Mild Carbon C Channel
- Loading Port:
- Tianjin Port,China
- Payment Terms:
- TT or LC
- Min Order Qty:
- 50MT m.t.
- Supply Capability:
- 1000 Tons Per Month m.t./month
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Specifications of Mild Carbon C Channel:
1.We supply high quality Mild Carbon C Channel at reasonable price, including Chinese standard, Japanese standard and so on.
Standard | GB/JIS/EN/ASTM/DIN |
Material Grade | Q235B,Q235,Q345,Q345B,SS400,S235JRG1,A36,ST37-2 |
Technique: | Cold Rolled |
Sizes as per chinese standard: |
80×40×20×2.5 - 180×60×20×2.5
|
Sizes as per Japanese standard: |
180×60×20×3 – 300×80×20×3 |
Length: | 6meter, 9meter, 12meter |
Note: we are also competent to provide our customers other Mild Carbon C Channel based on other sizes according to customer’s requirements.
2. The detailed sections of Mild Carbon C Channel as per GB standard.Just as followings in the table-1:
Size | Weight(kg/m) | Size | Weight(kg/m) |
80×40×20×2.5 | 3.925 | 180×60×20×3 | 8.007 |
80×40×20×3 | 4.71 | 180×70×20×2.5 | 7.065 |
100×50×20×2.5 | 4.71 | 180×70×20×3 | 8.478 |
100×50×20×3 | 5.652 | 200×50×20×2.5 | 6.673 |
120×50×20×2.5 | 5.103 | 200×50×20×3 | 8.007 |
120×50×20×3 | 6.123 | 200×60×20×2.5 | 7.065 |
120×60×20×2.5 | 5.495 | 200×60×20×3 | 8.478 |
120×60×20×3 | 6.594 | 200×70×20×2.5 | 7.458 |
120×70×20×2.5 | 5.888 | 200×70×20×3 | 8.949 |
120×70×20×3 | 7.065 | 220×60×20×2.5 | 7.4567 |
140×50×20×2.5 | 5.495 | 220×60×20×3 | 8.949 |
140×50×20×3 | 6.594 | 220×70×20×2.5 | 7.85 |
160×50×20×2.5 | 5.888 | 220×70×20×3 | 9.42 |
160×50×20×3 | 7.065 | 250×75×20×2.5 | 8.634 |
160×60×20×2.5 | 6.28 | 250×75×20×3 | 10.362 |
160×60×20×3 | 7.536 | 280×80×20×2.5 | 9.42 |
160×70×20×2.5 | 6.673 | 280×80×20×3 | 11.304 |
160×70×20×3 | 8.007 | 300×80×20×2.5 | 9.813 |
180×50×20×2.5 | 6.28 | 300×80×20×3 | 11.775 |
180×50×20×3 | 7.536 | ||
180×60×20×2.5 | 6.673 |
Table-1
3. The chemical composition of Mild Carbon C Channel according to Q235B is shown in Table-2.
Alloy No | Grade | Element(%) | ||||
C | Mn | S | P | Si | ||
Q235 | B | 0.12-0.20 | 0.3-0.7 | ≦0.045 | ≦0.045 | ≦0.3 |
Table-2
Note: we are able to present our customers relevant SGS test report for chemical composition of Mild Carbon C Channel.
4. The mechanical property of Mild Carbon C Channel according to Q235B is shown in Table-3-1 and Table-3-2
Alloy No | Grade | Yielding Strength Point(Mpa) | |||
Thickness(mm) | |||||
≦16 | >16-40 | >40-60 | >60-100 | ||
≧ | |||||
Q235 | B | 235 | 225 | 215 | 205 |
Table-3-1
Alloy No | Grade | Tensile Strength(Mpa) | Elongation After Fracture(%) | |||
Thickness(mm) | ||||||
≦16 | >16-40 | >40-60 | >60-100 | |||
≧ | ||||||
G235 | B | 375-500 | 26 | 25 | 24 | 23 |
Table-3-2
Note: we are able to present our customers relevant SGS test report for mechanical property of Mild Carbon C Channel as customer’s request.
