Altair Hypermesh : Learn Meshing and Linear Static Analysis

Explore the basic functioning of finite element analysis, including meshing into small elements, defining nodes, and solving boundary value problems with partial differential equations, via pre-processing, solver, and post-processing steps.

Define stress and strain and show how tensile and compressive forces deform elastic bodies. Explain Hooke's law, the stress–strain curve, Young's modulus, and yield.

Understand the six degrees of freedom—three translations and three rotations—of a body, and how constraints, prismatic and revolute pairs, define motion in hyper mesh.

Analyze a 1D bar in HyperMesh using OptiStruct for linear static analysis under axial load. Define steel material with Young's modulus and Poisson's ratio, and a 25x25 mm cross-section.

Apply loads and boundary conditions to a fixed left bar and impose a 100,000 N horizontal force. Solve with linear static analysis and view displacement, stress, and reaction forces.

Model a 1D rod under axial loading in HyperMesh, 500 m long, 50 mm diameter circular cross section, steel material, fixed left end, 100000 N, via linear static analysis.

Learn to model a cantilever beam with 1d beam elements in hyper mesh, calculate bending stress and deflection using beam bending theorem, and set up CDF points for neutral axis.

Learn to model a beam bending problem in 1D using cbm bars, set orientation with the y or z axis perpendicular to the length axis, and apply loads.

Solve a fixed-fixed beam problem in Hypermesh by applying a 3000 newton load at the midpoint of 1000-length beam; compute stress 39.19 and deflection 0.16 m for a circular section.

Learn to analyze a fixed-fixed beam in HyperMesh using linear static analysis, compute bending stresses and deflection for a circular steel beam with diameter 100 and length 500.

Explore beam orientation in 1D analysis with Altair Hypermesh, showing how choosing Y or Z axis affects bending direction and how to set material, property, and beam profiles.

Learn to import and export files in HyperMesh, using import and export options to manage geometry, mesh, components, wireframes, and saved projects.

Learn to create and edit nodes in hyper mesh using coordinate-based creation, center of a circle, line-based creation, and parametric methods for accurate node placement in finite element calculations.

Learn to automate meshing in Altair Hypermesh, set element size, choose 2D shell or 3D mesh types (mixed, quad, triangle), and use interactive or automatic options for efficient, accurate results.

Learn to create a two-dimensional mesh from a thin sheet by extracting the mid-surface, setting the element size, applying washers for bolt holes, and remeshing to remove opposite triads.

Learn 2d meshing in hypermesh by performing auto match, splitting surfaces, creating rectangles, removing stray points, and remeshing to achieve equal element distribution on flat and curved regions.

Repair geometry in HyperMesh by importing stp files, removing duplicates, and using filler and split surfaces with bounding surfaces to produce a final closed solid.

Import the STP geometry, identify duplicate surfaces and free edges, and use toggle with a stitch gap of 0.3 to create a solid, properly connected model.

Repair complex geometry by importing the file, deleting solids, removing duplicate surfaces, stitching gaps, and trimming extraneous features to create a clean surface ready for meshing.

Explore free edges in Hyper Mesh to verify mesh connectivity by checking elements versus components, using Shift+F3 to find edges, preview equivalence, and remesh until no free edges remain.

Explore how mass function controls the visibility of mesh elements and surfaces in hyper mesh, using the mask panel and unmask options to inspect connectivity with unmask adjacent.

Learn to project nodes onto lines and surfaces in Hyper Mesh using the project option (shift+f7), with plane, vector, surface, and line choices.

Replace two nodes with the replace function to create a connected mesh. Enable equivalence to connect nodes, use midpoint or replace add mid, and accept prompts when elements change.

Learn to translate nodes in HyperMesh by selecting nodes, applying translate plus or minus along x y z (or n1 n2 n3), and duplicating when needed.

Master the split element function in Hyper Mesh, including splitting lines in 2D, replacing free edges, and combining or creating tri, quad, tetra, pyramid, and other elements for 3D meshing.

Learn to improve Hyper Mesh mesh quality by applying criteria, identifying warpage, skewness, and jacobian issues, and using splitting and remesh techniques to achieve a better-quality mesh.

Learn how to prepare a sheet metal part for shell meshing by extracting the mid-surface and applying industry criteria, including element sizing and avoiding outer-edge dryers, for linear static analysis.

Configure 2d mesh project by setting 2d criteria in criteria file—target size five, min 0.8, max eight, warpage 25, skewness 60, aspect 6, jacobian 0.5—and mesh to improve element flow.

Master 2D meshing in Hyper Mesh by auto meshing, splitting surfaces, remeshing, and refining parts while evaluating element quality with jacobian, skewness, and aspect ratio.

Learn to mesh a sheet-metal assembly with varying thickness in HyperMesh, including mid-surface extraction, creating thickness-specific components, and setting up weld elements.

Learn how to use the load command to create meshes from nodes or lines in ruled geometry, with guidance on surfaces, components, and mesh density options.

practice 2D meshing by clicking surfaces and performing matching on the provided 2D practice files; use washers for circular features or holes, completing the second part similarly.

Extract edges and lines on surfaces in U and V directions to create lines; intersect, manifold, and offset lines, then apply fillet, tangent lines, and normal to geometry for meshing.

Create and customize surfaces in HyperMesh by selecting geometry options to build squares, cylinders, cones, spheres, and toruses, adjusting centers, vectors, angles, and previews.

Create solids in hyper mesh by using geometry panel and solids option to build blocks, cylinders, cones, and spheres from node references, then convert surfaces to solids and manipulate orientations.