• Jis Standard H Steel Beams in Stock at Good Price System 1
  • Jis Standard H Steel Beams in Stock at Good Price System 2
  • Jis Standard H Steel Beams in Stock at Good Price System 3
Jis Standard H Steel Beams in Stock at Good Price

Jis Standard H Steel Beams in Stock at Good Price

Ref Price:
get latest price
Loading Port:
Dalian
Payment Terms:
TT OR LC
Min Order Qty:
100 m.t
Supply Capability:
150000 m.t/month

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Specification

Standard:
ASTM,JIS,EN,API,DIN,BS,GB,AISI
Technique:
Spring,EFW,Extruded,Saw,Forged,ERW,Cold Drawn,Cold Rolled,Hot Rolled
Shape:
LTZ,Oval,Rectangular,Round,Hexagonal,C Channel,Square,U Channel
Surface Treatment:
Oiled,Color Coated,Copper Coated,Coated,Galvanized,PVDF Coated,Black,Bright,Polished,Dry,Chromed Passivation
Steel Grade:
A53(A,B),20#,10#,SS400-SS490,600 Series,400 Series,300 Series,200 Series,HRB400,RHB335,Q235B,Q215B,Q235,Q215,Q195
Certification:
UL,BSI,API,CE,RoHS,IBR,BV,SGS,ISO
Thickness:
65
Length:
12000
Net Weight:
51

Quick Detail

 

Standard:

ASTM, GB, JIS

Grade:

Q235Q345ss400ss490

Dimensions:

HM100*100*6*--8#428*407*20*35

Place of Origin:

Hebei, China (Mainland)

Brand Name:

JINXI

Type:

Alloy Structural Steel

Application:

roof beam

Shape:

Beams

price:

competitive

 

We can provide qualify goods,competitive price and speedy delivery.

 

Jis Standard H Steel Beams in Stock at Good Price

Products Description

H Type Steel Size and Theoretical Weight

Size

Theoretical Weight

Size

Theoretical Weight

Size

Theoretical Weight

 

 

 

 

 

 

(mm)

(kg/m)

(mm)

(kg/m)

(mm)

(kg/m)

100*50*5*7

9.3

250*125*6*9

29

446*199*8*12

65.1

100*100*6*8

16.9

250*250*9*14

71.8

450*200*9*14

74.9

125*60*6*8

13.1

294*200*8*12

55.8

482*300*11*15

110.8

125*125*6.5*9

23.6

298*149*5.5*8

32

488*300*11*18

124.9

148*100*6*9

31.1

340*250*9*14

36.7

496*199*9*14

77.9

150*75*5*7

14

300*150*6.5*9

93

500*200*10*16

88.1

150*150*7*10

20.7

300*300*10*15

78.1

582*300*12*17

132.8

175*90*5*8

18

346*174*6*9

41.2

588*300*12*20

147

175*175*7.5*11

40.4

350*175*7*11

49.4

596*199*10*15

92.4

194*150*6*9

29.9

350*350*12*19

134.9

600*200*11*17

103.4

198*99*4.5*7

17.8

390*300*10*16

104.6

700*300*13*24

181.8

200*100*5.5*8

20.9

396*199*7*11

56.1

800*300*14*26

206.8

200*200*8*12

49.9

400*200*8*13

65.4

900*300*16*28

240.1

244*175*7*11

43.6

400*400*13*21

171.7

 

 

248*124*5*8

25.1

440*300*11*18

120.8

 

 

Length=6------12meters

 

Packaging & Delivery

Packaging Details:

Packed with waterproof paper and steel banding. 
or as clients requirements.

Delivery Detail:

15-25

 

 

FAQ

 1. How can I get some samples?                        

We are honored to offer you samples. New clients are expected to pay for the courier cost. The samples are free for you.

 2 Do you have any certificates?             

Our products passed inspection of SGS, FDA, and CE Quality is priority! Every worker keeps the QC from the very beginning to the very end, Quality control department especially responsible for quality checking in each process.

 3 Can your factory print or emboss my logo on the goods?

  Yes, we can print or emboss the logo on the goods or their packing box.

 4 What information should I let you know if I want to get a quotation?

1) The specification of products (length x width x thickness);

2) The temper and alloy.

3) The final product you will use to be made

4 It will be better if you can show us the pictures or design sketch. Samples will be best for clarifying. If not, we will recommend relevant products with details for reference.We usually produce goods based on customers 

Samples or based on customers’ picture, logo, sizes etc.

