Rhino.Inside.Revit Tutorial Videos

Rhino.Inside Revit
1

Mastering Spot Coordinate Annotations in Revit using Rhino.Inside.Revit

In this lesson, we explore how to use the Add Spot Coordinate component in Rhino.Inside.Revit to efficiently place spot coordinate annotations in Revit model. This workflow allows to add precise coordinate points along specific edges and faces of elements like walls.

Key Workflow Steps:

  1. Referencing Revit Geometry:
  2. Selecting the Relevant Faces and Edges:
  3. Creating Points for Annotation:
  4. Configuring the Annotation Type:
  5. Adjusting Annotation Positions:
  6. Dynamic View Update (Recomputing for Active View):

Key Considerations:

  • Active View Dependency:
    The annotations are tied to the active view, meaning they need to be recomputed when switching between views.

  • Elevation Calculation:
    Selecting the correct face or edge as a reference is important for accurate elevation values, as demonstrated when referencing different parts of the wall (top face, bottom face, or wall itself).

  • Component Limitation:
    Currently, the Add Spot Coordinate component only functions correctly in Revit’s plan views. It fails when used in sections, elevations, or 3D views, which is a limitation specific to the Rhino.Inside.Revit integration.

Good luck !

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2

Master Arc Length Dimensions in Revit with Rhino.Inside.Revit

In this lesson, we explore how to use the Add Arc Length Dimension component in Rhino.Inside.Revit to measure arc lengths for curved elements. This workflow allows you to generate precise arc length dimensions for the inner and outer edges of curved wall elements.

Key Workflow Steps:

  1. Referencing Revit Geometry:
    Begin by referencing the curved wall into Grasshopper using the wall container.
  2. Selecting the Relevant Faces and Edges:
    Extract the side faces and edges of the curved wall using the Element References component.
  3. Combining References for Dimension:
    Use the List Item and Entwine components to combine references in the correct order: arc edge followed by intersecting faces or edges.
  4. Configuring the Dimension Type:
    The Add Arc Length Dimension component automatically selects the default arc length dimension type, but other types can be specified if needed.
  5. Adjusting the Reference Sequence:
    Test the setup by experimenting with different reference sequences. If the order is incorrect, an error will appear. Ensure the correct reference order to generate valid arc length dimensions.
  6. Measuring Different Arc Lengths:
    Change the arc reference to measure the arc lengths for both the inner and outer edges of the wall.

Key Considerations:

  • Reference Sequence Importance:
    The correct sequence of references is important. The arc edge must be the first reference, followed by two intersecting edges or faces. Failure to maintain this order will result in an error.

  • Centerline Limitation:
    Currently, the Element References component cannot extract the wall’s centerline for arc length dimensions. To measure the arc length of the wall’s centerline, use the Curve Container from the native Grasshopper components to extract the wall’s centerline. Then, convert this curve into a Detail Line in Revit. The Add Arc Length Dimension component can then use the detail line as a valid reference to generate an accurate arc length dimension.

Good luck!

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3

Master Add Detail Group in Revit with Rhino.Inside.Revit

In this lesson, we dive into the Add Detail Group component and explore how it can be used to place the Anchor Bolt detail Group in section views. Using a practical example, we’ll demonstrate how to automate the placement of a pre-made anchor bolt assembly between a column and foundation, ensuring precise and efficient workflows in Revit.

Key Workflow Steps:

  • Set Category Filter:
    We begin by filtering the necessary elements, specifically targeting Structural Connections, including the baseplate components.
  • Query Elements:
    The Query Elements component helps extract all relevant elements from the chosen category. Adjust the default element limit if necessary.
  • Extract Geometry:
    We use the Element View Geometry component to extract the geometry of these elements from specific views.
  • Selecting the Section View:
    Instead of relying on the Active View component, we use Query Views to target and select specific section views for the detail placement.
  • Clean and Process Data:
    Using the Clean Tree component, we eliminate empty data branches before extracting the top face of the baseplate for placement.
  • Place Detail Group:
    We use the Add Detail Group component to place the anchor bolt assembly detail group at the midpoint of the baseplate, aligning the assembly with the section view.
  • Adjust Placement:
    Once placed, we switch between views and rotate the detail group to fit various orientations, ensuring accuracy across all views.

Key Considerations:

  • Adjusting the Origin:
    If the default origin point of your detail group is not aligned properly, adjust it within the Detail Group settings for better control over placement.

  • Handling Multiple Detail Groups:
    When working with multiple detail groups in a project, use the Query Group Types component to ensure the correct group is selected.

Good luck!

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