Use the various Mold Tools to prepare a part for injection molding, including scaling, split line, parting surface, and shut-off surfaces. After preparing the part, you create the core and cavity. Identifty the parting plane. Create a parting surface. Create shut-off surfaces. Create mold body, core and cavity.
Use extruded, revolved, and swept surfaces to create geometry. Trim, extend, knit, and thicken the surfaces to finish the thin-walled model. Extrude a sketch to create a surface. Revolve a sketch about an axis to create a surface. Trim a surface using a sketch or another surface as the trim tool. Sweep an open profile along a path to create a surface. Combine multiple surfaces into a single body using knit surfaces. Thicken a surface body to create a solid body.
Paste or \"paint\" the properties of an existing feature onto other features. The features may be in the same part or a another part. Copy and paste feature properties from one feature to another.
Create an intersect feature to represent the fluid inside a bottle. Then, use the mass properties tool to determine the volume of the feature you created. Create a configuration to represent the liquid in the bottle. Create a reference plane to represent the fill level of the bottle. Use an intersect feature to model the liquid inside a bottle. Use mass properties to determine the volume of a solid body.
Explore the differences between solid and surface bodies and learn why surface modeling can be a solution to challenging modeling tasks. Understand the difference between a surface and solid body in SOLIDWORKS. Learn why surface modeling should be used.
Create parting surfaces using parting lines by separating mold cavity faces from mold core faces using the parting surfaces tool. Create parting surfaces at the parting line that are perpendicular to the direction of pull. Explore the options of a parting surface.
SustainabilityXpress estimates a models carbon footprint, energy consumed during its lifecycle, Air acidification, and water eutrophication. Information is analyzed such as the material used, maufcturing process, manufacturing region, use region, and end of life. Explore how different materials and manufacturing processes affect the environmental impact for a design Specify product use information to determine values for transportation and end of life. Understand the information displayed in the Environmental Impact charts. Learn how to set an environmental impact baseline to compare changes to. Generate a report of the Sustainability output.
Use several direct editing techniques for working with imported geometry using surfacing tools. Explore the Delete Face tool, the Delete Hole command, and the Untrim Surface tool. Use the Delete Face tool to remove an unwanted imported geometry feature. Use Delete Hole and Untrim Surface to remove an unwanted imported geometry feature. Convert a surface body into a solid body using the Thicken command.
Utilize functions of the Costing Task Pane and CostingManager tab to analyze the cost of manufacturing a machined part. Use the Costing Task Pane to evaluate materials costs. Learn how to customize material options for material and stock size. Use the Costing Manager to evaluate manufacturing costs. Learn how to customize cost values for manufacturing. Understand the values displayed in the Estimated Cost Per Part. Learn how to apply a markup or discount. Generate a cost analysis report.
Select features or elements of a particular type so that they may be acted upon in one operation. Operations include appearance changes, suppression changes, and more. Bulk-select by feature type. Understand the options and search criteria of the Power Select tool.
Use the loft feature or boundary feature to create a transition that blends well with the surrounding geometry. Set the tangency options for a boundary feature to match the curvature of the neighboring faces. Join two portions of a model that have different profiles. Examine the options for building a boundary feature.
Compare the features of two parts and classify the differences into two categories: unique features that exist in only one part and modified features that exist in both parts. Find differences between the features of similar parts. Classify the features as unique or modified.
Apply a setback fillet to vertices where three or more edges meet. Setback fillets can model cleaner looking blends at the vertices. Add setback values to vertices where three or more edges meet.
Locate and diagnose problems in geometry imported from other CAD software. Then, use surface tools to repair the damaged geometry. Diagnose problems in a model with verification on rebuild, import diagnostics, and check entity. Heal faulty faces using the import diagnostics tool. Delete faulty faces and use various surface tools to re-create the geometry. Display curvature and check the minimum radius of curvature. Delete and replace fillets to create smoother blends. Extend, trim, and knit surfaces.
Create 3D sketches using the default coordinate system of the model to orient the sketch entities. Add relations and dimensions to constrain the size of the sketch entities. Use the on-screen feedback when sketching. Use planes to orient 3D sketch entities. Change the sketch plane by pressing the Tab key or by using a plane or planar face. Display multiple viewports to modify 3D sketch entities.
Use the Shut-off surfaces tool to close open molding areas in a part to cut the tooling block into two pieces. Identify open molding areas in the part. Utilize the Shut-off Surfaces tool to close open molding areas. Understand when shut-off surfaces are required.
Create 2D or 3D sketches where faces of a model intersect the sketch plane or each other. You can use the sketches to determine draft angles, evaluate curvature, as a sweep path, and more. Create 2D sketch entities where selected faces intersect the sketch plane. Create 3D sketch entities where selected faces intersect each other.
Learn to use modeling techniques that allow for efficient transition between part design and delivery of the finished castings. Create a motorcycle gear case by designing the production tooling for the part. Start by designing the core, or the negative space, of the gear case. Design the pattern, or outside faces, of the gear case as a separate solid body. Save the tooling bodies as new part files. Combine the solid bodies, subtracting the core from the pattern. Apply machining features to finish the model.
SOLIDWORKS includes many tools for evaluating part geometry. By analyzing the curvature of a parts curves and surfaces, you can evaluate the quality of transitions between features and the surfaces themselves. Understand what curvature is. Display Curvature to use colors to evaluate the surfaces of a model. Use Curvature Combs to evaluate sketch curves. Learn how to display the minimum radius and inflection points of a curve. Use zebra stripes to simulate reflections on faces of a model. Understand how to use evaluate tools to recognize tangency and curvature continuous conditions.
Create smart components by selecting components and features in a defining assembly. Then, insert smart components into an assembly to add the components and create the features. Create smart components in a defining assembly. Insert smart components into an assembly to create components and features. Select reference faces for the features of a smart component.
Import parts into SOLIDWORKS, then use the rip feature to create thin cuts in sheet metal geometry between adjacent flanges. Insert bends to convert the model to a sheet metal part to flatten and further edit the part. Import other file types into SOLIDWORKS. Use rip feature to create thin cuts. Add bends to part to convert part to sheet metal.
Project a sketch onto another sketch to create a curve that represents the cage for a water bottle. Create sketches that represent the overall shape of the water bottle. Project one sketch onto another to create the 3D curve. Create a sweep feature using the 3D curve as the path.
Set the options of a sweep feature to control the orientation and twist of the profile along the path. Use curvature combs to evaluate the curvature of paths and guide curves. Control the twist of the profile along the path of a sweep.
Create a variable pitch helix that you use as the path for a sweep feature. Learn about the options you have to define the shape of the variable pitch helix. Create a variable pitch helix. Position the profile and path sketches properly for a sweep feature. Create a plane normal to a curve at a point.