 

 

 

Q: Can steel H-beams be used in the construction of shopping malls?
Certainly, shopping malls can utilize steel H-beams for construction purposes. Due to their robustness and endurance, steel H-beams are frequently employed within the construction sector. They deliver crucial support to structures and are commonly employed in the erection of extensive edifices, such as shopping malls. Being capable of enduring substantial weights and offering stability, steel H-beams prove to be an excellent option for constructing the framework of shopping malls. Furthermore, steel is an environmentally friendly and cost-efficient material, making it highly favored in commercial construction ventures.
Q: Can steel H-beams be used in cold storage or refrigeration facilities?
Steel H-beams are indeed suitable for use in cold storage or refrigeration facilities. Their strength and durability make them a popular choice in construction. In these facilities, where low temperatures are maintained, steel H-beams offer the necessary structural support. They can withstand the temperature fluctuations and extreme conditions associated with refrigeration, making them highly suitable for these environments. Moreover, steel's excellent thermal conductivity allows for efficient heat transfer, ensuring that the desired temperature levels are maintained in the cold storage or refrigeration facility.
Q: Can steel H-beams be used for transmission towers?
Yes, steel H-beams can be used for transmission towers. Steel H-beams are commonly used in the construction of transmission towers due to their high strength, durability, and ability to withstand heavy loads and harsh weather conditions.
Q: What are the different welding methods for steel H-beams?
There are several different welding methods that can be used for steel H-beams. 1. Shielded Metal Arc Welding (SMAW): Also known as stick welding, SMAW is a common method used for welding H-beams. It involves using a consumable electrode coated in flux, which creates a shield around the weld pool to protect it from contaminants and oxidation. This method is versatile and can be used for welding in various positions and environments. 2. Gas Metal Arc Welding (GMAW): Also known as MIG welding, GMAW uses a continuous solid wire electrode and a shielding gas. This method offers high deposition rates, good weld quality, and can be easily automated. It is commonly used for H-beam welding in fabrication shops. 3. Flux-Cored Arc Welding (FCAW): FCAW is similar to GMAW but uses a tubular electrode filled with flux instead of a solid wire. The flux provides shielding and also contains deoxidizers and other elements to enhance the weld quality. FCAW is known for its high deposition rates and can be used for both indoor and outdoor welding applications. 4. Submerged Arc Welding (SAW): SAW is a highly efficient method that involves feeding a continuous wire electrode into a weld joint while a granular flux is poured over it. The flux covers the weld and prevents atmospheric contamination. SAW is commonly used for heavy-duty applications, such as welding large steel H-beams. 5. Laser Beam Welding (LBW): LBW is a precise and high-energy welding method that uses a focused laser beam to create a weld. It is commonly used for thin steel H-beams and offers excellent control and minimal distortion. However, LBW requires specialized equipment and is typically used in industrial settings. These are just a few of the many welding methods available for steel H-beams. The choice of method depends on factors such as the thickness of the material, desired weld quality, production speed, and available equipment. It is important to select the appropriate welding method based on the specific requirements of the H-beam project.
Q: The difference and use of H type steel steel and steel.
H steel is a kind of economical section steel with better mechanical performance, especially the cross section, which is named after the English letter "H". Its features are as follows:The flange width, lateral stiffness.The bending capacity, than the beam about 5%-10%.The two flange surfaces parallel to each other makes the connection, convenient manufacture and installation.
Q: What is the purpose of using steel H-beams in construction?
In construction, steel H-beams serve the purpose of providing structural support and stability. These beams possess a distinctive "H" shape, enabling them to evenly and efficiently distribute the weight of the building. Renowned for their high strength-to-weight ratio, steel H-beams are an excellent choice for constructing large structures that must endure heavy loads. They find common usage in the construction of bridges, buildings, and various infrastructure projects. The H-shaped design also grants flexibility when connecting different sections, allowing for easy customization and adaptation to specific project requirements. In summary, steel H-beams play a vital role in construction by offering durability, strength, and stability, thereby ensuring the safety and longevity of the supported structures.
Q: How do steel H-beams perform in terms of deflection?
Steel H-beams are renowned for their outstanding performance in deflection. Their distinct shape and structural design grant them a remarkable resistance to bending and deflection. The horizontal flanges and vertical web of the H-beam provide exceptional strength and stiffness, enabling it to endure heavy loads without significant deflection. Compared to materials like wood or concrete, steel H-beams possess a significantly higher modulus of elasticity. As a result, they are less susceptible to bending and sagging under loads, resulting in minimal deflection. Moreover, the wide flanges of the H-beam distribute the load across a larger surface area, further reducing deflection. In addition, steel H-beams are frequently manufactured using premium steel alloys that offer excellent strength-to-weight ratios. This guarantees that the beams can support substantial loads without excessive deflection. In construction projects where deflection is a critical factor, such as bridges or high-rise buildings, steel H-beams are often the preferred choice due to their superior performance in this aspect. Nevertheless, it is essential to acknowledge that deflection can still occur in steel H-beams under extremely heavy loads or when subjected to excessive forces. Proper engineering and structural design, including the selection of the appropriate beam size and reinforcement, are crucial to ensure minimal deflection and maintain structural integrity. To summarize, steel H-beams exhibit exceptional performance in terms of deflection. Their unique shape, high modulus of elasticity, and wide flanges contribute to their superior resistance against bending and sagging. When designed and installed correctly, steel H-beams can effectively support heavy loads while displaying minimal deflection.
