China 2″X1″ Copper Pipe Coupling for Air Conditioner with Good quality

Merchandise Description

2″x1″ Copper Pipe Coupling for Air Conditioner

1.
Production Requirements

Technical specs:
Alloy: C12200, Cu-DHP
Dimension variety: OD dimension from 1/4″ to 4-1/8″ (from 6mm to 108mm)
Variety: CxC, FTGx C
Marking: our brand name + dimension
Packing: Sealed by plastic bag, packing in powerful sea deserving carton and palletized
Standard: ASME B16.22, EN 1254-one
Application: for plumbing, refrigeration and healthcare gas
Shipping time: 4-5 months
  
Copper Fittings Dimensions

Nominal Dimension Male Finish (inch) Female Conclude (inch) Wall Thickness
(inch)
Outside Diameter Duration Inside Diameter Depth
Min. Max. Min. Min. Max. Min. Min.
one/4″ .373 .376 .38 .377 .381 .31 .571
three/8″ .497 .501 .44 .502 .506 .38 .026
1/2″ .622 .626 .56 .627 .631 .50 .571
5/8″ .747 .751 .sixty nine .752 .756 .sixty two .031
3/4″ .872 .876 .81 .877 .881 .75 .033
1″ one.122 1.127 .ninety seven one.128 1.132 .ninety one .040
1-1/4″ 1.372 1.377 1.03 one.378 1.382 .97 .044
one-1/2″ one.621 1.627 one.sixteen one.628 1.633 1.09 .051
two” 2.121 two.127 1.41 two.128 two.133 1.34 .059
two-1/2″ two.621 two.627 1.53 two.628 2.633 one.forty seven .067
three” three.121 three.127 1.seventy two 3.128 three.133 one.66 .075
three-1/2″ 3.621 3.627 one.97 three.628 3.633 1.91 .086
four” 4.121 4.127 two.22 four.128 4.133 2.16 .096

 

 Copper Fittings Inner Working Pressure

Nominal Size Internal Operating 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
one/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
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
two” 364 309 291 291 285 242 182
two-1/2″ 336 285 269 269 263 224 168
3″ 317 270 254 254 248 211 159
three-1/2″ 304 258 243 243 238 202 152
four” 293 249 235 235 230 196 147

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US $0.08-2.38
/ 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 $0.08-2.38
/ 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

Programming With Couplings

A coupling is a mechanical device that connects two shafts together and transmits power. Its purpose is to join rotating equipment and allows some degree of end-movement or misalignment. There are many different types of couplings. It’s important to choose the right one for your application.
gearbox

Mechanical connection between two shafts

There are many ways to achieve mechanical connection between two shafts, including the use of a coupling. One common type is the beam coupling, which is also known as a helical coupling. It is used for transmission of torque between two shafts. This type of connection accommodates axial, parallel and angular misalignments.
The hubs and shafts of a worm gear are connected together by a coupling. This mechanical connection allows one shaft to turn another without causing a mechanical failure. This type of coupling is made from sliding or rubbing parts to transfer torque. However, the coupling is not designed to withstand jerks, so it isn’t suitable for high-speed applications.
The use of a coupling is common in machinery and equipment. It helps transmit power from one drive shaft to the other, while adding mechanical flexibility. It is also useful for reducing the impact and vibration caused by misalignment. It also protects the drive shaft components from wear and tear.
A double-hook coupling can be used to provide a uniform angular velocity at the driven shaft. Another example is a double-jointed coupling. A double-jointed coupling can be used to connect shafts that are not directly intersecting. The double-jointed yoke can be used for the same purpose.
A shaft coupling is a device that maintains a strong mechanical connection between two shafts. It transfers motion from one shaft to another, at all loads and misalignments. Unlike a conventional linkage, a shaft coupling isn’t designed to allow relative motion between the two shafts. Couplings often serve several purposes in a machine, but their primary use is torque and power transmission.

Functions that control the flow of another function

One of the simplest programming constructs is a function that controls the flow of another function. A function can take an argument and return a different value, but it must be ready to return before it can pass that value to another function. To do this, you can use the goto statement and the if statement. Another way to control flow is to use a conditional statement.
gearbox

Criteria for selecting a coupling

There are several important factors to consider when choosing the right coupling. One of the most important factors is coupling stiffness, which depends on the material used and the shape. The stiffness of a coupling determines its ability to resist elastic deformation. A stiff coupling is desirable for certain types of applications, but it’s undesirable for others. Stiffness can reduce the performance of a system if there’s too much inertia. To avoid this, ensure that the coupling you choose is within the recommended limits.
The size of a coupling is also important. Different coupling types can accommodate different shaft sizes and shapes. Some couplings have special features, such as braking and shear pin protection. When choosing a coupling, you should also consider the type of driven equipment. If you need to connect a high-torque motor, for example, you’ll want to choose a gear coupling. Likewise, a high-speed machine may require a disc coupling.
Another factor to consider when selecting a coupling is the torque rating. Despite its importance, it’s often underestimated. The torque rating is defined as the torque of the coupling divided by its OD. In some cases, torque may fluctuate during a cycle, requiring a coupling with a higher torque rating.
Torsionally flexible couplings are also important to consider. Their design should be able to withstand the torque required during operation, as well as the required speed. The coupling should also have a high degree of torsional stiffness, as well as damping. Furthermore, a damping coupling can reduce the energy wasted through vibration.
The sizing of a coupling is also determined by the torque. Many engineers use torque to select the correct coupling size, but they also take into consideration torsional flexibility and torsional stiffness. For example, a shaft may be able to handle large torque without damaging the coupling, while a disk may be unable to handle large amounts of torque.
Besides torque, another important consideration in coupling selection is the cost. While a coupling may be cheaper, it may be less reliable or easier to maintain. Couplings that are difficult to service may not last as long. They may also require frequent maintenance. If that’s the case, consider purchasing a coupling with a low service factor.
There are many different types of couplings. Some require additional lubrication throughout their lifetime, while others are 100% lubrication-free. An example of a 100% lubrication-free coupling is the RBI flexible coupling from CZPT. This type of coupling can significantly reduce your total cost of ownership.
In addition to the above-mentioned benefits, elastomeric couplings are low-cost and need little maintenance. While they are often cheaper than metallic couplings, they also have excellent shock absorption and vibration dampening properties. However, they are susceptible to high temperatures. Also, they are difficult to balance as an assembly, and have limited overload torque capacity.

editor by czh 2023-01-29