ANSYS Workbench : Learn Structural Analysis

Explore the fundamentals of linear static analysis, including linear and quasi-static concepts, force-displacement and stress-strain relations, elastic region, proportional limit, and the role of density.

Analyze a plate with a central hole under a downward load in ANSYS Workbench. Set fixed boundaries and steel material properties, then compare max stress to yield and safety factor.

In ANSYS Workbench, build the plate with a hole, apply fixed support and a 10,000 N downward load, mesh, and solve for displacement and maximum equivalent stress.

Perform a 1D beam analysis in ANSYS Workbench for a 500 mm beam with a 100 × 100 cross section under 100 kN, computing stress, deflection, and isotropic material properties.

Apply ANSYS workbench to a 1D beam: create geometry, assign material, mesh, apply fixed support and a 100 kN axial force, solve, and compare results with the analytical solution.

Analyze vertical load beam bending in ANSYS, compute stress and deflection from moment and rectangular cross-section, using E and Poisson's ratio, with hand-calculation validation.

Solve a truss member problem with one-meter dimensions and a rectangular 6 cm by 6 cm cross-section, fixed ends, and Newton loads, using the given E to analyze structural response.

Ansys workbench to build a truss member by defining an isotropic elastic material, sketching lines on a one-meter grid, and creating a 0.06 by 0.06 rectangular cross-section.

Learn to set up a truss analysis in ANSYS Workbench, apply materials and boundary conditions, apply forces, mesh, run the solution, and assess deformation and maximum stress.

Explore steel frames for buildings, emphasizing cost effectiveness and high strength-to-weight ratio. Analyze a 2d steel frame under a line load and work with an eyebeam section.

Apply ANSYS Workbench for frame analysis by building geometry through sketching and line bodies, translating and aligning components with a coordinate system, and defining cross-section before saving the model.

Apply a 50 kN line pressure load to a steel frame in frame analysis part 2, set boundary conditions, mesh, run static analysis, and verify reactions and orientation.

Set up a clutch plate analysis in ANSYS Workbench using static structural analysis, apply a one megapascals pressure, define boundary conditions, and import the clutch plate geometry.

Continue the glass plate analysis in ANSYS Workbench by assigning asbestos, meshing at size five, and applying a 1 MPa pressure with fixed boundaries to assess deformation and maximum stress.

Explore mid-surface analysis for thin components, taking only the surface of a blade to model with 2D elements, reducing nodes and solution time while maintaining 90–95% accuracy.

Extract the mid surface of a plate in ANSYS Workbench using surfacing. Import geometry, generate the plate, and select opposite surface pairs to create the mid surface.

Perform mid surface analysis on a 100×100 plate with a center 25 mm hole, applying fixed boundary and downward load, using isotropic steel, 5 mm thickness, and surface from sketches.

Perform a mid surface analysis workflow in ANSYS Workbench by creating geometry, meshing, applying material properties, setting units, applying force and fixed boundary conditions, solving, and visualizing stress results.

Explore buckling analysis fundamentals, including slender member behavior, the Boileau formula, and lambda criteria for unit-load versus direct-load approaches.

Learn to perform static structural analysis and eigenvalue buckling in ANSYS Workbench, including isotropic elastic steel material, meshing, and applying a vertical unit load to predict critical buckling load.

Explore buckling analysis in ANSYS Workbench by examining mode shapes and their load multipliers. Compare the applied load with the critical load to assess safety and buckling onset.

Perform a buckling analysis of the connecting rod used in engine assemblies to assess the buckling load under compressive vertical loads, using ANSYS Workbench.

Solve the eigenvalue buckling of a connecting rod in ANSYS Workbench by applying static structure, importing a three-part assembly in structural steel, and examining mode shapes and bending twists.

Master meshing fundamentals for finite element analysis, from CAD preprocessing to creating nodes and elements, to improve accuracy, reduce runtime, and ensure convergence in nonlinear contact problems.

Identify and compare element types used in meshing, including line, triangular and quadrilateral elements, tetrahedral, prism, and hex brick elements, with node counts and suitability for static or dynamic analysis.

Explore meshing in ANSYS Workbench by using global and local mesh controls, adjusting element size, and comparing hex versus tetrahedral elements to achieve mesh convergence.

Explore tetra mesh global mesh control in ANSYS Workbench, using adaptive sizing, curvature and proximity settings to refine complex geometry and improve mesh quality for structural analysis.

Learn to apply local mesh control in ANSYS Workbench by selecting bodies, choosing element types, and using sizing and sphere of influence to refine regions with quadratic elements.

Import the geometry, generate a tetrahedral mesh, and apply refinement and layered meshing to create a denser mesh on selected faces and critical regions for more accurate structural analysis.

Learn how to evaluate mesh quality in ANSYS Workbench using metrics like aspect ratio, jacobian, warping factor, skewness, and orthogonality to ensure accurate simulations.

Learn how to create a sweep mesh in ANSYS Workbench by importing multiple bodies, checking swappable status, and adjusting element size to ensure successful sweeps for simple parts.

Create and refine a contact mesh between parts, adjust element sizes for targeted refinement, then use mesh copy to duplicate the refined mesh onto identical bodies.

Explore multi zone meshing in ANSYS Workbench by applying map meshing across multiple bodies, setting a uniform element size, and choosing hex, prism, or tetrahedral meshes with manual source imprinting.