Stainless steel H beam steel for construction

Ref Price:
Loading Port:
Tianjin
Payment Terms:
TT or LC
Min Order Qty:
10000 m.t.
Supply Capability:
10000 m.t./month
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Product Description:

OKorder is offering Stainless steel H beam steel for construction at great prices with worldwide shipping. Our supplier is a world-class manufacturer of steel, with our products utilized the world over. OKorder annually supplies products to European, North American and Asian markets. We provide quotations within 24 hours of receiving an inquiry and guarantee competitive prices.

 

Product Applications:

Stainless steel H beam steel for construction are ideal for structural applications and are widely used in the construction of buildings and bridges, and the manufacturing, petrochemical, and transportation industries.

 

Product Advantages:

OKorder's Stainless steel H beam steel for construction are durable, strong, and resist corrosion.

 

Main Product Features:

·         Premium quality

·         Prompt delivery & seaworthy packing (30 days after receiving deposit)

·         Corrosion resistance

·         Can be recycled and reused

·         Mill test certification

·         Professional Service

·         Competitive pricing

 

Product Specifications:

Manufacture: Hot rolled

Grade: Q195 – 235

Certificates: ISO, SGS, BV, CIQ

Length: 6m – 12m, as per customer request

Packaging: Export packing, nude packing, bundled

Chinese Standard (H*W*T)

Weight (Kg/m)

6m (pcs/ton)

Light I (H*W*T)

Weight (Kg/m)

6m (pcs/ton)

Light II (H*W*T)

Weight (Kg/m)

6M

100*68*4.5

11.261

14.8

100*66*4.3

10.13

16.4

100*64*4

8.45

19.7

120*74*5.0

13.987

11.9

120*72*4.8

12.59

13.2

120*70*4.5

10.49

15.8

140*80*5.5

16.89

9.8

140*78*5.3

15.2

10.9

140*76*5

12.67

13.1

160*88*6

20.513

8.1

160*86*5.8

18.46

9

160*84*5.5

15.38

10.8

180*94*6.5

24.143

6.9

180*92*6.3

21.73

7.6

180*90*6

18.11

9.2

200*100*7

27.929

5.9

200*98*6.8

25.14

6.6

200*96*6.5

20.95

7.9

220*110*7.5

33.07

5

220*108*7.3

29.76

5.6

220*106*7

24.8

6.7

250*116*8

38.105

4.3

250*114*7.8

34.29

4.8

250*112*7.5

28.58

5.8

280*122*8.5

43.492

3.8

280*120*8.2

39.14

4.2

280*120*8

36.97

4.5

300*126*9

48.084

3.4

300*124*9.2

43.28

3.8

300*124*8.5

40.87

4

320*130*9.5

52.717

3.1

320*127*9.2

48.5

3.4

360*136*10

60.037

2.7

360*132*9.5

55.23

3

 

Description:
1.Length of the welding withnot indication, full welding should be applied
2.Seam without indication is fillet weld, height is 0.75t
3.The cutting angle without indication, radius R=30
4.Cutting angle not specified should be
5.The diameter of the hole for the bolt if not specified, D=22

Project Reference:

For the Steel structure project of Upper part of external
piperack for air separation and gasifying facilities of
460,000 tons MTO (Methanol to Olefins) project in
Duolun, we provide about 4,500 tons steel structure. It
is a heavy chemical indusry of national energy project.

 FAQ:

Q1: What makes stainless steel stainless?

A1: Stainless steel must contain at least 10.5 % chromium. It is this element that reacts with the oxygen in the air to form a complex chrome-oxide surface layer that is invisible but strong enough to prevent further oxygen from "staining" (rusting) the surface. Higher levels of chromium and the addition of other alloying elements such as nickel and molybdenum enhance this surface layer and improve the corrosion resistance of the stainless material.

Q2: Can stainless steel rust?

A2: Stainless does not "rust" as you think of regular steel rusting with a red oxide on the surface that flakes off. If you see red rust it is probably due to some iron particles that have contaminated the surface of the stainless steel and it is these iron particles that are rusting. Look at the source of the rusting and see if you can remove it from the surface.

