Large -span Steel Structure plant System 1

Large -span Steel Structure plant System 2

Large -span Steel Structure plant

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Large -span Steel Structure plant

Specification

1. Durable

2. Light Weight

3. Excelent quality

4. Atractive appearance

5.Easy and fast to install

6. Resistant 8-9 earthquake grade

7. Span life : over 50 years

8. Eco-friendly material: can be used for several times and can be recycled

The building can be used as workshop, storage, factory, offices etc.

Product Description

Name	Steel structure building
Dimension	length	H beam 4000-15000 mm
	thickness	web plate 6 -32 mm web plate 6 -40 mm
	height	200 -1200 mm
	Color	avalible
	size	according to your requirement
Advantages	1. lower cost and beautiful outlook 2. high safty performance 3. easy to assemble and disassemble 4.installation with installation of experienced engineer 5. None -pollution
Main componet	base	cement and steel foundation bolts
	main frame	H beam
	material	Q 235 B , Q 345 B our main material
	purlin	C purlin or Z Purlin size from C 120 - 320 , Z 100 -20
	bracing	X type or other type bracing made from angle and round pipe
	bolt	general bolt and high -strength bolts
	roof & wall	sandwich panel and steel sheet
	door	sliding and rolling door
	window	plastic steel window
	surface
	sheet	0.35 -0.6 mm galvanized sheet
	accessories	semi - transparent skylight belts , ventilators , downpipe and galvanized gutter etc .
Use	1.workshop warehouse 2. steel web steel structure 3. steel H beam and H column 4. portal frame products 5. high rise project 6. other steel structure buildings
Packing	main steel frame with 40 OT roof and panel load iin 40 HQ
Drawing	Auto CAD , Sketchup , 3D ETC .
Design parameter	If you would like to design for you , please offer us the following parameter : 1. length , width , height , eave height , roof pitch etc . 2. wind load , snow load , raining condition , aseismatic requirement etc . 3.demand for wiindow and door 4.insulation material : sandwich panel ( thickness : 50 mm , 75mm , 100 mm etc ) and steel sheet . 5. crane : do you need the crane beam inside the steel structure and its capacity 6. other information if necessary

Why choose us

Specifications

fast building systems from china
1. high quality steel structure frame
2. low-price
3. easy to install

1. Why choose our building systems

1 More than 18 years’ experience

2 Light weight, high strength

3 Wide span: single span or multiple spans

4 Fast construction, easy installation and maintance

5 Low cost

6 Stable structure, earthquake proofing, water proofing, energy conserving and environmental protection

7 Long term service life: more than 50 years

2. Our building systems description

Our industral shed is an pre-engineered steel structure which is formed by the main steel framework linking up H section, Z section, and Csection steel components, roof and walls using a variety of panels. The steel workshop building is widely used for the large-scale workshop, warehouse, office building, steel shed, aircraft hangar etc.

Q: What are the design considerations for steel towers?: Some of the key design considerations for steel towers include the structural stability and strength of the tower, the environmental conditions it will be exposed to, the load-bearing capacity required, the foundation design and stability, the durability and corrosion resistance of the materials used, and any specific design requirements or regulations that need to be adhered to. Additionally, factors such as ease of construction, maintenance requirements, and aesthetics may also be taken into account during the design process.

