Creating a 3D Profile

You can create a 3D profile using different methods.

This task shows you how to:


Before you begin:
  • Open a 3D shape representation containing a layout.
  • Open the layout in the 2D window, alongside the 3D window.
  • By default, the 3D Profile command is not available in any toolbar. To make it available in a toolbar of your choice, you need to customize the toolbar. Refer to Customizing: Customizing a Toolbar by Adding Commands for more information.
Related Topics
About 3D Outputs
Creating a 3D Plane

Create a 3D profile on the view support plane

You can create a 3D profile on the view support plane.

  1. Double-click to activate the design view you will be working in.

  2. Click the 3D Profile icon in the customized toolbar.

  3. Select a line as shown below.



    The Profile Definition dialog box appears, displaying the name of the 3D profile you are creating in the Name field. The geometry you selected is displayed in the Input Geometry list. The resulting geometry (that is all geometrical elements that eventually make up the 3D profile) is displayed in the Output Geometry list.

    Tip: You can select an element from these lists if you want it to be highlighted in the 2D and 3D windows.



  4. Enter a name for your 3D profile, Shaft for example.

  5. Optionally choose a color for your 3D profile (the color is not applied to the geometry referenced by the profile).

  6. Choose a mode from the associated drop-down list.


    • Point (Explicit Definition): you need to select all the points of interest. In that case, the Input Geometry and Output Geometry fields show the same elements.

    • Wire (Automatic Propagation): after you select a geometrical element, the application detects and selects all connex elements. In that case, there might be more elements listed in the Output Geometry field than inInput Geometry

      Important: In certain specific geometrical configurations, an ambiguity may arise, in which case some elements in the profile remain unselected. You can solve the ambiguity by selecting the remaining elements to include in the profile.
    • Wire (Explicit Definition): you need to select the geometrical element of interest. In that case, the Input Geometry and the Output Geometry fields show the same element.

    • Wire (Automatic Propagation, multiple profiles): after you select several geometrical elements, the application detects and selects all connex elements. In that case, each input geometry leads to the creation of several output geometries; in turn, each output geometry leads to the creation of a single profile, which ultimately leads to the creation of multiple profiles (so there might be more elements listed in the Output Geometry field than inInput Geometry).

    • Wire (Explicit Definition, multiple profiles): you need to select all the geometries of interest. In that case, the Input Geometry and the Output Geometry fields show the same elements. Each output geometry leads to the creation of a single 3D profile.

    Note: All 3D profiles created with Wire (Automatic Propagation, multiple profiles) and Wire (Explicit Definition, multiple profiles) will have the same color and support plane.

    Important: When selecting any Automatic Propagation mode, in the case of a view containing numerous geometrical elements, a message is displayed to inform you that the operation may be time-consuming. Click Yes in the dialog box to confirm that you want to launch the automatic propagation mode anyway. Clicking No selects the corresponding Explicit Definition mode (i.e. Automatic Propagation, single profile turns into Explicit definition, single profile and Automatic Propagation, multiple profiles turns into Explicit definition, multiple profiles).

    For the purpose of this scenario, make sure the Wire (Automatic Propagation) option is selected from the list.

  7. Optionally choose one or several checks to perform. This is to verify that the profile is usable for solid or surface definition.


    • Check tangency

    • Check connexity

    • Check manifold

    • Check curvature

    Note: These options are disabled if you selected Wire (Automatic Propagation, multiple profiles) or Wire (Explicit Definition, multiple profiles).

    Once checks are performed, warning messages may appear to help you decide whether you can keep your definition as such or if you need to modify it. Note that you can validate the profile definition even if there are some warnings. However, when updating the 3D, you may get an update error (depending on the kind of warning).

  8. Click OK to validate and close the dialog box. The 3D profile is created, on the same plane as the section view, and it is listed in the specification tree, under the PartBody node.

    Important:
    • Of all elements created from 2D geometry in 2D Layout for 3D Design, only 3D profiles and 3D planes belong to the current 3D shape body.
    • Note that 3D profiles and 3D planes are created under the current 3D shape body only when working in a hybrid design environment, that is when the Enable hybrid design inside part bodies and bodies option is selected in Tools > Options > Infrastructure > 3D Shape Infrastructure > 3D Shape tab (which is the case by default). Otherwise, when this option is not selected, 3D profiles and 3D planes are created in geometrical sets or ordered geometrical sets.

Create a 3D profile on a plane parallel to the view support plane

You can create a 3D profile on a plane that is parallel to the view support plane.

  1. Double-click the front view to activate it.

  2. Click the 3D Profile icon in the customized toolbar.

  3. Select the R10 circle as shown below.



    The Profile Definition dialog box is displayed.

  4. Choose a support plane. You can either:

    • select an existing plane, such as the xy, yz or zx plane, the face of a pad, or an existing 3D plane (for more information, refer to Creating a 3D Plane).
    • define a parallel plane on the fly by selecting a line in another layout view (provided the support plane in this view is orthogonal to the support plane you are defining).

    For the purpose of our scenario, you will define a plane on the fly. To do this, right-click inside the Support Plane field.

  5. Select Create Plane in the contextual menu which is displayed.

  6. Select the line in the section view as shown below.



    The 3D plane, Plane2DL.1, is created and it is listed in the specification tree, under the PartBody node.

    Important:
    • You can only create a plane parallel to the support plane of the current view. An error message is displayed when selecting a line that would lead to the creation of a non-parallel plane.
    • The 3D plane is associative to the selected line: if the line is modified, the support plane will be recomputed when updating the plane (by exiting the 2D Layout for 3D Design workbench or using the Update 3D Profile command) to reflect the modifications.

  7. In the Profile Definition dialog box, enter a name for your 3D profile (Pocket for example).

  8. Make sure Plane2DL.1 is selected in the Support Plane field.

  9. Click OK to validate and close the dialog box. The 3D profile is created, by projecting the circle on the support plane which is parallel to the front view. It is listed in the specification tree under the PartBody node.



    Furthermore, the 3D plane and profile are displayed in the 3D window.