High-rise&multiple Storey Steel Building

High-rise&multiple Storey Steel 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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High-rise&multiple Storey Steel Building

1.Structure of High-rise&multiple Storey Steel 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 High-rise&multiple Storey Steel Building

•horter Construction Period
•Safer to Build

•Cost is Lower

•Envirommental

•Stronger especially on resisting the earthquake

3. High-rise&multiple Storey Steel Building images

High-rise&multiple Storey Steel Building

4. High-rise&multiple Storey Steel 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 High-rise&multiple Storey Steel 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，is one of the large-scale professional 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 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.

③How is the controling quality of the products process？

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 products flowing into the market. At the same time, we will provide necessary follow-up service assurance.

So if you cooperate with CNBM, you can get the above good garantees.

Q: What are the design considerations for steel structures in mixed-use developments?: Some design considerations for steel structures in mixed-use developments include the need for flexibility in layout and configuration to accommodate various uses, the ability to support heavy loads from commercial spaces, the integration of fire protection measures to ensure safety, and the incorporation of sound insulation to minimize noise pollution between different occupancies. Additionally, the design should prioritize efficient construction methods, sustainable practices, and aesthetic appeal to create a visually appealing and functional space for the users.

Q: What are the typical design considerations for steel food processing or manufacturing plants?: Some typical design considerations for steel food processing or manufacturing plants include: 1. Hygiene and cleanliness: The design should prioritize easy cleaning and maintenance to ensure food safety and prevent contamination. 2. Adequate space and layout: Sufficient space should be allocated for processing, storage, and movement of materials, with an efficient layout to optimize workflow and minimize cross-contamination risks. 3. Temperature control: Proper insulation and ventilation systems should be incorporated to maintain desired temperatures for different processing areas. 4. Equipment and machinery requirements: The facility should be designed to accommodate the specific equipment and machinery needed for food processing, such as conveyors, mixers, ovens, and packaging machines. 5. Compliance with regulations: The design must adhere to local and international food safety standards and regulations, including those related to ventilation, waste disposal, and fire safety. 6. Sustainability and energy efficiency: Design considerations should include eco-friendly practices, such as utilizing energy-efficient lighting systems, incorporating renewable energy sources, and implementing water-saving measures. 7. Accessibility and safety: The facility should be designed to provide easy access for employees, including appropriate safety measures like emergency exits, proper lighting, and non-slip flooring. 8. Future expansion and flexibility: The design should allow for future growth and expansion, considering potential changes in production requirements or technological advancements in the food processing industry.

Q: How are steel structures designed to be resistant to vibrations?: Various techniques and considerations are employed in the design of steel structures to ensure their resistance to vibrations. One crucial aspect is the careful selection of steel materials with high strength and stiffness characteristics. This ensures that the structure can withstand dynamic loads and vibrations without experiencing excessive deformation. In addition, structural engineers take into account the overall design of the steel structure. By carefully arranging and laying out components, they can minimize the potential for resonant vibrations. Resonance occurs when the structure's natural frequency matches the frequency of external vibrations, resulting in amplified oscillations. By avoiding resonance, the structure can better withstand vibrations. Furthermore, engineers incorporate damping mechanisms into the design. Damping helps dissipate the energy produced by vibrations and reduces their amplitudes. This can be achieved through the use of damping materials or devices, such as rubber pads or tuned mass dampers. These elements absorb or dissipate the vibrational energy, preventing its transmission throughout the structure. Moreover, steel structures can be designed with increased stiffness, which helps minimize vibrations. By enhancing the structure's rigidity, engineers can reduce the potential for excessive deformation and oscillations. Additional bracing, cross-members, or diagonal supports can be used to effectively increase the overall stiffness of the structure. Lastly, computer-aided design and analysis tools play a vital role in designing steel structures that are resistant to vibrations. Engineers can simulate and analyze the dynamic behavior of the structure under various loading conditions. This allows them to identify potential vibration issues and make necessary adjustments to the design. Overall, a combination of material selection, careful design considerations, incorporation of damping mechanisms, increased stiffness, and advanced analysis techniques are utilized to ensure the resistance of steel structures to vibrations. These measures enhance the structural integrity and durability of the steel structure, ensuring its safety and functionality in the presence of external vibrations.

Q: How are steel structures designed for automotive manufacturing facilities?: Steel structures for automotive manufacturing facilities are designed to be strong, durable, and flexible to accommodate various production processes. Engineers consider factors such as load-bearing capacity, seismic resistance, and ease of assembly. The design typically includes large open spaces for assembly lines, high ceilings for overhead cranes, and ample natural lighting. Additionally, safety features like fire-resistant materials and ventilation systems are incorporated into the design to ensure a safe working environment.

Q: What are the key considerations in the design of steel structures for residential buildings?: The key considerations in the design of steel structures for residential buildings include structural stability, load-bearing capacity, durability, fire resistance, and aesthetic appeal. Additionally, factors such as local building codes and regulations, site conditions, climate, and the overall architectural design need to be taken into account.

Q: Steel structure lateral inspection "z15" what does that mean?: In general, thick steel plate is easy to produce lamellar tearing, because the thicker the steel plate, the more non-metallic inclusion defects, and the thicker the weld, the greater the welding stress and deformation. To solve this problem, it is better to use Z to steel. This kind of steel plate is on the basis of a certain structural steel (called parent steel). After special treatment and processing, the content of sulfur is less than 1/5 of the general steel, and the shrinkage of the section is more than 15%. The mechanical properties of steel plates in the thickness direction (mainly ductility) are called Z properties. The Z properties of steel plates can be obtained by tensile tests of specimens, usually measured by cross-sectional shrinkage. China's production of Z steel plate to mark is in the parent class followed by Z to steel steel plate Z15, Z25, Z35 grade mark, the number after the Z word for section shrinkage index (%).

