Prefabricated steel frame workshop warehouse building

Prefabricated steel frame workshop warehouse building System 1

Prefabricated steel frame workshop warehouse building System 2

Prefabricated steel frame workshop warehouse building System 3

Prefabricated steel frame workshop warehouse building

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Loading Port:: China Main Port

Payment Terms:: TT OR LC

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Prefabricated steel frame workshop warehouse building

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

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 window 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

Fast construction metal shed sale with low cost

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: How to calculate the allowable slenderness ratio of steel structures under compression?: It can be seen from the formula that the concept of slenderness ratio takes into account the end constraint of the component, the length of the component itself and the section characteristics of the component.The effect of slenderness ratio on the stability calculation of compressive members is obvious, because the larger the slenderness ratio is, the more easily it is unstable. Here are some formulas for calculating axial and flexural members. There are parameters related to slenderness ratio.

Q: How are steel structures designed to withstand snow loads?: Steel structures are designed to withstand snow loads through a combination of factors that ensure their strength and stability. Firstly, the design of the steel structure takes into account the anticipated snow loads in the specific geographic location where the structure will be built. This includes considering the snowfall intensity, duration, and other factors such as wind speed and direction, which can affect the distribution of snow on the structure. Next, engineers use specific design codes and standards that outline the minimum requirements for snow load design. These codes provide guidelines for determining the magnitude of the snow load that the structure needs to be designed for. For example, the International Building Code (IBC) in the United States specifies snow load requirements based on the location's snow load zone and the importance of the structure. Once the snow load requirements are determined, engineers apply various load combinations and design methods to calculate the forces that the snow load will exert on the structure. This includes considering the weight of the snow itself, as well as any impact or drift effects that may occur due to wind or other factors. These calculations help determine the necessary strength and stability of the structure to resist the snow loads. To further enhance the ability of the steel structure to withstand snow loads, engineers may incorporate additional design elements such as roof slope and pitch, which help shed snow more easily. They may also include features like snow guards or snow fences to prevent large amounts of snow from accumulating on specific areas of the structure. Overall, the design of steel structures to withstand snow loads involves a comprehensive analysis of the anticipated snow loads, application of design codes and standards, and implementation of appropriate design features. This ensures that the structure can safely support the weight of the snow and maintain its structural integrity under varying snow load conditions.

Q: What are the safety considerations for steel structures?: Safety considerations for steel structures include structural stability, fire resistance, corrosion protection, and protection against extreme weather events. Structural stability is crucial for steel structures, as they must be able to withstand various loads, such as gravity, wind, and seismic forces. Proper design and engineering are essential to ensure that the structure can support these loads and maintain its integrity over time. Regular inspections and maintenance are also necessary to identify any potential weaknesses or structural issues. Fire resistance is another important safety consideration for steel structures. While steel is non-combustible, it can lose its strength and integrity when exposed to high temperatures. Therefore, fire protection measures, such as the application of fire-resistant coatings or the installation of fireproofing materials, are necessary to prevent the rapid spread of fire and allow sufficient time for evacuation. Corrosion protection is vital for steel structures, especially in environments with high humidity, saltwater exposure, or chemical exposure. Corrosion can weaken the structure over time, leading to potential failures. Various protective coatings, such as paint or galvanization, are used to prevent corrosion and extend the lifespan of the structure. Steel structures should also be designed to withstand extreme weather events, such as hurricanes, tornadoes, or earthquakes. Proper design considerations, such as wind and seismic load calculations, are necessary to ensure the structure can resist these forces. Reinforcements, such as bracing or additional supports, may be required in areas prone to such events. Additionally, safety considerations for steel structures also involve proper installation, maintenance, and adherence to building codes and regulations. Regular inspections and repairs are necessary to identify any potential safety hazards or structural issues. In conclusion, safety considerations for steel structures encompass structural stability, fire resistance, corrosion protection, and protection against extreme weather events. Proper design, installation, maintenance, and adherence to building codes are crucial to ensure the safety and longevity of steel structures.

