light steel structures prefab house for shop

light steel structures prefab house for shop System 1

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.

Need more reasons? Please Contact us.

Q:What are the advantages of using steel structures in the automotive manufacturing industry?: There are several advantages of using steel structures in the automotive manufacturing industry. Firstly, steel is known for its exceptional strength and durability, making it ideal for constructing vehicles that need to withstand harsh conditions and impacts. Secondly, steel structures offer excellent protection to passengers as they provide a rigid and stable framework, ensuring safety during accidents. Additionally, steel is relatively lightweight compared to other materials, which helps improve fuel efficiency and overall vehicle performance. Lastly, steel is readily available and cost-effective, allowing manufacturers to produce vehicles at a more affordable price while maintaining high quality and safety standards.

Q:What are the design considerations for steel food processing plants?: When designing steel food processing plants, several important considerations need to be taken into account. These considerations include hygiene, durability, versatility, and efficiency. Hygiene is of utmost importance in food processing plants to ensure the safety and quality of the food being produced. The design should include smooth, easily cleanable surfaces that prevent the accumulation of dirt, bacteria, or other contaminants. Stainless steel is commonly used in food processing plants due to its non-porous nature, resistance to corrosion, and ease of cleaning. Durability is another crucial factor in the design of food processing plants. Steel is a highly durable material that can withstand the harsh conditions often present in these facilities, such as high temperatures, humidity, and chemical exposure. The design should incorporate structural elements that can withstand heavy loads and stress over time. Versatility is important as food processing plants often need to adapt to changes in production processes or product lines. The design should allow for flexible layouts that can be easily reconfigured or expanded as needed. Steel structures are known for their flexibility, allowing for easy modification and expansion without compromising the integrity of the building. Efficiency is a key consideration in food processing plants to ensure productivity and cost-effectiveness. The design should optimize workflow and minimize the distance between different processing areas, reducing the time and effort required to move products and materials. Steel structures can be prefabricated off-site, allowing for faster construction and reduced downtime during facility expansion or renovation. In conclusion, the design considerations for steel food processing plants revolve around hygiene, durability, versatility, and efficiency. By carefully addressing these factors, designers can create facilities that meet the strict requirements of the food industry while also ensuring optimal performance and safety.

Q:What are the considerations for designing steel structures in areas with high snow accumulation?: When designing steel structures in areas with high snow accumulation, there are several important considerations to take into account. Firstly, the design must account for the weight of the snow and ensure that the structure can safely support the additional load. This involves calculating the snow load based on local climatic conditions and incorporating appropriate safety factors. Secondly, the design should consider the shape and layout of the structure to minimize snow accumulation. By incorporating sloped roofs or using specific geometries, designers can encourage snow to slide off the structure rather than accumulate, reducing the load and potential risks. Additionally, it is crucial to ensure proper drainage and prevent the formation of ice dams. This can be achieved through the use of gutter systems, downspouts, and adequate insulation to prevent heat loss, which can lead to melting and refreezing of snow. Furthermore, the choice of materials is vital. Steel structures in snowy areas should be constructed with corrosion-resistant materials to withstand the moisture and salt used for snow removal. Proper protective coatings and regular maintenance should also be considered to extend the lifespan of the structure. Lastly, it is important to comply with local building codes and regulations specific to snow loads. These codes provide guidelines and standards for designing structures that can withstand the expected snow accumulation in the area. Overall, designing steel structures in areas with high snow accumulation requires careful consideration of snow loads, shape, drainage, materials, and compliance with building codes.

Q:What are the different types of steel windows used in buildings?: There are several different types of steel windows commonly used in buildings, including casement windows, awning windows, sliding windows, and pivot windows. Each type has its own unique design and functionality, catering to different architectural styles and preferences.

Q:How are steel structures designed and constructed to meet LEED certification requirements?: There are several strategies and practices that can be utilized to design and construct steel structures in order to meet the requirements for LEED certification. Here are some key elements to consider: 1. Material Selection: Steel is an incredibly sustainable material as it is highly durable, recyclable, and generates minimal waste during manufacturing. Incorporating recycled or locally sourced steel can earn LEED points in the Materials and Resources category. 2. Energy Efficiency: Steel structures can be equipped with energy-efficient features, such as high-performance insulation, efficient HVAC systems, and advanced lighting controls. These additions help to reduce energy consumption and can earn points in the Energy and Atmosphere category. 3. Indoor Environmental Quality: Steel structures can enhance the quality of the indoor environment by incorporating proper ventilation, utilizing natural light, and utilizing low-emitting materials. These elements improve air quality and occupant comfort, resulting in points in the Indoor Environmental Quality category. 4. Water Efficiency: Steel structures can be designed to include water-efficient fixtures, rainwater collection systems, and efficient irrigation systems. These strategies help conserve water and can earn points in the Water Efficiency category. 5. Sustainable Site Design: Steel structures can be designed in a way that minimizes their impact on the environment. Strategies such as stormwater management, heat island reduction, and preservation of open spaces contribute to points in the Sustainable Sites category. 6. Construction Waste Management: Proper management of construction waste is vital to achieving LEED certification. Steel structures inherently generate less waste during construction, and implementing strategies like waste sorting and recycling can earn points in the Materials and Resources category. 7. Innovation: Implementing innovative design and construction techniques, such as modular construction or advanced technologies, can further enhance the sustainability of steel structures. These innovations can earn points in the Innovation category. It's important to note that achieving LEED certification requires a comprehensive approach to design and construction. Engaging experienced professionals with LEED expertise, such as architects, engineers, and contractors, is essential to ensure the effective implementation of all necessary strategies and practices to achieve the desired certification level.

