Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project

Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project System 1

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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than 50 countries such as the EU,theUnitedStates,Australia,Southest,

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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*3	1.124	70*5	5.397	100*6	9.366	70454	3.57
25*4	1.459	70*6	6.406	100*8	12.276	70455	4.403
30*3	1.373	70*7	7.398	100*10	15.12	70456	5.218
30*4	1.786	70*8	8.373	100*12	17.898	100806	8.35
40*3	1.852	75*5	5.818	110*8	13.532	100807	9.656
40*4	2.422	75*6	6.905	110*10	16.69	100808	10.946
40*5	2.976	75*7	7.976	110*12	19.782	110708	10.946
50*4	3.059	75*8	9.03	110*14	22.809	1107010	13.476
50*5	3.77	75*10	11.089	125*8	15.504	140908	14.16
50*6	4.465	80*6	7.376	125*10	19.133	1409010	17.475
60*5	4.57	80*8	9.658	125*12	22.696	1409012	20.724
60*6	5.42	80*10	11.874	125*14	26.193	16010012	23.592
63*5	4.822	90*8	10.946	140*10	21.488	16010014	27.247
63*6	5.721	90*10	13.476	140*12		20012512	29.761
63*8	7.469	90*12	15.94			20012514	34.436

Equal Angle Steel Mild Steel Hot Rolled for Infrastructure Project

Q: What are the factors to consider when choosing the appropriate steel angle size?: When choosing the appropriate steel angle size, there are several factors that need to be considered. Firstly, the load-bearing capacity should be taken into account. It is crucial to determine the maximum weight or load that the steel angle will need to support. This will help in selecting a size that can withstand the required load without any deformation or failure. Secondly, the structural stability and safety should be considered. The steel angle should be able to provide the necessary strength and rigidity to maintain the structural integrity of the application. It is important to ensure that the chosen size can resist any potential structural failures or instabilities that may occur due to external forces or loads. Another factor to consider is the dimensions and shape of the application where the steel angle will be used. The size of the steel angle should be compatible with the available space and design requirements. It is essential to choose a size that can be easily integrated into the overall structure and provide the desired functionality. Additionally, the material properties of the steel angle should be evaluated. Different grades and types of steel have varying mechanical properties, such as yield strength, tensile strength, and corrosion resistance. By considering the specific application requirements and environmental conditions, the appropriate steel grade and size can be selected to ensure durability and longevity. Lastly, the cost and availability of the steel angle should also be taken into consideration. It is important to choose a size that is readily available in the market and within the budget constraints. Comparing prices and availability from different suppliers can help in making an informed decision without compromising on quality and performance. In conclusion, factors such as load-bearing capacity, structural stability, dimensions and shape, material properties, and cost/availability should all be carefully considered when choosing the appropriate steel angle size. By evaluating these factors, one can make a well-informed decision that meets the specific requirements of the application.

Q: How do you measure the dimensions of a steel angle?: To determine the dimensions of a steel angle, a combination of tools such as a measuring tape or ruler, a protractor, and a square can be used. Begin by measuring the length of one side of the angle using a measuring tape or ruler. Position the tape or ruler along the side of the angle and observe the measurement. Subsequently, measure the length of the other side of the angle in the same manner. Ensure that the starting point is the same as the first side for precise results. For measuring the angle itself, employ a protractor. Align the protractor's base with one side of the angle and verify that the other side corresponds to the appropriate degree marking on the protractor. Consult the protractor's reading to ascertain the angle of the steel angle. Lastly, a square can be utilized to confirm if the angle truly measures 90 degrees. Place the square against the two sides of the angle and confirm that it perfectly aligns with both sides. If alignment is achieved, then the angle is, indeed, 90 degrees. Please bear in mind that these measurements may be approximate and could slightly differ due to manufacturing tolerances.

