• API-5CT EUE Tubing Pipe System 1
API-5CT EUE Tubing Pipe

API-5CT EUE Tubing Pipe

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
-
Supply Capability:
20000ton m.t./month

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API-5CT EUE Tubing Pipe

The API external-upset-end (EUE) tubing pipe is broadly used due to the fact that is a good, serviceable interconnection in the majority of wells.

Without the need of modifying the actual thread shape, the joint dimension will increase because of  upsetting procedure. The EUE joint features a designed joint strength in tension and pressure strength much higher than that of the pipe overall body and, as a result, is considered a 100% joint effective connection.

To enhance  seal efficiency of API EUE tubing in high-pressure system, a grooved coupling, which accepts nonmetallic seal rings, is quite often applied in the coupling (see API Spec. 5CT SR 13).

API EUE joints come in OD sizes of 1.050 to 4.500 inch.

ParametersValue
Material
J55, K55, N80, N80Q, L80, P110, other grade available as your requirement
Outer Diameter
2-3/8"~4-1/2" (73.02~114.3mm)
Wall Thickness
4.83~16mm
Forms of Thread
EUE, NUE and Integral-joint
Length Range
R1(20~24ft), R2(28~32ft)
MTR
accordance with API Specification 5CT

Tolerances

ParametersValue
Outside diameter
+-0.031 inch (0.79mm)
Wall thickness
-12.5%, positive deviations are limited by pipe weight
Weight Deviation
+6.5% /-3.5%

Mechanical Properties

GradeTensile Strength (PSI/MPa)Yield Strenght (PSI/MPa)
H-40
No less than 60000(414)
Between 40000 (276) ~ 80000 (552)
J-55
No less than 75000 (517)
Between 55000 (379) ~ 80000 (552)
N-80
No less than 100000 (689)
Between 80000 (552) ~ 110000 (758)
P-110
No less than 125000 (862)
Between 110000 (758) ~ 140000 (965)


                       


                       

Inspection

Physical properties are checked and each length hydrostatically tested, normally to only 3,000 psi in the plain end (unthreaded) condition. The following are also checked:

  • Dimensions

  • Weights

  • Straightness

  • Lengths

Part of this inspection is to drift all lengths.
Despite all the American Petroleum Institute (API) specifications and testing, some tubing defects are still found after delivery; thus, some operators do further inspection.

Inspection Method

  • Size and surface inspection

  • NDT and pressure test and third party certication

  • Hydrostatic

  • Drifting test

  • Physical and chemicail analysis

  • Hardness and pressure test.

  • Electromagnetic

  • Magnetic particle

  • Ultrasonic

Dimensions and Weight

                   