Q: What are the different types of steel framing systems used in construction?: In construction, various steel framing systems are utilized, each possessing unique characteristics and applications. 1. Light Gauge Steel Framing: Primarily found in residential and light commercial buildings, this type of steel framing involves the fabrication of thin steel sheets into C-shaped sections or studs. It is lightweight, cost-effective, and easy to install, making it a popular choice for non-load-bearing walls, partitions, and roof trusses. 2. Structural Steel Framing: Used for large-scale commercial, industrial, and high-rise buildings, this method employs hot-rolled steel sections, including I-beams, H-columns, and steel plates, to create the primary load-bearing structure. Structural steel framing is renowned for its strength, durability, and ability to withstand heavy loads and extreme weather conditions. 3. Pre-engineered Steel Buildings: These complete steel structures are designed and fabricated off-site, then assembled on-site. They offer customization options, cost-effectiveness, and rapid construction. Pre-engineered steel buildings are commonly utilized for warehouses, industrial buildings, and agricultural facilities. 4. Composite Steel Framing: This steel framing type combines steel components with other materials, such as concrete or timber, to create a hybrid structure. It is frequently employed in bridge construction, where steel and concrete work together to provide the necessary strength and load-carrying capacity. 5. Cold-Formed Steel Framing: This technique involves bending and forming thin steel sheets into various shapes and profiles. Cold-formed steel framing is commonly used for non-structural purposes, including interior partitions, ceilings, and floor joists. It offers exceptional fire resistance, sound insulation, and dimensional stability. Each of these steel framing systems presents its own advantages and disadvantages, with the optimal choice depending on factors such as building type, size, and intended use. Seeking guidance from a structural engineer or steel framing specialist is essential when determining the most suitable framing system for a specific construction project.

Q: What are the considerations for designing steel structures for blast resistance?: When designing steel structures for blast resistance, there are several key considerations that need to be taken into account. Firstly, the magnitude and type of blast load must be carefully analyzed. This involves understanding the potential explosive scenarios and determining the blast pressure, impulse, and duration that the structure will likely encounter. Secondly, the structural response to blast loads needs to be evaluated. This includes studying the dynamic behavior and response of the steel elements under blast-induced forces. It is crucial to ensure that the structure can absorb and distribute the blast energy effectively, without catastrophic failure. Furthermore, the choice of materials and construction techniques is critical in blast-resistant design. High-strength steel is often preferred due to its superior resistance against blast forces. Robust connections and joint details should be carefully designed to withstand the dynamic loads and prevent progressive collapses. In addition, the layout and spatial arrangement of the steel structure should be optimized to enhance blast resistance. This involves considering the placement of key elements, such as columns and walls, to minimize the potential for progressive collapse and to redirect blast waves. Lastly, the overall cost-effectiveness and practicality of the design solutions should be considered. Balancing the desired level of blast resistance with the project's budget and construction timelines is essential. In conclusion, designing steel structures for blast resistance requires a comprehensive understanding of blast loads, structural response, material selection, spatial arrangement, and cost considerations. By carefully addressing these factors, engineers can create safe and resilient structures that can withstand potential blast events.

Q: What are the common design considerations for steel canopies?: To ensure a successful and functional structure, there are several key considerations that must be taken into account when designing steel canopies. First and foremost is the structural integrity of the canopy. It is crucial to calculate and analyze the appropriate size and strength of the steel members to withstand various loads, such as wind, rain, snow, and seismic forces. This ensures stability and safety. In addition to structural integrity, aesthetics play a significant role in steel canopy design. These canopies often serve as architectural elements, so the overall shape, color, and finishes should be carefully considered to create an attractive and harmonious structure that complements the surrounding environment. Functionality is another important consideration. The canopy should effectively fulfill its intended purpose, whether it is providing shade, protection from rain or snow, or acting as a shelter for specific activities. Features like appropriate slope, drainage systems, and effective ventilation should be incorporated into the design to ensure functionality. Considerations should also be made to ensure accessibility for all users, including those with disabilities. This may involve incorporating ramps, handrails, and other accessibility features to comply with building codes and regulations. The choice of materials used in the canopy's construction should be carefully considered to ensure durability and longevity. Factors such as corrosion resistance, weathering properties, and maintenance requirements should be taken into account to ensure the canopy can withstand the elements and retain its structural integrity over time. If lighting is required, the design should include appropriate fixtures and wiring systems to ensure adequate illumination. Electrical considerations such as power supply, outlets, and grounding should also be addressed during the design phase. Designers should aim to minimize the environmental impact of steel canopies by considering sustainable design practices. This could include incorporating renewable energy sources, such as solar panels, or using recycled materials during construction. In conclusion, the design of steel canopies should consider structural integrity, aesthetics, functionality, accessibility, materials and durability, lighting and electrical systems, and environmental impact. By addressing these common considerations, designers can create steel canopies that are visually appealing, safe, functional, and environmentally conscious.

Q: How does steel perform in terms of wind resistance?: Steel performs exceptionally well in terms of wind resistance. Its high strength and rigidity allow it to withstand strong winds and resist deformation or collapse. Steel structures are often used in buildings, bridges, and offshore platforms to provide a robust and safe solution against wind loads. Additionally, steel's ability to be engineered and shaped into various forms allows for efficient and aerodynamic designs, further enhancing its performance in windy conditions.

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