• Hot Rolled Galvanized Lip C Channel Steel Q195-Q235 System 1
  • Hot Rolled Galvanized Lip C Channel Steel Q195-Q235 System 2
Hot Rolled Galvanized Lip C Channel Steel Q195-Q235

Hot Rolled Galvanized Lip C Channel Steel Q195-Q235

Ref Price:
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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
4000 PCS
Supply Capability:
38000 PCS/month

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Hot Rolled Galvanized Lip C Channel Steel Q195-Q235 Details

Standard:

AISI,ASTM,BS,DIN,GB,JIS

Dimensions:

150*75*25*3.0mm

Grade:

carbon steel

Place of Origin:

China (Mainland)

Brand Name:

CNBM

Model Number:

150mm*75mm*25mm*3.0mm

Shape:

C Channel

Application:

construction structure

Perforated Or Not:

Not Perforated

Grade::

Q235,Q195,Q345,SS400,A36

Length:

3m, 6m, 9m, 12m, or as your request

Standard:

GB/ JIS

Size::

80*50mm--240*80mm

Surface::

Perfect/ Galvanized/ oiled/ painted/ make holes

Technique:

Hot rolled/ cold rolled


Packaging & Delivery

Packaging Detail:standard seaworthy packing or as your requirements.
Delivery Detail:within 25- 35 days after signing the contract


Hot Rolled Galvanized Lip C Channel Steel Q195-Q235  Specification

StandardAISI,ASTM,GB,JIS,DIN
GradeQ195, Q215, Q235, ETC
Thickness1.0-4.0mm
Width30-350mm
Depth15-110mm
Lip Width10-30mm
SurfaceBalce or Galvanized
usagewidely used in the purlin and wall beam of steel structure building, can be combined to make light weight roof truss, brecket, construction component, can be used in the production of beams and column, arm, in light industry machinery, etc.


