two story steel structure warehouse/ workshop/plant

two story steel structure warehouse/ workshop/plant System 1

two story steel structure warehouse/ workshop/plant System 2

two story steel structure warehouse/ workshop/plant System 3

two story steel structure warehouse/ workshop/plant System 4

two story steel structure warehouse/ workshop/plant

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Loading Port:: Guangzhou

Payment Terms:: TT OR LC

Min Order Qty:: 1000 m.t.

Supply Capability:: 4000 m.t./month

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Light Steel Structure Building

Specification

Standard:

AISI,JIS,GB,BS,DIN,API,EN,ASTM

Technique:

Hot Rolled,Cold Rolled,Cold Drawn,ERW,Forged,Saw,Extruded,EFW,Spring

Shape:

U Channel,Square,C Channel,Hexagonal,Round,Rectangular,Oval,LTZ

Surface Treatment:

Galvanized,Polished,Bright,Black

Steel Grade:

Q235,Q235B

Certification:

ISO,CE

Thickness:

Length:

Net Weight:

two story steel structure warehouse/ workshop/plant

Guangdong sunrise steel structure company ,which was established in 2007, covers an area of 30000 M2, is a modern enterprise specialized in processing and manufacturing various kinds of steel structures buildings over 300. Such as : steel canopy, steel spiral staircase and steel art sculpture,steel container house. steel warehouse.

We have 100 unites equipment for large and medium-sized metal processing, welding, assembly process

Steel structure feature

Light weight, industrialized manufcture, fast installation, shorter construction time, good performance of anti-quake design, fast investment recovery period, environment friendly

Packing: As per customer's requirement by bulk or removable storage rack

Lead time:25 days to 30 days after signed the contract.

FAQ:

Does your company is a factory or trade company?
We are factory, so you will enjoy the best price and competitive price.

What’s the quality assurance you provided and how do you control quality ?

Established a procedure to check products at all stages of the manufacturing process - raw materials, in process materials, validated or tested materials, finished goods, etc.

Can you offer designing Prefabricated Steel Warehouse service?

Yes, we have more than 30 design engineers. We could design full solution drawings as per your requirments. They use software: Auto CAD,PKPM, MTS, 3D3S, Tarch, Tekla Structures(Xsteel)V12.0.etc.

Do you offer guiding installation on site overseas for Prefabricated Steel Warehosue ?

Yes, we can provide the service of installation, supervision and training by extra. We can send our professional technical engineer to surpervise installation on site overseas. They have succeeded in many countries, such as Iraq, Dubai, South Africa, Algerial, Ghana

two story steel structure warehouse/ workshop/plant

Q: What are the key considerations in designing steel structures for seismic resistance?: When it comes to designing steel structures for seismic resistance, there are several important factors that need to be taken into account. These considerations encompass: 1. Thorough Structural Analysis: It is crucial to conduct a comprehensive structural analysis in order to understand how the steel structure will behave under seismic loading. This analysis aids in determining the appropriate design parameters and ensuring that the structure can withstand the expected seismic forces. 2. Adherence to Building Codes and Regulations: Designing steel structures for seismic resistance necessitates compliance with building codes and regulations specific to seismic zones. These codes provide guidelines and requirements for designing structures capable of withstanding seismic forces and ensuring occupant safety. 3. Ductility and Energy Dissipation: Steel structures should be designed to possess ductility, meaning they can undergo significant deformations without losing their capacity to carry loads. This ductility allows the structure to absorb and dissipate the energy generated during an earthquake, thereby reducing the impact on the overall structure. 4. Connection Design: The design of connections between structural members is crucial for ensuring seismic resistance. Connections must be designed to withstand the expected forces, provide flexibility, and allow for energy dissipation. Proper connection design enhances the overall performance and integrity of the steel structure during an earthquake. 5. Foundation Design: The foundation of a steel structure plays a critical role in seismic resistance. It must be designed to efficiently and safely transfer the seismic forces to the ground. Proper soil investigation and analysis are essential in determining the appropriate foundation design for the specific site conditions. 6. Incorporation of Seismic Isolation and Damping Techniques: The inclusion of seismic isolation and damping techniques can enhance the seismic resistance of steel structures. Seismic isolation involves introducing flexible elements between the foundation and the structure to reduce the transfer of seismic forces. Damping devices can also be incorporated to dissipate seismic energy and minimize structural response. 7. Implementation of Quality Control and Inspection Measures: Ensuring the quality of materials, fabrication, and construction is crucial for the seismic performance of steel structures. Regular inspections and quality control measures should be implemented throughout the design and construction process to guarantee that the structure meets the required standards and specifications. In conclusion, the design of steel structures for seismic resistance necessitates careful consideration of various factors, including structural analysis, compliance with building codes, ductility, connection design, foundation design, seismic isolation, and quality control. By addressing these key considerations, engineers can create resilient steel structures capable of withstanding the forces generated by seismic events.

