Ansi ,Din,jis Stainless Steel Elbow from CNBM

Ansi ,Din,jis Stainless Steel Elbow from CNBM System 1

Ansi ,Din,jis Stainless Steel Elbow from CNBM

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 100 m.t.

Supply Capability:: 3000 m.t./month

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Product Description:

1、 Structure of Ansi ,Din,jis Stainless Steel Elbow Description:

Stainless Steel Elbow is a kind of common pipe fitting used to switch the directions of pipelines in the pipe system. It can allow the pipeline to make a turn at an angle. The features of stainless steel can provide some benefits for the elbow. Because of the chromium content, the stainless steel elbow can be used for longer time. The stainless steel elbow can be widely used in various industries equipments.

‍‍‍2、Main Features of Ansi ,Din,jis Stainless Steel Elbow:

Relatively light weight

Optional torsional strength

Support high pressure

Resist corrosion

Reasonable price‍‍

‍3、 Ansi ,Din,jis Stainless Steel Elbow Images：‍

Ansi ,Din,jis Stainless Steel Elbow from CNBM in China

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4、 Ansi ,Din,jis Stainless Steel Elbow Specification：

HOT SALE elbow
1 Radius:1D-3D
2 size: DN15~DN1800
3.Thickness : 2.8~60mm.
4.Certificate : ISO9001:2000 ,API.

FIRST :the information of our company

we specialize in this field for 14 years, Existing staff more than 300 people, fixed assets of 4 million dollars, current assets 8 million dollars, My company more than 90% for exports,.We have passed ISO9001:2000, API certifications.

SECOND :the standard of the products

Standard:	ANSI B16.9/16.28,ASME B36.10M-1996.
	JIS P2311 /2312/2313 SGP
	DIN 2605 / 2615/2616/2617
	GOST 17379-2001 /17375-2001 /30753-2001/17378-2001
	API
	BS
	EN
	GB

Elbow	DN15~DN1800
Flange	DN~DN4000
Tee	DN15~DN1800
Reducer	DN15~DN1800
Cap	DN15~DN1800
Seamless Steel pipe	DN15~DN600
ERW	DN15~DN1800
SSAW	DN200~DN3600
LSAW	DN300~DN1400
Wall thickness	SCH10-XXS

THIRD :the information of the products

	Stainless steel elbow
Other productions:	butt welded and seamless pipe fittings , such as tee, cross, cap, bend, 45D/90D/180D LR/SR elbow.
Material:	Carbon steel (ASTM A234WPB, A234 WPC , A420 WPL6 ). St45.8 A105 A106 STPG42
	Stainless steel (ASTM A403 WP304/WP304L/WP316/WP316L).
	Alloy steel (ASTM A234 WP12/WP11/WP22/WP5/WP9/WP91).
Size:	Seamless elbow:1/2"~24" DN15~DN600
Size:	Welded Elbow: 1/2”~72" DN15~DN1800
Thickness:	SCH10~SCH160,STD ,XS ,XXS sch5s, sch20s, sch40s, sch80s,SGP./ 2.8mm~60mm
Surface treatment:	Transparent oil, rust-proof black oil hot galvanized
Productivity:	1000 T/month
Min order:	100pieces
Delivery Term:	FOB(30deposite the balance before shipment) CIF or C&F(30% deposite , the balance aginst with the copy of B/L)
Remark:	1. Special design available according to requirement 2. All the production process are made under the ISO9001:2000 ,API,CCS

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‍‍5、FAQ of Ansi ,Din,jis Stainless Steel Elbow‍‍

①How to guarantee the quality of the products？

We have established the international advanced quality management system，every link from raw material to final product we have strict quality test；We resolutely put an end to unqualified products flowing into the market. At the same time, we will provide necessary follow-up service assurance.

②How long can we receive the product after purchase?

In the purchase of product within three working days, We will arrange the factory delivery as soon as possible. The pecific time of receiving is related to the state and position of customers.

③ How can we get more information?

You can contact us by Email or call us directly and we will do our best to give you valuable information as much as possible but this service is not available on weekends.