Q:
Steel structures are designed for different safety systems by considering various factors such as load requirements, structural stability, and potential hazards. These structures are designed with sufficient strength and durability to withstand anticipated loads, including dead loads (weight of the structure itself) and live loads (occupancy and environmental loads). Additionally, safety systems such as fire resistance, earthquake resistance, and blast resistance are incorporated into the design to ensure the safety of occupants and the structure itself. Design codes and standards provide guidelines and criteria for the design of steel structures, taking into account different safety systems to ensure that the structures can withstand potential hazards and protect human life and property.
Q:
There are several ways in which water resources can be efficiently used through the design of steel structures. Firstly, steel is a durable material that can withstand harsh weather conditions and has a long lifespan. This means that steel structures require less maintenance and repair, reducing the need for water-intensive activities like cleaning and painting. Furthermore, rainwater harvesting systems can be incorporated into steel structures. These systems collect and store rainwater for various purposes such as irrigation, flushing toilets, and industrial processes. By utilizing rainwater, steel structures can reduce their dependence on freshwater sources, ultimately conserving water resources. Moreover, efficient plumbing systems can be integrated into the design of steel structures to minimize water wastage. Low-flow fixtures like faucets and toilets can be installed to reduce water consumption without sacrificing functionality. Leak detection systems and water-efficient irrigation systems can also be included to prevent water leaks and optimize irrigation practices. Additionally, green roofs or rooftop gardens can be incorporated into the design of steel structures. These green features help reduce the heat island effect and improve stormwater management. By retaining rainwater and allowing for natural filtration, runoff is reduced and strain on municipal water systems is decreased. This promotes sustainable water management. In conclusion, steel structures can be designed to efficiently use water resources through strategies like rainwater harvesting, efficient plumbing systems, green roofs, and water-efficient irrigation systems. By incorporating these design elements, steel structures contribute to water conservation efforts and promote sustainable water management practices.
Q:
Steel structures are designed to resist impact from vehicle collisions through various engineering principles and design techniques. The primary objective is to ensure the safety of both the occupants of the vehicle and the integrity of the structure itself. One of the most common methods used is incorporating energy-absorbing features into the design. This involves the use of specially designed steel members, such as crash barriers or guardrails, that are intended to deform and absorb the impact energy during a collision. By deforming and dissipating energy, these structures help to prevent or minimize damage to the main load-bearing components of the structure. Additionally, the design of steel structures for impact resistance often involves the use of advanced computer simulations and modeling techniques. These simulations allow engineers to analyze the impact forces and predict the behavior of the structure in a collision scenario. This helps in determining the optimal size, shape, and placement of energy-absorbing elements to ensure maximum protection. Furthermore, the choice of materials and the specific design of the steel members play a crucial role in enhancing the structure's ability to resist impact. High-strength steel alloys are commonly used, as they offer superior strength and toughness compared to conventional steel. This allows for the construction of lighter and more efficient structures that can withstand greater impact forces. In addition to the structural elements, other safety measures are also considered, such as the implementation of crash-tested barriers, the use of breakaway sign supports, and the placement of guardrails or barriers to redirect or contain the impact force. Overall, the design of steel structures for resisting impact from vehicle collisions involves a combination of energy absorption, advanced modeling techniques, material selection, and the implementation of additional safety features. By considering these factors, engineers can create robust and safe structures that are capable of withstanding the forces generated during a collision, protecting both the occupants and the structure itself.
Q:
Steel structures are commonly used in cultural and religious buildings due to their strength, versatility, and ability to create large open spaces. They are often employed in the construction of iconic structures, such as cathedrals, temples, and museums, allowing for unique architectural designs and the incorporation of intricate details. Steel frames provide stability for tall structures, while allowing for the creation of large windows and open interiors, facilitating natural light and enhancing the spiritual ambiance. Additionally, steel's durability ensures the longevity of these important cultural and religious landmarks.
Q:
The environmental impacts of steel structure production include the extraction of raw materials, such as iron ore and coal, which can lead to habitat destruction and deforestation. The manufacturing process itself requires a significant amount of energy, contributing to greenhouse gas emissions and air pollution. Additionally, the disposal of waste materials and the potential for water pollution can also have negative environmental consequences.
Q:
When designing steel structures for residential high-rises, several key considerations need to be taken into account. These include: 1. Structural Integrity: Ensuring the steel structure can withstand the loads imposed by the building's weight, wind, seismic activity, and other potential stresses. 2. Safety: Implementing measures to protect residents and occupants, such as fire-resistant materials, emergency evacuation plans, and structural redundancy. 3. Cost Efficiency: Striking a balance between cost-effectiveness and structural performance, optimizing the use of steel materials to minimize expenses while maintaining safety and functionality. 4. Aesthetics: Incorporating architectural design elements to enhance the appearance of the building while ensuring structural integrity. 5. Sustainability: Implementing environmentally friendly and energy-efficient strategies, such as using recycled steel, incorporating green building materials, and optimizing energy usage. 6. Construction and Fabrication Challenges: Considering the logistics of constructing and fabricating steel structures, including transportation, fabrication limitations, and assembly processes. 7. Building Codes and Regulations: Adhering to local building codes and regulations to ensure compliance with safety standards and legal requirements. 8. Maintenance and Durability: Designing structures that are durable and require minimal maintenance, reducing long-term costs and ensuring the longevity of the building. By considering these factors, architects and engineers can design steel structures for residential high-rises that are not only safe and efficient but also aesthetically pleasing and sustainable.
Q:
There are several types of steel canopies and awnings available, including fixed awnings, retractable awnings, cantilevered awnings, and freestanding canopies. Each type offers unique features and benefits, catering to different preferences and requirements.
Q:
When designing steel mezzanine platforms, there are several important considerations that need to be taken into account to ensure a safe and functional structure. These design considerations can be categorized into four main areas: structural, safety, accessibility, and aesthetics. 1. Structural considerations: The structural integrity of the mezzanine platform is of utmost importance. The design should be able to support the intended loads, which may include equipment, storage racks, or personnel. Adequate analysis and calculations should be conducted to determine the required steel sections, column sizes, and floor thickness to ensure the platform's stability and load-bearing capacity. 2. Safety considerations: Safety should always be a top priority when designing mezzanine platforms. The structure should comply with relevant building codes and industry standards, such as OSHA regulations. Guardrails and handrails should be included to prevent falls from the platform edges, and they should meet specific height and strength requirements. Additionally, proper signage and markings should be provided to indicate any potential hazards or restricted areas. 3. Accessibility considerations: Mezzanine platforms should be designed to provide easy access for personnel and equipment. Stairs or ladders should be incorporated into the design to allow safe and convenient vertical movement. The design should also consider the need for materials handling, such as the installation of a freight elevator or conveyor system to efficiently transport goods to and from the mezzanine level. 4. Aesthetic considerations: While functionality and safety are crucial, the design of the mezzanine platform should also consider aesthetics. The platform should blend harmoniously with the overall architectural style and interior design of the building. The choice of finishes, colors, and materials should be carefully considered to create a visually appealing and cohesive space. In summary, the design considerations for steel mezzanine platforms encompass structural integrity, safety features, accessibility for personnel and equipment, and aesthetic integration with the surrounding environment. By addressing these considerations, a well-designed steel mezzanine platform can provide a safe, functional, and visually pleasing addition to any space.
Q:
There are several different types of steel bridges that are commonly used in civil engineering and infrastructure projects. Some of the most common types include: 1. Girder bridges: Girder bridges are the most common type of steel bridge and consist of one or more horizontal girders that support the weight of the bridge deck. These girders can be either plate girders, which are made from steel plates welded together, or box girders, which consist of a hollow steel box. 2. Truss bridges: Truss bridges are characterized by their triangular truss framework, which provides strength and stability. These bridges are often used for longer spans and can be either simple truss bridges, with a single truss, or multiple truss bridges, with multiple trusses arranged parallel to each other. 3. Arch bridges: Arch bridges are known for their curved, arched shape and use the strength of the arch to support the weight of the bridge deck. These bridges can be either through arch bridges, where the arch is above the bridge deck, or deck arch bridges, where the arch is below the bridge deck. 4. Cable-stayed bridges: Cable-stayed bridges are supported by cables attached to tall towers, which transmit the weight of the bridge deck to the ground. These bridges often have a visually striking appearance, with cables radiating out from the towers to support the deck. 5. Suspension bridges: Suspension bridges are similar to cable-stayed bridges, but instead of towers, they use large main cables anchored at each end of the bridge to support the deck. These bridges are known for their long spans and flexibility. Each type of steel bridge has its own advantages and is suitable for different applications depending on factors such as span length, load requirements, and aesthetic preferences. The choice of bridge type depends on various engineering considerations to ensure the safe and efficient transportation of people and goods.
Q:
The environmental impacts of steel structure production include the extraction of raw materials, such as iron ore and coal, which can lead to habitat destruction and deforestation. The manufacturing process itself requires a significant amount of energy, contributing to greenhouse gas emissions and air pollution. Additionally, the disposal of waste materials and the potential for water pollution can also have negative environmental consequences.

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