Applications of Mild Carbon C Channel:
The Mild Carbon C Channel can be applied to construction of warehouses, workshops, sport stadiums and car parks etc.The hot rolled channel steel belongs to carbon structural steel which is applied to in the field of construction and machinery.In details, the hot rolled channel steel is usually used for arch-itechtural structure, and they could be welded in order to support or hang a vari-ety of facilities. They are also usually used in combination with I beam. Generally,the hot rolled channel steel we supply must possess perfect welding property, riveting property and mechanical property and so on.
Package & Delivery of Mild Carbon C Channel:
1.The hot rolled channel steel will be packed in bundle with steel wire at each end of every bundle and color marking in order to help the customer to recognize his goods more easily at sight.
2. And the hot rolled channel steel could be loaded into 20ft or 40ft container, or by bulk cargo.If the weight of each bundle reaches more than 3.5 mt, the loading by break bulk cargo should be choosed.When the weight of each bundle reaches less than 3mt, the loading by container should be choosed.
3.As for the transportaion from mill to loading port, the truck will be usually used. And the maximum quantity for each truck is 40mt.
4.All in all, we could do in accordance with customer's request.
Production Flow of Mild Carbon C Channel:
1.The steel billet shall be heated in the high temperature furnace.
2. The heated steel billet shall be rolled five to nine times with the aim of shaping the general figure of steel u channel.
3. The hot rolled channel steel should be put onto the cooling bed to make the temperature low.
4. The channel steel should be straighted on the straightener.
5. The straighted channel steel will be cut into meters by saw, as per customer's requirements.
- Q: Can steel channels be used for pipe supports?
- Yes, steel channels can be effectively used for pipe supports. Steel channels have high strength and durability, making them ideal for providing support to pipes. They can be easily fabricated to desired lengths and shapes, allowing for customized pipe support systems. Additionally, steel channels offer excellent load-bearing capacity, ensuring the stability and safety of the pipes. They are resistant to corrosion, which is crucial in environments where pipes are exposed to moisture or harsh chemicals. Overall, steel channels are a reliable and cost-effective choice for pipe supports.
- Q: What are the different methods of protecting steel channels from impact damage?
- There are various approaches to safeguarding steel channels from impact harm. One popular technique is to install protective guards or barriers around the steel channels. These guards can be produced using materials like rubber, foam, or plastic, with the intention of absorbing and dispersing the force of impacts, thereby preventing direct contact with the steel channels. Attachment methods for these guards can include adhesive, fasteners, or other mounting techniques. Another option involves applying a protective coating or paint to the steel channels. This coating serves as a shield between the channel and potential impacts, lessening the risk of damage. The choice of coating depends on the specific environment and level of impact resistance desired. An effective means of protection is to utilize impact-resistant materials during the fabrication of the steel channels. By employing materials with high impact resistance, like hardened steel or composites, the channels become less prone to damage in case of an impact. In certain instances, enhancing the steel channels with additional reinforcement can provide heightened protection against impact harm. This can be achieved by attaching reinforcing plates or brackets, which aid in distributing impact forces and preventing concentration at a single point. Proper installation and maintenance of the steel channels also play a vital role in their protection against impact damage. Ensuring secure fastening and regular inspections to identify any signs of wear or damage can help address potential issues before they escalate. When selecting a method of protection, it is important to consider the specific requirements and environment in which the steel channels will be used. Seeking advice from experts or professionals in the field of steel fabrication and impact protection can provide valuable insights and guidance in choosing the most suitable approach for safeguarding the steel channels.
- Q: What does channel steel look like? Where is it usually used?
- Channel steel is a strip of steel with a cross section. The specifications of the method, such as 120*53*5, mean waist height of 120 mm, leg width of 53 mm channel, waist thickness of 5 mm channel, or called 12# channel. Channel steel is mainly used in building structures, vehicle manufacturing and other industrial structures, and channel steel is often used in conjunction with i-beam.
- Q: What are the different steel channel profiles available?
