• light steel structures prefab house for  shop System 1
  • light steel structures prefab house for  shop System 2
  • light steel structures prefab house for  shop System 3
light steel structures prefab house for  shop

light steel structures prefab house for shop

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
2000 m.t.
Supply Capability:
30000 m.t./month

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Product Description:

light steel structures prefab house for shop

1. Lightweight for easy handling & economical shipping.

Because steel construction components’ weight is about 2/3 less than wood components, the average 200 square meter house requires only about 6 tons of steel for framing components and 20 tons of lumber. The structure applies to residential roofing, where steel profiles weigh much less than slate, composite tile, and wood cedar shake.


2. Strength that only steel can

No other construction material can match steel’s superior strength and durability. In fact, steel’s strength allows homes to be designed with larger open spaces.


3. Precise measurements, perfect angles.

Steel construction components can be precut and pre-measured to exact specifications. On-site adjustments aren’t required. Even standard lengths require only minimal cutting.


4. Resistant to termites and pest.

Steel is simply impervious by termites and other borers causing bugs and pests. Owners can look forward to a lifetime of pest-prevention convenience.


5. Won’t rot, chip, splinter, crack, split or warp. Ever.

Steel framing stays straight and true. And unlike wood, steel holds walls straight without any shifting or twisting. Even steel roof profiles are virtually maintenance-free.


6. Withstands the worst environmental conditions.

Strong and noncombustible, steel provides great protection against the worst conditions including fire, floods, snow buildup, intense sun and high humidity. Steel can even provide protection against hurricanes and earthquakes.


7. Insurance companies love steel.

Because steel is noncombustible and termite-proof, it qualifies for what insurance companies call “superior construction”. So premiums are typically lower.


8. Steel components mean minimal material waste.

Cut-to-length steel framing generates almost no material waste. Steel roofing ,may be applied over existing roofs, eliminating tear off waste for landfill.


9. Installation is fast and simple. Labor costs are minimal.

Steel framing is lightweight and precut to desired lengths while steel roofs can be installed in long lengths. Construction goes quickly and easily. Crews can do more work in less time.


10. Every inch of steel is recyclable.

Unlike wood, which uses up our natural resource of tree, steel is an excellent choice for environmentally sound home construction, All steel construction components, even scraps, are completely recyclable.


11. Cost effective from start to finish.

Compared to traditional construction materials, steel framing and roofing offer significant cost advantages. Material costs are competitive and more consistent. Shipping is more economical. Labor is more cost-effective. Insurance premiums may be lower. And properly installed, energy efficiency is better.

