parallel flange channel steel in U shaped

parallel flange channel steel in U shaped

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Loading Port:: Qingdao

Payment Terms:: TT OR LC

Min Order Qty:: 10 m.t.

Supply Capability:: 5000 m.t./month

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Products Information:

1.Products size	Size : 5#--40#
2.Products length	Lengths : 6m--12m
3.Product standard	Standard : GB, ASTM, JIS, DIN
4.Product Grade	Grades : Q235B, Q345B, SS400
5.Application	Used or building structures, vehicle
	manufacturing and other industrial structures
6.Customized requirement	Can produce special specification products
	as per our customers' requirement
7.Delivery Time	15-30 days after recieve the LC or pre-paid
8.Detail Package	Bundles, seaworthy wooden cases with or without
	edge protector, steel hoop and seals, or as per
	customers' requirements

Drawings and Datas (for know more about the structure and size)

parallel flange channel steel in U shaped

Specification	h	b	d	t	Cm²	(kg/m)
5	50	37	4.5	7	6.93	5.44
6.3	63	40	4.8	7.5	8.45	6.63
8	80	43	5	8	10.24	8.04
10	100	48	5.3	8.5	12.74	10
12.6	126	53	5.5	9	15.69	12.37
14a	140	58	6	9.5	18.51	14.53
14b	140	60	8	9.5	21.31	16.73
16a	160	63	6.5	10	21.95	17.23
16	160	65	8.5	10	25.15	19.74
18a	180	68	7	10.5	25.69	20.17
18	180	70	9	10.5	29.29	22.99

Q: What are the different types of connections used with stainless steel angles?: Different types of connections can be utilized with stainless steel angles, depending on the particular application and load specifications. Some commonly used connections with stainless steel angles include: 1. Welded Connections: Stainless steel angles can be connected through welding, which involves melting their edges and joining them together to create a durable and permanent bond. This type of connection is commonly employed in structural applications where strength and rigidity are crucial. 2. Bolted Connections: Another method involves using bolts, nuts, and washers to connect stainless steel angles. This type of connection allows for easy disassembly and reassembly, making it suitable for applications that may require frequent adjustments or modifications. Bolted connections find common use in construction, machinery, and equipment installations. 3. Riveted Connections: Riveting is a technique that involves using rivets to connect stainless steel angles. Rivets are inserted into pre-drilled holes and secured by hammering or pressing. Riveted connections offer excellent strength and are suitable for applications where welding is not feasible or preferred. 4. Adhesive Connections: Adhesive connections involve using high-strength adhesives or epoxy to bond stainless steel angles together. This type of connection is often used in applications where the appearance of the joint is important or where welding or drilling holes is not possible. Adhesive connections can provide sufficient strength if the adhesive is carefully chosen and applied. 5. Mechanical Connections: Mechanical connections encompass various methods of connecting stainless steel angles using mechanical devices like brackets, clips, or connectors. These connections are frequently employed in architectural applications to create visually pleasing designs while providing structural support. Mechanical connections are easily assembled and disassembled, offering flexibility and adjustability. In conclusion, the choice of connection method for stainless steel angles depends on factors such as load requirements, accessibility, aesthetics, and ease of installation. It is important to consider the specific needs of the application and seek guidance from professionals or engineers to determine the most suitable connection type.

Q: What is the difference between 321 and 316 stainless steel angles?: The main difference between 321 and 316 stainless steel angles is the composition and their respective properties. 321 stainless steel contains titanium, which stabilizes the material against chromium carbide formation during high-temperature exposure. This makes it suitable for applications that involve elevated temperatures, such as exhaust systems and industrial furnaces. On the other hand, 316 stainless steel contains molybdenum, which enhances its corrosion resistance, particularly against chlorides and acids. This makes it more suitable for marine and coastal environments. In summary, while both alloys are corrosion-resistant and have excellent strength and durability, 321 stainless steel is better suited for high-temperature applications, while 316 stainless steel is preferred for its superior corrosion resistance in marine and acidic environments.

Q: What are the different shapes and profiles of stainless steel angles?: There are various shapes and profiles available for stainless steel angles, each serving different purposes and applications. Some common shapes and profiles include: 1. Equal Angle: This shape has equal length legs and forms a 90-degree angle. It is widely used for structural applications like framework, supports, and bracing. 2. Unequal Angle: This shape has one longer leg, creating an uneven angle. It is used to distribute weight or support uneven loads in construction, manufacturing, and engineering projects. 3. Rounded Corner Angle: This type of stainless steel angle has rounded corners instead of sharp corners. It is often used for safety or aesthetic purposes in architectural designs, furniture, and decorative elements. 4. Slotted Angle: These angles have holes or slots along the legs, allowing for easy adjustment and flexibility in different configurations. They are commonly used in shelving units, racks, and storage systems. 5. L-Shaped Angle: L-shaped angles have two perpendicular legs, forming an "L" shape. They are used to reinforce corners, provide structural support, or create right angles in construction and fabrication projects. 6. T-Shaped Angle: Similar to the L-shaped angle, T-shaped angles have a third leg extending at a 90-degree angle from the center, forming a "T" shape. This additional leg provides extra support and stability, making it suitable for framing, brackets, and connections. 7. Custom Profiles: Aside from the standard shapes, stainless steel angles can also be custom fabricated to meet specific requirements. This includes angles with multiple bends, curved angles, or unique profiles designed for specialized applications. Overall, stainless steel angles offer a versatile range of options for various structural, architectural, and industrial needs. The choice of shape depends on factors such as load-bearing capacity, aesthetic preferences, and functionality, allowing stainless steel angles to be tailored to fit specific project requirements.