Q: How do steel structures provide resistance against progressive collapse?: Steel structures provide resistance against progressive collapse through a combination of design and material properties. Progressive collapse refers to the failure of a structure due to the localized failure of a key structural element, which then leads to the collapse of larger portions of the structure. One of the key advantages of steel structures in terms of resistance against progressive collapse is their high strength-to-weight ratio. Steel is known for its exceptional strength, allowing for the construction of lightweight yet structurally robust buildings and bridges. This inherent strength reduces the likelihood of a localized failure in a steel structure, minimizing the potential for progressive collapse. Furthermore, steel structures are often designed to distribute loads efficiently. Steel framing systems typically consist of interconnected members, such as columns, beams, and braces, which work together to share the applied loads. This redundancy and load-sharing capacity help to prevent a single point of failure and resist the propagation of collapse. Steel structures also benefit from their ductility, which refers to their ability to deform under load before reaching failure. Unlike brittle materials, steel can absorb and redistribute energy through plastic deformation, providing an additional level of resistance against progressive collapse. This ductility allows steel structures to undergo localized damage or partial failure without a catastrophic collapse, giving occupants more time to evacuate and emergency response teams a better chance to address the situation. Design considerations such as redundancy, robustness, and connection detailing further enhance the resistance of steel structures against progressive collapse. Redundancy involves the provision of multiple load paths, ensuring that if one element fails, the load can be safely transferred to other elements. Robustness refers to the ability of a structure to withstand unforeseen events, including accidental impacts or explosions. This can be achieved through careful design and the incorporation of additional strength in critical areas. Connection detailing is also critical in preventing progressive collapse. Steel structures rely on various connections between members to form a stable and continuous load path. Properly designed connections can resist the transfer of loads even if one or more adjacent members fail, preventing the localized failure from propagating through the structure. In conclusion, steel structures provide resistance against progressive collapse through their high strength-to-weight ratio, load-sharing capacity, ductility, redundancy, robustness, and connection detailing. These characteristics collectively contribute to the structural integrity and safety of steel buildings and bridges, reducing the risk of catastrophic failures and ensuring the protection of occupants and infrastructure.

Q: What is the maximum height a steel structure can reach?: The maximum height a steel structure can reach is determined by various factors including the strength and stability of the steel used, the design and engineering of the structure, and the construction techniques employed. In general, steel structures have the ability to reach great heights due to the high tensile strength and load-bearing capacity of steel. Skyscrapers, for example, are often constructed with steel frames that allow them to soar to impressive heights. The Burj Khalifa in Dubai, currently the tallest building in the world, stands at a height of 828 meters (2,717 feet) and is predominantly made of steel and reinforced concrete. The steel framework provides the necessary structural integrity and support to withstand the immense vertical loads and lateral forces caused by wind and seismic activity. However, there are practical limitations to the height of steel structures. As the height increases, the weight of the structure also increases, requiring more steel and potentially resulting in diminishing returns in terms of efficiency and cost-effectiveness. Additionally, factors such as wind resistance, stability, and construction logistics become more challenging as the height increases. Therefore, while there is no absolute maximum height for a steel structure, practical considerations and engineering constraints typically play a significant role in determining the upper limits. Advances in technology and construction techniques continue to push the boundaries of what is possible, but for now, the height of steel structures is primarily limited by economic feasibility, structural integrity, and safety considerations.

Q: What are the common defects found in steel structures?: Some common defects found in steel structures include corrosion, fatigue cracks, weld defects, distortion, and inadequate design or construction.

Q: How are steel structures designed to be flexible and adaptable?: The flexibility and adaptability of steel structures are achieved through a combination of design principles and material properties. A key factor in achieving this is the utilization of steel as the primary construction material. Steel possesses a high strength-to-weight ratio, which enables the creation of lightweight yet strong structures. This characteristic allows architects and engineers to easily modify or expand structures as needed. To achieve flexibility, modular construction techniques are employed in steel structures. By breaking down the structure into smaller components, each element can be easily assembled or disassembled, facilitating modifications or additions to the building. This makes steel structures highly adaptable to changing needs or future expansions without the need for significant structural alterations. Another approach to enhancing flexibility in steel structures is the incorporation of movable or adjustable elements. For example, sliding doors, movable partitions, or adjustable supports can be integrated into the design. This enables changes in layout or function, ensuring the structure can easily accommodate different uses or activities and adapt to evolving needs. Moreover, steel structures are designed to withstand dynamic loads and extreme events such as earthquakes or high winds. The inherent flexibility of steel allows it to efficiently absorb and distribute these forces, minimizing damage and maintaining the structure's integrity. This flexibility also enhances the resilience of steel structures, making them adaptable to various environmental conditions and unexpected events. In conclusion, the flexibility and adaptability of steel structures are achieved through modular construction techniques, movable elements, and the material's inherent strength and durability. This flexibility allows for easy modifications or additions, while the adaptability ensures the structure can withstand different loads and environmental conditions.