Q: How are steel structures used in the construction of motels?: Steel structures are commonly used in the construction of motels due to their numerous advantages. Firstly, steel is a highly durable and robust material, making it ideal for supporting large structures like motels. It has high tensile strength, which means it can withstand heavy loads and resist external forces such as wind, earthquakes, or snow loads. This ensures the safety and longevity of the motel building. Additionally, steel structures are known for their flexibility in design and construction. Steel can be easily fabricated and molded into various shapes and sizes, allowing architects and engineers to create unique and aesthetically pleasing motel designs. This flexibility also enables efficient use of space, as steel can support larger spans and open floor plans, providing more usable areas within the motel. Moreover, steel structures are highly resistant to fire, corrosion, and pests, reducing maintenance costs and increasing the overall lifespan of the motel. Steel is also a sustainable material as it can be recycled, contributing to the eco-friendliness of the construction industry. Furthermore, the use of steel structures in motel construction allows for faster and more streamlined construction processes. Prefabricated steel components can be manufactured off-site and then quickly assembled on-site, reducing construction time and minimizing disruptions to nearby businesses or residents. In summary, steel structures are extensively used in motel construction due to their durability, flexibility in design, resistance to various environmental factors, sustainability, and speed of construction. These advantages make steel an ideal choice for creating safe, visually appealing, and cost-effective motel buildings.

Q: How are steel structures designed for thermal bridging prevention?: Steel structures are designed with various techniques to prevent or minimize thermal bridging, which is the transfer of heat through a material that is more conductive than the surrounding materials. One common method is the use of thermal breaks, which are insulating materials inserted between the steel members to interrupt the flow of heat. These thermal breaks can be made of materials like rubber, foam, or fiberglass, which have low thermal conductivity. Another approach is the use of continuous insulation, where a layer of insulation is installed on the exterior or interior of the steel structure to provide a barrier against thermal bridging. This insulation helps to maintain a consistent temperature within the building by reducing heat transfer through the steel members. Additionally, the geometry and detailing of the steel structure can be optimized to minimize thermal bridging. For example, thermal breaks can be strategically placed at the connections between steel members, where heat transfer is most likely to occur. The design may also include measures such as adding additional insulation around windows and doors, using thermal breaks in balconies or cantilevered structures, or designing steel members to be thicker in areas prone to higher thermal bridging. Computer modeling and simulation techniques are often employed during the design process to analyze and predict the thermal performance of steel structures. This allows engineers to identify potential areas of thermal bridging and make necessary adjustments to the design to minimize its effects. In summary, steel structures are designed for thermal bridging prevention through the use of thermal breaks, continuous insulation, optimized geometry and detailing, and the application of advanced modeling techniques. These strategies help to create more energy-efficient buildings with improved thermal performance.

Q: How are steel structures designed and constructed to meet sustainable design standards?: There are multiple ways in which steel structures can adhere to sustainable design standards. To begin with, steel is a sustainable material as it can be fully recycled. Consequently, steel structures can be easily dismantled and the materials can be reused or recycled, thereby minimizing waste and reducing the need for new raw materials. To enhance sustainability even further, steel structures can be designed to optimize material usage. This involves utilizing advanced computer modeling and analysis techniques to determine the most efficient and cost-effective design, while still meeting safety requirements. By reducing the amount of steel necessary, the environmental impact of the structure is diminished, including the carbon emissions associated with steel production. Moreover, steel structures can incorporate sustainable design elements such as energy-efficient insulation, renewable energy systems, and rainwater harvesting systems. These features aid in decreasing the building's environmental footprint and improving energy performance. During construction, sustainable practices can be implemented to minimize environmental impact. This entails utilizing eco-friendly construction techniques, minimizing material waste, recycling construction waste, and employing low-impact construction methods. Additionally, the transportation of steel components can be optimized to minimize fuel consumption and emissions. To ensure that steel structures meet sustainable design standards, it is crucial to consider the entire life cycle of the structure, not only the construction phase. This includes assessing the long-term energy efficiency and durability of the structure, as well as its ease of maintenance and adaptability for future use. By considering these factors, the overall sustainability of the steel structure can be maximized. In conclusion, steel structures can fulfill sustainable design standards through the use of recyclable materials, optimization of material usage, incorporation of sustainable design features, implementation of sustainable construction practices, and consideration of the entire life cycle of the structure. By adopting these approaches, steel structures can contribute to a more sustainable built environment.