- There exists a variety of steel channel profiles, each possessing its own unique characteristics and applications. Among the commonly utilized profiles are the C-channel, U-channel, Z-channel, and Hat-channel. The C-channel, or American Standard Channel (ASC), is a versatile profile frequently employed in construction and structural contexts. It features a straight web and flanges of equal length, forming a C-shaped cross-section. C-channels find widespread use as beams, columns, and purlins in building frames. They can also serve as a support for metal decking or as a base for overhead doors. The U-channel, or U-beam/ASC, possesses a U-shaped cross-section with shorter flanges compared to the web. U-channels are often chosen for applications requiring added strength and stability, such as bracing, framework, and support structures. In the automotive industry, they find utility in truck beds, trailers, and vehicle frames. The Z-channel, or Zee/Zed, presents a Z-shaped cross-section with two flanges connected by a web. Construction applications frequently call for Z-channels when two pieces need to be joined, such as in wall studs, roof framing, and floor joists. They can also function as a support for wall panels or cladding systems. The Hat-channel, or furring channel, is a thin-gauge steel profile featuring a wide, flat top and two short, parallel legs. Hat-channels are commonly employed as a support for drywall or other cladding materials in ceiling and wall applications. They provide a secure and stable base for attaching panels, and can contribute to soundproofing and insulation in buildings. These examples represent only a fraction of the steel channel profiles accessible on the market. The selection of a profile hinges on specific requirements, including load-bearing capacity, structural stability, and compatibility with other building components. It is advisable to consult with a structural engineer or supplier to identify the most suitable steel channel profile for a given project.
- Q: What are the different cutting techniques for steel channels?
- Steel channels can be cut using various techniques, depending on specific requirements and available equipment. Common cutting methods for steel channels include: 1. Shearing: Straight lines in steel channels can be quickly and efficiently cut using tools like shears or guillotines. 2. Plasma cutting: Cutting through steel channels is achieved by utilizing a high-velocity plasma jet that melts and cuts the material. This technique is suitable for both straight lines and complex shapes. 3. Laser cutting: A precise and clean cut is achieved by employing a high-powered laser beam that melts and vaporizes the steel channel. Laser cutting is commonly used for intricate and detailed cuts. 4. Waterjet cutting: A high-pressure jet of water mixed with abrasives is used to cut through the steel channel. This technique is capable of handling different materials and thicknesses, providing accurate cuts. 5. Sawing: Steel channels are cut using saw blades with teeth, such as band saws or circular saws, depending on the thickness and size of the channel. 6. Flame cutting: Also known as oxy-fuel cutting, this method involves using a fuel gas and oxygen flame to heat and melt the steel channel. A jet of pure oxygen is then used to blow away the molten metal. Flame cutting is effective for cutting thick steel channels and is commonly used in heavy-duty applications. Each cutting technique offers distinct advantages and limitations, depending on factors such as desired cut quality, speed, precision, and material thickness. It is crucial to consider these factors and select the appropriate cutting technique for the specific application.
- Q: How do steel channels perform in high-vibration areas?
- Steel channels are renowned for their exceptional strength and durability, rendering them suitable for a multitude of applications. In areas characterized by high levels of vibration, steel channels exhibit exceptional performance owing to their inherent stiffness and rigidity. The presence of vibration can induce structural instability and harm weaker materials; however, steel channels possess the capability to efficiently absorb and dissipate vibrations. This attribute is particularly crucial in settings such as industrial facilities, bridges, and heavy machinery installations, where vibrations are frequently encountered. Steel channels are designed to resist deformation and maintain their shape when subjected to dynamic loads, including vibrations. They boast high torsional and bending stiffness, thereby minimizing deflection and preserving structural integrity. Consequently, these channels can endure constant and repetitive vibrations without compromising their performance. Furthermore, vibration dampening techniques can be employed to further enhance steel channels. These techniques involve the utilization of specialized materials or coatings specifically crafted to absorb and diminish vibrations. By incorporating such measures, steel channels effectively alleviate excessive vibrations, ensuring the safety and longevity of the structure. In conclusion, steel channels are an exceptional choice for areas prone to high levels of vibration due to their innate strength, rigidity, and capacity to absorb vibrations. Their superior performance under dynamic loads, coupled with the potential utilization of vibration dampening techniques, renders them a reliable and enduring solution in such environments.
