• Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project System 1
  • Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project System 2
  • Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project System 3
Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project

Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
25 m.t.
Supply Capability:
20000 m.t./month

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Production Standard:
GB/T2101—89;GB9787—88/GB9788—88;JISG3192—94;DIN17100—80;GOCT535—88
General Specification:
Size (mm)Weight (kg/m)Size (mm)Weight (kg/m)Size (mm)Weight (kg/m)Size (mm)Weight (kg/m)
25*31.12470*55.397100*69.36670*45*43.57
     25*41.45970*66.406100*812.27670*45*54.403
30*31.37370*77.398100*1015.1270*45*65.218
30*41.78670*88.373100*1217.898100*80*68.35
40*31.85275*55.818110*813.532100*80*79.656
40*42.42275*66.905110*1016.69100*80*810.946
40*52.97675*77.976110*1219.782110*70*810.946
50*43.05975*89.03110*1422.809110*70*1013.476
50*53.7775*1011.089125*815.504140*90*814.16
50*64.46580*67.376125*1019.133140*90*1017.475
60*54.5780*89.658125*1222.696140*90*1220.724
60*65.4280*1011.874125*1426.193160*100*1223.592
63*54.82290*810.946140*1021.488160*100*1427.247
63*65.72190*1013.476140*12200*125*1229.761
63*87.46990*1215.94200*125*1434.436

 

