EN10056 galvanized angle steel for construction

EN10056 galvanized angle steel for construction System 1

EN10056 galvanized angle steel for construction

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 25 m.t.

Supply Capability:: 10000 m.t./month

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Product Description:

Specifications of Equal Angle Steel

1.Standards:GB

2.Length:6m, 12m

3.Material:GBQ235, Q345 or Equivalent

4. Size:

Size (mm)	Mass (mm)	Size (mm)	Mass (mm)
30302.7	1.246	30304	1.786
30303.0	1.373	30305	2.184

Usage & Applications of Equal Anlge Steel

Trusses;

Transmission towers;

Telecommunication towers;

Bracing for general structures;

Stiffeners in structural use.

Packaging & Delivery of Equal Angle Steel

1. Transportation: the goods are delivered by truck from mill to loading port, the maximum quantity can be loaded is around 40MTs by each truck. If the order quantity cannot reach the full truck loaded, the transportation cost per ton will be little higher than full load.

2. With bundles and load in 20 feet/40 feet container, or by bulk cargo, also we could do as customer's request.

3. Marks:

Color mark: There will be color marking on both end of the bundle for the cargo delivered by bulk vessel. That makes it easily to distinguish at the destination port.

Tag mark: There will be tag mark tied up on the bundles. The information usually including supplier logo and name, product name, made in China, shipping marks and other information request by the customer.

If loading by container the marking is not needed, but we will prepare it as customers' request.

*If you would like to get our price, please inform us the size, standard/material and quantity. Thank you very much for your attention

EN10056 galvanized angle steel for construction

Q: Can steel angles be used in staircases?: Yes, steel angles can be used in staircases. Steel angles are commonly used as structural components in staircases for their strength and durability. They provide support and stability to the staircase design, making them a suitable choice for construction purposes.

Q: How many kilograms per square meter is angle steel 63*63*6?: Angle called angle, the steel strip is perpendicular to each other on both sides into the corner. There are equal angles and unequal angles. The two sides of an equal angle steel are equal in width. The specifications are expressed in millimeters of edge width * edge width * edge thickness. Such as "/ 30 x 30 x 3", that is 30 mm width equal angle, edge thickness of 3 mm. Also available models that model is the number of centimeters wide, such as angle 3#. The model does not mean the size of the different edges and sizes of the same model. Therefore, the width, the edge and the thickness of the angle iron should be filled out in the contract and other documents, so as not to be indicated by the model alone. Standard Specification for hot-rolled equal angle iron is 2#-20#.

Q: Can steel angles be used in the construction of parking garages?: Yes, steel angles can be used in the construction of parking garages. Steel angles are commonly used as structural components in various construction applications, including parking garages. They provide strength, stability, and support for the overall structure and can be used for framing, bracing, and reinforcing. Steel angles are versatile and can be easily customized to meet the specific design requirements of parking garage construction.

Q: What are the different design considerations for steel angles in industrial buildings?: Industrial buildings must take into account several important design considerations when it comes to steel angles. To begin with, engineers need to determine the load-carrying capacity of the steel angles. This requires calculating the maximum loads the angles will endure, including the weight of equipment, materials, and any potential dynamic loads. It is essential that the angles are designed to support these loads safely, without excessive deflection or failure. Next, structural stability is a critical factor. This involves assessing the buckling strength of the angles, especially if they are long and slender. To prevent buckling under compressive loads, adequate bracing or connections may be necessary. Thirdly, engineers must carefully design the connections between the steel angles and other structural elements. The connections must be strong enough to transfer loads between the angles and other components such as beams or columns. The specific requirements of the building and expected loads will dictate whether bolted or welded connections are suitable. Additionally, considerations must be made for fire resistance and corrosion protection. Steel angles are vulnerable to fire damage, so measures such as fire-resistant coatings or fireproofing are necessary to ensure the building's structural integrity during a fire. Furthermore, appropriate corrosion protection measures, like galvanization or coatings, should be applied to prevent rusting and deterioration over time. Lastly, the aesthetic aspects of steel angles in industrial buildings should not be overlooked. While functionality and structural integrity are paramount, the design should also be visually appealing and in harmony with the overall architectural style of the building. This may involve selecting the appropriate size, shape, and finish of the steel angles to achieve the desired aesthetic effect. In conclusion, the design considerations for steel angles in industrial buildings encompass load-carrying capacity, structural stability, connections, fire resistance, corrosion protection, and aesthetics. By addressing these factors diligently, engineers can ensure the safe and efficient utilization of steel angles in industrial building design.

Q: How are steel angles protected against chemical exposure?: Steel angles can be protected against chemical exposure through various methods. One common method is the application of protective coatings. These coatings, such as epoxy or polyurethane coatings, act as a barrier between the steel angle and the chemicals it may come into contact with. The coatings are designed to be resistant to chemical attack and prevent corrosion or degradation of the steel. Another method of protecting steel angles against chemical exposure is by using stainless steel. Stainless steel contains a high level of chromium, which forms a protective oxide layer on the surface of the steel. This oxide layer acts as a barrier against chemical attack, preventing corrosion and degradation of the steel angle. In addition to coatings and stainless steel, steel angles can also be protected by using acid-resistant materials. These materials are specifically designed to resist the corrosive effects of chemicals and can be used to line tanks or containers that store or transport chemicals. By using acid-resistant materials, the steel angle is shielded from direct contact with the chemicals, reducing the risk of corrosion or damage. Regular maintenance and inspection are also crucial for protecting steel angles against chemical exposure. Inspecting the angles for any signs of damage or corrosion allows for early detection and intervention. Any damaged protective coatings can be repaired or replaced to ensure the continued protection of the steel angle. Overall, steel angles can be protected against chemical exposure through the application of protective coatings, the use of stainless steel, the use of acid-resistant materials, and regular maintenance and inspection. These measures help to prevent corrosion, degradation, and damage to the steel angle, ensuring its longevity and performance in chemical environments.

