• Hot rolled H beams/Ibeams GB standard/JIS standard System 1
  • Hot rolled H beams/Ibeams GB standard/JIS standard System 2
  • Hot rolled H beams/Ibeams GB standard/JIS standard System 3
  • Hot rolled H beams/Ibeams GB standard/JIS standard System 4
Hot rolled H beams/Ibeams GB standard/JIS standard

Hot rolled H beams/Ibeams GB standard/JIS standard

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
50 m.t.
Supply Capability:
2500 m.t./month

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Packaging & Delivery


Packaging Detail: packed in bundle, suitable for sea transport (by container) or According to the clients`requirements

Delivery Detail: According to the actual weight

Specifications


joist steel 

high quality and factory price 

large inventories 

short delievery time 

good after-sales service


Country of Origin: China

 

Mill name: Ningbo Preah Vihear Steel Industry Co., Ltd.

 

Commodity: H beam

 

Tolerance: Strictly according to the G/B and JIS standard

 

Delivery time: within 30days

 

Price term: CIF/ CFR according to clients requirements

 

Payment terms: 100%Irrevercable L/C At Sight or TT

 

 

 

Product Description

 

 

ACCORDING TO STANDARD: JIS G3192 OR GB/T11263-2005

H beam Section sizenma(mm) Weight (kg/m)

