Q235B spiral pipe can be processed inside and outside anti-corrosion

Ref Price:
Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
1 m.t.
Supply Capability:
1000 m.t./month
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Item specifice

Standard:
AISI,JIS,GB,BS,DIN,API,EN,ASTM
Technique:
Hot Rolled,Saw
Shape:
Round
Surface Treatment:
Galvanized,Oiled,Black,PVDF Coated
Steel Grade:
Q195,Q215,Q235,Q215B,Q235B,RHB335,HRB400,200 Series,300 Series,400 Series,600 Series,SS400-SS490,10#,20#,A53(A,B)
Thickness:
3-100mm
Length:
6-12m
Outer Diameter:
20-2020
Net Weight:
1t

Our main products are: seamless steel tube (hot rolling, cold drawing);Spiral steel tube;Straight seam steel tube;Heat expanding steel tube;Large diameter thick wall steel tube;Alloy steel tube;Anti-corrosion and heat preservation steel pipe.Scope of seamless steel tube: diameter 57mm-910mm wall thickness 2.0mm-26mm;Double-sided submerged arc welding spiral steel tube: diameter: 219mm-3600mm; wall thickness: 6.0mm-30mm;Straight seam resistance welded steel tube (ERW) : diameter 21.3mm-457.2mm wall thickness 1.8mm-14.27mm and straight seam double-sided submerged arc welding pipe: diameter 310mm-3200mm wall thickness 6mm-60mm;Thermal expansion seamless steel tube: diameter 245mm-920mm wall thickness 6.0mm-34mm;Large diameter thick wall steel tube: diameter 351mm-3600mm wall thickness 26mm-80mm. Seamless steel tube execution standard: GB/T8162 8163 3087 5310 6479 9948 5312.Helical steel tube executive standard: GB/T9711.1 9711.2 SY/T5037 5040 APTSPEC 5L.Straight seam steel pipe standards: GB/T3091971113793APISpec5L.Thermal expansion steel pipe executive standard: GB/T8162 8163 3091.Large diameter thick wall steel pipe executive standard: GB/T3091 3092 14980 13793.Alloy steel pipe standards: GB3087, 5310, 6479, 9948 SY/T6194API5CTAPI5LAPI5BASTM53M?ASTMA106 ASTMA213/213 m DIN17175. 

According to customer requirements, the company can undertake steel tube of the single and double fusion bonded epoxy (FBE), double polyethylene powder (2 PE pipe) and three layers of polyethylene (3 PE steel pipe), double polypropylene (pp) and polypropylene (pp), three layer of epoxy coal tar anti-corrosion coating pipeline anticorrosion engineering and IPN8710 polymer anticorrosive coatings, cement mortar pipe wall corrosion pipe internal coating such as a variety of anti-corrosion structure of directly buried steel pipeline anticorrosion engineering and rock wool insulation sets of steel, black/yellow leather jacket polyurethane foam insulation pipe engineering, execution DIN30670?30671, SY/T4013 0315 standard, is widely used in oil, natural gas, gas, water and other long transmission pipelines and petrochemical enterprises urban central heating pipe network, gas pipe network and other projects, products with high strength, high pressure, easy to install, low cost, long service life and many other advantages, by the user's praise.

