• Hot Rolled Channel Steel Module of A36 SS400 S235 System 1
  • Hot Rolled Channel Steel Module of A36 SS400 S235 System 2
Hot Rolled Channel Steel Module of A36 SS400 S235

Hot Rolled Channel Steel Module of A36 SS400 S235

Ref Price:
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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
4000 PCS
Supply Capability:
250000 PCS/month

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Hot Rolled Channel Steel Module of A36 SS400 S235 Details

Standard:

AISI,ASTM,BS,DIN,GB,JIS

Dimensions:

50*37*4.5mm-400*104*14.5

Grade:

A36 SS400 S235JR Q235 Q345

Place of Origin:

China (Mainland)

Brand Name:

CNBM

Model Number:

channel steel A36 SS400 S235JR

Shape:

U Channel, U Channel

Application:

construction material or bracket

Perforated Or Not:

Not Perforated

Length:

5-12m

payment term:

T/T.L/C. D/A, D/P and so on

Ceritificates:

CIQ and Mill Certificates

experience:

10 years

Weight:

5.438-71.488kg/m

Web Thickness:

4.5-14.5mm

Depth:

50-400mm

Flange Width:

37-104mm





Packaging & Delivery

Packaging Detail:Export standard packing in mill or as request
Delivery Detail:within 15-30 days after receiving original L/C or deposit