Q: What is the maximum thickness for stainless steel angles?: The maximum thickness for stainless steel angles can vary depending on the specific grade and manufacturing process, but it typically ranges from 1/8 inch to 1 inch or more.

Q: Can stainless steel angles be used in the production of transportation equipment?: Transportation equipment production can make use of stainless steel angles. Stainless steel is a versatile material that provides excellent resistance to corrosion, strength, and durability. Its properties make it suitable for different transportation industry applications, including vehicle manufacturing such as cars, trucks, trains, and ships. Structures and frames in transportation equipment can benefit from the use of stainless steel angles, as they offer support and stability. These angles can be welded, bent, and shaped into various sizes and forms, allowing for customization according to specific design requirements. Moreover, the resistance of stainless steel to rust and corrosion ensures the safety and reliability of transportation equipment, even when exposed to harsh environments or moisture. Additionally, stainless steel angles find utility in the fabrication of crucial components like brackets, supports, and fittings. These components play essential roles in the assembly and functionality of transportation equipment, ensuring proper alignment, attachment, and reinforcement. In summary, stainless steel angles provide numerous advantages for transportation equipment production due to their strength, resistance to corrosion, and versatility. Consequently, they are extensively used in various applications within the transportation industry.

Q: Can stainless steel angles be used in elevator manufacturing?: Indeed, elevator manufacturing can incorporate stainless steel angles. Given its durability and resistance to corrosion, stainless steel proves itself as an apt material for a diverse range of uses, including elevator manufacturing. By employing stainless steel angles, elevators acquire not only structural support and reinforcement but also a refined aesthetic finishing. Thanks to the remarkable strength-to-weight ratio of stainless steel angles, elevator components are guaranteed both safety and longevity. Moreover, the practicality of stainless steel angles extends to their ease of maintenance and cleaning, rendering them an ideal choice for elevator manufacturing.

Q: Can stainless steel angles be bent?: Yes, stainless steel angles can be bent. However, the process of bending stainless steel angles is more challenging compared to other materials due to its high strength and resilience. It requires specialized equipment and techniques such as using a hydraulic press brake or a bending machine. The angle and degree of the bend will depend on the specific requirements and limitations of the project. It is important to note that excessive bending or improper techniques may cause the stainless steel angle to crack or deform. Therefore, it is advisable to consult with professionals or experienced fabricators to ensure the proper bending process is carried out.

Q: Are stainless steel angles suitable for structural applications?: Indeed, structural applications are well-suited for stainless steel angles. Renowned for its exceptional strength, durability, and corrosion resistance, stainless steel proves to be an optimal material for fulfilling structural needs. The load-bearing capabilities of stainless steel angles are exceptional, allowing them to endure heavy burdens and withstand the harshest environmental conditions. Moreover, these angles provide invaluable stability and support in diverse construction endeavors, encompassing structures such as buildings, bridges, and infrastructure. The versatility and unwavering dependability of stainless steel angles have solidified their status as a favored option within the realm of structural engineering.

Q: What are the different types of machining processes used with stainless steel angles?: Stainless steel angles can undergo various machining processes to achieve different results. Some commonly used ones are: 1. Cutting: Material is removed from the stainless steel angle to achieve the desired shape or size. This can be done using tools like saws, shears, or plasma cutters. 2. Drilling: Holes are created in the stainless steel angle using drill bits designed for stainless steel or precision drilling using a CNC machine. 3. Grinding: The surface of the stainless steel angle is smoothed or any burrs or sharp edges are removed using abrasive wheels or belts that rotate against the angle. 4. Milling: Material is removed from the stainless steel angle using rotary cutters to create complex shapes or achieve a specific surface finish. 5. Welding: Two or more stainless steel angles are joined together by melting the edges and allowing them to fuse. This is commonly used in fabrication processes for larger structures or assemblies. 6. Bending: The stainless steel angle is deformed to a specific angle or shape using tools like press brakes or by heating the metal and manually bending it. Each of these machining processes has its own advantages and limitations. The choice of which process to use depends on factors such as the desired outcome, project complexity, and available equipment and resources.

Q: How do you determine the load-bearing capacity of stainless steel angles?: In order to determine the load-bearing capacity of stainless steel angles, several factors must be taken into consideration. The load-bearing capacity depends on the material properties of the stainless steel, as well as the dimensions and geometry of the angle. To begin with, it is crucial to identify the specific grade of stainless steel being utilized, as different grades have varying mechanical properties. The most commonly used grades for structural applications are 304 and 316 stainless steel, which exhibit good strength and corrosion resistance. Furthermore, the dimensions of the angle, including its thickness, width, and length, need to be accounted for. The thickness of the angle is particularly significant, as it contributes to its ability to withstand bending and compression forces. Once the material properties and dimensions are known, engineering calculations are typically employed to determine the load-bearing capacity. These calculations involve analyzing the stress and strain on the angle under different loading conditions, such as tension, compression, and bending. Various engineering codes and standards, such as the American Institute of Steel Construction (AISC) Manual, provide guidelines and equations for calculating the load-bearing capacity of steel angles. These equations consider factors such as the moment of inertia, section modulus, and yield strength of the stainless steel angle. It is important to emphasize that load-bearing capacity calculations should be carried out by qualified structural engineers or professionals with expertise in steel design. They can ensure that all relevant factors are taken into account and that the stainless steel angle is used within its safe load-bearing limits.

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