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.
Create sketch geometry by tracing pictures in the sketch. Insert, move, rotate, and scale sketch pictures. Sketch splines and arcs on top of the sketch picture. Mirror the sketch geometry about a centerline.
Create display states to control the visibility and display style of components. Display states can be linked to configurations of an assembly. Display states can control hide/show state, display mode, appearance, and transparency of components. Add display states to an assembly. Modify visual properties of components with display states. Explore component selection techniques. Use the display pane. Open an assembly to a specific configuration and display state. Link display states to configurations.
Smart Mates can be used to automate mates while adding a component to an assembly as well as for mating existing components. Different mate relations can be created based on the geometry that is specified for the Smart Mate. Automate mates while adding a component to an assembly. Use Smart Mates to mate existing components. Use Smart Mates with circular edges to generate multiple mates simultaneously.
Apply color, material and texture appearances to components, part features, or faces in an assembly. Control how those appearances propagate through the model. Appearances applied at the assembly component level do not affect the individual part file. Apply an appearance to several componets in an assembly. Apply a material appearance and change how it is displayed. Understand the hierarchy of appearance application in an assembly.
Use multiple mate mode within the Mate command as a shortcut to create many mate relations to one common reference. Create multiple mates to a common reference using multiple mate mode. Toggle alignment of mates. Explore different techniques to edit mate features.
Use limit mates to restrict the movement of components within a specified range of linear or angular values. Add coincident and limit mates to restrict the degrees of freedom of a component. Set the starting, minimum, and maximum values for a limit mate.
Constrain two similar entities (points, edges, faces, etc) to be symmetric about a plane or planar face. A symmetry mate does not force the components to be symmetric, just the entities you select. Understand the acceptable selections for a symmetry mate. Constrain two planar faces to be symmetric about a reference plane.
Animate an assembly from a first-person perspective. Create walkthrough animations. Position the camera throughout the animation sequence. Align the camera to a sketch path throughout the animation sequence. Save animations as AVI files.
Use global variables and equations in assemblies to control dimensions of components or values of mates. Set dimension names. Define global variables. Add equations that link dimension values of one component to values in another component.
A SpeedPak configuration improves performance of large assemblies by simplifying the assembly without losing its file references. Create SpeedPak configurations. Use SpeedPak configurations in higher level assemblies. Understand the benefits and limitations of using a SpeedPak configuration.
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.
Edit the values of distance, angle, and limit mates. Add distance and angle mates according to the specifications in a drawing table. Edit the values of the distance and angle mates that you create.
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.
Understand the Certified SOLIDWORKS Professional exam. Identify the benefits of becoming certified. Learn about some of the SOLIDWORKS skills you need to achieve certification.
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.
Understand the prerequisites of the Certified SOLIDWORKS Professional exam. Learn what you can do to best prepare for the CSWP exam. Identify the areas of the SOLIDWORKS software that you should study.
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.
Change the part for the Certified SOLIDWORKS Professional sample exam by removing features, adding features, and editing existing features. Remove, add, and edit features to change the part. Obtain the mass properties of the part.
Modify the features and sketches in the sample part provided for the Certified SOLIDWORKS Professional sample exam. Change the sketch profile and end condition of a boss feature. Reorder features in the FeatureManager design tree. Obtain the mass properties of the part.
Modify sketches and reorder features in the sample part provided for the Certified SOLIDWORKS Professional sample exam. Modify sketches to change the profile of an extruded boss. Reorder features while respecting parent/child relations. Obtain the mass properties of the part.
Create several types of derived drawing views and understand the unique characteristics of each view type. A derived drawing view is created by referencing an existing drawing view. Create a projected view by folding off an existing drawing view. Project a view normal to a selected edge to create an auxiliary view. Show a portion of a view at an enlarged scale using detail views. Create a drawing view relative to planes or planar faces in the model. Focus on a portion of a drawing view by cropping and hiding the unwanted entities. Shorten an existing drawing view using broken views.
Create a note with text that is linked to existing dimensions and custom properties. Link a note to a dimension. Edit the title block of a drawing to add notes linked to a model's properties. Add drawing property information to populate a title block.
Create and use hole tables and general tables to display different types of data, such as alternate part configurations, on a drawing. Create a hole table to display hole sizes and locations on a drawing. Use a general table to display any custom data. Resize and edit existing tables.