sizes

ODD
mm

weight

wtt
mm

Type of end

1

2

NU kg/m

EU kg/m

IJ kg/m

NU

EU

IJ

H40

J55

L80

N80 1¸Qàà

C90

T95

P110

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

2-3/82-3/82-3/8
2-3/8
2-3/8

4.004.605.80
6.60
7.35

-4.705.95
-
7.45


-
-

60.3260.3260.32
60.32
60.32

5.956.858.63
9.82
10.94

-6.998.85
-
11.09


-
-

4.244.836.45
7.49
8.53

PUPNU-
-
-

PNPNU-
-
-

PNPNUPNU
P
PU

PNPNUPNU
-
-

PNPNUPNU
P
PU

PNPNUPNU
P
PU

-PNUPNU
-
-

2-7/82-7/82-7/8
2-7/8
2-7/8
2-7/8

6.407.808.60
9.35
10.50
11.50

6.507.908.70
9.45
-
-


-
-
-

73.0273.0273.02
73.02
73.02
73.02

9.5211.6112.80
13.91
15.63
17.11

9.6711.7612.95
14.06
-
-


-
-
-

5.517.017.82
8.64
9.96
11.18

PNU–
-
-
-

PNU–
-
-
-

PNUPNUPNU
PU
P
P

PNUPNUPNU
-
-
-

PNUPNUPNU
PU
P
P

PNUPNUPNU
PU
P
P

PNUPNUPNU
-
-
-

3-1/23-1/23-1/2
3-1/2
3-1/2
3-1/2
3-1/2

7.709.2010.20
12.70
14.30
15.50
17.00

-9.30-
12.95
-
-
-


-
-
-
-

88.9088.9088.90
88.90
88.90
88.90
88.90

11.4613.6915.18
18.90
21.28
23.07
25.30

-13.84-
19.27
-
-
-


-
-
-
-

5.496.457.34
9.52
10.92
12.09
13.46

PNPNUPN
-
-
-
-

PNPNUPN
-
-
-
-

PNPNUPN
PNU
P
P
P

PNPNUPN
PNU
-
-
-

PNPNUPN
PNU
P
P
P

PNPNUPN
PNU
P
P
P

-PNU-
PNU
-
-
-

444
4
4
4

9.5010.7013.20
16.10
18.90
22.20

-11.00-
-
-
-


-
-
-

101.60101.60101.60
101.60
101.60
101.60

14.14-19.64
23.96
28.13
33.04

-16.37-
-
-
-


-
-
-

5.746.658.38
10.54
12.70
15.49

PNPU-
-
-
-

PNPU-
-
-
-

PNPUP
P
P
P

PNPU-
-
-
-

PNPUP
P
P
P

PNPUP
P
P
P


-
-
-

4-1/24-1/2

12.6015.20

12.75-

114.30114.30

18.7522.62

18.97-

6.888.56

PNU-

PNU-

PNUP

PNU-

PNUP

PNUP

4-1/24-1/24-1/2
4-1/2
4-1/2

17.0018.9021.50
23.70
26.10


-
-


-
-

114.30114.30114.30
114.30
114.30

25.3028.1332.00
35.27
38.84


-
-


-
-

9.6510.9212.70
14.22
16.00


-
-


-
-

PPP
P
P


-
-

PPP
P
P

PPP
P
P


-
-

P——Plain end;N—Non-upset threaded and coupled;U—External upset threaded and coupled;I—insert joint.

Dalipal Company is one of the most famous enterprises of china professionally producing pipeline and oil casing.We can supply API 5CT series of pipeline and oil casing with all kinds of specifications and materials.We have first-class production equipment and technology.


