• equal angle steel/mild steel angle bar/carbon steel angle iron System 1
  • equal angle steel/mild steel angle bar/carbon steel angle iron System 2
  • equal angle steel/mild steel angle bar/carbon steel angle iron System 3
equal angle steel/mild steel angle bar/carbon steel angle iron

equal angle steel/mild steel angle bar/carbon steel angle iron

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
35 m.t.
Supply Capability:
35000 m.t./month

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 equal angle steel/mild steel angle bar/carbon steel angle iron

Products Details:

1.Standard: AISI ASTM BS DIN GB JIS

2.Dimensions:10*10mm-200*200mm

3.Grade:Q195-Q420 Series

4.Place of Origin:Tianjin,China

5.Length:6m 9m 12m or as per request

6.Application:Building structure and engineering structure, such as the beam, Bridges, transmission tower, 

lifting transportation machinery, ship, industrial furnace, reaction tower, container frame and warehouse.

7.Technology:Hot Rolled / Cold Rolled

8.Packaging Detail: Mills standard export strong packing

9.Price Term:FOB/CFR/CIF,According to clients requirements

10.Delivery Datail:7-10 Workdays after deposit

11.MOQ:25MT

12.Payment:T/T or LC 

13.12.Authentication:ISO9001-2008,SGS.BV

Products Material:

Q195-Q420 Series

SS400-SS540 Series

S235JR-S355JR Series

ST Series

A36-A992 Series

Gr50 Series

 

 

 

 

 

