China Copper Pipe Coupling with Stacked Stop coupling chemistry

Product Description

Copper Pipe Coupling with Stacked Stop

1.
Generation Specifications

Requirements:
Alloy: C12200, Cu-DHP
Dimension range: OD measurement from 1/4" to 4-1/8" (from 6mm to 108mm)
Sort: CxC, FTGx C
Marking: our brand name + dimension
Packing: Sealed by plastic bag, packing in strong sea deserving carton and palletized
Regular: ASME B16.22, EN 1254-one
Software: for plumbing, refrigeration and health-related gas
Shipping time: 4-5 months
  
Copper Fittings Dimensions

Nominal Dimensions Male Conclude (inch) Female End (inch) Wall Thickness
(inch)
Outside Diameter Size Inside Diameter Depth
Min. Max. Min. Min. Max. Min. Min.
1/4" .373 .376 .38 .377 .381 .31 .571
three/8" .497 .501 .forty four .502 .506 .38 .026
one/2" .622 .626 .fifty six .627 .631 .fifty .571
five/8" .747 .751 .69 .752 .756 .62 .031
three/4" .872 .876 .eighty one .877 .881 .seventy five .033
1" one.122 one.127 .97 1.128 one.132 .ninety one .040
1-1/4" 1.372 1.377 one.03 1.378 one.382 .ninety seven .044
1-1/2" 1.621 1.627 one.sixteen one.628 one.633 1.09 .051
two" 2.121 2.127 one.forty one two.128 two.133 one.34 .059
two-1/2" 2.621 two.627 one.53 2.628 two.633 one.forty seven .067
three" three.121 three.127 one.72 3.128 3.133 1.sixty six .075
three-1/2" three.621 three.627 1.97 three.628 three.633 one.91 .086
4" four.121 four.127 two.22 4.128 four.133 2.sixteen .096

 

 Copper Fittings Interior Operating Stress

Nominal Size Internal Doing work Pressure (psi)
-twenty-100°F 150°F 200°F 250°F 300°F 350°F 400°F
one/4" 912 725 729 729 714 608 456
three/8" 779 662 623 623 610 519 389
1/2" 722 613 577 577 565 481 361
five/8" 631 537 505 505 495 421 316
3/4" 582 495 466 466 456 388 291
one" 494 420 395 395 387 330 247
one-1/4" 439 373 351 351 344 293 219
one-1/2" 408 347 327 327 320 272 204
two" 364 309 291 291 285 242 182
2-1/2" 336 285 269 269 263 224 168
3" 317 270 254 254 248 211 159
3-1/2" 304 258 243 243 238 202 152
four" 293 249 235 235 230 196 147

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6.

US $0.12-6.5
/ Piece
|
1,000 Pieces

(Min. Order)

###

Connection: Welding
Structure: Vertical
Flexible or Rigid: Rigid
Material: Copper
Standard: Standard
Cu: 99.90% Minimum

###

Samples:
US$ 1/Piece
1 Piece(Min.Order)

|
Request Sample

###

Customization:

###

Nominal Size Male End (inch) Female End (inch) Wall Thickness
(inch)
Outside Diameter Length Inside Diameter Depth
Min. Max. Min. Min. Max. Min. Min.
1/4" 0.373 0.376 0.38 0.377 0.381 0.31 0.023
3/8" 0.497 0.501 0.44 0.502 0.506 0.38 0.026
1/2" 0.622 0.626 0.56 0.627 0.631 0.50 0.029
5/8" 0.747 0.751 0.69 0.752 0.756 0.62 0.031
3/4" 0.872 0.876 0.81 0.877 0.881 0.75 0.033
1" 1.122 1.127 0.97 1.128 1.132 0.91 0.040
1-1/4" 1.372 1.377 1.03 1.378 1.382 0.97 0.044
1-1/2" 1.621 1.627 1.16 1.628 1.633 1.09 0.051
2" 2.121 2.127 1.41 2.128 2.133 1.34 0.059
2-1/2" 2.621 2.627 1.53 2.628 2.633 1.47 0.067
3" 3.121 3.127 1.72 3.128 3.133 1.66 0.075
3-1/2" 3.621 3.627 1.97 3.628 3.633 1.91 0.086
4" 4.121 4.127 2.22 4.128 4.133 2.16 0.096