Q:Are steel angles suitable for mezzanine floor construction?
Yes, steel angles are suitable for mezzanine floor construction. Steel angles provide structural support and stability, making them a popular choice for building mezzanine floors. They are strong, durable, and can withstand heavy loads, making them an ideal choice for creating additional floor space in industrial or commercial settings.
Q:Can steel angles be used in the construction of religious institutions?
Certainly, religious institutions can utilize steel angles in their construction projects. Given their strength, versatility, and durability, steel angles are widely employed in various construction endeavors. They not only provide structural support but can also be applied in framing, roofing, and reinforcing, among other applications. In the context of erecting religious institutions, steel angles can serve as the foundation for walls, roofs, and floors, while also lending support to architectural elements like domes or spires. Moreover, steel angles can be easily fabricated and tailored to meet specific design specifications. In summary, the use of steel angles in constructing religious institutions ensures the resilience and longevity of the edifice, while allowing for artistic ingenuity and adaptability.
Q:How do steel angles perform under cyclic or alternating loading conditions?
Steel angles possess excellent performance characteristics under cyclic or alternating loading conditions because of their structural properties. The durability and high strength of steel are renowned, enabling angles to endure repeated loading without significant deformation or failure. Fatigue, a phenomenon that transpires when a material experiences recurring stress cycles, is observed in steel angles under cyclic loading. This leads to the accumulation of damage and potential failure over time. Nevertheless, steel has an exceptional fatigue strength compared to other materials, rendering it highly resistant to fatigue-induced failure. The performance of steel angles under cyclic loading is also influenced by their distinctive shape. The L-shaped configuration adds to their stability and ability to withstand bending or twisting forces. This form facilitates the dispersion of the load more evenly along the angle's length, reducing stress concentrations and enhancing its fatigue life. Moreover, steel angles can be reinforced using diverse techniques, such as heat treatment or surface hardening. These processes enhance the material's resistance to cyclic loading, making it even more proficient in enduring repeated stress cycles. In summary, steel angles are ideal for cyclic or alternating loading conditions due to their remarkable strength, durability, and fatigue resistance. Their L-shaped design and potential for reinforcement make them dependable structural components in various fields, encompassing construction, engineering, and manufacturing.
Q:Can steel angles be used for framing or supporting exterior façade elements?
Yes, steel angles can be used for framing or supporting exterior façade elements. Steel angles provide structural support and stability, making them suitable for framing and supporting various components of an exterior façade, such as windows, doors, cladding, and signage. They offer strength, durability, and versatility, making them a popular choice in architectural and construction applications.
Q:How do you determine the appropriate length of a steel angle for a specific application?
Determining the appropriate length of a steel angle for a specific application involves considering several factors. Firstly, you need to assess the structural requirements of the application. This includes analyzing the loads and forces that the steel angle will be subjected to. You should determine the maximum load capacity the steel angle needs to support and ensure that its length can adequately distribute the load without excessive deflection or failure. Secondly, you should consider the dimensions and layout of the application. Measure the available space and determine how the steel angle will fit within the overall structure. Consider any constraints such as adjacent components or obstructions that might affect the length of the steel angle. Next, you should consult relevant engineering and construction standards. Codes and guidelines provide recommended design values and specifications for steel angles based on their intended use. These standards can help you determine the appropriate length based on the application requirements and the material properties of the steel angle. Additionally, it is important to consider the fabrication and installation process. Evaluate the manufacturing capabilities and limitations, as well as any specific requirements for joining or fastening the steel angle. This will help determine if the desired length is feasible and practical in terms of fabrication and installation methods. Finally, it is advisable to consult with a structural engineer or a qualified professional in the field. They can provide expert advice and calculations based on the specific application, ensuring that the chosen length of the steel angle meets all necessary safety and performance requirements. In conclusion, determining the appropriate length of a steel angle for a specific application involves analyzing the structural requirements, considering the dimensions and layout, referring to relevant standards, evaluating fabrication and installation processes, and seeking professional guidance when needed.
Q:What are the design considerations for incorporating steel angles into a structure?
When incorporating steel angles into a structure, several design considerations need to be taken into account. First and foremost, the load-bearing capacity of the steel angles must be carefully assessed to ensure they can support the intended loads. The dimensions and thickness of the angles should be determined based on the structural requirements and anticipated stress levels. Additionally, the connection details between the steel angles and other structural elements need to be carefully designed to ensure they provide sufficient strength and rigidity. Considerations should include the type of fasteners, welding techniques, and any additional reinforcement required to achieve the desired structural integrity. Furthermore, factors such as corrosion protection, fire resistance, and durability should also be considered during the design process. Appropriate measures should be taken to prevent rust and corrosion on the steel angles, such as applying protective coatings or using stainless steel. Fire-resistant coatings or fireproofing materials may also be necessary, depending on the building's fire safety requirements. Lastly, aesthetics and architectural considerations may come into play when incorporating steel angles into a structure. The design should take into account the desired visual appearance, whether the angles will be exposed or concealed, and how they will integrate with the overall architectural style. In conclusion, the design considerations for incorporating steel angles into a structure involve assessing load-bearing capacity, connection details, corrosion protection, fire resistance, durability, and aesthetic integration.
Q:How do you protect steel angles from moisture?
There are several measures you can take to protect steel angles from moisture: 1. Applying a protective coating is a highly effective method. By using paint or primer, you create a barrier that prevents direct contact between the steel and moisture, thus avoiding potential corrosion. 2. Another option is galvanization. This involves coating the steel angles with a layer of zinc, which provides excellent protection against moisture. This process creates a sacrificial layer that corrodes before the steel, extending its lifespan. 3. Implementing proper drainage systems is crucial. By installing gutters, downspouts, or using sloping surfaces, you can ensure water does not accumulate around the steel angles, preventing prolonged exposure to moisture. 4. Regular inspection and maintenance are essential. Keep an eye out for signs of moisture buildup, rust, or damage on the steel angles. Take immediate action by cleaning, repairing, or applying additional protective coatings to prevent moisture from seeping in. 5. Consider using moisture-absorbing materials such as desiccants or silica gel packs in the vicinity of steel angles. These materials help reduce humidity levels and prevent moisture buildup. 6. If the steel angles are located in an enclosed space, controlling humidity levels is crucial. Ensure proper ventilation and use dehumidifiers or fans to reduce moisture and prevent condensation on the steel surfaces. By following these preventive measures, you can effectively safeguard steel angles from moisture, increasing their lifespan and preventing corrosion.
Q:What is the carbon content of steel angles?
The carbon content of steel angles can vary depending on the specific grade or type of steel, but typically ranges from 0.05% to 0.25%.
Q:How do steel angles perform in chemical industry applications?
Steel angles are widely used in chemical industry applications due to their excellent performance in corrosive environments. These angles, made of high-strength steel, exhibit exceptional resistance to chemicals, acids, and other corrosive substances commonly found in the chemical industry. The chemical industry often involves the handling and processing of various chemicals, which can lead to corrosion and degradation of structural materials. Steel angles, with their high corrosion resistance, provide a reliable and durable solution in such environments. Moreover, steel angles offer excellent load-bearing capacity and structural stability, making them ideal for supporting heavy equipment, tanks, and platforms in chemical plants. Their versatility allows for the construction of various structures and equipment, ensuring the safe and efficient operation of chemical processes. Steel angles can be fabricated into different sizes and shapes, allowing for easy customization to meet specific requirements. This versatility makes them suitable for a wide range of applications such as piping systems, storage tanks, chemical reactors, and support structures. In addition to their corrosion resistance and structural strength, steel angles are also cost-effective. They have a long lifespan, require minimal maintenance, and can withstand extreme temperatures, pressures, and chemical exposures. This durability and low maintenance requirement contribute to reducing downtime and overall operating costs in the chemical industry. Overall, steel angles perform exceptionally well in chemical industry applications by providing a combination of corrosion resistance, structural strength, versatility, and cost-effectiveness. Their ability to withstand harsh chemical environments makes them an essential component in the safe and efficient operation of chemical processes.
Q:What are the different types of steel angles used in automotive manufacturing?
Automotive manufacturing relies on a variety of steel angles that play a crucial role in designing and constructing automotive structures and parts. Some of the commonly utilized steel angles in this industry include: 1. Equal Angle: This type of steel angle consists of sides of equal length, forming a 90-degree angle. In automotive manufacturing, equal angles find applications in chassis frames, suspension components, and brackets. 2. Unequal Angle: As the name suggests, unequal angles have sides of unequal lengths, creating a 90-degree angle. Automotive manufacturers employ unequal angles to fabricate components with specific dimensions and angles, such as door frames, body reinforcements, and support structures. 3. L Angle: Also known as angle irons, L angles possess two sides of equal length that form a 90-degree angle. They are extensively used in automotive manufacturing for various purposes, including reinforcing panels, mounting brackets, and structural supports. 4. T Angle: Resembling the shape of the letter "T," T angles consist of one long side and one short side forming a 90-degree angle. In automotive manufacturing, T angles play a significant role in joining different components like body panels, fenders, and roof structures. 5. C Angle: Referred to as channel angles, C angles have a C-shaped cross-section. These angles offer structural strength and rigidity, making them suitable for applications such as frame rails, roll cages, and support beams in automotive manufacturing. 6. Z Angle: Z angles feature a Z-shaped cross-section, resembling the letter "Z." They are commonly employed in automotive manufacturing to join and reinforce components like door frames, roof structures, and body reinforcements. These examples merely scratch the surface of the numerous types of steel angles employed in automotive manufacturing. Each type serves a specific purpose and possesses unique properties, such as strength, stability, and flexibility, to meet the diverse requirements of automotive applications.

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