Hot Rolled Channel Steel Module of A36 SS400 S235 Specifications

  • Dimensions: 50*37*4.5mm-400*104*14.5

  • Standard:AISI, ASTM, BS, DIN, GB, JIS

  • Grade:Q235/Q345,SS400, A36/A572/992,Gr50,S235JRG2,S235/S275/S335JR,ect 

  • Depth: 50-400mm

  • Flange Width: 37-104mm

  • Web Thickness: 4.5-14.5mm

  • Weight: 5.438-71.488kg/m

  • Length:5-12m 

  • Packaging Details: Export standard packing in mill or as request

  • Delivery: within 15-30 days after receiving original L/C at sight or deposits

  • MOQ:5 MT



Hot Rolled Channel Steel Module of A36 SS400 S235 Pictures











Q: Can steel channels be used for cable tray systems?
Steel channels are indeed suitable for cable tray systems. They offer a sturdy and long-lasting support structure for cable trays. Typically manufactured from galvanized steel, they possess exceptional resistance to corrosion, making them suitable for various indoor and outdoor uses. Furthermore, their high load-bearing capacity allows them to bear heavy cable loads without experiencing any deformation or failure. Moreover, steel channels can be effortlessly fabricated and tailored to meet specific project needs, such as varying widths, depths, and lengths. In conclusion, steel channels are a dependable and extensively utilized option for cable tray systems.
Q: How do you calculate the section modulus for steel channels?
In order to determine the section modulus of steel channels, one must take into account the geometric properties of the channel's cross-section. The section modulus, which measures a shape's ability to resist bending, is instrumental in determining the channel's strength and stiffness. To calculate the section modulus of a steel channel, utilize the following formula: Z = (b * h^2) / 6 In this equation, Z represents the section modulus, b refers to the channel's width, and h denotes the channel's height. Begin by measuring the width and height of the steel channel. The width typically corresponds to the distance between the flanges, while the height pertains to the dimension perpendicular to the flanges. Subsequently, insert the values of b and h into the formula and compute the section modulus. The outcome will provide a value indicative of the steel channel's resistance to bending. Generally, a higher section modulus indicates a stronger and stiffer channel. It is important to acknowledge that section modulus calculations are grounded in assumptions of elastic behavior and linear stress distribution. For more precise outcomes, it is advisable to consult engineering design manuals or seek guidance from a structural engineer who can account for additional factors like material properties and loading conditions.
Q: Can steel channels be used for machinery framing?
Yes, steel channels can be used for machinery framing. Steel channels provide structural support and stability, making them suitable for framing machinery and equipment. They have high strength, durability, and can withstand heavy loads, making them an ideal choice for machinery framing applications.
Q: What are the different surface treatments available for steel channels?
There are several surface treatments available for steel channels, each designed to enhance the appearance and performance of the material. Some of the most common surface treatments for steel channels include: 1. Galvanization: This process involves coating the steel channel with a layer of zinc, which provides protection against corrosion. Galvanized steel channels are highly durable and can withstand exposure to harsh weather conditions, making them ideal for outdoor applications. 2. Powder coating: Powder coating involves applying a dry powder to the surface of the steel channel, which is then heated and cured to create a smooth, durable finish. This treatment provides excellent protection against corrosion, impact, and scratches, while also offering a wide range of color options. 3. Painting: Painting is a cost-effective surface treatment option that involves applying a layer of paint to the steel channel. This treatment not only enhances the appearance of the material but also provides protection against corrosion and environmental factors. 4. Anodizing: Anodizing is commonly used for aluminum channels, but it can also be applied to steel channels. This process creates a layer of oxide on the surface of the steel, which improves corrosion resistance and provides an aesthetically appealing finish. 5. Epoxy coating: Epoxy coating involves applying a layer of epoxy resin to the steel channel, which provides exceptional corrosion resistance and chemical resistance. This treatment is often used in industrial settings where the channels are exposed to harsh chemicals or extreme conditions. 6. Hot-dip coating: Hot-dip coating is similar to galvanization but involves immersing the steel channel in a molten zinc bath. This process creates a thick layer of zinc coating, offering enhanced corrosion protection and durability. It is important to consider the specific requirements and application of the steel channel when selecting a surface treatment. Each treatment has its own advantages and limitations, and choosing the right one will ensure the longevity and performance of the steel channel.
Q: How do steel channels perform in terms of earthquake resistance?
Steel channels are known for their excellent earthquake resistance. Due to their shape and design, steel channels can effectively distribute and dissipate seismic forces, making them highly resistant to earthquakes. The structural integrity of steel channels allows them to withstand the lateral forces, vibrations, and ground accelerations that occur during an earthquake. Moreover, steel channels have the ability to flex and bend without breaking, which helps absorb and dissipate the energy generated by seismic activity. This flexibility allows the channels to maintain their stability and prevent structural failure during an earthquake. Overall, steel channels are considered a reliable and durable choice for earthquake-resistant construction due to their ability to withstand and mitigate the effects of seismic forces.
Q: Are steel channels suitable for residential construction?
Yes, steel channels are suitable for residential construction. They provide strength, durability, and stability to structures, making them an ideal choice for framing, support beams, and other load-bearing applications in residential buildings. Additionally, steel channels offer design flexibility, fire resistance, and are resistant to pests and rot, making them a reliable and efficient option for residential construction.
Q: How do steel channels contribute to thermal insulation?
Steel channels do not contribute to thermal insulation. In fact, they have a high thermal conductivity, which means they can conduct heat easily.
Q: What are the design considerations when using steel channels?
When using steel channels in design, there are several important considerations to take into account. Firstly, the load-bearing capacity of the steel channel must be carefully calculated. This involves determining the maximum load that the channel will be subjected to, and ensuring that the selected channel size and shape can adequately support this load without deformation or failure. This requires considering factors such as the material strength, cross-sectional shape, and size of the channel. Another crucial consideration is the structural stability of the steel channel. It is important to assess whether the channel will be subject to any external forces or vibrations, and to design the channel in such a way that it can resist these forces without buckling or collapsing. This may involve incorporating reinforcements or bracing elements to enhance the stability of the channel. In addition, the environmental conditions in which the steel channel will be used should be taken into consideration. Factors such as temperature fluctuations, exposure to corrosive substances, or potential for moisture accumulation can all impact the performance and durability of the steel channel. Appropriate measures, such as protective coatings or material selection, should be implemented to ensure the channel's long-term functionality and integrity. Furthermore, the ease of fabrication, installation, and maintenance should be considered when designing with steel channels. The selected channel size and shape should be compatible with standard manufacturing processes and construction techniques, and should allow for efficient installation in the desired application. Additionally, considerations should be made for any potential future maintenance requirements, such as accessibility for repairs or modifications. Lastly, the aesthetic and architectural requirements of the project should not be overlooked. Steel channels can be used as architectural elements, and their design should be in harmony with the overall aesthetic vision of the project. This may involve selecting a specific finish or surface treatment that aligns with the desired appearance. Overall, the design considerations when using steel channels encompass load-bearing capacity, structural stability, environmental conditions, fabrication and installation feasibility, maintenance requirements, and aesthetic compatibility. By carefully addressing these factors, designers can ensure the successful implementation of steel channels in their projects.
Q: What is the difference between U steel and channel steel?
U steel (full name: hot rolled U steel for mine roadway support)U steel is a steel English like the letter "U" with a cross section, sometimes with a cross section of Japanese letters "better" shape.Main features: large pressure, long support time, easy installation, not easy to deformation and so on.Main uses: mainly used in mine roadway, roadway support, and two times of the tunnel supporting etc..As the main shape steel for the retractable metal support of tunnel, U steel is widely used at home and abroad.
Q: How do steel channels contribute to earthquake resistance?
Steel channels contribute to earthquake resistance in several ways. First, they provide structural support and reinforcement to buildings and structures. Steel channels are often used in the construction of frames, beams, and columns, which are critical load-bearing components. These channels help distribute the forces generated during an earthquake evenly, minimizing the risk of structural failure. Additionally, steel channels have high tensile strength, which means they can withstand large amounts of stress and deformation without breaking. During an earthquake, buildings and structures experience lateral forces and vibrations. Steel channels, due to their strength, can absorb and dissipate these forces, preventing excessive movement and damage. Moreover, steel channels can be used to create robust connections between different structural elements. This is crucial for earthquake resistance as it helps maintain the integrity of the overall structure. By using steel channels to connect beams, columns, and other components, engineers can ensure that the structure remains stable and can withstand the dynamic forces induced by an earthquake. Furthermore, steel channels are highly ductile, meaning they can bend and deform without fracturing. This property is crucial during seismic events as it allows the steel channels to absorb and dissipate energy, reducing the impact on the surrounding structure. By absorbing and redistributing the seismic forces, steel channels help prevent concentrated stresses that could lead to failure. Overall, steel channels contribute to earthquake resistance by providing structural support, distributing forces evenly, absorbing and dissipating energy, and creating robust connections. Their high strength, ductility, and ability to withstand large amounts of stress make them a vital component in earthquake-resistant construction.

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