###

Nominal Size Internal Working Pressure (psi)
-20-100°F 150°F 200°F 250°F 300°F 350°F 400°F
1/4" 912 725 729 729 714 608 456
3/8" 779 662 623 623 610 519 389
1/2" 722 613 577 577 565 481 361
5/8" 631 537 505 505 495 421 316
3/4" 582 495 466 466 456 388 291
1" 494 420 395 395 387 330 247
1-1/4" 439 373 351 351 344 293 219
1-1/2" 408 347 327 327 320 272 204
2" 364 309 291 291 285 242 182
2-1/2" 336 285 269 269 263 224 168
3" 317 270 254 254 248 211 159
3-1/2" 304 258 243 243 238 202 152
4" 293 249 235 235 230 196 147
US $0.12-6.5
/ Piece
|
1,000 Pieces

(Min. Order)

###

Connection: Welding
Structure: Vertical
Flexible or Rigid: Rigid
Material: Copper
Standard: Standard
Cu: 99.90% Minimum

###

Samples:
US$ 1/Piece
1 Piece(Min.Order)

|
Request Sample

###

Customization:

###

Nominal Size Male End (inch) Female End (inch) Wall Thickness
(inch)
Outside Diameter Length Inside Diameter Depth
Min. Max. Min. Min. Max. Min. Min.
1/4" 0.373 0.376 0.38 0.377 0.381 0.31 0.023
3/8" 0.497 0.501 0.44 0.502 0.506 0.38 0.026
1/2" 0.622 0.626 0.56 0.627 0.631 0.50 0.029
5/8" 0.747 0.751 0.69 0.752 0.756 0.62 0.031
3/4" 0.872 0.876 0.81 0.877 0.881 0.75 0.033
1" 1.122 1.127 0.97 1.128 1.132 0.91 0.040
1-1/4" 1.372 1.377 1.03 1.378 1.382 0.97 0.044
1-1/2" 1.621 1.627 1.16 1.628 1.633 1.09 0.051
2" 2.121 2.127 1.41 2.128 2.133 1.34 0.059
2-1/2" 2.621 2.627 1.53 2.628 2.633 1.47 0.067
3" 3.121 3.127 1.72 3.128 3.133 1.66 0.075
3-1/2" 3.621 3.627 1.97 3.628 3.633 1.91 0.086
4" 4.121 4.127 2.22 4.128 4.133 2.16 0.096

###

Nominal Size Internal Working Pressure (psi)
-20-100°F 150°F 200°F 250°F 300°F 350°F 400°F
1/4" 912 725 729 729 714 608 456
3/8" 779 662 623 623 610 519 389
1/2" 722 613 577 577 565 481 361
5/8" 631 537 505 505 495 421 316
3/4" 582 495 466 466 456 388 291
1" 494 420 395 395 387 330 247
1-1/4" 439 373 351 351 344 293 219
1-1/2" 408 347 327 327 320 272 204
2" 364 309 291 291 285 242 182
2-1/2" 336 285 269 269 263 224 168
3" 317 270 254 254 248 211 159
3-1/2" 304 258 243 243 238 202 152
4" 293 249 235 235 230 196 147

What Is a Coupling?

A coupling is a device used to connect two shafts. It transmits power between them and allows for some misalignment or end movement. There are several types of couplings. The most common ones are gear couplings and planetary couplings. However, there are many others as well.

Transfer of energy

Energy coupling is a process by which two biological reactions are linked by sharing energy. The energy released during one reaction can be used to drive the second. It is a very useful mechanism that synchronizes two biological systems. All cells have two types of reactions, exergonic and endergonic, and they are connected through energy coupling.
This process is important for a number of reasons. The first is that it allows the exchange of electrons and their energy. In a single molecule, this energy transfer involves the exchange of two electrons of different energy and spin. This exchange occurs because of the overlap interaction of two MOs.
Secondly, it is possible to achieve quadratic coupling. This is a phenomenon that occurs in circular membrane resonators when the system is statically deflected. This phenomenon has been gaining a great deal of interest as a mechanism for stronger coupling. If this mechanism is employed in a physical system, energy can be transferred on a nanometer scale.
The magnetic field is another important factor that affects the exchange of energy between semiconductor QWs. A strong magnetic field controls the strength of the coupling and the energy order of the exciton. The magnetic field can also influence the direction of polariton-mediated energy transfer. This mechanism is very promising for controlling the routing of excitation in a semiconductor.
gearbox

Functions

Couplings play a variety of functions, including transferring power, compensating for misalignment, and absorbing shock. These functions depend on the type of shaft being coupled. There are four basic types: angular, parallel, and symmetrical. In many cases, coupling is necessary to accommodate misalignment.
Couplings are mechanical devices that join two rotating pieces of equipment. They are used to transfer power and allow for a small degree of end-to-end misalignment. This allows them to be used in many different applications, such as the transmission from the gearbox to the differential in an automobile. In addition, couplings can be used to transfer power to spindles.