Height×Breadth Web thichness Flange thichness

100×100 6 8 16.9

125×125 6.5 9 23.6

150×150 7 10 31.1

175×175 7.5 11 40.4

200×200 8 12 49.9

250×250 9 14 71.8

300×300 10 15 93.0

300×300 15 15 105.0

350×350 12 19 134.9

400×400 13 21 171.7

148×100 6 9 20.7

194×150 6 9 29.9

244×175 7 11 43.6

294×200 8 12 55.8

340×250 9 14 78.1

390×300 10 16 104.6

440×300 11 18 120.8

482×300 11 15 110.8

488×300 11 18 124.9

582×300 12 17 132.8

588×300 12 20 147.0

100×50 5 7 9.3

125×60 6 8 13.1

150×75 5 7 14.0

175×90 5 8 18.0

198×99 4.5 7 17.8

200×100 5.5 8 20.9

248×124 5 8 25.1

250×125 6 9 29.0

298×149 5.5 8 32.0

300×150 6.5 9 36.7

346×174 6 9 41.2

350×175 7 11 49.4

396×199 7 11 56.1

400×200 8 13 65.4

446×199 8 12 65.1

450×200 9 14 74.9

496×199 9 14 77.9

500×200 10 16 88.1

596×199 10 15 92.4

600×200 11 17 103.4

700×300 13 24 181.8

800×300 14 26 206.8

900×300 16 28 240.1


Q:Can steel H-beams be used for gymnasiums?
Gymnasiums can indeed utilize steel H-beams. Due to their robustness and structural soundness, steel H-beams are widely employed in construction. They provide exceptional support for substantial spans and heavy loads, making them ideal for gymnasiums, which often necessitate expansive areas and lofty ceilings. Moreover, steel H-beams can be effortlessly tailored and manufactured to meet specific design prerequisites, granting flexibility in gymnasium design. Their resilience and ability to withstand fire, pests, and structural deterioration also establish them as a dependable choice for gymnasium construction. All in all, steel H-beams represent a favored and efficient alternative for constructing gymnasiums.
Q:How do steel H-beams contribute to the overall sustainability of a transportation hub?
Steel H-beams contribute to the overall sustainability of a transportation hub in several ways. Firstly, they are a durable and long-lasting structural element, ensuring the longevity of the infrastructure. This reduces the need for frequent repairs or replacements, thereby minimizing resource consumption and waste generation. Additionally, steel H-beams have a high strength-to-weight ratio, allowing for efficient and lightweight construction, which reduces the overall material and energy requirements during the construction process. Furthermore, steel is a highly recyclable material, making it easy to recover and reuse at the end of its service life, promoting a circular economy. Overall, the use of steel H-beams in a transportation hub enhances its sustainability by providing a robust, efficient, and environmentally friendly infrastructure solution.
Q:What are the factors that affect the cost of steel H-beams?
There are several factors that can affect the cost of steel H-beams: 1. Raw material costs: The cost of the raw materials used to manufacture steel H-beams, such as iron ore and coal, can have a significant impact on the overall cost. Fluctuations in the prices of these materials, influenced by factors like supply and demand, can directly affect the cost of producing steel H-beams. 2. Manufacturing process: The method used to manufacture steel H-beams can also impact their cost. Different manufacturing processes, such as hot-rolling or cold-forming, require varying levels of energy, labor, and equipment, which can affect the overall cost. 3. Size and weight: The size and weight of the steel H-beams can impact the cost. Larger and heavier beams require more raw material and may require additional handling and transportation costs, which can increase the overall price. 4. Market demand: The demand for steel H-beams can also affect their cost. If there is a high demand for these beams, prices may increase due to limited supply. Conversely, if the demand is low, prices may be lower as manufacturers compete for customers. 5. Trade policies and international market conditions: Trade policies and international market conditions can also impact the cost of steel H-beams. Factors such as tariffs, import restrictions, and currency exchange rates can affect the cost of raw materials and the overall cost of production, which in turn can impact the final price of the beams. 6. Manufacturing location: The geographical location of the manufacturing facility can also play a role in the cost of steel H-beams. Different regions may have varying labor costs, energy costs, and transportation costs, all of which can affect the final price of the beams. 7. Quality and specifications: The quality and specifications of the steel H-beams can also influence their cost. Higher quality beams that meet stricter standards and specifications may command a higher price compared to lower quality beams. Overall, the cost of steel H-beams is influenced by various factors, including raw material costs, manufacturing process, size and weight, market demand, trade policies, manufacturing location, and quality and specifications. Understanding these factors can help buyers and sellers make informed decisions and negotiate prices effectively.
Q:How are steel H-beams different from other structural steel shapes?
Steel H-beams, also known as wide-flange beams, differ from other structural steel shapes due to their unique shape and design. Unlike other steel shapes such as I-beams, channels, or angles, H-beams have a wider flange and a thinner web. This design creates a cross-section that resembles the letter "H," hence the name. The primary advantage of H-beams lies in their superior load-bearing capacity. The wider flange helps distribute the weight evenly, making them ideal for supporting heavy loads and resisting bending or deflection. This feature makes H-beams suitable for constructing large and tall structures such as bridges, skyscrapers, and industrial buildings. Moreover, the H-beam's design allows for a higher strength-to-weight ratio compared to other steel shapes. This means that H-beams can withstand higher loads while maintaining a relatively lighter weight. The increased strength-to-weight ratio makes H-beams more cost-effective and efficient in construction projects. Another key difference is the versatility of H-beams. Due to their unique shape, H-beams can be used in various applications, including columns, beams, and bracing. Their compatibility with different structural systems enhances their usability and makes them a popular choice in the construction industry. In summary, steel H-beams stand out from other structural steel shapes due to their wider flange, thinner web, and distinctive "H" shape. These features provide them with superior load-bearing capacity, increased strength-to-weight ratio, and enhanced versatility. As a result, H-beams are widely preferred for constructing heavy-duty structures that require optimal strength and durability.
