• construction material angle iron System 1
construction material angle iron

construction material angle iron

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Quick Details

  • Standard:GB, JIS

  • Dimensions:45mm to 200mm

  • Grade:SS400-SS540 Series

  • Model Number:45mm to 200mm

  • Type:Equal

  • Application:for construction

Packaging & Delivery

Packaging Details:suitable for export with hooks for easy unloading of material with bundle weight
Delivery Detail:20days after deposit

Specifications

Standard ASTM,DIN,GB,JIS
Dimensions 45mm to 200mm
Grade S235JR-S335JR Series
Type: Equal
Application: for construct

construction material angle iron  equal angle steel

1.size: 45--200mm
2.material: SS400,Q235
3.length:6m,9m,12m
4.payment:T/T or Sight L/C

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: Can steel angles be used as supports for solar panels?
Yes, steel angles can be used as supports for solar panels. Steel angles are commonly used in construction due to their strength and durability. When properly designed and installed, steel angles can provide a sturdy and reliable support structure for solar panels. They can be easily welded or bolted together to create a secure framework that can withstand the weight of the panels and any environmental factors such as wind loads. Additionally, steel angles can be galvanized or coated to enhance their resistance to corrosion, making them suitable for outdoor applications such as solar panel installations.
Q: What is the maximum deflection allowed for a steel angle?
The maximum deflection allowed for a steel angle depends on various factors such as the size, shape, and type of steel angle being used, as well as the specific application and design requirements. The deflection limit is typically determined based on engineering standards and codes, which outline the maximum acceptable deflection to ensure structural integrity and safety. In general, steel angles are designed to withstand different loads and stresses, and their allowable deflection is determined based on these factors. Engineers calculate the maximum allowable deflection to ensure that the angle can safely support the applied loads without experiencing excessive deformation or failure. To determine the maximum deflection allowed for a specific steel angle, one needs to refer to the design standards and specifications provided by professional engineering organizations, such as the American Institute of Steel Construction (AISC) or relevant building codes. These documents outline the maximum allowable deflection limits based on the specific parameters of the steel angle, such as its dimensions, material properties, and intended use. It is crucial to consult the appropriate design standards and codes to ensure compliance with safety regulations and to guarantee the structural integrity of the steel angle in its intended application.
Q: What are the different types of steel angles used in shipbuilding?
Various structural purposes in shipbuilding commonly utilize several types of steel angles. These angles are typically crafted from high-strength steel and are intended to confer strength and stability to the ship's structure. Presented below are different steel angle varieties utilized in shipbuilding: 1. Bulb Angles: Specifically designed for ship hull construction, these angles possess a bulbous shape on one side. This unique shape aids in load distribution while adding further strength and stability to the hull structure. 2. L-Shaped Angles: Also known as unequal angles, L-shaped angles find extensive usage in shipbuilding for framing and bracing requirements. With one leg longer than the other, these angles accommodate various applications necessitating varying lengths. 3. Equal Angles: Commonly referred to as L-sections, equal angles consist of two legs of identical length. Shipbuilding extensively employs them for framing and supporting structures, as they confer uniform strength. Their versatility extends to applications such as bulkhead framing and deck support. 4. Flat Bars: While technically not angles, flat bars are frequently employed in shipbuilding for comparable purposes. These bars possess a rectangular cross-section and are primarily used for reinforcement, framing, and connecting different structural components. 5. T-Sections: T-sections, or T-angles, feature a T-shaped cross-section and serve in shipbuilding for structural framing, reinforcement, and component connection. The vertical leg of the T-section imparts additional strength and stability to the structure. 6. Z-Sections: Z-sections, or Z-angles, possess a Z-shaped cross-section and fulfill various shipbuilding purposes such as framing, bracing, and structural support. These angles offer excellent load-bearing capacity and are frequently utilized when maximum strength is required. Ultimately, the selection of steel angles in shipbuilding hinges upon the specific requirements of the structure, encompassing load-bearing capacity, structural design, and intended purpose. The aforementioned steel angle types provide a vast array of options to cater to the diverse demands of ship construction.
Q: How do steel angles perform under extreme temperatures?
Under extreme temperatures, steel angles generally have a good performance. Steel possesses a high thermal conductivity, enabling it to rapidly absorb and distribute heat. This characteristic aids in the steel angles' ability to endure extreme temperatures without significant deformation or failure. However, it is important to acknowledge that the actual performance of steel angles in extreme temperatures can vary due to factors like the alloy composition and heat treatment of the steel. In certain instances, steel angles may experience a decrease in strength or an increased susceptibility to corrosion at extremely high temperatures. Therefore, it is advisable to seek advice from a materials engineer or refer to the manufacturer's specifications to ascertain the specific performance of steel angles under the desired extreme temperature conditions.
Q: What are the different types of steel angles used in bridge construction?
