
Explore why SolidWorks dominates 3D design with a versatile license, powerful part and assembly modeling, rendering, and analysis tools, plus interoperability with other software for manufacturing workflows.
Explore the SolidWorks interface, including the welcome window, home bookmarks, templates, and the command, view, and material options for efficient surface design and analysis.
Navigate SolidWorks by moving, rotating, and zooming the model with mouse and keyboard shortcuts, learn the x y z orientation with y on top, and review space mouse options.
Learn how to create and reuse part templates in SolidWorks by entering summary information, saving as templates, and setting default measurement units for your company.
Explore SolidWorks sketch tool fundamentals: selecting planes, drawing lines, circles, arcs, and rectangles, applying constraints, construction lines, centerline, tangent relations, text, slots, polygons.
Explore curve curvature and how to interpret surface continuity using curvature analyses. Learn about G0 discontinuities, tangent (G1) transitions, and G2 smoothness with changing radii.
Explore how to create a smooth curve with curvature continuity by applying fillet between two lines, adjusting radii and tolerance, and extending the techniques to 3d sketches for seamless transitions.
Explore trim and extend functions in SolidWorks, starting with corner dream to remove unnecessary sketch lines and using power dream for fast selections, speeding up modeling.
Learn to use convert to project edges from an existing model into a new sketch, creating parametric relation that auto-updates when dimensions change, and apply intersection to locate plane-face intersections.
Learn to create and edit offsets in SolidWorks by selecting edges, setting distances, choosing inner or outer options, and applying offsets on existing surfaces with chain-enabled multi-edge options.
Mirror and copy sketch shapes using a construction line as reference, pattern in x and y and around a circle, then move, rotate, or scale while keeping relations.
Explain sketch relations in SolidWorks, setting horizontal, vertical, perpendicular, parallel, and equal length constraints; use fixed and construction lines, monitor tolerance, and ensure a closed sketch for extrusion.
SolidWorks quick snaps let you start lines from existing points, centers, intersections, tangents, or quadrant and grid references, with a 100 mm grid to guide precise connections.
Apply smart dimension to add radius and horizontal, vertical, and baseline measurements, ensuring the sketch is fully constrained, with shade contour checks and rabbit sketch for quick face jumps.
In SolidWorks, learn surface modeling by comparing surface and solid models, manage edges and continuity, and convert surfaces into solids using tools to modify, join, cut, and export step files.
Explore extrude and revolve operations in SolidWorks, sketch-to-solid workflows, draft and distance controls, caps, and closure checking via section.
Learn swept, lofted, and boundary surfaces by sketching and guiding profiles, crafting hollow surfaces, and understanding when solids are hard to convert, preferring surface modeling for complex shapes.
Learn how to use the fill feature to close gaps and create tangent, continuous surfaces, evaluate curvature with zebra stripe analysis, and prefer boundary-driven methods or fixing boundaries first.
Explore SolidWorks freeform surface design using control points, patches, and symmetry to shape complex surfaces; learn how mesh density, control curves, and curvature visualization aid refinement, noting limits for dimensions.
Create planar surfaces by using existing planes, offset surfaces by a value, and flatten banded or curved surfaces for sheet metal drawings, adjusting accuracy for performance.
Learn to extend a surface with ruled surface in SolidWorks, using tangent to edge, normal direction, and reference planes, while managing trim and knit for multi-edge extensions.
Learn to replace a face in SolidWorks by selecting the target and a replacement. Use delete face to remove surfaces, choose surrounding faces, and patch or fill with tangent options.
Explore extend, trim, untrim and knit operations to control surface continuity, gaps, and tangency in SolidWorks, including extending edges, removing internal gaps, and creating seamless 3d surfaces.
Thicken a surface in SolidWorks to convert it into a solid by offsetting inward or outward, filling gaps, and using fix and cut to manage kept bodies.
Learn to create fillets in SolidWorks, using standard and expert modes to apply radii to multiple faces, with symmetric and hold-line options, tangent propagation, and sketch-driven control.
Master SolidWorks fillets with constant size, tangent propagation, and multi-radius profiles, using symmetric or curvature continuous options and adjustable radii, points, and transitions along edges.
Explore the Shaffer feature in SolidWorks to create edge offsets with distance and angle, using symmetric or equal-distance options and selecting edges, including invisible ones.
Learn to create and position reference planes in SolidWorks using reference geometry, offsets, and points to support sketches and establish planes perpendicular to curves or tangent to surfaces.
