• Steel Structure Warehouse/Workshop GB Standard Material System 1
  • Steel Structure Warehouse/Workshop GB Standard Material System 2
  • Steel Structure Warehouse/Workshop GB Standard Material System 3
  • Steel Structure Warehouse/Workshop GB Standard Material System 4
  • Steel Structure Warehouse/Workshop GB Standard Material System 5
  • Steel Structure Warehouse/Workshop GB Standard Material System 6
Steel Structure Warehouse/Workshop GB Standard Material

Steel Structure Warehouse/Workshop GB Standard Material

Ref Price:
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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
20 m.t.
Supply Capability:
100 m.t./month

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Specification

Standard:
GB
Technique:
Welding
Shape:
H Channel
Surface Treatment:
Color Coated
Steel Grade:
Q235B/Q355B
Certification:
ISO
Thickness:
customized
Width:
customized
Length:
customized
Outer Diameter:
customized
Net Weight:
customized
Packaging:
iron frame
Purlin:
Galvanizd C section steel
Wall penal:
EPS Sandwich board/Steel Sheet
Door:
Rolling gate, Anti-theft door, Sandwich Panel Door
Roof penal:
Steel sheet
Window:
Aluminum Alloy Window
Surface processing:
Painted or galvanized

Steel Structure Warehouse/Workshop

Steel Structure Warehouse/Workshop GB Standard Material

Steel Structure Warehouse/Workshop GB Standard Material



1. These products are customized products; 

2. The following information is required to provide detailed quotation:

     A. Project location:

      B. Size: Length*width*height _____mm*_____mm*_____mm 

      C. Wind load (max. Wind speed) _____kn/m2, _____km/h, _____m/s 

      D. Snow load (max. Snow thickness)_____kn/m2, _____mm 

      E. Anti-earthquake grade_____ 

      F. Brick wall needed or not. If yes, 1.2m high or 1.5m high? 

      G. Thermal insulation requirement. If yes, EPS/fiberglass wool/rock wool/PU sandwich panels will be suggested; If not, the metal steel sheets will be OK. The cost of the latter will be much lower than the former.

      H. Door quantity & size _____units, _____(width)mm*_____(height)mm 

      I. Window quantity & size _____units, _____(width)mm*_____(height)mm 

     J. Crane needed or not

Steel Structure Warehouse/Workshop GB Standard Material


Characteristics

1. Enviromental friendly

2. Lower cost and maintenance

3. Long using time up to 50 years

4. Stable and earthquake resistance up to 9 grade

5. Fast construction, time saving and labor saving

6. Good appearance

 

Use

The steel workshop warehouse building is widely used for workshop plant, warehouse, office building,steel shed, aircraft hangar etc.

Steel Structure Warehouse/Workshop GB Standard Material

 

Technical Parameters


  Items

 Specification

  Main Steel Frame

  Column

 Q235B, Q345B Welded H Section Steel

  Beam

 Q235B, Q345B Welded H Section Steel

  Secondary Frame

  Purlin

 Q235B C and Z purlin

  Knee brace

 Q235B Angle Steel

  Tie Rod

 Q235B Circular Steel Pipe

  Brace

 Q235B Round Bar

Vertical and Horizontal  Support

 Q235B Angle Steel, Round Bar or Steel Pipe

  Maintenance system

  Roof Panel

 EPS Sandwich Panel /  Glass Fiber Sandwich Panel /Rock Wool Sandwich Panel / Pu Sandwich Panel      /Steel Sheet

  Wall Panel

 Sandwich Panel / Corrugated Steel Sheet

  Accessories

  Window

 Aluminium Alloy Window / PVC Window / Sandwich  Panel Window

  Door

 Sliding Sandwich Panel Door / Rolling Metal Door /  Personal Door

  Rainspout

 PVC

  Live load on Roof

 In 120kg/Sq.m (Color steel panel surrounded)

  Wind Resistance Grade

 12 Grades

  Earthquake-resistance

 8 Grades

  Structure Usage

 Up to 50 years

  Finishing Options

 Vast array of colors and textures available

  Paint Options

 Zinc rich epoxy painting, one primary painting, two  finish painting (gray paint, red paint, white paint, epoxy  zinc etc.) Or Galvanized.

