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 are steel structures designed to be resistant to extreme temperature changes?: Various measures are taken to ensure that steel structures can withstand extreme temperature changes. One essential aspect is the careful selection of materials with high thermal conductivity. Steel, known for its excellent heat conduction, facilitates the efficient transfer of thermal energy throughout its structure. This effectively minimizes the impact of temperature fluctuations on the integrity of the steel structure. Another crucial consideration is the expansion and contraction of steel caused by temperature changes. Steel has a relatively high coefficient of thermal expansion, meaning it expands when heated and contracts when cooled. To counteract these thermal movements, engineers incorporate expansion joints or gaps in the structure. These joints allow the steel to expand and contract without subjecting it to excessive stress or deformation. Additionally, the design may include flexible connections or other mechanisms to accommodate thermal movements. Furthermore, insulation materials can be applied to steel structures to reduce heat transfer. Insulation helps maintain a stable internal temperature by minimizing the effects of external temperature fluctuations. This is particularly important in extreme climates characterized by frequent and significant temperature changes. In some cases, steel structures may also employ passive cooling or heating systems to regulate temperature. This can involve the use of shading devices, reflective surfaces, or ventilation systems that assist in managing heat gain or loss. By incorporating these strategies, steel structures can better withstand extreme temperature changes while ensuring a comfortable and stable environment inside. Lastly, thorough analysis and testing are conducted during the design phase to ensure that steel structures can withstand temperature-related stresses. Engineers employ techniques such as finite element analysis and computer modeling to simulate the effects of extreme temperature changes on the structure. This enables them to identify any potential weak points, make necessary adjustments, and optimize the overall design for enhanced resistance to temperature variations. In conclusion, steel structures are designed to withstand extreme temperature changes by employing materials with high thermal conductivity, incorporating expansion joints, applying insulation, implementing passive cooling or heating systems, and conducting thorough analysis and testing. These measures guarantee that a steel structure can endure temperature fluctuations without compromising its stability, durability, and functionality.

Q: How are steel structures designed for resisting impact from vehicle collisions?: Steel structures are designed to resist impact from vehicle collisions through various methods. One common approach is the use of energy-absorbing materials and design features such as deformable barriers, crash cushions, and breakaway components. These elements are strategically placed to absorb and dissipate the energy generated during a collision, thereby minimizing the impact on the overall structure. Additionally, engineers consider factors like the velocity and mass of the colliding vehicle, as well as the potential direction and angle of impact, when designing steel structures to ensure they can effectively withstand and resist such impacts.

Q: What are the different types of steel grade used in structures?: There are several types of steel grades commonly used in structures, including carbon steel, alloy steel, stainless steel, and weathering steel. Each type has its own unique properties and characteristics that make it suitable for different structural applications.

Q: How are steel canopies constructed?: Steel canopies are typically constructed using a combination of structural steel frames and metal panels. The process involves designing the frame structure, cutting, shaping, and welding the steel members, and then attaching the metal panels to form the canopy. This construction method ensures durability and provides protection from the elements while also offering a stylish and modern appearance.

Q: How are steel structures used in cultural and religious buildings?: Steel structures are widely used in cultural and religious buildings for several reasons. Firstly, steel offers superior strength and durability, which is crucial for constructing large and complex structures that often serve as iconic symbols of cultural identity or religious significance. In cultural buildings like museums or art galleries, steel structures allow for large open spaces and flexible layouts, enabling the display of various exhibits and artwork. The use of steel beams and columns provides the necessary support to create vast open areas without the need for excessive columns or walls, allowing for a more visually appealing and immersive experience for visitors. Religious buildings, such as churches, cathedrals, or temples, often require soaring heights and intricate designs to evoke a sense of spirituality and grandeur. Steel structures allow architects and engineers to achieve these architectural feats by providing the necessary strength and stability. The use of steel also facilitates the incorporation of large stained glass windows, intricate ornamentation, and decorative elements, which are often crucial in religious buildings. Moreover, steel structures offer flexibility in terms of design and construction. They can be easily prefabricated off-site, ensuring precision and reducing construction time. This versatility allows for the creation of unique and innovative designs that reflect the cultural or religious values of the community. Additionally, steel structures are known for their sustainability. Steel is a recyclable material, and its use in construction reduces the need for other materials such as concrete or wood, which have a higher environmental impact. This aspect aligns well with the values of many cultural and religious organizations that prioritize environmental stewardship and sustainability. In conclusion, steel structures play a pivotal role in cultural and religious buildings by providing the necessary strength, flexibility, and sustainability. They enable the creation of awe-inspiring designs, large open spaces, and intricate details that reflect the cultural or religious identity of the community. Whether it is a museum, a church, or a temple, steel structures contribute to the construction of spaces that evoke a sense of wonder, spirituality, and cultural heritage.