Q: Can steel angles be used in architectural lighting installations?: Yes, steel angles can be used in architectural lighting installations. Steel angles are commonly used in construction projects due to their strength, durability, and versatility. In architectural lighting installations, steel angles can be utilized to create support structures for lighting fixtures, mounting brackets for wall or ceiling-mounted lights, or as a framework for track lighting systems. Additionally, steel angles can be easily customized and fabricated to meet specific design requirements, making them suitable for various architectural lighting applications.

Q: How do steel angles contribute to the sustainability of a city?: Steel angles contribute to the sustainability of a city in various ways. Firstly, they are commonly used in construction, providing structural support and stability to buildings and infrastructure. Due to their high strength-to-weight ratio, steel angles require less material and resources compared to other building materials, reducing the overall environmental impact of construction. Additionally, steel angles are highly durable, corrosion-resistant, and have a long lifespan, reducing the need for frequent replacements or repairs, thus minimizing waste generation. Moreover, steel is a recyclable material, and steel angles can be easily recycled and repurposed, decreasing the demand for new steel production and conserving natural resources. Therefore, the use of steel angles in construction promotes sustainable practices, contributes to the efficient use of resources, and helps create resilient and long-lasting cities.

Q: What are the different methods of surface preparation for steel angles?: To ensure proper adhesion of coatings, improve corrosion resistance, and enhance overall durability, there are various methods available for preparing the surface of steel angles. Some commonly used methods include the following: 1. Mechanical Cleaning: Physical tools like wire brushes, sandpaper, or abrasive discs are used to physically eliminate dirt, rust, mill scale, and other contaminants from the steel angle's surface. While this method is simple and cost-effective, it may not be effective for heavy corrosion or stubborn deposits. 2. Chemical Cleaning: Acid-based solutions or pickling pastes are applied to dissolve rust, scale, and other contaminants on the surface. After a specific period of time, the solution is rinsed off. Chemical cleaning is highly effective for removing stubborn deposits but requires careful handling and proper disposal of the chemicals. 3. Power Tool Cleaning: Power tools such as grinders, sanders, or needle guns with abrasive attachments are utilized to remove rust, scale, and contaminants. This method is faster and more efficient than manual mechanical cleaning, making it suitable for large-scale surface preparation. 4. Blast Cleaning: Also known as abrasive blasting, this method involves projecting abrasive materials (e.g., sand, steel grit, or glass beads) onto the steel surface at high velocity using compressed air or centrifugal force. Blast cleaning effectively removes rust, scale, and contaminants, resulting in a clean and profiled surface. While widely used in industrial applications, it requires proper safety measures to protect workers from exposure to abrasive materials. 5. Flame Cleaning: By directing a high-temperature flame onto the steel surface, flame cleaning removes contaminants. The intense heat burns off organic materials and evaporates moisture, leaving a clean surface. This method is particularly effective for removing oil, grease, and paint residues. 6. Conversion Coating: A chemical solution is applied to the steel surface, reacting with the metal to form a thin protective layer. This layer enhances the adhesion of subsequent coatings and provides additional corrosion resistance. Phosphating, chromating, and passivation are common types of conversion coatings. It's important to consider factors such as the extent of corrosion, desired coating system, and environmental conditions when selecting the most suitable surface preparation method for steel angles. Consulting experts or referring to industry standards can assist in determining the appropriate method for a specific application.

Q: Are steel angles suitable for supporting heavy machinery?: Yes, steel angles are suitable for supporting heavy machinery. Steel angles are known for their strength and durability, making them a reliable choice for providing structural support to heavy machinery. They offer excellent load-bearing capabilities and can withstand the weight and stress exerted by heavy machinery, ensuring stability and safety.

Q: How do you determine the shear capacity of a steel angle?: To determine the shear capacity of a steel angle, several factors need to be considered. The shear capacity is the maximum load that the angle can sustain without failure in shear. The first step in determining the shear capacity is to identify the properties of the steel angle, such as the material grade and dimensions. The grade of the steel determines its strength properties, which are crucial for calculating the shear capacity. The dimensions of the angle, including the length, width, and thickness, will also play a significant role in the calculations. Next, it is necessary to determine the critical shear area of the angle. This area represents the portion of the angle that will experience the highest shear stress during loading. The critical shear area can be calculated by considering the location of the applied load and the geometry of the angle. Once the critical shear area is determined, the next step is to calculate the shear stress acting on this area. The shear stress is calculated by dividing the applied load by the area. It is important to ensure that the shear stress does not exceed the allowable shear stress for the specific grade of steel being used. The allowable shear stress is typically provided by design codes or standards. Finally, the shear capacity of the steel angle can be calculated by multiplying the shear stress by the critical shear area. This calculation provides the maximum load that the angle can sustain without failure in shear. It is important to note that the shear capacity of a steel angle may be influenced by other factors such as the presence of holes or welds, which can weaken the structure. In such cases, additional calculations or considerations may be required. Overall, determining the shear capacity of a steel angle involves considering the properties of the steel, calculating the critical shear area, determining the shear stress, and ensuring that it does not exceed the allowable shear stress for the material grade.

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