Q: What is the difference between a steel building and a steel stadium?: Steel buildings and steel stadiums differ significantly in terms of their purpose and design. Unlike steel buildings, which are flexible structures commonly used for offices, warehouses, retail spaces, or residential buildings, steel stadiums are specifically designed to host large-scale events such as sports and entertainment. While steel buildings are known for their strength, durability, and cost-effectiveness, steel stadiums require a more complex design to accommodate thousands of spectators. Moreover, steel stadiums are architectural landmarks with visually striking designs that reflect the spirit and identity of the teams or events they host. In summary, although both steel buildings and steel stadiums use steel as their primary construction material, their purpose, size, and design vary greatly.

Q: What are the advantages of using steel in the construction of office buildings?: There are several advantages to using steel in the construction of office buildings. Firstly, steel is a very strong and durable material, which means it can withstand heavy loads and pressures, ensuring the structural integrity of the building. Additionally, steel is flexible and can be easily shaped and molded, allowing for creative and innovative designs in office spaces. Moreover, steel is fire-resistant, reducing the risk of damage or collapse in case of a fire. It is also resistant to pests, such as termites, which can be a common problem in traditional wooden structures. Lastly, steel is a sustainable material as it can be recycled, reducing waste and environmental impact. Overall, these advantages make steel a preferred choice for constructing office buildings due to its strength, flexibility, safety, and sustainability.

Q: How do steel structures perform in terms of resistance to extreme temperatures?: Steel structures perform well in terms of resistance to extreme temperatures. Steel has a high melting point and excellent heat resistance, allowing it to maintain its strength and structural integrity even under extreme heat conditions. Additionally, steel expands and contracts less compared to other materials, reducing the risk of structural damage due to temperature changes. Therefore, steel structures are highly reliable and durable in withstanding extreme temperatures.

Q: What are the methods of steel structure rust removal, which method is good?: Three kinds of rust removal methods are different, the first two kinds of rust thoroughly, the third methods used for small area, no rust removal equipment; fourth methods are used only, that is, there is no equipment, and the requirements are not high.

Q: Can steel structures be designed to be resistant to corrosion in marine environments?: Yes, steel structures can be designed and constructed to be highly resistant to corrosion in marine environments. Corrosion is a natural process that occurs when steel is exposed to oxygen and moisture, leading to the formation of rust. However, there are several effective strategies that can be employed to enhance the corrosion resistance of steel structures in marine environments. One approach is to use corrosion-resistant alloys, such as stainless steel or galvanized steel, which have a higher resistance to rust formation. These alloys contain additional elements, such as chromium, nickel, or zinc, that form a protective layer on the steel surface, preventing corrosive substances from reaching the underlying metal. Another method is to apply protective coatings to the steel structures. These coatings act as a barrier between the steel and the corrosive elements in the marine environment. For instance, epoxy coatings, polyurethane coatings, or marine-grade paints can be used to provide a protective layer that prevents water and oxygen from coming into contact with the steel. In addition to using corrosion-resistant alloys and protective coatings, proper design considerations can also contribute to the corrosion resistance of steel structures in marine environments. For example, designing structures with smooth surfaces and rounded edges can minimize the accumulation of corrosive substances and promote better water drainage. Adequate ventilation and drainage systems can also help to remove moisture and prevent the buildup of corrosive agents. Regular inspection, maintenance, and repair are crucial to maintaining the corrosion resistance of steel structures in marine environments. Any signs of corrosion, such as rust spots or pitting, should be promptly addressed to prevent further damage. Implementing a comprehensive maintenance plan, which includes cleaning, surface preparation, and reapplication of protective coatings, can significantly extend the lifespan of steel structures in marine environments. Overall, with the use of corrosion-resistant alloys, protective coatings, proper design considerations, and regular maintenance, steel structures can be effectively designed to be highly resistant to corrosion in marine environments.