Q: What is the impact toughness of steel pipes?: The ability of steel pipes to withstand sudden or high-velocity impacts without fracturing or breaking is referred to as their impact toughness. This property measures the material's resistance to cracking when subjected to dynamic loading conditions. The impact toughness of steel pipes is highly significant as it determines their capacity to endure accidental impacts or external forces during transportation, installation, and operation. To evaluate the impact toughness of steel pipes, standardized tests such as the Charpy V-notch test or the Izod test are commonly utilized. These tests involve striking a notched sample of the steel pipe with a pendulum or a falling weight and measuring the amount of energy absorbed by the material until it fractures. The impact toughness is then calculated based on this energy absorption. A high impact toughness is desirable in steel pipes as it signifies a greater ability to absorb energy and resist fracture, making them more resilient to sudden impacts or loading conditions. This characteristic is particularly crucial in applications where steel pipes are exposed to high-stress environments, such as in oil and gas pipelines, automotive components, or structural applications. Several factors can influence the impact toughness of steel pipes, including their chemical composition, heat treatment, and microstructure. For instance, alloying elements like manganese, chromium, and nickel can enhance the impact toughness by promoting the formation of fine-grained microstructures and preventing crack propagation. Similarly, appropriate heat treatment processes like quenching and tempering can optimize the material's microstructure and mechanical properties, thereby improving its impact toughness. In conclusion, the impact toughness of steel pipes is a vital property that determines their ability to withstand sudden or high-velocity impacts. It is evaluated through standardized tests and can be influenced by factors such as chemical composition, heat treatment, and microstructure. A high impact toughness is desirable in steel pipes to ensure their structural integrity and resistance to fracture when subjected to dynamic loading conditions.

Q: Can steel pipes be used for underground cable conduits?: Yes, steel pipes can be used for underground cable conduits. Steel pipes have high strength and durability, making them suitable for protecting and housing cables underground. They provide excellent protection against external elements and can withstand a wide range of environmental conditions. Additionally, steel pipes offer good resistance to corrosion, ensuring the longevity of the cable conduit system.

Q: How do you determine the required wall thickness for steel pipes?: The determination of the necessary wall thickness for steel pipes involves the consideration of multiple factors and calculations. One of the main factors to be taken into account is the pressure to which the pipe will be exposed. As the pressure increases, a thicker wall is required to guarantee that the pipe can endure the internal forces. The material strength of the steel used for the pipe is also a significant factor. Different steel grades possess varying tensile strengths, which directly impact the required wall thickness. Tensile strength refers to the maximum stress a material can withstand before failing, making it crucial to select a steel grade capable of withstanding the expected pressure. Furthermore, the pipe's diameter is influential in determining the necessary wall thickness. Pipes with larger diameters typically necessitate thicker walls to maintain their structural integrity and prevent deformation under pressure. Engineers employ industry standards and formulas to calculate the required wall thickness. The American Society of Mechanical Engineers (ASME) B31 code is the most widely used standard, offering guidelines for designing pressure piping systems. The ASME code integrates safety margins, material properties, and pressure ratings to determine the appropriate wall thickness. Other factors, such as temperature, corrosion, and external loads, can also influence the necessary wall thickness. For instance, applications involving high temperatures may require thicker walls to prevent buckling or softening of the pipe. In conclusion, the determination of the required wall thickness for steel pipes involves the consideration of pressure, material strength, diameter, temperature, and other external forces. Engineers rely on industry standards and calculations to ensure the pipe's ability to safely withstand the intended operating conditions.

Q: Can steel pipes be used for geothermal heating systems?: Yes, steel pipes can be used for geothermal heating systems. Steel pipes are commonly used in the construction of geothermal systems due to their durability, high heat transfer capabilities, and resistance to corrosion. They are capable of withstanding the high temperatures and pressure associated with geothermal heating systems, making them an ideal choice for transporting and distributing the geothermal fluid.

Q: How do steel pipes perform in extreme temperature variations?: Steel pipes perform well in extreme temperature variations due to their high thermal conductivity and resistance to expansion and contraction. They are able to withstand both high and low temperatures without losing their structural integrity or experiencing significant changes in dimensions. This makes steel pipes suitable for a wide range of applications, including those in industries with extreme temperature conditions, such as oil and gas, chemical processing, and power generation.