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Q:How are steel structures designed to be resistant to chemical corrosion?
Various methods and techniques are employed in the design of steel structures to ensure their resistance to chemical corrosion. One primary approach is the utilization of corrosion-resistant alloys or coatings on the steel surface. To begin with, stainless steel, known for its high corrosion resistance, is commonly employed in the construction of steel structures. This alloy contains chromium, which, when exposed to oxygen, forms a passive oxide layer on the surface. This oxide layer acts as a protective barrier, preventing direct contact between the steel and corrosive chemicals. In addition to stainless steel, other corrosion-resistant alloys like galvanized steel can be used. Galvanization involves coating the steel with a layer of zinc, which serves as sacrificial protection by corroding in place of the steel. This sacrificial layer ensures the integrity and corrosion resistance of the steel. Moreover, protective coatings can be applied to the steel structure, acting as a barrier against corrosive chemicals and reducing the risk of corrosion. Common coatings include epoxy, polyurethane, and acrylic coatings, applied in multiple layers for added protection. Design considerations also play a crucial role in achieving corrosion resistance. Proper drainage systems are implemented to prevent the accumulation of water or corrosive substances on the steel surface. Adequate ventilation is provided to facilitate air circulation and prevent moisture buildup, which can lead to corrosion. Regular maintenance and inspection are essential to maintain the corrosion resistance of the steel structure. Promptly addressing any signs of corrosion or damage is necessary to prevent further deterioration. This may involve repairing or recoating affected areas and implementing preventive measures to minimize future corrosion risks. In conclusion, the resistance of steel structures to chemical corrosion is achieved through the use of corrosion-resistant alloys, protective coatings, proper design considerations, and regular maintenance. By implementing these measures, steel structures can endure exposure to corrosive chemicals and retain their structural integrity over time.
Q:How are steel structures used in museums and cultural buildings?
Steel structures are commonly used in museums and cultural buildings due to their strength, versatility, and aesthetic appeal. They provide the necessary support for large open spaces, allowing for expansive exhibition areas without the need for numerous columns or walls. Steel also allows for creative architectural designs, enabling the construction of unique and visually striking structures. Additionally, steel structures are durable and can withstand the test of time, ensuring the long-term preservation of valuable artifacts and cultural treasures.
Q:How are steel fencing and barriers installed?
Steel fencing and barriers are typically installed by following a few key steps. First, the area where the fencing or barriers will be installed is measured and marked. Then, the necessary holes or foundations are prepared to securely anchor the steel posts or panels. Next, the posts or panels are carefully positioned and secured into place, often using concrete or specialized brackets. Finally, any additional components like gates or locks are installed to complete the steel fencing or barrier system.
Q:What are the guidelines for the construction and erection of steel structures?
The guidelines for the construction and erection of steel structures are crucial for ensuring the safety, integrity, and durability of the finished structures. These guidelines are established by professional organizations, such as the American Institute of Steel Construction (AISC), and are based on industry best practices and relevant building codes and regulations. First and foremost, it is essential to conduct a thorough structural analysis and design of the steel structure. This involves determining the loads and forces the structure will be subjected to, and designing the members and connections to withstand these loads safely. Structural engineers use various mathematical calculations and computer-aided design (CAD) software to ensure the structural integrity of the steel structure. Next, the fabrication and welding of the steel members must adhere to specific guidelines to ensure quality and strength. Fabrication involves cutting, drilling, and shaping the steel components according to the approved design. Welding, which is a critical process in steel construction, must be performed by certified welders using approved welding procedures. The quality and integrity of the welds are vital for the overall strength and stability of the steel structure. During the erection phase, proper planning and coordination are essential. The erection sequence should be carefully planned to ensure the stability and integrity of the structure. It is crucial to follow the detailed erection drawings and instructions provided by the structural engineer or project manager. Adequate supervision and coordination among the construction team are necessary to avoid errors or unsafe conditions during the erection process. Safety is of utmost importance during the construction and erection of steel structures. All workers involved in the process must follow strict safety protocols and wear appropriate personal protective equipment (PPE). Additionally, proper equipment and machinery should be used for lifting and placing the steel components to prevent accidents or damage to the structure. Regular inspections and quality control measures should be implemented throughout the construction and erection process. Inspections help identify any issues or defects that may affect the integrity of the structure. Non-destructive testing techniques, such as ultrasonic testing or magnetic particle inspection, can be used to detect any hidden defects or weaknesses in the steel components. Finally, documentation and record-keeping are crucial for ensuring compliance with regulations and standards. All relevant design calculations, fabrication records, welding certifications, and inspection reports should be properly documented and maintained for future reference. In summary, the guidelines for the construction and erection of steel structures cover various aspects, including structural analysis and design, fabrication and welding, erection planning and coordination, safety protocols, inspections, and documentation. Following these guidelines is vital for ensuring the safety, durability, and quality of steel structures.
Q:Does the column of steel structure do the ground beam or do it directly?
Light steel plant, steel frame building, the load is not large column (relative to the high-rise building), and the Bay span, large size, has the basic conditions to do independent, do not need foundation beam; foundation beam of steel column of high-rise steel structure housing is likely to do concrete beam or concrete column. This cannot be generalized.
Q:What are the considerations for designing steel structures in earthquake-prone regions?