Q: What are the different types of steel sections or profiles used in construction?: There are several different types of steel sections or profiles used in construction, including beams, columns, channels, angles, and plates. These sections are typically used to provide structural support and stability to buildings and other structures.

Q: What are the different types of steel framing systems used in construction?: There are several different types of steel framing systems used in construction, each with its own distinct characteristics and applications. 1. Light Gauge Steel Framing: This type of steel framing is commonly used in residential and light commercial buildings. It consists of thin steel sheets that are fabricated into C-shaped sections or studs. Light gauge steel framing 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: This type of steel framing is used for large-scale commercial, industrial, and high-rise buildings. It involves the use of hot-rolled steel sections, such as I-beams, H-columns, and steel plates, to create the primary load-bearing structure. Structural steel framing is known for its strength, durability, and ability to withstand heavy loads and extreme weather conditions. 3. Pre-engineered Steel Buildings: These are complete steel structures that are designed and fabricated off-site, then assembled on-site. Pre-engineered steel buildings are customizable, cost-effective, and quick to construct. They are commonly used for warehouses, industrial buildings, and agricultural facilities. 4. Composite Steel Framing: This type of steel framing combines steel components with other materials, such as concrete or timber, to create a hybrid structure. Composite steel framing is often used in bridge construction, where steel and concrete work together to provide the required strength and load-carrying capacity. 5. Cold-Formed Steel Framing: This method involves the use of thin steel sheets that are bent and formed into various shapes and profiles. Cold-formed steel framing is commonly used for non-structural applications, such as interior partitions, ceilings, and floor joists. It offers excellent fire resistance, sound insulation, and dimensional stability. Each of these steel framing systems has its own advantages and disadvantages, and the choice depends on factors such as the building type, size, and intended use. Consulting with a structural engineer or steel framing specialist is crucial to determine the most suitable framing system for a specific construction project.

Q: How are steel structures designed to accommodate architectural finishes and cladding?: Steel structures are designed to accommodate architectural finishes and cladding by incorporating specific features and design considerations. These include the use of attachment points, support systems, and framing techniques that allow for the secure installation of various finishes and cladding materials. Additionally, engineering calculations and load analysis are conducted to ensure that the steel structure can safely support the weight and forces imposed by the finishes and cladding.

Q: What are the common design considerations for steel bridges?: Common design considerations for steel bridges include: 1. Structural stability: Ensuring the bridge can withstand the applied loads, including traffic, wind, and seismic forces. 2. Durability: Designing the bridge to resist corrosion, fatigue, and other forms of deterioration over its intended lifespan. 3. Aesthetics: Balancing functional requirements with the desire to create an aesthetically pleasing structure that complements its surroundings. 4. Cost-effectiveness: Striving to achieve an optimal balance between initial construction costs and long-term maintenance expenses. 5. Constructability: Considering the ease of construction, including factors such as fabrication, transportation, and erection methods. 6. Environmental impact: Minimizing the bridge's ecological footprint by incorporating sustainable materials and construction practices. 7. Accessibility and safety: Ensuring the bridge is designed to accommodate pedestrians, cyclists, and vehicles safely, with appropriate guardrails and lighting. 8. Serviceability: Designing the bridge to accommodate expected deflections, vibrations, and movements without compromising its intended use or causing discomfort to users. 9. Adaptability: Anticipating potential future modifications or expansions to the bridge and incorporating design features that allow for easy adaptation. 10. Regulatory compliance: Ensuring the bridge design adheres to relevant codes, standards, and regulations, such as those related to load capacities, fire safety, and accessibility.

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