Identify interfering components and adjust mates to repair the assembly for the Certified SOLIDWORKS Professional sample exam. Find the center of mass of an assembly relative to a coordinate system. Insert and mate a new component. Use the Interference Detection tool to identify interferences between components.
Insert features in an assembly that exist only in the assembly and not the individual part files. Add a Hole Wizard assembly feature. Create an assembly feature cut to act as a section view. Modify the feature scope to determine which parts are affected by the assembly feature.
Model parts in the context of an assembly, using references to other components to complete the design. The design intent for new parts (sizes of features, placement of components in the assembly, etc.) comes from other components in the assembly. Build a virtual part in the context of an assembly by employing Top-Down assembly modeling techniques. Create features in the assembly context by referencing geometry in mating parts. Understand InPlace mates and external references. Identify external references in the FeatureManager design tree.
Use both bottom-up and top-down assembly modeling design techniques to insert and modify components in an assembly. Insert components into an assembly using a bottom-up approach. Modify a component using a top-down approach. Create a new component using a top-down approach.
When the internal cut features of a model are of most importance in a design, one approach is to create solid features that represent the negative space of a part. Once the negative space is complete, the Combine command can be used to subtract the volume from another solid body. Use solid geometry representing the interior space of a manifold to create the negative space of the part. Create a separate solid body surrounding the geometry as the main body of the manifold. Combine the solid bodies in the part using a subtract operation.
Update the parameters that control the overall shape and size of the part for the Certified SOLIDWORKS Professional sample exam. Manual edit individual dimensions and globally change the values of variables. Rebuild the model to ensure that all features update correctly.
Learn about the segments that make up the Certified SOLIDWORKS Professional exam. Identify the three segments of the exam: Part Modeling, Configurations and Part Modifications, and Assembly Modeling. Understand that you can take each segment as many times as necessary, after a waiting period between attempts has elapsed.
Move the components within a sub-assembly using flexible sub-assemblies. Modify the component properties of a sub-assembly to change it from rigid to flexible. Drag components of a flexible sub-assembly in the main assembly to observe their motion. Learn about the impact that flexible sub-assemblies have on overall assembly performance.
Use the Move Face and Delete Face tools to modify non-parametric, imported geometry. Increase the size of a model by moving faces of the body. Remove and patch filleted faces of a model by deleting the faces. Increase the diameter of a cylindrical boss by offsetting the cylindrical face.
When edges of a part are too close to allow for fillets to be created properly, often making use of separate solid bodies can help. Separate features into separate solid bodies. Apply fillets to the individual bodies. Use the Combine command to add the bodies back together. Apply an additional fillet to the part to complete the model.
Loft creates a feature by making transitions between profiles. A loft can be a base, boss, cut, or surface. By specifying constraints and connection parameters, the desired result can be achieved. Create basic loft feature between two profiles. Refine the shape with a centerline curve, end constraints, and connection points. Select loft profiles and connection points correctly.
Discover how to analyze a portion of a larger assembly to save time and to get more accurate results using submodeling. Create a submodel study from a parent study. Discover how loads transfer automatically into a submodel study. Save time and computational resources while maintaining accurate results. Use eDrawings to save the results.
Introduction to the material nonlinearity, namely metal plasticity. Effect of mesh quality on the quality of the numerical stress results. Solve problem with linear small displacement solution and identify a need for the nonlinear solution due to high stress. Define nonlinear study boundary conditions and loads. Define nonlinear material model with von Mises plasticity. Use simplified bi-linear plasticity material model. Review the stress and displacement results at various times. Study effect of mesh quality on the quality of the stress results. Use the mesh sectioning feature to review stress distribution within the bodies.
Introduction to the force control and displacement control methods in nonlinear module. Experience and resolve solution instabilities when solving nonlinear problems. Define nonlinear study boundary conditions and loads. Stabilize force control method to arrive to a final solution. Solve the problem using the displacement control method. Adjust boundary conditions for the displacement control method. Compare nonlinear results from the force control, and the displacement control methods.
Review the difference between small displacement linear, and large displacement nonlinear analyses. Introduce the concept of time curves, and discuss basic options. Solve small displacement linear analysis to demonstrate inaccurate solution. Define a nonlinear simulation study. Use time curves to control variation of the nonlinear loading. Use fixed increment stepping, and autostepping stepping procedures to solve the nonlinear problem. Postprocess results of the nonlinear simulation. Compare results from nonlinear studies with various setup parameters.
