Browsers supply a great deal of view-related functionality by listing the parts of a model in a tabular and/or tree-based
format, and providing controls inside the table that allow you to alter the display of model parts.
FE geometry is topology on top of mesh, meaning CAD and mesh exist as a single entity. The purpose of FE geometry
is to add vertices, edges, surfaces, and solids on FE models which have no CAD geometry.
1D mesh that allows accurate testing of connectors, such as bolts, and similar rod-like or bar-like objects that can
be modeled as a simple line for FEA purposes.
Parts are created from inputs. Solid parts are generated for each island of surfaces while Shell parts are created
for line regions whenever the thickness changes as well as at t-junctions.
These tools enable the creation of 1D elements from surface lines, organizing them into components. They also offset/orient
these elements based on the attached shell elements and calculating properties of these 1D elements from 3D solid
or shell FE element sections.
Volume mesh or "solid meshing" uses three-dimensional elements to represent fully 3D objects, such as solid parts
or sheets of material that have enough thickness and surface variety that solid meshing makes more sense than 2D shell
meshing.
Tools and workflows that are dedicated to rapidly creating new parts for specific use cases, or amending existing
parts. The current capabilities are focused on stiffening parts.
1D mesh that allows accurate testing of connectors, such as bolts, and similar rod-like or bar-like objects that can
be modeled as a simple line for FEA purposes.
Use the Edit Beam: Align tool to reorder the N1 to N2 sequence of 1D element
nodes.
This tool allows you to reorder element nodes using a vector or a system axis.
In this optional step, you can select elements in order to reorder N1 & N2 in
ascending order along one or multiple axes if elements are aligned with such
vector(s) in a given angle tolerance.
This is typically useful when beam section shape is not symmetric.
Figure 1.
From the Mesh ribbon, click the Edit Beam > Align tool.
Figure 2.
Select elements to align.
Activate the System selector on
the guide bar then select a system to use local reference
axes.
By default, the global system is used.
Define a reference axis to align with.
The vector formed by beam nodes N1->N2, is compared to reference vector. If
the angle between the 2 vectors is below the angle tolerance, then directions
are considered as matching. Matching elements will have N1 and N2 ordered along
the positive direction of reference vector.
Use the icon drop-down menu on the left of the microdialog to select whether the direction is
defined as an arbitrary vector or a system axis.
If you selected "by axis", select the (multiple) system axes for
sorting beams within the given tolerance.
If "by vector”, click to invoke the Vector tool, define the reference vector, then click Esc to return to the Align
context.
Picking an element when the Vector tool is
active will consider this element as a reference element and align the
selection from the X axis of the reference element.
Figure 3.
Change the angle tolerance.
Values greater than 60 degrees are reset to 60 degrees.
Alternatively, to simply reverse the orientation of your selection,
click .
On the guide bar, click one of the following:
- Save changes and stay in the tool
- Save changes and close the tool
Tip: Use the legend in the top-left of the modeling window to plot the axes of the elemental systems.