Steel Structure Warehouse/Workshop GB Standard Material

Steel Structure Warehouse/Workshop GB Standard Material




Q: How are steel trusses designed and sized?
Steel trusses are designed and sized using a combination of engineering principles, computer-aided design software, and industry codes and standards. The design process involves considering the specific requirements of the structure, such as the span, load conditions, and desired aesthetics. Factors like material properties, shape, and member connections are taken into account to ensure the truss can safely support the applied loads while minimizing deflection and stress. The sizing of steel trusses involves optimizing the dimensions and cross-sectional properties of the individual members to achieve the desired strength and stability. This is done by analyzing the internal forces and moments within the truss, often utilizing finite element analysis to accurately model the complex behavior of the structure.
Q: What is the rib of steel structure?
A strip reinforcement provided at a support or at a concentrated load to ensure local stability of the member and transfer of concentrated force
Q: Can steel structures be designed with solar panel installations?
Yes, steel structures can be designed with solar panel installations. Steel is a versatile and strong material that can support the weight and load of solar panels. Additionally, steel structures can provide a stable and durable foundation for the installation of solar panels, making it an ideal choice for incorporating renewable energy systems into buildings and infrastructure.
Q: How are steel structures designed for resisting earthquake-induced ground settlements?
Steel structures are designed to resist earthquake-induced ground settlements through several measures. First, the foundation of the structure is designed to be flexible and able to accommodate ground movements. This is done by using techniques such as base isolation or providing sufficient clearance between the structure and the ground. Additionally, the steel structure itself is designed to be ductile, meaning it has the ability to deform without collapsing. This allows it to absorb and dissipate the energy generated during an earthquake, reducing the impact on the structure. Steel bracing systems and cross-bracing are also incorporated to enhance the structural integrity and resist lateral forces. Overall, the design of steel structures for earthquake resistance involves a combination of flexibility, ductility, and appropriate bracing systems to minimize damage and ensure the safety of the occupants.
Q: Can steel structures be designed with integrated HVAC systems?
Yes, steel structures can be designed with integrated HVAC (Heating, Ventilation, and Air Conditioning) systems. The flexibility and strength of steel allow for the incorporation of HVAC components within the structure itself, such as ductwork, vents, and pipes. This integrated design approach ensures efficient use of space, effective temperature control, and proper air circulation within the steel structure.
Q: What are the considerations for the design of steel structures in areas with expansive soils?
When designing steel structures in areas with expansive soils, several considerations need to be taken into account. Firstly, it is crucial to evaluate the potential for soil movement and settlement due to the expansive nature of the soil. This may involve conducting thorough geotechnical investigations to understand the soil's moisture content, plasticity, and swelling potential. Additionally, the design should incorporate suitable foundation systems capable of accommodating the soil's movement. Common solutions include deep foundations such as driven piles or drilled shafts that extend below the active zone of soil movement. These foundation systems help to minimize the risk of differential settlement and structural damage. Furthermore, it is essential to consider the potential for corrosion in steel structures exposed to moisture from expansive soils. Proper protective measures, such as applying protective coatings or using corrosion-resistant materials, should be implemented to ensure the longevity and structural integrity of the steel components. Lastly, regular monitoring and maintenance should be incorporated into the design to detect any signs of soil movement or structural distress. This may involve installing instrumentation to monitor soil moisture content or implementing a visual inspection program to identify any signs of foundation or structural issues. Overall, the design of steel structures in areas with expansive soils requires a comprehensive understanding of the soil behavior, appropriate foundation systems, corrosion protection, and ongoing monitoring to ensure the safety and performance of the structure.
Q: How are steel structures designed for agricultural processing plants?
Steel structures for agricultural processing plants are designed with careful consideration of the specific requirements and needs of the plant. The design takes into account factors such as the layout of the processing plant, the types of equipment and machinery to be used, the weight and load-bearing capacity required, and the need for flexibility and adaptability. Additionally, the design ensures compliance with safety and regulatory standards, as well as cost-effectiveness and durability.
Q: How are steel structures designed to withstand snow and ice accumulation?
Steel structures are designed to withstand snow and ice accumulation through a combination of factors. Firstly, the structural members, such as beams and columns, are designed to have sufficient strength and stiffness to support the weight of the accumulated snow and ice. Secondly, the shape and configuration of the structure, including the roof slope and the presence of overhangs, are carefully considered to minimize the accumulation of snow and ice. Additionally, proper insulation and ventilation systems are implemented to prevent the formation of ice dams and minimize the risk of structural damage. Overall, steel structures are engineered to withstand the potential loadings caused by snow and ice accumulation, ensuring their safety and durability.
Q: How are steel structures used in the construction of restaurants?
Restaurants often utilize steel structures due to the many benefits they offer. Firstly, steel is renowned for its strength and durability, making it perfect for supporting the weight of large restaurant buildings. This allows for the creation of spacious dining areas, open floor plans, and even multi-story structures. Additionally, steel structures allow for design flexibility and can be tailored to meet the unique needs of each restaurant. This grants architects and designers the freedom to craft innovative and visually stunning restaurant spaces, such as open-air terraces, mezzanines, or expansive glass facades. Furthermore, steel structures are quick and efficient to construct. By manufacturing steel components off-site, construction time is significantly reduced. This is especially advantageous for time-sensitive restaurant projects or establishments eager to welcome customers as soon as possible. Moreover, steel structures possess excellent fire resistance, a crucial factor in restaurant construction where open flames and cooking equipment are present. Steel's ability to withstand fire ensures the safety of both the building and its occupants. Another important aspect is the environmental friendliness of steel structures. Steel is highly recyclable, reducing the consumption of natural resources in construction. Furthermore, energy-efficient designs incorporating insulation and other sustainable features can lead to lower energy costs for the restaurant. In conclusion, steel structures are indispensable in restaurant construction, providing strength, durability, design flexibility, quick construction, fire resistance, and environmental sustainability. These advantages make steel an ideal choice for creating functional, visually appealing, and safe dining spaces in restaurants.
Q: How are steel structures designed for foundation settlement?
There are several ways in which steel structures are designed to withstand foundation settlement. Firstly, the flexibility of the foundation is a key aspect. Steel structures typically incorporate flexible foundations that can adapt to any settlement that may occur over time. This flexibility is achieved by using steel piles or deep foundations that are driven deep into the ground. These foundations provide stability and prevent excessive settlement. Additionally, steel structures are designed with a system of beams and columns that evenly distribute the load across the foundation. This distribution helps to minimize localized settlement and ensures the stability of the structure, even if settlement does take place. Moreover, engineers often incorporate monitoring systems into steel structures to detect any settlement that may be happening. These monitoring systems utilize sensors to measure foundation movement or settlement, allowing for early detection and intervention if necessary. In summary, the design of steel structures takes into consideration the possibility of foundation settlement and is constructed to withstand and adjust to such conditions. By incorporating flexible foundations, distributing loads evenly, and monitoring settlement, steel structures can effectively mitigate the impact of settlement, ensuring the safety and longevity of the structure.

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