Q: How to calculate the steel structure quota?: Steel structure is mainly made of steel material, and it is one of the main types of building structure. The structure is made up of steel beams, steel columns and steel trusses made of shape steel and steel plate.

Q: How are steel structures used in research and laboratory buildings?: Steel structures are commonly used in research and laboratory buildings due to their strength, durability, and versatility. Steel provides the necessary structural support to accommodate heavy equipment, complex machinery, and specialized laboratory equipment. It allows for flexible and open floor plans, enabling easy adaptability to changing research needs. Additionally, steel structures offer fire resistance and can withstand environmental factors, ensuring the safety and longevity of research and laboratory facilities.

Q: How are steel structures used in water treatment plants?: Due to their strength, durability, and versatility, steel structures are widely utilized in water treatment plants. Their crucial role lies in supporting various components and equipment necessary for water treatment processes. One of the primary functions of steel structures in water treatment plants is to house and support large storage tanks. These tanks, made of steel, are commonly employed for storing raw water, treated water, chemicals, and sludge. The steel structure ensures the tanks' safety by providing the required stability and strength, preventing any leakage or damage. Furthermore, steel structures support and house various water treatment equipment, including pumps, filters, clarifiers, and disinfection systems. These structures are specifically designed to endure the weight and forces generated by the equipment, guaranteeing their proper functioning. Moreover, steel structures are utilized to create walkways, platforms, and catwalks within water treatment plants. These structures serve two purposes: facilitating maintenance and inspection of equipment and ensuring worker safety by preventing contact with hazardous areas or substances. Additionally, steel structures are involved in constructing water intake and outfall structures. These structures are engineered to withstand the forces exerted by water flow and provide a stable foundation for pumps and screens used in the intake and discharge processes. In conclusion, steel structures are indispensable in water treatment plants as they offer the necessary support, stability, and durability essential for the efficient and safe operation of various components and equipment involved in water treatment processes.

Q: How are steel structures designed for wind-induced rain loads?: Combining various factors, steel structures are engineered to withstand rain loads induced by wind. In the initial stage of design, local wind speed and rainfall data are taken into account to determine the maximum loads that the structure will experience. These data are commonly obtained from meteorological agencies or region-specific codes and standards. The design process then proceeds to assess how the structure will respond to these loads using different analytical methods such as wind tunnel testing or computational fluid dynamics (CFD) simulations. These techniques aid engineers in comprehending the interaction between wind, rain, and the structure, as well as the resultant forces and pressures exerted upon it. To withstand these forces, steel structures are designed to possess sufficient strength and stiffness. Structural elements like beams, columns, and connections are sized and detailed to ensure they can endure the applied loads without excessive deflection or failure. Additionally, the design considers the potential for water accumulation and drainage to prevent any pooling or excessive weight on the structure. Moreover, the design may incorporate protective measures to mitigate the impact of wind-induced rain loads. These measures can include the utilization of rain screens or cladding systems that create a barrier against water penetration, as well as the proper sealing and waterproofing of joints and connections. In summary, the design of steel structures for wind-induced rain loads encompasses a comprehensive analysis of the loads, structural response, and protective measures. By considering these factors, engineers can guarantee the safety and longevity of the structure when confronted with unfavorable weather conditions.

Q: How are steel structures designed to accommodate for future expansion or modifications?: To ensure adaptability and flexibility, steel structures are specifically designed to allow for future expansion or modifications. One common method utilized is the incorporation of modular construction techniques. This involves designing the structure in sections or modules that can be effortlessly disassembled and reassembled to accommodate future changes. Another approach is to design the steel structure with clear span frames. Clear span frames eliminate the need for interior columns or supports, providing unobstructed interior space. This design feature allows for easy reconfiguration of interior spaces without any structural constraints. Furthermore, steel structures can be designed to handle additional loads by considering potential future loads, such as extra floors or equipment. The structure is designed to accommodate these loads without compromising its integrity, ensuring it is well-equipped for increased loads when expansion is required. Additionally, steel structures can include extra structural connections or strategically placed openings to facilitate future modifications. These connections or openings are designed to allow for the addition or alteration of structural elements, such as beams or columns, making it simpler to modify or add sections to the structure. Moreover, steel structures can incorporate flexible design features like adjustable or removable walls, partitions, or roof elements. These features enable easy reconfiguration of interior spaces or expansion without the need for major structural modifications. In summary, the design of steel structures for future expansion or modifications involves careful consideration of modular construction techniques, clear span frames, additional load-bearing capacity, strategic structural connections or openings, and flexible design features. By incorporating these elements, steel structures can easily adapt to accommodate future changes, ensuring their longevity and functionality.

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