• HFW STEEL PIPE  ASTM A53 GR.B / ASTM A252 GR.2/ASTM A252 GR.3 System 1
  • HFW STEEL PIPE  ASTM A53 GR.B / ASTM A252 GR.2/ASTM A252 GR.3 System 2
HFW STEEL PIPE  ASTM A53 GR.B / ASTM A252 GR.2/ASTM A252 GR.3

HFW STEEL PIPE ASTM A53 GR.B / ASTM A252 GR.2/ASTM A252 GR.3

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
20 m.t.
Supply Capability:
10000 m.t./month

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Product Name

Longitudinally welded steel pipe / ERW Steel pipe / Carbon steel pipe/ HFW steel pipe

            Size

OD

4"-32"/114mm-813mm

Thickness

6.5mm-20mm 

Length

6m-23

    Steel Material

GR.B X42 X52 X56 L245 L290 L360 L415 S245 S290 S360 S390 S355JR S275 

Standard

API 5L PLS 1/ASTM A53/ASTM A36/ASTM A500/EN10219/SS400/SS440

Usage

Oil Pipe, Casing Tube, Line Pipe and Fluid (Water, Gas) Transmission 

Surface

Bared Black Painting, Anti-Corrosion Coating 

Proctor

Plastic cap

Package

Bundles, Bulk

Inspection

With Hydraulic Testing, Ultrasonic testing or X-ray Test

Certificate

API and ISO9001;2000

Date of Delivery

Less Than 15/20/25/30/40/50/60 Days According To The Quantity

Payment:

L/C or T/T 

Port of Shipment

Xingang,China

Q:Fastener type steel pipe scaffold steel pipe wall thickness
The scaffolding steel pipe should be specified with the current national standard "GB/T13793" or "straight seam welded steel pipe welded steel pipe for low pressure liquid delivery" GB/T3091 Q235 ordinary steel pipe; steel pipe steel quality should meet the requirements of current national standard grade Q235 steel "carbon structural steel" in GB/T700
Q:Can steel pipes be used for underground drainage systems?
Yes, steel pipes can be used for underground drainage systems. Steel pipes are durable, strong, and resistant to corrosion, making them a suitable choice for underground applications. They can effectively handle the flow of water and withstand the pressure of soil and external elements. However, it is important to ensure proper insulation and anti-corrosion measures are in place to protect the steel pipes from potential damage caused by moisture and chemical reactions.
Q:Who knows what is the difference between double submerged arc welded pipe and longitudinal submerged arc welding?
Double submerged arc welding is also a kind of longitudinal submerged arc welding.
Q:How are steel pipes used in the renewable energy sector?
Steel pipes are widely used in the renewable energy sector for various applications. They are commonly used for the construction of wind turbine towers, providing structural support and stability. Steel pipes are also used in the construction of solar power plants, where they are utilized for the installation of solar panels, mounting structures, and support systems. Additionally, steel pipes are employed in geothermal energy projects, helping to extract and transfer hot water or steam from underground reservoirs. Overall, steel pipes play a crucial role in the renewable energy sector by facilitating the efficient generation and transmission of clean energy.
Q:How are steel pipes cleaned and maintained?
Steel pipes are cleaned and maintained through various methods. The process typically involves removing any debris or rust from the pipes using wire brushes or sandblasting. After cleaning, a protective coating is applied to prevent corrosion. Regular inspections and maintenance checks are also conducted to identify any potential issues such as leaks or weak points, ensuring the pipes remain in optimal condition.
Q:How are steel pipes threaded for easy installation?
Steel pipes are threaded for easy installation by using a specialized machine called a pipe threading machine. This machine cuts precise threads onto the ends of the steel pipes, allowing them to be easily connected and tightened together using threaded fittings or couplings. This threading process ensures a secure and leak-proof connection, making installation quick and efficient.
Q:What are the advantages of using steel pipes over other materials?
Using steel pipes instead of other materials has several advantages: 1. Exceptional strength and durability: Steel pipes have the ability to withstand high pressure, heavy loads, and extreme weather conditions. This makes them suitable for various uses, such as transporting fluids and gases, providing structural support, and laying underground pipelines. 2. Enhanced resistance to corrosion: Steel pipes can be coated with different materials to increase their resistance to corrosion. This makes them ideal for transporting corrosive substances like water and chemicals without the risk of pipe degradation. Additionally, steel pipes are less prone to rust, which prolongs their lifespan. 3. Long-term cost-effectiveness: Although the initial cost of steel pipes may be higher than other materials, they offer long-term cost-effectiveness. Due to their durability and resistance to corrosion, steel pipes require less maintenance and replacement, resulting in reduced operational costs over time. 4. Versatility: Steel pipes come in various sizes, shapes, and thicknesses, making them versatile for different applications. They can be easily customized and fabricated to meet specific requirements, such as bending, welding, and threading. 5. Fire resistance: Steel pipes have a high melting point, making them resistant to fire and reducing the risk of structural damage in case of a fire incident. This characteristic is particularly important in industries where fire safety is crucial, such as oil and gas, chemical, and construction. 6. Environmentally friendly: Steel is a recyclable material, and steel pipes can be recycled and reused multiple times without compromising their quality. This not only reduces the demand for new materials but also contributes to environmental sustainability. 7. Excellent flow characteristics: Steel pipes have smooth internal surfaces, minimizing friction and allowing for efficient flow of fluids and gases. This advantage is particularly significant in industries where fluid dynamics and energy efficiency are essential, such as oil and gas, water supply, and HVAC systems. In conclusion, steel pipes offer numerous advantages over other materials, including strength, durability, corrosion resistance, cost-effectiveness, versatility, fire resistance, eco-friendliness, and excellent flow characteristics. These advantages make steel pipes the preferred choice for a wide range of applications in various industries.
Q:How are steel pipes used in the construction of coal-fired power plants?
Steel pipes are used in the construction of coal-fired power plants for various purposes. They are primarily utilized for the transportation of coal and other materials such as water, steam, and flue gas within the plant. Steel pipes are also used for the construction of high-pressure and high-temperature pipelines, which are essential for the efficient operation of boilers, turbines, and other equipment. Additionally, steel pipes are employed in the construction of structural components, such as support systems, frames, and columns, providing strength and stability to the overall infrastructure of the power plant.
Q:How are steel pipes used in the manufacturing of furniture?
Steel pipes are commonly used in the manufacturing of furniture to provide structural support and stability. They are often used as the framework for chairs, tables, and other pieces of furniture. Steel pipes are strong, durable, and can be easily manipulated and welded to create various designs and shapes. Additionally, steel pipes can be finished with different coatings or paints to enhance their appearance and protect against corrosion.
Q:How do you calculate the pipe flow velocity coefficient for steel pipes?
The Manning's equation is employed to determine the flow velocity in open channels and pipes, taking into consideration the hydraulic radius, slope, and roughness coefficient of the pipe. By applying this equation, the pipe flow velocity coefficient for steel pipes can be calculated. To ascertain the pipe flow velocity coefficient for steel pipes, the following steps should be followed: 1. Calculate the hydraulic radius (R) of the steel pipe by dividing the cross-sectional area (A) of the pipe by the wetted perimeter (P). The formula to use is R = A/P. 2. Determine the slope (S) of the pipe, which is the change in elevation divided by the length of the pipe. Usually, it is expressed as a ratio or a percentage. 3. Obtain the roughness coefficient (n) of the steel pipe, representing the internal roughness of the pipe. This information can be found in literature or pipe manufacturer specifications, often given in terms of the Manning's roughness coefficient. 4. Insert the values of hydraulic radius (R), slope (S), and roughness coefficient (n) into the Manning's equation: V = (1/n) * R^(2/3) * S^(1/2) where V signifies the flow velocity. 5. Solve the equation for V to calculate the pipe flow velocity coefficient for steel pipes. It is crucial to note that the calculated velocity coefficient may differ depending on specific pipe dimensions, flow conditions, and other factors. Therefore, it is advisable to consult relevant engineering standards or seek guidance from a hydraulic engineer to ensure accurate and reliable calculations for specific applications.

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