Q: How are steel structures designed for high-rise buildings?: Steel structures for high-rise buildings are typically designed using advanced computer-aided design (CAD) software and engineering principles. The design process involves analyzing the building's requirements, such as load-bearing capacity, wind and seismic forces, and occupant safety. Engineers use structural analysis techniques to determine the optimal steel framework, including columns, beams, and bracing systems, to ensure stability and strength. The design also considers factors like fire resistance, sustainability, and construction feasibility. Continuous advancements in technology and materials allow for innovative designs that maximize structural efficiency and safety in high-rise buildings.

Q: How are steel structures used in the construction of agricultural buildings?: Steel structures are widely used in the construction of agricultural buildings due to the many benefits they offer. Firstly, steel is an incredibly durable and strong material, making it perfect for supporting the large spans and heavy loads typically found in agricultural buildings. This means that wide open spaces can be constructed without the need for excessive interior columns or supports, allowing for maximum usable space for housing livestock, storing equipment, or other agricultural activities. Moreover, steel structures are highly resistant to fire, pests, and harsh weather conditions, creating a safe and secure environment for agricultural operations. This is especially important in areas prone to extreme weather events such as hurricanes or tornadoes, as steel structures can withstand high winds and minimize damage. Furthermore, steel structures provide great flexibility in design and can be easily customized to meet specific agricultural requirements. They can accommodate various building heights, roof pitches, and configurations, enabling efficient use of space and optimal functionality. Additionally, steel buildings can be erected relatively quickly, reducing construction time and costs. The longevity of steel structures is another advantage in agricultural settings. Steel is resistant to rot, corrosion, and decay, ensuring that the building will last for many years with minimal maintenance. This makes it a cost-effective choice for agricultural buildings, as it eliminates the need for frequent repairs or replacement. In conclusion, steel structures are essential in the construction of agricultural buildings due to their durability, strength, and flexibility. They provide a secure environment, maximize usable space, and ensure longevity, making them the ideal choice for farmers and agricultural businesses.

Q: What is the role of steel in sustainable construction practices?: Steel plays a crucial role in sustainable construction practices for several reasons. Firstly, steel is a highly durable and long-lasting material, allowing for the construction of buildings and infrastructure that can withstand the test of time. This means that steel structures do not need to be replaced or repaired as frequently, reducing the overall environmental impact of the construction process. Additionally, steel is a recyclable material, which makes it an excellent choice for sustainable construction. Steel can be easily recovered, melted down, and reused without losing its structural integrity. This significantly reduces the demand for virgin materials and minimizes waste generation. Another important aspect of steel in sustainable construction is its strength-to-weight ratio. Steel is known for its high strength, which allows for the creation of lighter and more efficient structures. This means that less material is required for construction, resulting in reduced energy consumption during transportation and installation. Furthermore, steel is resistant to pests, such as termites, and is not susceptible to rot or decay. This reduces the need for chemical treatments and maintenance, resulting in a healthier and more sustainable construction process. Lastly, steel is compatible with various sustainable building practices, such as energy-efficient design and renewable energy integration. Steel structures can easily incorporate features like insulation, solar panels, and green roofs, which contribute to energy savings and reduced carbon emissions. Overall, the role of steel in sustainable construction practices is significant. Its durability, recyclability, strength-to-weight ratio, resistance to pests, and compatibility with sustainable building practices make it an ideal material for constructing environmentally-friendly structures.

Q: What is a steel structure?: The utility model has the advantages of light weight and simple construction, and is especially suitable for large-scale factories, stadiums, super high-rise buildings and other fields.

Q: How are steel structures used in research laboratories and scientific facilities?: Steel structures are commonly used in research laboratories and scientific facilities due to their strength, durability, and versatility. They provide a robust framework that can support heavy scientific equipment, such as spectrometers or electron microscopes. Additionally, steel structures allow for flexible and customizable layouts, facilitating the integration of complex systems and infrastructure required for scientific research. Their fire-resistant properties also enhance safety in these facilities.

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