Q: Are steel H-beams suitable for structures with dynamic loads?
Structures with dynamic loads can benefit from using steel H-beams. These beams, also referred to as I-beams, are commonly utilized in construction due to their high strength-to-weight ratio, which makes them ideal for supporting heavy loads. The shape of an H-beam provides excellent resistance to bending, making it well-suited for structures experiencing dynamic loads like bridges, cranes, and high-rise buildings. Steel H-beams possess exceptional structural integrity, enabling them to withstand the forces generated by dynamic loads such as vibrations, impacts, and cyclic loading. They are designed to evenly distribute the load along their length, minimizing stress concentrations and preventing deformation or failure. Furthermore, steel is a durable material that exhibits excellent fatigue resistance. This means that H-beams can endure repeated loading and unloading without compromising their mechanical properties. As a result, they are highly suitable for structures that encounter varying or dynamic loads over time. Moreover, steel H-beams can be tailored to meet specific structural requirements, including length, size, and strength. This versatility allows them to be fabricated and connected to form intricate structural systems that efficiently handle dynamic loads. In conclusion, steel H-beams are a reliable and extensively used option in structural engineering for buildings and infrastructure subjected to dynamic loads.
Q: What are the different types of steel H-beam connections for seismic-resistant buildings?
Seismic-resistant buildings can utilize various steel H-beam connections to ensure structural integrity during earthquakes. These connections are specifically designed to withstand the forces and vibrations experienced in such events. Some commonly employed types include: 1. Welded connections: In seismic-resistant buildings, the most prevalent connection type involves welding H-beams together using techniques like fillet or groove welds. Welded connections offer excellent strength and stiffness, making them suitable for seismic applications. 2. Bolted connections: Another option is to join H-beams using bolts and nuts. Bolted connections allow for easy installation and future modifications or repairs, although they may not provide the same level of stiffness as welded connections. 3. Moment connections: Designed to transfer both vertical and horizontal forces between H-beams, moment connections allow rotational movement. These connections are commonly used in beam-to-column joints and enhance resistance against seismic forces by enabling controlled plastic deformation. 4. Shear connections: To transfer vertical loads between H-beams, shear connections are utilized. These connections are designed to resist shearing forces and prevent beam sliding. They play a crucial role in maintaining structural stability during seismic events. 5. Composite connections: Composite connections involve combining steel H-beams with other materials like concrete or timber. This combination enhances strength, stiffness, and ductility, making them suitable for seismic-resistant buildings. 6. Moment-resisting connections: Also known as rigid connections, moment-resisting connections provide high resistance against lateral forces. They maintain rigidity and prevent rotation between H-beams and other structural elements, ensuring stability during seismic events. When selecting and designing steel H-beam connections for seismic-resistant buildings, it is crucial to consult with structural engineers and adhere to local building codes and regulations. The choice of connection type will depend on factors such as building design, anticipated seismic forces, and desired performance level.
Q: How do steel H-beams perform in high wind areas?
Steel H-beams have gained a reputation for possessing exceptional strength and durability, making them a favored option for construction in regions with high wind conditions. These beams are specifically designed to withstand extreme weather, including powerful winds, by providing a sturdy and stable framework for buildings and structures. The structural design of steel H-beams allows for the efficient distribution of wind load throughout the entire structure, which minimizes the potential for any damage. The unique shape of the H-beam enables it to bear heavier loads, as it can better resist the bending and twisting forces caused by high winds. This ensures that the beams remain stable, preventing any structural failures or collapses. Moreover, steel H-beams are commonly crafted from high-strength steel alloys, which further enhances their ability to endure high winds. These alloys possess superior tensile strength and elasticity, enabling the beams to flex and absorb the energy from wind gusts without permanently distorting or fracturing. This flexibility aids in dissipating the force of the wind and reducing overall stress on the structure. Additionally, steel H-beams are frequently installed as part of a comprehensive structural system that incorporates other components, including bracing, connectors, and fasteners. These elements work together to enhance the performance of the beams in high wind regions. Properly engineered connections and bracing systems effectively transfer the wind load to the foundation, ensuring the overall stability and integrity of the structure. In conclusion, steel H-beams are well-suited for regions with high wind conditions due to their strength, rigidity, and durability. Their efficient load distribution capabilities, high-strength alloys, and compatibility with other structural components make them a reliable choice for buildings and structures in areas prone to strong winds.

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