Q: What is the difference between steel pipes and PVC-M pipes?
Steel pipes are made of a strong and durable metal, while PVC-M pipes are made of a thermoplastic material known as polyvinyl chloride modified. The main difference lies in their composition and characteristics. Steel pipes are typically heavier and more robust, offering greater strength and resistance to high pressure and temperature. On the other hand, PVC-M pipes are lightweight, flexible, and corrosion-resistant, making them ideal for applications where chemical resistance and ease of installation are crucial factors.
Q: Does seamless steel tube have a bend of 135 degrees?
Other name: 90 degree elbow, right angle bend, love bend, punching elbow, pressing elbow, mechanism bend, welding elbow, etc..Usage: connect two pipes with same nominal diameter or different pipe, make the pipe bend at 90, 45, 180 degrees and various degrees.Bending radius is less than or equal to 1.5 times the diameter of the elbow. It is 1.5 times larger than the pipe diameter and belongs to the elbow
Q: What is the difference between steel pipe and fiberglass pipe?
Steel pipe and fiberglass pipe differ in terms of material composition, durability, flexibility, and cost. Steel pipe is made of steel, which provides strength and resilience, making it ideal for high-pressure applications and underground installations. Fiberglass pipe, on the other hand, is composed of reinforced plastic fibers, resulting in a lightweight and corrosion-resistant material suitable for above-ground and corrosive environments. While steel pipe offers higher tensile strength, fiberglass pipe excels in its flexibility, allowing for easier installation and reduced maintenance. Additionally, steel pipe is typically more expensive due to the cost of materials and manufacturing processes, while fiberglass pipe is more cost-effective in terms of initial installation and long-term maintenance.
Q: Can steel pipes be used for marine applications?
Yes, steel pipes can be used for marine applications. Steel pipes have excellent strength and corrosion resistance, making them suitable for various marine environments. They are commonly used in shipbuilding, offshore structures, and underwater pipelines due to their durability and ability to withstand harsh conditions in saltwater.
Q: The difference between 12Cr1MoVG alloy steel tube and 15CrMo
12Cr1MoVG is a kind of material for alloy tubes. The main purpose is to make the steel structure in the boiler, the use temperature of 580 degrees, requiring high temperature resistance steel plate, durable strength, steel plate in the normalized and tempered state delivery. 12Cr1MoV alloy tube is based on high quality carbon structural steel. It is appropriate to add one or more alloy elements to improve the mechanical properties, toughness and hardenability of steel.
Q: Are steel pipes suitable for use in coastal areas?
Yes, steel pipes are suitable for use in coastal areas. Steel is highly durable and resistant to corrosion, making it an ideal choice for withstanding the harsh conditions typically found in coastal environments, such as saltwater, high humidity, and strong winds. Additionally, steel pipes offer excellent strength and stability, ensuring their longevity and reliability in coastal applications.
Q: What are the different types of steel pipe reducers?
There are several different types of steel pipe reducers that are commonly used in various industrial applications. These reducers are designed to connect pipes of different sizes, allowing for a smooth transition in the flow of fluids or gases. Here are some of the most common types: 1. Concentric Reducers: These reducers have a symmetrical design with a centerline that aligns with the centerline of both the larger and smaller pipes. They provide a gradual reduction in pipe size, ensuring a smooth flow of material. 2. Eccentric Reducers: Unlike concentric reducers, eccentric reducers have an offset centerline. This design is useful when there is a need to prevent the accumulation of air or gases in the piping system. The eccentric reducer helps to direct any gas or air towards a vent or drain point. 3. Welded Reducers: These reducers are made by welding two pipes of different sizes together. They are commonly used in situations where a permanent connection is required. 4. Seamless Reducers: Seamless reducers are manufactured without any welded joints. They are made from a single piece of steel, which enhances their strength and durability. Seamless reducers are often preferred in applications where leak-proof connections are critical, such as in high-pressure or high-temperature environments. 5. Threaded Reducers: These reducers have male and female threads on either end, allowing for easy installation and removal. They are commonly used in low-pressure applications and are an economical choice for systems that require frequent disassembly. 6. Flanged Reducers: Flanged reducers have flanges on both ends, which are bolted together to create a tight seal. They are often used in piping systems that require easy access for maintenance or inspection. Each type of steel pipe reducer has its own advantages and is selected based on the specific requirements of the application. It is important to consider factors such as the type of fluid or gas being transported, pressure and temperature conditions, and the need for easy installation or maintenance when choosing the appropriate reducer for a particular system.
Q: What are the different methods of pipe welding for steel pipes?
Steel pipes can be welded using various methods, each with its own advantages and applications. Here are some commonly used techniques: 1. Stick welding, also called Shielded Metal Arc Welding (SMAW), involves manually melting a consumable electrode coated in flux. The flux creates a protective shield around the weld pool. SMAW is versatile and can be used in different positions, making it suitable for both field and workshop applications. 2. Gas Metal Arc Welding (GMAW), also known as MIG welding, uses a continuous wire electrode fed through a welding gun. The gun supplies a shielding gas, such as argon or a mixture of argon and carbon dioxide, to protect the weld pool from contamination. GMAW is known for its high welding speed and is commonly used in industrial settings. 3. Flux-Cored Arc Welding (FCAW) is similar to GMAW, but the wire electrode is filled with flux instead of relying on an external gas. The flux creates a protective shield around the weld pool, eliminating the need for a separate gas supply. FCAW is often used in outdoor and windy conditions for better protection against contamination. 4. Gas Tungsten Arc Welding (GTAW), also called TIG welding, uses a non-consumable tungsten electrode to create the weld. A separate shielding gas, typically argon, is used to protect the weld pool. GTAW produces high-quality welds with excellent control, making it suitable for precision applications. 5. Submerged Arc Welding (SAW) is an automated process that uses a continuously fed wire electrode and a granular flux poured over the weld joint. The arc is submerged beneath the flux, providing excellent protection against contamination. SAW is commonly used in heavy fabrication and pipeline industries due to its high deposition rates and deep penetration capabilities. These are just a few of the methods available for welding steel pipes. The choice of method depends on factors such as the application, material thickness, desired weld quality, and available equipment. Selecting the appropriate method is crucial to ensure strong and reliable welds in steel pipe applications.
Q: What are the common factors affecting the lifespan of steel pipes?
There are several common factors that can affect the lifespan of steel pipes. 1. Corrosion: Corrosion is one of the primary factors that can significantly reduce the lifespan of steel pipes. Exposure to moisture, chemicals, and harsh environmental conditions can cause the steel to rust and deteriorate over time. 2. Quality of materials: The quality of the steel used in manufacturing the pipes plays a crucial role in determining their lifespan. Higher-quality steel with better resistance to corrosion and other forms of degradation will generally have a longer lifespan compared to lower-grade materials. 3. Installation and maintenance practices: Proper installation and regular maintenance are essential for ensuring the longevity of steel pipes. Improper installation techniques, such as inadequate support or improper alignment, can lead to premature failure. Similarly, neglecting routine maintenance, such as cleaning and inspection, can accelerate the degradation process. 4. Operating conditions: The operating conditions to which steel pipes are exposed can also impact their lifespan. Factors such as temperature, pressure, and the type of fluid or gas being transported can all affect the integrity of the pipes. Extreme conditions, such as high temperatures or corrosive substances, can significantly reduce the lifespan of steel pipes. 5. Mechanical stress: Excessive mechanical stress, such as vibration, impact, or heavy loads, can weaken steel pipes over time. This stress can lead to cracking, deformation, or even complete failure if not properly managed or accounted for during the design and installation process. 6. Environmental factors: The surrounding environment can have a significant impact on the lifespan of steel pipes. Exposure to harsh weather conditions, such as extreme temperature variations or frequent freeze-thaw cycles, can accelerate the deterioration process. Additionally, the presence of pollutants or aggressive substances in the surrounding soil or water can also contribute to the degradation of steel pipes. In summary, the lifespan of steel pipes can be affected by factors such as corrosion, material quality, installation and maintenance practices, operating conditions, mechanical stress, and environmental factors. By considering and addressing these factors, it is possible to extend the lifespan of steel pipes and ensure their durability and reliability.
Q: What is the lifespan of a steel pipe?
The lifespan of a steel pipe can vary depending on several factors such as the quality of the steel used, the conditions it is exposed to, and proper maintenance. However, on average, a well-maintained steel pipe can last anywhere from 20 to 50 years.

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