CARBON STEEL PIPE BUTT WELDED TEE A235 WPB ANSI B16.9 best price

CARBON STEEL PIPE BUTT WELDED TEE A235 WPB ANSI B16.9 best price

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 10 m.t.

Supply Capability:: 10000 m.t./month

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Package Of Carbon Steel Butt-Welded Fitting:

PACKED IN PLYWOOD CASES OR PALLETS

Painting Of Carbon Steel Butt-Welded Fitting:

BLACK PAINTING FOR CARBON STEEL

Marking Of Carbon Steel Butt-Welded Fitting:

REFER TO MARKING DOCUMENT or AS PER CUSTOMER REQUEST

Shipping Marks Of Carbon Steel Butt-Welded Fitting:

EACH WOODEN BOX TWO PLASTIC SHIPPING MARKS

Specification Of Carbon Steel Butt-Welded Fitting:

Carbon Steel A234 WPB 90Deg LR Elbow, Tee, Reducer and Cap

Size : 1/2"-48"

Wall Thickness.: SCH10-SCH160, SGP , XS, XXS, DIN ,STD

Name	ASTM A234 WPB carbon steel ELBOW , tee , reucer, and cap
Size	1/2" - 48"
Angle	45D 90 D 180D
Wall thickness	Sch5-Sch160 XXS,STD,XS, SGP
Standard	ASME B16.9, GOST 17375-2001, DIN2605 and JIS B2311, EN10253-1 etc.
Standard	We can also produce according to drawing and standards provided by customers.
Material	Carbon steel pipe fittings , alloy steel and stainless steel.
Material
Packaging	Wooden Cases, wooden pallet , or carton box , or nylog bag and then in wooden cases
Packaging
Surface Treatment	Paintting black color , and Shot blasted,anti-rust oil ,
Delivery Time	20-30 days, after received advance payment.
Quality	First grade
Others	1.Special design available according to your drawing.
	2.anti-corrosion and high-temperature resistant with black painting
	3. All the production process are made under the ISO9001:2000 strictly.
	4. A conformity rate of ex-factory inspection of products.
	5. we have export right , offering FOB , CNF CIF price

STANDARD & MATERIAL GRADE

STANDARD Of Carbon Steel Butt-Welded Fitting

	Standard	Wall Thickness	Type
American Standard	ASME B16.9	S5S ~ XXS	45D, 90D, 180D ELBOW, TEE, REDUCER, CAP, STUB END
	ASME B16.11
	ASME B16.28		90D SR ELBOW
Japanese Standard	JIS B2311	SGP ~ LG

MATERIAL Of Carbon Steel Butt-Welded Fitting

Carbon Steel聽
	Material Standard	Material Grade
ASTM	ASTM A234	WPB

Q: What is the impact of steel pipe size on flow rate and pressure?: The size or diameter of a steel pipe has a significant impact on both flow rate and pressure. Firstly, the flow rate refers to the volume of fluid that can pass through the pipe per unit of time. A larger pipe diameter allows for a greater flow rate as there is more space for the fluid to move through. This is due to the fact that a larger cross-sectional area of the pipe offers less resistance to the flow of fluid. Therefore, increasing the size of the steel pipe will generally lead to an increase in flow rate. Secondly, the pressure within a pipe is influenced by its size. As the fluid flows through a pipe, it encounters resistance due to friction against the walls of the pipe. This resistance leads to a pressure drop along the length of the pipe. A smaller pipe diameter results in higher frictional losses, which leads to a greater pressure drop. On the other hand, a larger pipe diameter reduces frictional losses and therefore results in a lower pressure drop. Consequently, increasing the size of the steel pipe will generally lead to a decrease in pressure drop. It is important to note that while increasing the size of a steel pipe may generally result in a higher flow rate and lower pressure drop, there are other factors that can also affect these parameters. These include the fluid properties, the length and layout of the pipe, and any additional components such as valves or fittings. Therefore, it is crucial to consider all these factors and conduct proper calculations or simulations to accurately determine the impact of steel pipe size on flow rate and pressure in a specific system.

Q: How are steel pipes coated to prevent corrosion?: To prevent corrosion, steel pipes can be coated using different methods and materials. One common approach is to apply a protective layer of paint or epoxy on the pipe's surface. This coating acts as a barrier between the steel and the external environment, preventing direct contact with moisture and corrosive substances. Another technique involves galvanization, where the steel pipes are coated with a layer of zinc. Zinc is highly resistant to corrosion and acts as a sacrificial anode. In case of any damage to the coating, the zinc corrodes instead of the steel, ensuring the steel remains intact and free from corrosion. Polyethylene or polypropylene materials can also be fused onto the steel surface, creating a strong bond that provides excellent resistance against corrosion. This method, known as fusion bonding, is commonly used in offshore and underground pipelines. Moreover, a layer of corrosion-resistant alloy can be applied to the steel pipe. This alloy is typically a combination of metals such as nickel, chromium, and molybdenum, which offer superior protection against corrosion in harsh environments. The choice of coating method depends on factors like operating conditions, the presence of corrosive substances, and the expected lifespan of the steel pipes. By effectively applying these coatings, steel pipes can be safeguarded against corrosion, extending their durability and ensuring the integrity of the infrastructure they are used in.

Q: How are steel pipes protected against lightning strikes?: Steel pipes are protected against lightning strikes by installing lightning rods or grounding systems on top of the structures where the pipes are located. These systems help to divert the electrical discharge from lightning strikes, reducing the risk of damage to the steel pipes.

