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AutoPIPE Wiki 13. How to model a modified Y-pipe fitting?
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              • 01. How does AutoPIPE calculate the weight of a typical pipe fittings (i.e. Tee, elbow, reducer, etc..)?
              • 02. How to model branch fitting (i.e. tee, weldolet, sockolet,etc..) on strait pipe using one of 3 methods: Single Point Method, 2-Point Method, or 3-Point Method.
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              • +04. How to model a flanged cross pipe fitting with center of cross to face of flange measurement = 1 foot?
              • 05. Added information about USER SIF values in AutoPIPE:
              • 06. How to model a Y-pipe fitting?
              • 07. How to correct a incorrectly modeled Tee?
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              • 12. How to model a Saddle Contour supported Tee branch connection in AutoPIPE?
              • 13. How to model a modified Y-pipe fitting?
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    13. How to model a modified Y-pipe fitting?

    Applies To
    Product(s): AutoPIPE
    Version(s): ALL
    Area: Modeling
    Original Author: Bentley Technical Support Group
    Date Logged
    & Current Version
    Jan 2019
    12.01.00.10

    Problem:

    How to model a modified Y-pipe fitting?

    Solution:

    Using the Same techniques to create a Nozzle on a Vessel, create the modified Y-pipe fitting

    1. Starting from some point on the main vertical piping, insert a run in the vertical direction to a short distance away from the end of the Modified Y connection (ex. A00 to A01 = 1 ft)

    2. Continue the vertical piping as need to the starting point of the Modified Y component. (ex. A01 to A02 = 8 inches)

    3. Insert a new pipe property that has the same Outside Dia. of the Modified Y component (ex. Y-fit, Material = same as main header)

    4. Insert run piping to represents the same thickness as the Modified Y component (ex. A02 to A03 = 4 inches)   

    5. Insert weight of Modified Y component

    6. Keeping with the same techniques used to mount a nozzle on Vessel, insert internal piping to rigidly mount branch piping on surface of the Modified Y component. 

    a. Make the previous point on the main header the active node point. (ex. A01), and Modify / Convert point to Tee.

    b. Double select the node point (ex. A01), a tee dialog will now appear. make the following changes:

    - Change Tee Component from Tee to Cross,

    - Set Type of Tee from Welding to Other

    - Enter SIF - IN / OUT = 1.00

    c. Select one of the cross's branch arrows heads to make it the active node point, confirm that current segment has changed from previous designation to a new values (ex. Seg A is no Seg B).

    d. Insert internal run piping to surface of Modified Y component (ex. B01  Dz = 8 inches, Dy = -12 inches, set Pipe data Identifier = Internal) Press OK, 

    e. When the pipe properties dialog appears, update settings to represent internal piping (ex. PipeID = Internal, OD = user to define, SG = 0.00, Material = same as main header)

    7. Insert Branch piping with new PipeID as needed (ex. B01 to B02), Insert new pipe property to represent smaller piping out of the Modified Y component (ex. PipeID = Branch)

    Done with Branch #1, now go back and insert Branch #2. 

    8.  Go back to Cross and select 2nd branch arrow, again notice that the segment has been changed to a new value (ex. Seg B to Seg C)

    a.  Insert run piping to surface of Modified Y component using the correct PipeID (ex. C01  Dz = -8 inches, Dy = -12 inches, set Pipe data Identifier = Internal) 

    9. Insert Branch piping as needed using the correct PipeID. (ex. B01 to B02, Dy = -2 feet, Pipe data identifier = Branch)

    Done with Branch #2, now in the home stretch a few more steps. 

    10. Select all the Internal Piping and piping representing the Modified Y component (can be done in one step using the Input grids Pipe Property Tab), these items should all be highlighted Red. Insert Rigid Options Over Range,

    - Include weight = disabled

    - Include Expansion = enabled

    11. Last step, select all weld locations (ex. A02, B01, & C01),

    - Insert Joint Type and User SIF, Joint End type = User-Defined

    - SIF = (user to calculate and enter value),

    - Override all other SIFs at this point = enabled 

    Done...

    See Also

    Tee, Cross, or Branch Piping Components - Modeling Approaches

    Bentley AutoPIPE

    • tee
    • AutoPIPE
    • Modeling
    • Y-fitting
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    • Mike Dattilio Created by Bentley Colleague Mike Dattilio
    • When: Wed, Jun 5 2019 5:14 PM
    • Mike Dattilio Last revision by Bentley Colleague Mike Dattilio
    • When: Wed, Jun 5 2019 5:17 PM
    • Revisions: 2
    • Comments: 0
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