Q:How are steel structures analyzed for load calculations?: Steel structures are analyzed for load calculations using various methods such as the finite element method (FEM), which involves dividing the structure into smaller elements to simulate its behavior under different loads. Other methods include the method of joints or the method of sections, which involve analyzing individual members or sections of the structure to determine the forces acting on them. These calculations take into account factors such as dead loads, live loads, wind loads, seismic loads, and temperature effects, ensuring that the steel structure is designed to safely withstand the anticipated loads.

Q:How are steel structures designed for cultural and recreational facilities?: Steel structures for cultural and recreational facilities are designed with careful consideration of the specific requirements and functions of the facility. Architects and engineers collaborate to create innovative and aesthetically pleasing designs that ensure safety, durability, and flexibility. Steel's inherent strength allows for large spans and open spaces, enabling the creation of multipurpose areas. Additionally, the material's versatility enables the incorporation of unique architectural features, such as curved or cantilevered elements, enhancing the overall design and functionality of cultural and recreational facilities.

Q:What are the considerations for designing steel structures for radiation protection?: When designing steel structures for radiation protection, there are several key considerations to keep in mind. Firstly, it is important to choose the appropriate type and thickness of steel that will effectively shield against the radiation source. Different types of radiation require different shielding materials, so selecting the right steel composition is crucial. Another consideration is the structural integrity and stability of the steel structure. Radiation shielding may require additional reinforcement to ensure the structure can withstand the weight of the shielding materials and any potential impacts. This includes considering factors such as load-bearing capacity, seismic activity, and other structural requirements. Furthermore, the design must account for potential radiation leakage or scatter. This involves paying attention to factors such as joints, seams, and penetrations in the structure, as they can create weak points where radiation can escape or scatter. Proper sealing and shielding techniques must be employed to minimize radiation leakage. In addition, the design should incorporate measures for easy maintenance and decontamination. Steel structures should be designed in a way that allows for easy access to clean and decontaminate any surfaces that may come into contact with radiation. Overall, designing steel structures for radiation protection requires careful consideration of shielding materials, structural integrity, radiation leakage, and maintenance requirements. By addressing these considerations, a well-designed steel structure can effectively protect against radiation hazards.

Q:How are steel structures used in roofing and cladding?: Steel structures are commonly used in roofing and cladding due to their strength, durability, and versatility. In roofing, steel structures provide a sturdy framework that supports the weight of the roof itself, as well as any additional loads such as snow or equipment. The use of steel ensures that the roof is able to withstand these loads without compromising its integrity. Steel structures also offer a high level of flexibility in terms of design. They can be easily shaped and molded to fit various architectural styles and requirements. This makes steel an ideal choice for constructing roofs with unique shapes or complex designs. In terms of cladding, steel structures are used to support and secure the exterior cladding materials. The steel framework provides a strong and stable base for attaching cladding panels or sheets, ensuring that they are securely fixed to the building. Furthermore, steel structures offer excellent resistance to environmental factors such as wind, rain, and fire. Steel is non-combustible, which makes it a safe choice for roofing and cladding applications. It is also highly resistant to corrosion, which ensures the longevity of the structure and reduces maintenance requirements. Additionally, steel structures can be pre-fabricated off-site, allowing for quicker and more efficient installation. This saves both time and costs during the construction process. Overall, the use of steel structures in roofing and cladding provides numerous benefits such as strength, durability, design flexibility, and resistance to environmental factors. These advantages make steel an excellent choice for creating reliable, long-lasting, and aesthetically pleasing roofing and cladding systems.

Q:What is the role of steel in cultural and recreational buildings?: Steel plays a crucial role in cultural and recreational buildings, serving both functional and aesthetic purposes. Firstly, steel is widely used in the construction of these buildings due to its high strength-to-weight ratio. This property allows architects and engineers to design large, open spaces, such as auditoriums, exhibition halls, or sports arenas, without the need for excessive columns or support structures. Steel's ability to span long distances helps create expansive interiors, providing flexibility in layout and accommodating various activities or exhibits. Additionally, steel's flexibility allows for unique architectural designs and iconic structures that become cultural landmarks. From the Eiffel Tower to the Sydney Opera House, steel has been instrumental in shaping the character and identity of cultural buildings around the world. Its malleability enables the creation of intricate and imaginative shapes, making it a favored material for creating visually striking and memorable structures. Moreover, steel's durability and resistance to fire, earthquakes, and other natural disasters ensure the safety and long-term sustainability of cultural and recreational buildings. This is particularly important as these buildings often host large crowds and house valuable cultural artifacts or equipment. Furthermore, steel's recyclability and sustainability make it an environmentally friendly choice for construction. The ability to recycle steel reduces the need for raw materials and minimizes the carbon footprint associated with the construction industry. In summary, steel's strength, versatility, and aesthetic appeal make it an indispensable material in cultural and recreational buildings. Its use allows for the construction of large, open spaces, iconic designs, and safe and sustainable structures that contribute to the cultural and recreational experiences of individuals and communities.

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