Q: What are the different end types for steel pipes?: There are several different end types for steel pipes, each serving a specific purpose. Some common end types include: 1. Plain End: This is the most basic type of end for steel pipes, where the pipe has no threading or any other special end treatment. Plain ends are typically used for non-threaded applications or when the pipe is intended to be welded. 2. Threaded End: Threaded ends have male threads on one or both ends of the pipe, allowing for easy connection with other threaded fittings or pipes. This type of end is commonly used in plumbing and gas applications where the pipe needs to be easily assembled or disassembled. 3. Beveled End: Beveled ends are cut at an angle, typically 30 or 45 degrees, to facilitate welding. The bevel creates a smooth transition between the pipe and the weld joint, ensuring a strong and secure connection. Beveled ends are commonly used in construction, oil and gas, and pipeline industries. 4. Coupling End: Coupling ends have female threads on both ends of the pipe, enabling two pipes to be joined together using a coupling or a fitting. This type of end is often used in plumbing systems or for connecting sections of pipes that need to be easily disassembled. 5. Flanged End: Flanged ends have a flared or raised lip on one or both ends of the pipe, allowing for easy attachment to other flanged components, such as valves or pumps. Flanged ends are commonly used in industrial applications where the pipe needs to be securely connected to other equipment. 6. Socket Weld End: Socket weld ends have a socket or recess on one or both ends of the pipe, allowing for easy connection with socket weld fittings. This type of end provides a strong and reliable joint, commonly used in high-pressure applications, such as petrochemical or power plants. These are just a few examples of the different end types for steel pipes. The choice of end type depends on the specific application requirements, such as the need for easy assembly, disassembly, or compatibility with other fittings.

Q: What is the weight and strength of steel pipes?: Steel pipes can vary in weight and strength depending on their dimensions and the specific grade of steel used. The weight of steel pipes is typically measured in pounds per foot or kilograms per meter. The strength of steel pipes is commonly measured in terms of its yield strength and ultimate tensile strength. The weight of steel pipes can range from a few pounds per foot for smaller sizes to several hundred pounds per foot for larger diameters and thicker walls. The weight is influenced by factors such as the pipe's outer diameter, wall thickness, and length. For example, a 1-inch diameter steel pipe with a wall thickness of 0.125 inches may weigh around 0.67 pounds per foot, while a 12-inch diameter steel pipe with a wall thickness of 0.5 inches can weigh around 142 pounds per foot. The strength of steel pipes is determined by the grade of steel used, which can vary depending on the application and specific requirements. Common grades of steel used for pipes include ASTM A53 for general-purpose applications, ASTM A106 for high-temperature service, and API 5L for oil and gas transportation. These grades have different yield strengths and ultimate tensile strengths. Yield strength refers to the amount of stress a steel pipe can withstand before it begins to deform plastically. It is usually measured in pounds per square inch (psi) or megapascals (MPa). For example, ASTM A53 Grade B steel pipe has a minimum yield strength of 35,000 psi (240 MPa), while API 5L Grade X65 steel pipe has a minimum yield strength of 65,000 psi (448 MPa). Ultimate tensile strength, on the other hand, is the maximum stress a steel pipe can withstand before it fractures. It is also measured in psi or MPa. For instance, ASTM A106 Grade B steel pipe has an ultimate tensile strength of 60,000 psi (415 MPa), whereas API 5L Grade X65 steel pipe has an ultimate tensile strength of 77,000 psi (531 MPa). In summary, the weight and strength of steel pipes can vary depending on their dimensions and the grade of steel used. The weight is influenced by factors such as the pipe's diameter, wall thickness, and length, while the strength is determined by the steel's yield strength and ultimate tensile strength.

Q: What are the different methods of joining steel pipes?: There are several different methods of joining steel pipes, including threaded connections, weld connections, flanged connections, and grooved connections. Each method has its own advantages and is suited for different applications. Threaded connections involve screwing the pipes together using threads on the ends of the pipes. Weld connections involve fusing the ends of the pipes together through welding. Flanged connections involve using a flange on each end of the pipe and bolting them together. Grooved connections involve using grooves on the ends of the pipes and connecting them with coupling fittings.

Q: Can steel pipes be used for the construction of transmission towers?: Yes, steel pipes can be used for the construction of transmission towers. Steel pipes are commonly used in the construction industry due to their strength, durability, and ability to withstand various weather conditions. They provide a reliable and cost-effective solution for supporting the weight and load of transmission towers, making them suitable for this purpose.

Q: How do steel pipes handle expansion and contraction?: Steel pipes handle expansion and contraction by allowing the material to expand and contract freely due to their inherent flexibility and elasticity. This prevents the pipes from experiencing excessive stress or damage, ensuring their durability and structural integrity.

Q: Do steel pipes expand or contract with temperature changes?: Steel pipes expand with temperature increases and contract with temperature decreases.

Q: How are steel pipes connected in pipeline construction?: Steel pipes are connected in pipeline construction through various methods such as welding, threading, and flanging. Welding involves joining the pipes using heat and fusion, creating a strong and durable connection. Threading involves screwing two pipes together using threads on the ends of the pipes. Flanging involves connecting the pipes by bolting together flanges on the ends of each pipe. These connection methods ensure a secure and leak-proof pipeline system.

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