When designing steel structures in earthquake-prone regions, several considerations need to be taken into account to ensure the safety and stability of the building. Some of the key considerations include: 1. Seismic Design Criteria: The first consideration is to understand the seismic design criteria specific to the region. This involves analyzing the seismic hazard and determining the appropriate design parameters, such as the maximum considered earthquake ground motion and the site-specific response spectrum. 2. Structural System: The choice of structural system is crucial in earthquake-prone regions. Steel structures offer various options, such as moment-resisting frames, braced frames, and dual systems. Each system has different advantages and disadvantages, which need to be evaluated based on the seismic demands, building height, and architectural requirements. 3. Ductility: Ductility refers to a structure's ability to absorb and dissipate energy during an earthquake. Steel is inherently a ductile material, which allows for the development of plastic hinges that can absorb seismic energy. Designing for ductility involves incorporating appropriate detailing, such as beam-column connections and moment-resisting frames, to ensure controlled deformation and prevent sudden failure. 4. Strength and Stiffness: Steel structures in earthquake-prone regions should be designed to possess sufficient strength and stiffness to resist seismic forces. This involves determining the appropriate level of lateral resistance, which is typically achieved through the use of lateral load-resisting elements such as bracing, shear walls, or moment-resisting frames. 5. Foundation Design: The foundation design is critical for ensuring the stability of a steel structure during an earthquake. The soil conditions, including liquefaction potential and soil-structure interaction, must be thoroughly evaluated to determine the appropriate foundation system and design parameters. 6. Retrofitting Existing Structures: In earthquake-prone regions, retrofitting existing steel structures is often necessary to enhance their seismic performance. This involves evaluating the structure's current capacity, identifying deficiencies, and implementing appropriate retrofit measures such as adding steel braces or reinforcing critical connections. 7. Building Codes and Regulations: Compliance with local building codes and regulations is essential for designing steel structures in earthquake-prone regions. These codes provide guidelines on seismic design requirements, including material specifications, detailing requirements, and performance objectives. In conclusion, designing steel structures in earthquake-prone regions requires a comprehensive understanding of seismic design criteria, structural systems, ductility, strength, foundation design, retrofitting, and adherence to building codes. By considering these factors, engineers can ensure that the steel structures are resilient and capable of withstanding the seismic forces encountered in these regions.
Q:What are the considerations for designing steel pedestrian bridges?
When it comes to designing steel pedestrian bridges, there are several important factors that must be taken into consideration. These factors include: 1. Safety: The utmost priority in the design of any bridge, including pedestrian bridges, is ensuring the safety of those who use it. This involves ensuring that the bridge can support the weight of pedestrians and withstand various forces such as wind, earthquakes, and vibrations. Additionally, safety features like handrails and non-slip surfaces should be incorporated to prevent accidents. 2. Structural Integrity: Due to its strength and durability, steel is commonly used as a material for pedestrian bridges. The design must guarantee that the bridge can endure the expected loads and remain structurally sound throughout its lifespan. Critical factors like the span length, width, and height of the bridge must be carefully evaluated to achieve the required strength and stability. 3. Accessibility: Pedestrian bridges should be accessible to individuals of all abilities. Considerations such as the incline of ramps, the width of pathways, and the inclusion of elevators or lifts for those with mobility impairments should be integrated into the design. Moreover, the bridge should adhere to accessibility standards and regulations to ensure inclusivity. 4. Aesthetics: Pedestrian bridges are often situated in public spaces, and their visual appeal can greatly enhance the surrounding area. The design should take into account elements such as the shape, materials, and finishes of the bridge to create an aesthetically pleasing structure that complements the environment. 5. Environmental Impact: Sustainable design principles should be applied when designing pedestrian bridges. This includes the use of recycled materials, minimizing the consumption of non-renewable resources, and considering the impact on the local ecosystem. The design should also anticipate future maintenance needs and employ environmentally friendly construction techniques. 6. Cost-effectiveness: The cost of designing and constructing a pedestrian bridge is a crucial consideration. The design should strive to achieve an optimal balance between cost and functionality. This may involve exploring alternative materials or construction methods that can reduce expenses without compromising safety or quality. In conclusion, the design of steel pedestrian bridges necessitates careful assessment and balance of critical considerations such as safety, structural integrity, accessibility, aesthetics, environmental impact, and cost-effectiveness. By addressing these factors, a successful and sustainable bridge design can be achieved.
Q:Steel structure workshop column and top beam how to use materials?
Beam using 20# column using 18# steel I-beam, a total of 8, two to 16 lateral roots, the use of 16#C type steel purlin.
Q:What are the considerations for the design of steel structures in areas with expansive soils?
When designing steel structures in areas with expansive soils, several considerations need to be taken into account. Firstly, it is crucial to evaluate the potential for soil movement and settlement due to the expansive nature of the soil. This may involve conducting thorough geotechnical investigations to understand the soil's moisture content, plasticity, and swelling potential. Additionally, the design should incorporate suitable foundation systems capable of accommodating the soil's movement. Common solutions include deep foundations such as driven piles or drilled shafts that extend below the active zone of soil movement. These foundation systems help to minimize the risk of differential settlement and structural damage. Furthermore, it is essential to consider the potential for corrosion in steel structures exposed to moisture from expansive soils. Proper protective measures, such as applying protective coatings or using corrosion-resistant materials, should be implemented to ensure the longevity and structural integrity of the steel components. Lastly, regular monitoring and maintenance should be incorporated into the design to detect any signs of soil movement or structural distress. This may involve installing instrumentation to monitor soil moisture content or implementing a visual inspection program to identify any signs of foundation or structural issues. Overall, the design of steel structures in areas with expansive soils requires a comprehensive understanding of the soil behavior, appropriate foundation systems, corrosion protection, and ongoing monitoring to ensure the safety and performance of the structure.
Q:What are the different types of steel fences used in construction?
There are several different types of steel fences used in construction, including wrought iron fences, chain-link fences, aluminum fences, and steel mesh fences. Each type offers unique benefits and is commonly used for different purposes, such as adding security, defining boundaries, or enhancing aesthetics.

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