Q: Are steel angles suitable for earthquake-resistant construction?
Yes, steel angles are suitable for earthquake-resistant construction. Steel angles have high strength and stiffness, which enables them to withstand the lateral forces and dynamic loads generated during an earthquake. They can be used in various structural elements, such as moment-resisting frames and bracing systems, to provide stability and resistance against seismic forces. Additionally, steel angles can be easily fabricated and installed, making them a popular choice in earthquake-resistant construction.
Q: Can steel angles be used for manufacturing equipment frames?
Indeed, the utilization of steel angles in the fabrication of equipment frames is possible. Their strength, durability, and versatility render steel angles frequently employed in construction and manufacturing fields. By providing structural support and stability, they prove to be an optimal choice for the design and construction of equipment frames. The ease with which steel angles can be welded or bolted together enables the creation of rigid and robust frame structures. Moreover, their ability to be cut into specific lengths and shapes allows for precise assembly and customization. In conclusion, the reliability and cost-effectiveness of steel angles make them a favored selection for the manufacturing of equipment frames.
Q: How do steel angles provide structural support?
Structural support is provided by steel angles, which evenly and efficiently distribute weight and load in a structure. These L-shaped steel beams are commonly used in construction. The stability and strength of the angle's two legs enable it to resist bending and twisting forces. Steel angles are frequently combined with other structural components like beams, columns, and trusses to establish a stable framework. They can be connected to these components through bolting, welding, or other methods to offer additional support and reinforcement. Due to their versatility, steel angles can be utilized in various applications, including building frames, supports, bracing, and structural reinforcement. The incorporation of steel angles in a structure helps evenly distribute weight and load across different components, reducing the risk of structural failure. They effectively resist compressive, tensile, and bending forces, providing stability and preventing deformation under heavy loads or external forces like wind or earthquakes. Furthermore, steel angles serve to create secure connections and joints between different parts of a structure, ensuring their firm fastening. This enhances overall stability and integrity, making the structure more resistant to movement, vibrations, and other external factors that could compromise safety. In summary, steel angles play a vital role in providing structural support. They distribute weight, resist bending and twisting forces, enhance stability, and reinforce connections between different structural components. Their strength, versatility, and reliability make them a popular choice in construction projects where structural integrity and stability are paramount.
Q: What are the different design considerations for steel angles in architectural applications?
When it comes to using steel angles in architectural applications, there are several design considerations that need to be taken into account. These considerations include the load-bearing capacity of the angles, their structural integrity, aesthetics, and overall design flexibility. One of the primary design considerations for steel angles in architectural applications is their load-bearing capacity. Steel angles are often used to provide structural support in buildings, so it is crucial to ensure that they can withstand the anticipated loads. This involves calculating the maximum load that the angles will need to bear and selecting angles with the appropriate size and thickness to handle these loads safely. Another important consideration is the structural integrity of the steel angles. Architects and engineers need to consider factors such as the angle's resistance to bending, buckling, and shear. The design should take into account the angle's ability to distribute the loads evenly, minimizing the risk of failure or deformation. Aesthetics also play a significant role in architectural design, and steel angles can contribute to the overall visual appeal of a building. Architects may choose to incorporate angles with different profiles, finishes, or decorative elements to enhance the design and create a visually appealing structure. The angles should complement the overall architectural style and blend seamlessly with other building materials. Design flexibility is another crucial consideration when using steel angles. Architects often require angles that can be easily customized or fabricated to meet their specific design requirements. Steel angles can be cut, welded, or bent to create unique shapes and angles, allowing for creative architectural solutions. Lastly, it's important to consider the material properties and corrosion resistance of the steel angles. Architects need to evaluate the environmental conditions of the project site and select angles that can withstand exposure to moisture, chemicals, or other corrosive agents. Proper coatings or treatments can be applied to protect the angles from corrosion and ensure their longevity. In conclusion, the design considerations for steel angles in architectural applications encompass load-bearing capacity, structural integrity, aesthetics, design flexibility, and corrosion resistance. By carefully considering these factors, architects can select steel angles that meet both the functional and visual requirements of their projects, resulting in safe, durable, and visually appealing architectural structures.
Q: Can steel angles be used for pipe support systems?
Yes, steel angles can be used for pipe support systems. Steel angles provide structural support and stability, making them suitable for holding and securing pipes in various applications.
Q: How do you calculate the section modulus of a steel angle?
In order to determine the section modulus of a steel angle, one must possess knowledge regarding the dimensions and properties of the angle. The section modulus serves as a metric for measuring the strength of a structural member, enabling the evaluation of its ability to resist bending. The equation employed to compute the section modulus of a steel angle is as follows: Section Modulus (Z) = (Width of the angle * Height of the angle^2) / 6 Within this equation, the width of the angle denotes the distance between the two legs, whilst the height of the angle represents the length of a single leg. The section modulus is conventionally expressed in cubic inches or cubic centimeters. To compute the section modulus, one must initially measure the width and height of the angle. Subsequently, these measured values are substituted into the equation to ascertain the section modulus. This calculated figure provides an indication of the strength and rigidity of the steel angle, ultimately facilitating its application in structural design and analysis.
Q: How do you determine the required thickness of a steel angle for a specific application?
To determine the required thickness of a steel angle for a specific application, various factors need to be considered. These factors include the load or weight that the angle will need to support, the length of the angle, the material properties of the steel being used, and any applicable safety codes or standards. Engineering calculations and analysis are typically performed to assess the structural requirements and ensure that the selected angle thickness can withstand the anticipated forces and stresses.
Q: How do you determine the shear capacity of a steel angle?
The shear capacity of a steel angle can be determined by calculating the shear stress at the critical section, which is typically located at the junction between the web and the flange. This can be done by dividing the applied shear force by the effective shear area, taking into account the material properties and geometric dimensions of the angle. Additionally, design codes and standards provide tables and formulas that can be used to determine the shear capacity of steel angles based on their dimensions and loading conditions.
Q: Can steel angles be used in architectural sculptures and installations?
Yes, steel angles can definitely be used in architectural sculptures and installations. Steel angles provide structural support and stability, making them ideal for creating intricate and visually appealing designs. They can be bent, welded, or cut to fit specific requirements, offering versatility in creating unique architectural forms. Additionally, steel angles are durable and weather-resistant, making them suitable for outdoor installations.
Q: How do steel angles contribute to LEED certification?
There are several ways in which the use of steel angles can contribute to LEED certification, which is the Leadership in Energy and Environmental Design. Firstly, the production of steel angles often involves the use of recycled steel, reducing the need for new materials and lessening the environmental impact of steel production. Secondly, steel angles have a long lifespan and are highly durable, resulting in reduced maintenance and replacement needs. This, in turn, leads to a decrease in waste generated throughout a building's lifecycle, thus earning LEED credits for minimizing construction and demolition waste. Furthermore, steel angles can be utilized to create efficient structural systems that allow for open and adaptable building designs. This aspect qualifies for LEED recognition in the Innovation in Design category, highlighting exceptional energy and resource efficiency. Additionally, integrating steel angles into a building's design is a straightforward process, making it easier to support sustainable features like solar panels, green roofs, or rainwater harvesting systems. These environmentally friendly features are instrumental in achieving LEED credits for energy efficiency, renewable energy, and water efficiency. In conclusion, the utilization of steel angles in construction contributes to LEED certification through their use of recycled materials, provision of durability and longevity, facilitation of efficient structural systems, and support for sustainable features integration.

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