Q: What are the different types of steel angles used in agriculture?: In agriculture, a variety of steel angles are employed, each serving a distinct purpose. One prevalent type is the standard angle, which finds application in general construction and support tasks. With a 90-degree bend, these angles effectively reinforce barns, fences, and gates. For creating corners or joints in agricultural structures, the corner angle is specifically designed. These angles feature equal legs, providing enhanced strength and stability at building corners, enclosures, or equipment. Slotted angles are also widely used in agriculture, offering convenience with their pre-drilled holes along the length. These holes enable easy attachment of shelves, brackets, or hooks, making them ideal for storage areas or workshops requiring customized shelving or storage solutions. Furthermore, specialized steel angles cater to specific agricultural needs. For instance, rack angles securely support storage racks for hay or other agricultural products. Purlin angles, on the other hand, provide additional strength to roof trusses or support roof structures in agricultural buildings. Overall, the diverse range of steel angles employed in agriculture serves several purposes, including structural support, reinforcement, joint creation, and customized storage solutions. The selection of the appropriate angle type depends on the specific requirements and demands of the agricultural project or structure.

Q: Can steel angles be used as supports for signage or lighting fixtures?: Yes, steel angles can be used as supports for signage or lighting fixtures. Steel angles are commonly used in construction and can provide strong and sturdy support for various applications, including signage and lighting fixtures.

Q: How do you design connections for steel angles to concrete?: When designing connections for steel angles to concrete, there are several factors to consider to ensure a safe and efficient design. Here are some key steps and considerations: 1. Determine the loads: Start by identifying the type and magnitude of the loads that the connection will be subjected to. This includes the applied forces, moments, and shear forces. Consider both the dead loads and live loads that will act on the connection. 2. Select the appropriate angle size: Based on the loads, select an angle size that can safely resist the applied forces. Ensure that the selected angle has adequate strength and stiffness for the specific application. 3. Determine the embedment depth: The angle needs to be embedded into the concrete to ensure a secure connection. Calculate the required embedment depth based on the loads and the concrete's compressive strength. Generally, a minimum embedment depth of three times the angle's thickness is recommended. 4. Design anchor bolts: Anchor bolts are typically used to secure the angle to the concrete. Determine the number, spacing, and diameter of anchor bolts based on the applied loads and the desired level of safety. Consider the concrete's strength and thickness when selecting suitable anchor bolts. 5. Provide edge distance and spacing: Ensure that the anchor bolts are positioned with sufficient edge distance and spacing to prevent concrete failure. The edge distance refers to the distance between the center of the bolt and the edge of the concrete, while the spacing is the distance between the centers of adjacent bolts. 6. Consider corrosion protection: If the connection will be exposed to corrosive environments or water exposure, take appropriate measures to protect against corrosion. This can include using galvanized or stainless steel angles and anchor bolts, as well as applying protective coatings. 7. Verify connection capacity: Once the connection design is complete, verify its capacity by conducting a structural analysis or using appropriate design codes and guidelines. Ensure that the connection can safely resist the applied loads without failure or excessive deformation. 8. Detail the connection: Provide clear and detailed drawings and specifications for the connection, including the dimensions, anchor bolt layout, and any additional reinforcement requirements. Ensure that the connection is properly communicated to the fabricator and contractor for accurate implementation. By following these steps and considering the various factors mentioned, you can effectively design connections for steel angles to concrete that meet the required strength, safety, and durability criteria. It is important to consult relevant design codes, standards, and professional engineers to ensure compliance with local regulations and best practices.

Q: Can steel angles be used in signage?: Yes, steel angles can be used in signage. Steel angles are commonly used as a structural support for signs, providing stability and durability. They can be easily welded or bolted together to create a sturdy framework for mounting signage materials such as panels, letters, or graphics. Additionally, steel angles offer versatility in terms of design options, allowing for various shapes and sizes of signage to be constructed.

Q: Can steel angles be used for temporary structures or scaffolding?: Certainly, temporary structures or scaffolding can make use of steel angles. Because of their strength and durability, steel angles find frequent employment in construction endeavors. They are regularly employed to furnish structural support and maintain stability in temporary structures and scaffolding arrangements. Steel angles possess versatility, allowing for effortless welding, bolting, or fastening, leading to the creation of robust and secure temporary structures or scaffolding setups. Furthermore, due to the assortment of sizes and thicknesses available, steel angles prove highly suitable for diverse temporary construction applications.