Create axis coordinate systems in SolidWorks from edge or two points. Use cylindrical or conical faces and point-to-plane methods, then customize the origin and axes, noting mass properties vary.
Learn to create and edit SolidWorks curves using split line projections, silhouette, and intersections, then form composite curves for sweeps and generate helices or spirals for revolutions.
Evaluate and visualize surface continuity using zebra stripes to detect g0, g1, and g2 transitions, adjust edges and curvature to ensure smooth, connected surfaces.
Analyze deviation between surface edges with color-coded average, minimum, and maximum values, then perform draft analysis to identify positive draft regions and adjust planes for easy mold release.
Explore undercut analyses in SolidWorks to identify problematic areas marked in red, determine when cores are needed, and use injection planes and parting line suggestions to optimize mold design.
Verify model symmetry in SolidWorks by selecting a plane to compare mirrored faces, with color coding revealing symmetric and asymmetric regions; assess thickness distribution using a color map.
Compare parts by aligning revisions, selecting document properties, and running a comparison to reveal surface, feature, and face changes, plus volume and material differences.
Master the SolidWorks measure tool to compute center-to-center distances, min/max distances, surface area, coordinates, and x y z values, with customizable settings and history for efficient modeling.
Explore surface design and analyses in SolidWorks, learn to build surfaces correctly and quickly, create solid models, assemble parts, and refer to your company documentation for guidance.
The SolidWorks Surface Design and Analysis course is an in-depth program designed to provide students with a comprehensive understanding of advanced surface modeling techniques using the SolidWorks software. This course focuses on equipping participants with the knowledge and skills necessary to create complex surface models, analyze their quality, and optimize designs for various applications.
Throughout the course, students will explore the fundamentals of surface modeling, learning the key differences between solid and surface modeling approaches. They will gain a thorough understanding of different surface creation methods, including lofting, sweeping, boundary surfaces, and filleting techniques. Students will master the art of controlling shape, continuity, and smoothness of surfaces to achieve desired design objectives.
Building upon the foundational concepts, participants will delve into advanced surface modeling techniques. They will learn to create ruled surfaces, filled surfaces, and freeform surfaces using guide curves and control vertices. Students will develop expertise in modifying and manipulating existing surfaces, ensuring design integrity, and meeting specific requirements.
An essential aspect of this course is the analysis and evaluation of surface models. Students will learn how to assess the quality of surface models using curvature analysis, draft analysis, and other tools available in SolidWorks. They will acquire the skills to identify and rectify issues such as gaps, spikes, and irregularities, thereby refining the surface design.
Key bullet points :
Introduction to surface modeling and its applications
Understanding the differences between solid and surface modeling approaches
Creating surfaces using lofting, sweeping, boundary surfaces, and filleting techniques
Controlling shape, continuity, and smoothness of surfaces
Modifying and manipulating existing surfaces while maintaining design integrity
Advanced surface modeling techniques, including ruled surfaces, filled surfaces, and freeform surfaces
Evaluating surface quality through curvature analysis and draft analysis
Identifying and rectifying issues such as gaps, spikes, and irregularities in surface models
Converting surface models into solid geometry using stitching, knitting, and thickening techniques
Performing finite element analysis (FEA) to validate surface designs
Optimizing designs for manufacturability and real-world applications
Practical exercises and hands-on projects to reinforce theoretical concepts
Application of skills in various industries, such as product design, engineering, and manufacturing.
After completing the SolidWorks Surface Design and Analysis course, students will have learned the following:
The fundamentals of surface modeling and its applications in various industries.
Techniques for creating complex surface models using lofting, sweeping, boundary surfaces, and filleting methods.
How to control shape, continuity, and smoothness of surfaces to achieve desired design objectives.
Methods for modifying and manipulating existing surfaces while maintaining design integrity.
Advanced surface modeling techniques including ruled surfaces, filled surfaces, and freeform surfaces.
How to evaluate surface quality through curvature analysis, draft analysis, and other tools in SolidWorks.
Strategies for identifying and rectifying issues like gaps, spikes, and irregularities in surface models.
Techniques to convert surface models into solid geometry using stitching, knitting, and thickening methods.
How to perform finite element analysis (FEA) to validate the structural integrity of surface designs.
Skills in optimizing designs for manufacturability and real-world applications.
Practical experience gained through hands-on projects and exercises that reinforce theoretical concepts.
The ability to apply surface design and analysis skills in industries such as product design, engineering, and manufacturing.