Bridge construction commonly utilizes various types of steel angles that serve vital roles in providing structural support and stability to the bridge. 1. Equal Leg Angles, also referred to as L-shaped angles, possess two legs of equal length forming a 90-degree angle. These angles support and reinforce the bridge components during construction. 2. Unequal Leg Angles, as implied, have two legs of different lengths forming a 90-degree angle. These angles are frequently employed in bridge construction to accommodate specific design requirements and support varying loads. 3. Bulb Angles are unique angles characterized by a bulb-shaped leg. They enhance the strength and rigidity of the bridge structure, particularly in areas expected to experience high stress or heavy loads. 4. Inverted Angles are similar to equal leg angles, but their orientation is inverted, with the longer leg positioned at the bottom. These angles provide additional support and stability, especially when the bridge must withstand lateral forces. 5. Fillet Welded Angles are angles joined together using fillet welds. Their purpose in bridge construction is to establish robust and durable connections between different bridge components, ensuring structural integrity and stability. Each steel angle type possesses distinct properties and advantages, rendering them suitable for specific applications in bridge construction. The selection of the appropriate angle type depends on factors such as load requirements, span length, design specifications, and structural considerations. Professional engineers and designers diligently evaluate these factors to determine the most suitable steel angle for a given bridge construction project.
Q: What is the corresponding length of the root weight in the angle standard?
The profile is divided into fixed size and no fixed size. The fixed length is the weight, the length and the size of each meter, that is, the weight of each piece.
Q: Can steel angles be used as structural supports for bridges?
Yes, steel angles can be used as structural supports for bridges. Steel angles, also known as angle irons, are commonly used in bridge construction as they provide stability and strength. They can be used as diagonal bracing or as reinforcement for beams and columns, enhancing the structural integrity of the bridge.
Q: How do you protect steel angles from abrasive wear?
There are several ways to protect steel angles from abrasive wear. One effective method is to apply a protective coating or paint to the steel surface. This coating acts as a barrier between the steel and abrasive materials, preventing direct contact and reducing wear. It is important to choose a coating that is specifically designed for abrasion resistance, such as epoxy or polyurethane coatings. Another method is to use rubber or polyurethane liners. These liners can be attached to the steel angles, providing a cushioning effect and preventing direct contact with abrasive materials. They are commonly used in applications where the steel angles are subjected to high levels of abrasion, such as in mining or bulk material handling. In some cases, it may be necessary to reinforce the steel angles with additional materials. This can be done by welding or bolting on wear plates or inserts made of hardened materials such as chromium carbide overlay or ceramic. These materials have high resistance to abrasion and can significantly extend the lifespan of the steel angles in abrasive environments. Regular maintenance and inspection are also crucial in protecting steel angles from abrasive wear. By regularly inspecting the angles for signs of wear or damage, any issues can be addressed promptly, preventing further deterioration. Additionally, implementing proper lubrication and cleaning practices can help minimize the effects of abrasion on the steel angles. Overall, protecting steel angles from abrasive wear requires a combination of preventive measures, including coatings, liners, reinforcements, and regular maintenance. By implementing these strategies, the lifespan and performance of steel angles can be significantly improved in abrasive environments.
Q: What are the different types of steel angles connections for mezzanine floors?
Mezzanine floors can utilize various steel angle connections to achieve structural stability and support. These connections are crucial for safely accommodating intended loads and usage. 1. Bolted Connections: Mezzanine floors commonly employ bolted connections due to their strength and security. By using bolts, the steel angles are attached to create a rigid and stable framework. If necessary, bolted connections can be easily adjusted or disassembled. 2. Welded Connections: To achieve maximum stability, welded connections join the steel angles using welding techniques. This type of connection provides a permanent and robust bond between the angles. Welded connections are often preferred for heavy-duty mezzanine floors with high load-bearing requirements. 3. Clip Connections: Clip connections are a popular choice for mezzanine floors due to their ease of installation and flexibility. Metal clips or brackets secure the steel angles together in this connection type. Adjusting or disassembling clip connections is simple, allowing for future modifications or reconfigurations of the mezzanine floor layout. 4. Gusset Plate Connections: To reinforce the joint between steel angles, gusset plate connections utilize additional steel plates known as gusset plates. These plates are typically welded or bolted to the angles, adding strength and stability to the connection. Gusset plate connections are commonly used when extra reinforcement is required for mezzanine floors. 5. Cleat Connections: Cleat connections involve using a cleat plate to connect two steel angles. One angle is attached to the cleat plate, while the other angle is bolted or welded to the plate. This connection type provides a strong and secure joint, especially for heavy-duty mezzanine floors. Compliance with local building codes and regulations is crucial when selecting steel angle connections for mezzanine floors. Consulting a structural engineer or a professional with expertise in mezzanine floor construction is recommended to ensure correct design and installation of connections for optimal safety and performance.

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