Q: What are the different welding methods used for steel angles?: There are several different welding methods that can be used for steel angles. The choice of method depends on various factors including the thickness of the steel, the type of joint, and the desired outcome. Here are some of the commonly used welding methods for steel angles: 1. Shielded Metal Arc Welding (SMAW): Also known as stick welding, SMAW uses a consumable electrode coated in flux. The electrode is manually fed into the joint, and the flux creates a protective shield around the weld pool. SMAW is versatile and can be used for various joint configurations and thicknesses. 2. Gas Metal Arc Welding (GMAW): Commonly referred to as MIG (Metal Inert Gas) or MAG (Metal Active Gas) welding, GMAW uses a wire electrode that is continuously fed through a welding gun. The electrode melts and joins the steel angles together, while a shielding gas (either inert or active) protects the weld pool. GMAW is fast and suitable for thin to medium thickness steel angles. 3. Flux-Cored Arc Welding (FCAW): Similar to GMAW, FCAW uses a continuously fed wire electrode. However, the electrode is filled with flux, eliminating the need for an external shielding gas. FCAW is versatile, easy to use, and can be employed in various positions. It is commonly used for thicker steel angles and in outdoor applications where wind might affect gas shielding. 4. Gas Tungsten Arc Welding (GTAW): Also known as TIG (Tungsten Inert Gas) welding, GTAW uses a non-consumable tungsten electrode to create an arc. A separate filler metal is manually added to the joint, while a shielding gas protects the weld pool. GTAW produces high-quality, precise welds and is commonly used for thinner steel angles or when aesthetics are important. 5. Submerged Arc Welding (SAW): This method involves feeding a continuously fed wire electrode into the joint while simultaneously covering the weld area with a layer of granular flux. The flux acts as a protective medium and prevents atmospheric contamination. SAW is commonly used for thicker steel angles and in applications where high deposition rates are required. These are just a few of the welding methods commonly used for steel angles. Each method has its advantages and limitations, and the choice of method should be based on the specific requirements of the project. It is important to consult with a qualified welding professional to determine the most suitable method for a particular application.

Q: How do you design bracing using steel angles?: When it comes to designing bracing using steel angles, there are several important steps to take into account. In the first place, it is crucial to ascertain the loads that the bracing will need to withstand. These loads can include vertical or horizontal forces, or a combination of both. Understanding the magnitude and direction of these forces is essential in order to design bracing that is effective. Next, it is necessary to select the appropriate steel angles. Steel angles come in various sizes and thicknesses, and the specific dimensions will depend on the desired strength and stiffness of the bracing. It is important to choose angles that can adequately resist the expected loads without experiencing excessive deflection or failure. Once the steel angles have been chosen, the bracing system must be designed to provide optimal stability. This involves determining the spacing and arrangement of the angles in order to ensure that the bracing effectively withstands the applied loads. The angles should be strategically positioned to create a stable and rigid structure. Furthermore, the connections between the steel angles and the main structural members must be designed with care. Adequate connections are crucial in transferring the loads from the bracing to the main structure. These connections should be strong, durable, and capable of transmitting both tension and compression forces. During the design process, it is also important to take into consideration any potential issues related to buckling or instability. Steel angles may be prone to buckling under certain loading conditions, and appropriate measures should be taken to prevent this. This can include adding additional bracing members, stiffeners, or using thicker angles if necessary. Lastly, it is crucial to consult relevant design codes and standards to ensure compliance with industry guidelines and regulations. These codes provide valuable guidance on the design, fabrication, and installation of steel bracing systems. To sum up, the process of designing bracing using steel angles involves determining the loads, selecting appropriate angles, designing an effective bracing system, ensuring proper connections, addressing stability concerns, and following relevant design codes and standards. By carefully considering these factors, it is possible to create a well-designed bracing system that provides the necessary support and stability to the structure.

Q: Can steel angles support heavy loads?: Steel angles have the ability to bear heavy loads. These L-shaped metal bars, known as steel angles, are frequently employed in construction and engineering for their sturdy and long-lasting nature. The unique design of steel angles enables them to evenly distribute weight, rendering them capable of enduring substantial loads. They are commonly utilized as structural supports and reinforcement in a variety of structures, including buildings, bridges, and machinery. Furthermore, engineers can tailor the dimensions and thickness of steel angles to meet precise load demands, making them a dependable option for supporting heavy loads.

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