefabricated steel components and on-site assembly. The process typically involves preparing the foundation, erecting the steel frame, adding secondary structural components such as walls and roofs, and finishing with interior installations. This method allows for efficient construction, durability, and flexibility in design.

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