ANSA BETA-CAE: Complete Meshing Course

Extract the middle surface from a solid CAD with Ansa's multi and single tools, then mesh it using quality criteria and a target length.

Learn shell mesh generation by defining target length and quality criteria, creating a mixed quad/triangle first-order mesh, optimized for static or explicit dynamic analysis, and exporting abaqus input.

Learn to use casting and align manager in ANSA to create shell meshes from middle surfaces. Apply quality criteria, target length, minimum thickness, and collapse rules for robust FE models.

Define and customize shortcuts for the most used meshing tools, such as move, cut, paste, align, and split, via the tools settings and macros, then save the configuration.

Learn to refine a casting-generated mesh with Align Manager, fixing gaps and misalignments while defining areas (plane, middle, empty), using direct mode, hot points, and freezing macro areas.

Continue meshing with the align manager, manually redefining faces, inserting hot points, and refining macro areas to improve quality, check hidden criteria, and fix warping in a casting-oriented workflow.

Apply align manager to align geometry, recognize holes 2D, and create washers with zones and node control to improve mesh quality around holes.

Refine the mesh using align manager part 4, applying washers and improving quality criteria. Freeze macro areas, edit hot points, and use mesh treatment to reconstruct regions.

Continue refining the mesh with the Align Manager, verify quality criteria, and fix openings by adding washers, hot points, and appropriate thickness in shell or solid elements.

Convert thickness from nodal to property for shell elements using the transform tool, ensure consistent thickness across areas, and validate thickness definitions for accurate meshing.

Merge multiple parts into a single answer. Learn batch mesh for shell elements, assign shell properties and materials, and organize parts and groups for efficient meshing.

Learn to configure batch mesh for shell elements by creating meshing scenarios, setting mesh parameters and quality criteria, and using checks to validate geometry before meshing.

Learn batch mesh setup for shell mesh part 3, including configuring meshing parameters, perimeters recognition, sets, symmetry, and feature treatments for holes, fillets, chamfers, and flanges.

Configure batch mesh for shell assemblies, define features and filters, apply rose or sharpen treatments, and use fixed quality to adjust nodes toward meeting minimum length and quality criteria.

Learn to run batch mesh for shell geometries, configure mesh parameters and quality criteria, and manually refine quality to fix warnings.

Learn how face properties transfer to shell mesh and use batch mesh for durability and crash analyses with automated target-length meshes.

Learn to create unstructured solid meshes using tetrahedrons, configure batch mesh parameters and quality criteria, and verify closed volumes and correct face orientation. Explore module browser basics and volume diagnostics.

Develop batch solid meshing skills by setting three millimeter parameters, configuring a batch mesh scenario, and generating a shell surface mesh before creating a solid unstructured mesh with tetrahedrons.

Explore batch mesh in Ansa to create an unstructured tetrahedral mesh with shell elements, using predefined mesh parameters, quality criteria, and automated fillets, chamfers, and holes 3d.

Isolate five volumes from the shell geometry using pid, then generate a five-volume unstructured tetra mesh via batch mesh in the volume mesh module, applying growth rate and quality criteria.

Finish the batch solid mesh by isolating shell elements, detaching from faces, deleting released nodes, and organizing solid elements for a ready fe module, with contacts and couplings.

Explore unstructured tetrahedral meshing for a piston without batch meshing. Define surface quality criteria, isolate holes, and generate second‑order isoparametric solid elements.

Learn to generate unstructured solid meshes in ANSA with second-order elements, using reshape and automated quality tools to fix near-cone regions and achieve curved, accurate volumetric meshes.

Define two volumes from the surface mesh, assign solid properties, and generate an unstructured solid mesh using tetra fem, then diagnose and fix quality issues.

Learn to perform local mesh refinement in a region, maintain cross-analyses consistency, and use deck report to extract solid mass, skewness, and aspect ratio for quality control.

Learn to mesh a part with a solid hexahedron structured mesh using the map meshing method, including volume partitioning, shell setup, and order considerations.

Learn to create a solid hex mesh with the map meshing method in a shell and volume workflow, using hot points, washer cuts, perimeter grids, and the volume mesh tool.

Continue building a solid hexahedron mesh for volume two with the map tool, applying zone cuts, hot points, and controlled cuts to produce a 1-to-1 grid and exclusively quadrilateral elements.