Types

There are two main types of couplings: rigid and flexible. Rigid couplings are designed to prevent relative motion between the two shafts and are suitable for applications where precise alignment is required. However, high stresses in the case of significant misalignment can cause early failure of the coupling. Flexible couplings, on the other hand, allow for misalignment and allow for torque transmission.
A software application may exhibit different types of coupling. The first type involves the use of data. This means that one module may use data from another module for its operation. A good example of data coupling is the inheritance of an object. In a software application, one module can use another module's data and parameters.
Another type of coupling is a rigid sleeve coupling. This type of coupling has a pipe with a bore that is finished to a specified tolerance. The pipe contains two threaded holes for transmitting torque. The sleeve is secured by a gib head key. This type of coupling may be used in applications where a couple of shafts are close together.
Other types of coupling include common and external. Common coupling occurs when two modules share global data and communication protocols. This type of coupling can lead to uncontrollable error propagation and unforeseen side effects when changes are made to the system. External coupling, on the other hand, involves two modules sharing an external device interface or communication protocol. Both types of coupling involve a shared code structure and depend on the external modules or hardware.
Mechanical couplings are essential in power transmission. They connect rotating shafts and can either be rigid or flexible, depending on the accuracy required. These couplings are used in pumps, compressors, motors, and generators to transmit power and torque. In addition to transferring power, couplings can also prevent torque overload.
gearbox

Applications

Different coupling styles are ideal for different applications, and they have different characteristics that influence the coupling's reliability during operation. These characteristics include stiffness, misalignment capability, ease of installation and maintenance, inherent balance, and speed capability. Selecting the right coupling style for a particular application is essential to minimize performance problems and maximize utility.
It is important to know the requirements for the coupling you choose before you start shopping. A proper selection process takes into account several design criteria, including torque and rpm, acoustic signals, and environmental factors. Once you've identified these parameters, you can select the best coupling for the job.
A gear coupling provides a mechanical connection between two rotating shafts. These couplings use gear mesh to transmit torque and power between two shafts. They're typically used on large industrial machines, but they can also be used in smaller motion control systems. In smaller systems, a zero-backlash coupling design is ideal.
Another type of coupling is the flange coupling. These are easy to manufacture. Their design is similar to a sleeve coupling. But unlike a sleeve coupling, a flange coupling features a keyway on one side and two threaded holes on the other. These couplings are used in medium-duty industrial applications.
Besides being useful for power transmission, couplings can also prevent machine vibration. If vibration occurs in a machine, it can cause it to deviate from its predetermined position, or damage the motor. Couplings, however, help prevent this by absorbing the vibration and shock and preventing damage to expensive parts.
Couplings are heavily used in the industrial machinery and electrical industries. They provide the necessary rotation mechanism required by machinery and other equipment. Coupling suppliers can help customers find the right coupling for a specific application.
gearbox

Criteria for selecting a coupling

When selecting a coupling for a specific application, there are a number of different factors to consider. These factors vary greatly, as do operating conditions, so selecting the best coupling for your system can be challenging. Some of these factors include horsepower, torque, and speed. You also need to consider the size of the shafts and the geometry of the equipment. Space restrictions and maintenance and installation requirements should also be taken into account. Other considerations can be specific to your system, such as the need for reversing.
First, determine what size coupling you need. The coupling's size should be able to handle the torque required by the application. In addition, determine the interface connection, such as straight or tapered keyed shafts. Some couplings also feature integral flange connections.
During the specification process, be sure to specify which materials the coupling will be made of. This is important because the material will dictate most of its performance characteristics. Most couplings are made of stainless steel or aluminum, but you can also find ones made of Delrin, titanium, or other engineering-grade materials.
One of the most important factors to consider when selecting a coupling is its torque capability. If the torque rating is not adequate, the coupling can be damaged or break easily. Torque is a major factor in coupling selection, but it is often underestimated. In order to ensure maximum coupling performance, you should also take into consideration the size of the shafts and hubs.
In some cases, a coupling will need lubrication throughout its lifecycle. It may need to be lubricated every six months or even once a year. But there are couplings available that require no lubrication at all. An RBI flexible coupling by CZPT is one such example. Using a coupling of this kind can immediately cut down your total cost of ownership.
China Copper Pipe Coupling with Stacked Stop     coupling chemistryChina Copper Pipe Coupling with Stacked Stop     coupling chemistry
editor by czh 2023-01-15

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