Hot Rolled Galvanized Lip C Channel Steel Q195-Q235 Pictures






Q: What does channel C20 mean?
Channel steel is divided into ordinary channel steel and light channel steel. Standard Specification for hot-rolled plain channel steel is 5-40#. Specifications for hot rolled flexible channel steel supplied by supply and demand agreement are 6.5-30#. Channel steel is mainly used for building structures, vehicle manufacturing, other industrial structures and fixed plates, cabinets, etc., and channel steel is often used in conjunction with i-beam.
Q: How do steel channels contribute to earthquake resistance in buildings?
Steel channels contribute to earthquake resistance in buildings in several ways. Firstly, steel channels are commonly used as structural members in building frames. They provide strength and rigidity to the overall structure, which helps to resist the lateral forces generated during an earthquake. These lateral forces, also known as seismic forces, can cause buildings to sway and deform. By using steel channels, the building's frame becomes more resistant to these forces, reducing the risk of collapse. Secondly, steel channels can be strategically placed in key areas of the building to enhance its seismic performance. For example, they can be used as braces or shear walls to provide additional support and stability. Bracing systems made of steel channels help to distribute the seismic forces throughout the structure, preventing concentrated stress points and improving overall structural integrity. Moreover, steel channels can be integrated into the foundation of the building to enhance its resilience against ground motion during an earthquake. By connecting the foundation to the superstructure using steel channels, the building's ability to absorb and dissipate seismic energy is improved. This helps to minimize the transfer of forces to the building, reducing the potential for damage. Additionally, steel channels offer ductility, which is crucial for earthquake resistance. Ductility refers to the ability of a material to deform without breaking. During an earthquake, buildings experience significant stress and deformation. Steel channels have the capacity to absorb this energy and deform without losing their structural integrity. This ductile behavior prevents sudden failure and allows the building to undergo controlled and controlled deformation, thereby enhancing its overall seismic performance. In conclusion, steel channels play a vital role in enhancing earthquake resistance in buildings. Their strength, rigidity, strategic placement, integration into the foundation, and ductility all contribute to improving the structural integrity and resilience of a building during seismic events. By incorporating steel channels into the design and construction of buildings, the risk of collapse and damage due to earthquakes can be significantly reduced.
Q: Are steel channels available in custom sizes and shapes?
Yes, steel channels are available in custom sizes and shapes to meet specific project requirements.
Q: 14 of channel steel and 12 of I-beam which force?
The mechanical parameters of 14 channel steel are larger than that of 12, including the moment of inertia, the radius of inertia and the coefficient of cross section. Therefore, the same length of 14 channel steel can bear a greater force.
Q: How do steel channels contribute to sustainable building practices?
There are several ways in which steel channels contribute to sustainable building practices. Firstly, these channels are made from recycled materials, with steel being one of the most recycled materials globally, boasting an average recycled content of 90%. By utilizing steel channels, we effectively reduce the demand for new raw materials and conserve precious natural resources. Consequently, this helps to minimize the environmental impact of construction activities. Secondly, steel channels possess exceptional durability and longevity. They boast a high strength-to-weight ratio, meaning that less material is required to achieve the same level of structural integrity when compared to alternative materials. This, in turn, results in reduced material consumption and generates less waste during the construction process. Moreover, the extended lifespan of steel channels means that buildings constructed with these materials require minimal maintenance and repair, thereby reducing the need for additional resources in the future. Moreover, steel channels offer remarkable versatility and can be easily repurposed or reused. When a building reaches the end of its life cycle, salvaging and recycling steel channels contributes to the principles of a circular economy. This, in turn, reduces the quantity of waste sent to landfills while reducing the energy required for the production of new materials. Furthermore, the incorporation of steel channels in construction enables efficient design and construction practices. These channels can be prefabricated off-site, significantly reducing construction time and minimizing disruption to the surrounding environment. Additionally, the lightweight nature of steel channels facilitates easier transportation, thereby reducing carbon emissions associated with transportation and logistics. In conclusion, steel channels play a vital role in sustainable building practices by promoting resource conservation, waste reduction, and energy efficiency. Their recyclability, durability, and versatility make them an environmentally friendly choice for construction projects, ultimately contributing to the development of a greener and more sustainable built environment.
Q: How are steel channels used in the construction of stadiums or arenas?
Stadiums and arenas commonly utilize steel channels due to their robustness, adaptability, and longevity. These C-shaped channels, typically constructed from steel, serve various purposes throughout the construction process. A key application of steel channels in stadium or arena construction is their use as a source of structural support. These channels can function as beams or columns, imparting strength and stability to the overall framework. They are often employed in conjunction with other steel components to form a robust structure capable of withstanding the weight of the roof, seating areas, and other elements. Steel channels also find utility in the construction of bleachers or seating sections. They can be installed horizontally to establish a sturdy foundation for the seating structure or vertically to create individual seat frames. The durability of steel channels ensures that the seating areas can bear the weight of large crowds without compromising safety. Aside from providing structural support and seating, steel channels serve various other purposes in stadium or arena construction. They can function as rails, handrails, or guardrails, ensuring the safety and support of spectators. Additionally, they can serve as frames for doors, windows, or other openings in the building. The versatility of steel channels enables their application in a wide range of configurations, making them a favored choice in stadium or arena construction. All in all, steel channels play a vital role in the construction of stadiums or arenas. Their strength, versatility, and durability make them an ideal choice for providing structural support, creating seating areas, and implementing various other applications throughout the building.
Q: How do steel channels contribute to the overall acoustics of a building?
The overall acoustics of a building can be significantly affected by steel channels. These channels are commonly used as structural components in the construction of walls, ceilings, and floors. The manner in which these channels are installed and connected in a building can impact the way sound travels through the space. One way in which steel channels impact the acoustics of a building is by offering a rigid structure that aids in controlling sound transmission. When installed correctly, steel channels can decrease the transfer of sound vibrations between different areas of the building. This is particularly important in spaces where privacy and noise control are crucial, such as offices, conference rooms, or residential units. Furthermore, steel channels can be utilized to establish acoustic isolation between different rooms or floors. By suspending ceilings or creating floating floors using steel channels, vibrations and impact noise can be minimized. This is especially vital in spaces where activities such as music recording, theaters, or classrooms take place, as it assists in preventing unwanted noise from traveling between rooms. Additionally, steel channels can enhance the sound quality within a space by providing a sturdy mounting surface for acoustical treatments such as sound-absorbing panels, diffusers, or bass traps. These treatments can be strategically positioned on the steel channels to enhance the overall clarity and balance of sound within a room, reducing echoes and reverberations. In conclusion, steel channels play a critical role in the overall acoustics of a building by controlling sound transmission, providing acoustic isolation, and allowing for the integration of acoustical treatments. Proper utilization of steel channels during the construction process can help create a comfortable, functional, and acoustically optimized environment for various applications.
Q: Are steel channels resistant to corrosion?
Yes, steel channels are generally resistant to corrosion. They are commonly made from stainless steel or galvanized steel, both of which have protective coatings that provide excellent resistance against rust and corrosion.
Q: What are the different methods of strengthening steel channels?
There are several different methods of strengthening steel channels, each with its own advantages and applications. 1. Heat Treatment: This is a common method of strengthening steel channels. By subjecting the channels to high temperatures and then cooling them rapidly, a process known as quenching, the steel undergoes a phase change, resulting in increased hardness and strength. This method is effective in improving the overall strength and wear resistance of the channels. 2. Alloying: By adding specific alloying elements such as manganese, chromium, or nickel to the steel, its strength and toughness can be enhanced. Alloying enables the steel channels to withstand higher loads and resist deformation, making them suitable for applications requiring high-strength materials. 3. Cold Working: This method involves subjecting the steel channels to mechanical deformation at room temperature, such as rolling or drawing. Cold working induces strain hardening, which increases the strength and hardness of the material. Cold worked steel channels are commonly used in construction and structural applications. 4. Shot Peening: Shot peening involves bombarding the surface of the steel channels with small metal pellets at high velocities. This process induces compressive residual stresses, which help to strengthen the channels and increase their fatigue resistance. Shot peening is often used in applications where cyclic loading and fatigue are a concern. 5. Carbonitriding: Carbonitriding is a case-hardening process that involves introducing carbon and nitrogen into the surface layer of the steel channels. This creates a hardened outer layer with increased wear resistance, while maintaining a tough and ductile core. Carbonitriding is commonly used in applications requiring both strength and wear resistance, such as gears and camshafts. 6. Welding: Welding can be used to strengthen steel channels by creating fusion between the base metal and filler material. This process results in a joint that is as strong as the base metal itself. However, proper welding techniques and procedures must be followed to ensure the strength and integrity of the joint. These are just a few of the different methods available to strengthen steel channels. The choice of method depends on the specific requirements of the application, such as the desired strength, hardness, wear resistance, and ductility.
Q: What are the different methods for transporting and handling steel channels?
There are several methods for transporting and handling steel channels, including the use of forklifts, cranes, overhead lifting devices, and manual labor. Forklifts are commonly used for moving and transporting steel channels within a facility or loading them onto trucks for transportation. Cranes are used for lifting and moving heavier or larger steel channels, especially in construction sites. Overhead lifting devices, such as hoists or slings, can also be used to handle steel channels. Additionally, manual labor can be employed for smaller or lighter steel channels, where workers can manually carry or push them into place. The specific method chosen depends on the size, weight, and location of the steel channels, as well as the available equipment and resources.

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