Q235B spiral pipe can be processed inside and outside anti-corrosion

Q235B spiral pipe can be processed inside and outside anti-corrosion

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Q:
The environmental impacts of using steel pipes include the extraction and processing of raw materials, which contribute to deforestation, habitat destruction, and greenhouse gas emissions. Additionally, the production of steel pipes requires significant amounts of energy and water, leading to resource depletion and pollution. However, steel pipes are durable and recyclable, reducing the need for new materials and minimizing waste. Proper management and recycling practices can help mitigate the environmental impacts associated with steel pipe usage.
Q:
There exists a variety of methods for bending steel pipes, each possessing its own advantages and limitations. 1. Manual Pipe Bending: The bending of steel pipes is achieved through the utilization of hand tools or a manual pipe bender. This method is best suited for small-scale projects or situations where only a few bends are necessary. However, it demands skill and precision to ensure accurate and consistent bends. 2. Rotary Draw Bending: This method involves the utilization of a mandrel, clamp die, and a bending die to bend the pipe around a stationary bend die. The mandrel serves to preserve the shape of the pipe and prevent wrinkling or collapsing during the bending process. Rotary draw bending is commonly employed to produce tight-radius bends with high accuracy and repeatability. 3. Induction Pipe Bending: In this method, a specific area of the steel pipe is heated using an induction coil, rendering it more malleable for bending. Once the desired temperature is attained, hydraulic or mechanical force is applied to bend the pipe. Induction bending is suitable for large-diameter pipes or situations requiring multiple bends in a single pipe. 4. Roll Bending: Also referred to as pyramid rolling, this method involves passing the steel pipe through three adjustable rolls that gradually shape the pipe into the desired form. Roll bending is suitable for generating large-radius bends and is frequently employed in the construction of spiral staircases, handrails, and structural applications. 5. Hot Bending: This method necessitates heating the steel pipe to elevated temperatures, typically accomplished using a furnace, in order to facilitate bending. Hot bending permits greater flexibility in shaping the pipe and is commonly used for large-diameter or thick-walled pipes. However, it demands specialized equipment and expertise to control the temperature and prevent distortion or damage to the pipe. When selecting the appropriate method of pipe bending for steel pipes, it is crucial to take into account factors such as the required bend radius, pipe diameter, wall thickness, and project specifications. Seeking the advice of an experienced pipe bending professional or engineer can assist in determining the most suitable method for a specific application.
Q:
Steel pipes are typically protected during transportation and storage through various measures such as corrosion prevention coatings, wrapping them with protective materials like plastic or rubber, and securing them properly to prevent any damage or movement.
Q:
Steel pipes are widely used in the construction of nuclear power plants for various critical applications. They are employed in the primary coolant system, where they carry and circulate the pressurized water or liquid metal coolant that transfers heat from the reactor core to the steam generator. Steel pipes are also utilized in the secondary coolant system, which transports the generated steam to drive the turbine for electricity production. Additionally, steel pipes are used for the construction of various auxiliary systems, such as the emergency cooling system or the ventilation system, ensuring the safe and efficient operation of nuclear power plants.
Q:
In order to establish the maximum allowable stress for steel pipes, several factors must be taken into account. These factors encompass the type of steel, the dimensions of the pipe, and the operating conditions it will be exposed to. To begin with, the type of steel chosen is a pivotal aspect in determining the maximum allowable stress. Different steel grades possess distinct mechanical properties, including yield strength, tensile strength, and elongation. These properties define the steel's capacity to withstand stress before deforming or failing. Hence, it is crucial to comprehend the specific grade of steel employed in the pipes to ascertain the maximum allowable stress. Additionally, the dimensions of the pipe are of utmost importance. The external diameter, wall thickness, and length all impact the pipe's strength and ability to handle stress. By calculating the cross-sectional area and moment of inertia, engineers can evaluate the pipe's resistance to bending and axial stresses. These calculations, combined with the material properties, facilitate the determination of the maximum allowable stress. Finally, the operating conditions under which the pipe will be utilized play a critical role. Variables such as temperature, pressure, and the presence of corrosive substances can significantly influence the maximum allowable stress of a steel pipe. Elevated temperatures can alter the mechanical properties of the steel, while high pressures can induce additional stress. Furthermore, the presence of corrosive substances can lead to material degradation and diminish the pipe's strength. Thus, considering these operational factors is essential when determining the maximum allowable stress. To summarize, the process of establishing the maximum allowable stress for steel pipes entails assessing the specific steel grade, the pipe's dimensions, and the operating conditions. By analyzing these factors, engineers can ensure that the steel pipe is designed and utilized within its safe stress limits.
Q:
Steel pipes are typically protected against ultraviolet (UV) radiation through the application of specialized coatings or paints that act as a barrier, preventing direct exposure of the steel to UV rays. These coatings are designed to withstand UV degradation, prevent corrosion, and extend the lifespan of the pipes.
Q:
There are several factors that can affect the durability of steel pipes. These include corrosion, temperature fluctuations, mechanical stress, and exposure to chemicals or abrasive materials. Additionally, the quality of the steel used in the pipes, the design and construction of the piping system, and proper maintenance and inspection practices can also impact their durability.
Q:
Yes, steel pipes can be used for fire sprinkler systems. Steel pipes are commonly used in fire sprinkler systems due to their durability, high heat resistance, and ability to withstand high water pressure. They are also cost-effective and widely available, making them a popular choice for such systems.
Q:
Steel pipes are an essential component in the chemical manufacturing industry as they are used for various purposes such as transporting chemicals, gases, and liquids safely and efficiently. They provide a durable and corrosion-resistant infrastructure, ensuring the integrity of the chemical processes. Steel pipes also play a crucial role in maintaining the overall safety and reliability of the manufacturing operations.
Q:
Yes, steel pipes can be used for wastewater treatment facilities. Steel pipes are known for their durability, corrosion resistance, and high strength, which makes them suitable for handling various types of wastewater and harsh chemicals. Additionally, steel pipes can be easily welded, allowing for flexibility in design and installation.

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