Finish volumes 3 and 4 of the solid hex mesh by joining and cutting faces, projecting hotspots, and balancing grids on opposite edges; then generate volume 4 mesh with map.

Master map meshing to create a solid hexahedron structured mesh within a volume, using property id controls and quad-element subdivision in the classic volume mesh module.

Learn to generate a hexahedron mesh with the Xblock tool in ansa, starting from a shell mesh and shaping boxes to fit the piston rod geometry.

Continue refining the block geometry in the Excel block workflow by moving points, aligning edges to surfaces, and using project-to tools and numerical input to produce accurate hexa blocks.

Advance your Xa block tool skills by aligning vertical edges, projecting edges to surface and to edges, and building grid topologies with split edges to refine the mesh.

Finish the xa block module by aligning edges and surfaces with edge projection, shadow, and symmetry in the xy plane, then generate a quad map mesh and first-order hex volumes.

Explore direct morphing in Ansa to rapidly test mesh edits, translating selected faces and morphed entities, while reconstructing or smoothing shells and solids before redefining volume meshes.

Learn to use the direct morphing feature in Ansa to adjust rib thickness with translate and edge fit, manage morphed entities, reconstruct the mesh, and test curve‑based and rotation edits.

learn to perform a surface fit with the direct morphing (dfm) tool in Ansa, morphing a green door shell to fit a blue part, using nested elements and morphed entities.

Use the direct morphing (dfm) tool to align the rear flange between shell parts, applying thickness-based offset and target-area control, then verify gaps with measurements before finalizing.

Master direct morphing and design change tools in Ansa, moving shell parts in global x while applying constraints, preserving flange gaps, and morphing transition elements for updated designs.

Apply the direct morphing tool to a vehicle pillar cross-section to perform a design change in height and width, using rigid, frozen, and deformable regions, then re-run a structural analysis.

Master direct morphing and design change to slide, copy, or scale features in a meshing workflow. Select by shells, lines, or features and reconstruct the mesh after modifications.

Learn direct morphing constraints using the path follower constraint to guide pillar B along a defined path, while using the direct morphing movement (DFM) tool for controlled element translation.

Learn direct morphing constraints and planar constraint workflows in the direct morphing module, using edge fit movements, planar sensor data, and planner constraints to keep surfaces planar during morphing.

Explore direct morphing by creating beads to refine a meshed part, mastering curved and straight beads, ends, and path definitions using points or curves, with reconstruction for seamless integration.

Master the DirectX morphing create tool by building stamps—rectangular rounded, circular, and surface—and setting dimensions, directions, and reconstruction, then refine meshes with flange opening and bead techniques.

Learn to use the direct morphing create tool to make 2d and 3d ribs, reconstruct and refine shell and solid meshes, with feature lines and points for controlled rib geometry.

Master the hose tubes tool in direct morphing and classic morph modules to adjust hole and tube diameters, including offset and target diameter. Preview results, then reconstruct the mesh.

Learn to use the direct morph tool in ANSA to translate morphed nodes, define control entities, save parameters, and refine shell mesh with reconstruct, project perimeters curves, and align operations.

Master direct morphing in ANSA by using the direct align option to convert a nonuniform tube into a uniform diameter, guiding bound and control nodes for outer and inner alignment.

Master direct morphing with the slide member tool to morph a part and adapt flanges to a new floor shape, using coordinate adjustments and state-based morph parameters.

Learn how to use the direct morphing depress tool to create and modify morph boxes around curves, adjusting width, height, and rows with offset mode.

Master the direct morphing fit tool to perform edge and multi-curve fits on shell geometry, using imprint and region-based morphing to modify curves and elements.

Explore morphing basics for global deformation by creating and adjusting morph boxes, loading elements, and morphing the model using symmetry, working planes, and edge-guided box tools.

Learn edge fitting in ANSA using classic morph, create morph boxes, add control points, and fit a ceiling edge to a target curve in case two.

Perform free surface fitting with the morphing tool to morph a hood to a target surface, then fit edges to curves and the surface for a consistent morph.

Learn to perform FE surface fitting with 2D morph by creating morphing boxes, setting thickness, and morphing curves to fit the initial and target surfaces.

In this case five, learn to deform cylindrical geometries with cylindrical morph boxes, adjusting outer and inner radii, length, and curves, while ensuring the boxes are connected.