Q: What are the considerations for the design of steel structures in areas with expansive soils?: To ensure the stability and longevity of steel structures in areas with expansive soils, several factors must be taken into account. Firstly, a thorough geotechnical investigation should be conducted to assess the characteristics of the expansive soils. This includes determining the soil type, moisture content, plasticity, and swell potential. This information is essential for designing appropriate foundations and accounting for potential soil movements. The foundation system needs to be designed in such a way as to accommodate the expansive soil movements. This may involve using deep foundations, such as piles or caissons, to reach stable soil layers. Alternatively, shallow foundations with additional measures, such as reinforced concrete beams, can be employed to mitigate soil movement. The foundation design should consider both the anticipated soil movements and the structural loads. The steel structure's framing system should be designed to be flexible enough to accommodate the potential movements of the foundation. This can be achieved by using flexible connections between columns and beams, which allow for some degree of movement without causing structural damage. Additionally, the framing system should be designed to distribute loads efficiently and minimize localized stresses caused by uneven soil movements. Expansion joints should be incorporated into the steel structure to accommodate potential differential movements between different parts of the building caused by expansive soils. These joints allow for controlled movement without transferring excessive stresses to the structure, thereby ensuring its integrity over time. Effective drainage systems should be implemented to manage the moisture content of the soil. This includes proper grading, surface runoff control, and foundation drainage systems, which can help prevent excessive water accumulation and minimize soil movements. Moisture control measures, such as moisture barriers or ventilation systems, may also be necessary within the structure to mitigate the effects of expansive soils. Regular monitoring of the steel structure and its foundation should be carried out to detect any signs of movement or distress. This can be achieved by using instruments to measure soil moisture, vertical movement, or structural displacements. If movement or damage is detected, prompt maintenance and remedial actions should be undertaken to ensure the long-term stability of the structure. In conclusion, designing steel structures in areas with expansive soils requires a comprehensive understanding of the soil characteristics and potential movements. By considering factors such as foundation design, structural framing, expansion joints, drainage, and monitoring, engineers can design steel structures that can withstand the challenges posed by expansive soils and ensure their safety and durability.

Q: How are steel structures designed for fire resistance?: Steel structures are designed for fire resistance through a combination of proactive measures and passive fire protection systems. One of the key aspects of designing steel structures for fire resistance is considering the behavior of steel when exposed to elevated temperatures. Steel loses its strength at high temperatures, which can lead to structural collapse if not properly addressed. To mitigate this, engineers use fire-resistant design principles to ensure that the structure can withstand the effects of fire. Proactive measures include designing the structure with fire-rated materials and employing fire-resistant coatings. Fire-rated materials, such as fire-resistant drywalls or gypsum boards, are used to create fire barriers and compartmentalize the structure. These materials help slow down the spread of fire, allowing occupants to evacuate safely and providing additional time for fire suppression efforts. Passive fire protection systems are also employed in steel structures. These systems are designed to minimize heat transfer to the steel elements, thereby preserving their structural integrity. Common passive fire protection systems include fireproofing coatings, fire-resistant insulation, and fire-resistant enclosures. These systems act as insulators, reducing the rate at which the steel is heated and extending the time for evacuation and fire control. In addition to these measures, the structural design itself takes into account factors such as load-bearing capacity and fire resistance ratings of the steel elements. Engineers perform detailed fire engineering analysis to determine critical temperatures, heat transfer rates, and structural response under fire conditions. This analysis helps determine the necessary fire protection measures and ensures that the structural design meets the required fire resistance standards. Overall, the design of steel structures for fire resistance involves a combination of proactive measures and passive fire protection systems. By considering the behavior of steel in fire and implementing appropriate fire-rated materials and coatings, engineers can create structures that are better able to withstand the effects of fire and protect occupants' safety.

Q: How are steel sports facilities constructed?: Steel sports facilities are constructed by first preparing the site and laying the foundation. Then, a steel frame is erected, which serves as the main structural support. The steel beams and columns are bolted together to create the framework of the facility. Next, the walls and roof are installed using steel panels or other cladding materials. The interiors are then finished with concrete floors, seating, and other necessary amenities. Finally, the facility is inspected for safety and functionality before it is ready for use.

Q: What are the considerations for designing steel structures for corrosive environments?: When designing steel structures for corrosive environments, several key considerations must be taken into account. Firstly, the choice of materials is crucial. Selecting corrosion-resistant steel with high levels of alloying elements such as chromium, nickel, and molybdenum is essential. Additionally, coatings such as galvanizing or painting can provide an added layer of protection. Another important consideration is the design of the structure itself. Ensuring proper drainage and ventilation is crucial to prevent the accumulation of moisture, which can accelerate corrosion. Designing for easy access and regular maintenance is also necessary to detect and address any signs of corrosion promptly. Furthermore, the surrounding environment should be thoroughly evaluated to determine the severity of corrosion. Factors such as temperature, humidity, acidity, and the presence of specific corrosive agents need to be considered. Additional protective measures, such as sacrificial anodes or cathodic protection systems, may be necessary in more aggressive environments. Regular inspections and maintenance are vital to identify and address any signs of corrosion early on. Developing a proactive maintenance plan that includes routine cleaning, protective coating inspections, and repairs can significantly extend the lifespan of steel structures in corrosive environments. Overall, designing steel structures for corrosive environments requires a comprehensive approach that involves material selection, proper design considerations, and regular maintenance to ensure their durability and longevity.

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