- Q: How do steel channels contribute to the stability of a structure during high winds?
- There are several ways in which steel channels contribute to the stability of a structure during high winds. To begin with, they provide support and reinforcement to the overall framework of a building. Typically used as beams or columns, steel channels are strong and rigid, effectively distributing the forces exerted by high winds throughout the structure. This prevents the building from swaying or collapsing under the intense wind pressure. Moreover, steel channels have excellent resistance to bending and torsion, enabling them to withstand the dynamic loads associated with high winds. Their robustness ensures that the structure remains intact and maintains its shape even when faced with strong gusts. Strategically positioning steel channels in critical areas of a building, such as corners or near openings, further enhances its stability during high winds. By reinforcing these vulnerable points, the channels minimize the risk of structural failure or damage. Furthermore, steel channels are often combined with other structural elements, such as braces or cross beams, to create a more rigid and stable framework. This combination of different structural components effectively increases the overall strength and resilience of the building, providing further protection against the impact of high winds. In summary, the role of steel channels in ensuring the stability of a structure during high winds is crucial. Their strength, rigidity, and ability to distribute and withstand forces contribute to the overall structural integrity, preventing the building from being compromised by strong winds and ensuring the safety of its occupants.
- Q: Are steel channels suitable for load-bearing walls?
- Typically, steel channels are not suitable for load-bearing walls. These walls are designed to bear the weight of a building or other structural elements, so they require materials that possess high compressive strength and stability. Steel channels, also referred to as C-channels or U-channels, are commonly utilized for non-structural purposes such as framing and supporting secondary components like cladding or drywall. They lack the necessary structural properties to withstand heavy loads and may not provide the required stability and rigidity. Load-bearing walls are typically constructed using materials like concrete, masonry, or steel beams that are specifically engineered to handle the forces involved in supporting a structure.
- Q: Can steel channels be used for conveyor systems?
- Certainly, conveyor systems can utilize steel channels. The utilization of steel channels in conveyor systems is widespread owing to their robustness, longevity, and adaptability. They furnish a solid framework for bolstering and directing the conveyor belt or other transported materials. Furthermore, steel channels can be effortlessly customized and incorporated into conveyor systems, thanks to their compatibility with diverse components and accessories like rollers, brackets, and supports. Moreover, steel channels exhibit resistance against wear, corrosion, and harm, thus rendering them suitable for demanding and rigorous applications.
- Q: Are steel channels suitable for swimming pool installations?
- Swimming pool installations do not lend themselves well to steel channels. Usually utilized for structural support or as a framework for substantial constructions such as bridges or buildings, steel channels lack the necessary qualities for swimming pool installations. In contrast, concrete or fiberglass materials are commonly employed due to their resilience, waterproof characteristics, and capacity to endure continuous contact with water and chemicals. Specifically engineered for swimming pool installations, these materials guarantee a dependable and enduring solution.
1. Manufacturer Overview
Location | Tianjin,China |
Year Established | 2006 |
Annual Output Value | Above US$ 500 Million |
Main Markets | China; Middle East; Southeast Asia; South America |
Company Certifications |
2. Manufacturer Certificates
a) Certification Name | |
Range | |
Reference | |
Validity Period |
3. Manufacturer Capability
a) Trade Capacity | |
Nearest Port | Tianjin |
Export Percentage | 40%-60% |
No.of Employees in Trade Department | 11-20 People |
Language Spoken: | English; Chinese |
b) Factory Information | |
Factory Size: | Above 50,000 square meters |
No. of Production Lines | Above 3 |
Contract Manufacturing | materials for processing; OEM Service Offered |
Product Price Range | Average |
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Mild Carbon C Channel
- Loading Port:
- Tianjin Port,China
- Payment Terms:
- TT or LC
- Min Order Qty:
- 50MT m.t.
- Supply Capability:
- 1000 Tons Per Month m.t./month
OKorder Service Pledge
OKorder Financial Service
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