Q:How do steel H-beams perform in areas with high wind loads?
In areas with high wind loads, steel H-beams exhibit exceptional performance. The H-shaped design of these beams imparts remarkable strength and stability, rendering them highly impervious to lateral forces generated by powerful winds. The structural integrity of steel H-beams facilitates the uniform distribution of wind load throughout the entire beam, thereby minimizing the likelihood of failure or deformation. Moreover, steel possesses enduring qualities and pliability, further augmenting its efficacy in regions prone to strong winds. The elevated tensile strength of steel empowers it to endure the force exerted by powerful winds, providing outstanding resistance against bending or buckling. All in all, steel H-beams represent an ideal selection for construction projects in areas with high wind loads, as they furnish dependable and enduring support to structures in such circumstances.
Q:Can steel H-beams be used for supporting offshore structures?
Yes, steel H-beams can be used for supporting offshore structures. H-beams are commonly used in construction due to their high strength and durability. They are designed to withstand heavy loads and provide structural support. When it comes to offshore structures, such as oil rigs, platforms, or wind turbines, steel H-beams are often used as part of the foundation or support system. They can be driven into the seabed to provide stability and anchor the structure securely. Steel H-beams have several advantages for offshore applications. Firstly, they have a high strength-to-weight ratio, which means they can support heavy loads while being relatively lightweight. This is particularly important for offshore structures, as weight considerations are crucial due to the harsh marine environment and the need to transport and install the components. Secondly, steel H-beams can withstand the corrosive effects of saltwater, which is essential in offshore environments. They are typically made of corrosion-resistant steel or coated with protective materials to prevent rust and degradation. Additionally, steel H-beams can be easily fabricated and customized to meet the specific requirements of offshore structures. They can be manufactured in various sizes and lengths, allowing for flexibility in design and construction. However, it is important to note that the selection of steel H-beams for offshore structures should consider several factors, including the depth and conditions of the seabed, the loads and forces acting on the structure, and the specific requirements of the project. Engineering calculations and analysis are usually conducted to determine the appropriate size, shape, and configuration of the H-beams to ensure the safety and stability of the offshore structure. In conclusion, steel H-beams can indeed be used for supporting offshore structures due to their strength, durability, and corrosion resistance. They are a common choice for providing structural support in offshore environments, ensuring the stability and safety of offshore structures.
Q:Can steel H-beams be used in the construction of railway infrastructure?
Yes, steel H-beams can be used in the construction of railway infrastructure. These beams are commonly used as a structural element in various construction projects, including bridges, buildings, and railways. They offer high strength and durability, making them suitable for supporting heavy loads and withstanding the dynamic forces associated with railway operations.
Q:How do steel H-beams perform in structures with large spans and cantilevers?
Steel H-beams are widely used in structures with large spans and cantilevers due to their excellent strength-to-weight ratio and structural stability. These beams are designed to withstand heavy loads and provide maximum support over extended distances. In structures with large spans, steel H-beams offer superior load-bearing capacity, allowing for longer distances between support points. This makes them ideal for applications such as bridges, stadiums, warehouses, and industrial buildings. The H-shape of the beam provides increased strength and rigidity, enabling it to resist bending and deflection under heavy loads. Cantilevers, which are structural elements that extend beyond their supports, also benefit from the use of steel H-beams. The inherent strength of these beams allows for longer cantilever lengths without compromising structural integrity. This is particularly useful in architectural designs that require open spaces or unique configurations, such as cantilevered balconies, overhangs, or roof extensions. Steel H-beams also offer versatility in terms of construction methods and connections. They can be easily welded or bolted together, allowing for efficient and cost-effective assembly. Additionally, their wide flanges provide ample surface area for attaching other structural components, such as columns, girders, or floor systems. Moreover, steel H-beams possess excellent resistance to fire, corrosion, and weathering, making them suitable for both indoor and outdoor applications. Their durability ensures long-term performance and minimal maintenance requirements. In summary, steel H-beams are highly effective in structures with large spans and cantilevers. Their strength, stability, and versatility make them an ideal choice for supporting heavy loads and achieving architectural designs that require extended distances or unique configurations.
Q:Are steel H-beams resistant to electromagnetic interference?
Steel H-beams are generally not resistant to electromagnetic interference. As steel is a good conductor of electricity, it can easily conduct and transmit electromagnetic waves, making it susceptible to interference. To minimize the impact of electromagnetic interference, additional measures such as shielding, grounding, or using non-conductive materials may be required.
Q:What are the design considerations for steel H-beams in earthquake-prone regions?
The design considerations for steel H-beams in earthquake-prone regions primarily involve ensuring structural integrity and resilience. Some key considerations include selecting appropriate steel grades with high ductility and strength, designing for lateral loads and dynamic forces, incorporating proper bracing and connections to enhance stability, accounting for potential ground motion, and implementing effective seismic detailing to resist earthquake forces. Additionally, the design should consider local building codes and regulations specific to earthquake-prone regions to ensure compliance and enhance the overall safety of the structure.

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