Q: What is the impact of steel pipe size on flow rate and pressure?: Both the flow rate and pressure are significantly impacted by the size or diameter of a steel pipe. To begin with, the flow rate represents the amount of fluid that can pass through the pipe within a given time frame. A larger diameter allows for a greater flow rate as it provides more space for the fluid to move through. This is because a larger cross-sectional area creates less resistance for the fluid. Consequently, increasing the size of the steel pipe generally leads to an increase in flow rate. Additionally, the size of a pipe affects the pressure within it. As the fluid flows through the pipe, it encounters friction against the pipe walls, resulting in resistance. This resistance causes a drop in pressure along the length of the pipe. A smaller diameter pipe experiences higher frictional losses, leading to a greater pressure drop. Conversely, a larger diameter pipe reduces frictional losses, resulting in a lower pressure drop. Therefore, increasing the size of the steel pipe typically leads to a decrease in pressure drop. It is important to note that although increasing the size of a steel pipe generally leads to a higher flow rate and lower pressure drop, other factors can also influence these parameters. These factors include the properties of the fluid, the length and layout of the pipe, and the presence of valves or fittings. Therefore, it is crucial to consider all these factors and perform accurate calculations or simulations to determine the specific impact of steel pipe size on flow rate and pressure within a given system.

Q: Can steel pipes be used for mining applications?: Indeed, mining applications do permit the utilization of steel pipes. The mining industry frequently employs steel pipes for diverse objectives. Specifically, they are commonly utilized for the conveyance of fluids, such as water or slurry, during mining operations. Steel pipes possess remarkable attributes, including durability, strength, and resistance to corrosion, rendering them suitable for the demanding and corrosive underground mining environments. They have the ability to endure high pressure and effectively manage the substantial loads associated with mining applications. Furthermore, the ease with which steel pipes can be welded and connected facilitates efficient installation and maintenance. Considering all factors, steel pipes prove to be a reliable and economically sound option for mining applications.

Q: What is the difference between steel pipes and HDPE pipes?: Steel pipes are made from a durable alloy of iron and carbon, while HDPE pipes are made from high-density polyethylene, a strong and flexible plastic material. Steel pipes are generally heavier and more rigid, making them suitable for high-pressure applications and structural support. HDPE pipes, on the other hand, are lighter, more flexible, and resistant to corrosion, making them ideal for underground and aboveground installations in various industries including water supply, gas distribution, and sewage systems.

Q: Can steel pipes be used for conveying natural gas?: Yes, steel pipes can be used for conveying natural gas. In fact, steel pipes are commonly used for this purpose due to their strength, durability, and ability to withstand high pressures. Steel pipes also have excellent resistance to corrosion, which is crucial when transporting natural gas that contains impurities like water and sulfur compounds. Additionally, steel pipes can be easily welded, making them ideal for connecting different sections of the pipeline. Overall, steel pipes are a reliable and safe choice for conveying natural gas.

Q: How do steel pipes withstand high pressure and temperature?: Steel pipes are able to withstand high pressure and temperature due to their inherent properties and construction. Steel is known for its strength and durability, making it an ideal material for pipes used in demanding applications. Firstly, steel pipes are made from high-quality steel alloys that have been specifically designed to withstand extreme conditions. These alloys are chosen for their high tensile strength, which allows the pipes to withstand the internal pressure exerted by fluids or gases flowing through them. The steel used in these pipes is often alloyed with other elements such as chromium, molybdenum, or nickel to enhance its resistance to corrosion and high temperatures. Secondly, the construction of steel pipes plays a crucial role in their ability to withstand high pressure and temperature. Steel pipes are typically manufactured using a seamless or welded process. Seamless pipes are made by piercing a solid steel billet, resulting in a continuous and uniform pipe with no seams or joints. This seamless construction eliminates weak points and ensures that the pipe can handle high pressure without any risk of leakage. Welded pipes, on the other hand, are made by joining two or more pieces of steel together using a welding process. The welds are carefully inspected and tested to ensure their integrity and strength. Although welded pipes may have seams, they are equally capable of withstanding high pressure and temperature when manufactured to the appropriate standards. Additionally, steel pipes can be further reinforced to enhance their resistance to pressure and temperature. For instance, pipes used in extremely high-pressure applications may be thicker or have additional layers of protective coatings. These measures help to increase the strength and durability of the pipes, allowing them to withstand even higher pressures and temperatures. In summary, steel pipes are able to withstand high pressure and temperature due to the strength and durability of the steel alloys used in their construction. The seamless or welded construction of these pipes eliminates weak points and ensures their ability to handle extreme conditions. Additional reinforcement and protective coatings can be applied to further enhance their resistance to pressure and temperature.

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