What does the CSWA exam test?

The CSWA (Certified SolidWorks Associate) exam tests hands-on SolidWorks 3D CAD proficiency. The exam consists of 14 performance-based questions that require you to create and modify 3D models in SolidWorks software and answer questions based on the resulting geometry (typically mass, volume, or center of gravity values). Content areas: Basic Part Modeling (~20%), Advanced Part Modeling (~35%), Assembly Modeling (~30%), and Drawing Views/Standards (~15%). The exam is taken on a computer with SolidWorks installed and lasts 3 hours. You are given a set of specifications (dimensions, constraints, material) and must create a model that matches those specifications exactly — precision is critical because mass property answers must be within 1% of the correct answer.

What is the difference between the CSWA and CSWP certifications?

The CSWA (Certified SolidWorks Associate) is the entry-level credential for SolidWorks users, typically completed after 40+ hours of training and basic modeling experience. The CSWP (Certified SolidWorks Professional) is the intermediate-level credential for experienced SolidWorks users, requiring about 1–2 years of professional experience. CSWP is a three-segment exam covering advanced parts, configurations/design tables, and advanced assemblies. Each segment must be passed separately. The CSWP demonstrates significantly more proficiency with complex modeling operations, equations, design tables, and multi-body part modeling. Passing CSWA is a prerequisite for taking the CSWP. Advanced certifications (CSWPA) focus on specific specialties like Sheet Metal, Weldments, Drawings, or Simulation.

How do mates work in SolidWorks assemblies?

Mates are geometric relationships that constrain the position and orientation of components within a SolidWorks assembly. Each mate removes one or more degrees of freedom (DOF) from a component. Common mate types: Coincident (aligns two faces, edges, or points — removes 1 translational DOF for faces, more for points), Concentric (aligns the center axes of two cylindrical/spherical surfaces — removes 2 translational DOF), Parallel (makes two planes parallel — removes 2 rotational DOF), Distance (maintains a fixed gap between two faces/planes — removes 1 translational DOF), and Angle (sets a specific angle between two planes — removes 1 rotational DOF). A fully constrained component has 0 DOF (all 3 translational and 3 rotational DOFs removed). Under-constrained components appear with a minus sign (−) in the FeatureManager; over-constrained components appear with a plus sign (+) indicating a mate conflict.

What is design intent and why does it matter in SolidWorks?

Design intent describes how a 3D model should behave when dimensions or parameters change — it's the philosophy behind how you build a parametric model. Good design intent means the model updates predictably and maintains its functional requirements as dimensions change. Example: if you're modeling a bracket with holes that must always be centered on the bracket face, add a symmetric constraint relative to the midplane — don't dimension both holes independently from the edge. If the bracket width changes, the holes stay centered automatically. Poor design intent means manually re-dimensioning features when other features change. On the CSWA exam, design intent matters because exam problems often ask you to make specific changes to a model and verify the resulting mass — if your model wasn't built with proper constraints, it may not update correctly.

CSWA Practice Test PDF (Free Printable 2026 October)

Pass the CSWA exam with confidence. Practice questions with detailed explanations and instant feedback on every answer. ✅

CSWA - Certified Solidworks AssociateOct 11, 20268 min read

CSWA Practice Test PDF – Free Printable Certified SolidWorks Associate Exam Prep

Preparing for the CSWA (Certified SolidWorks Associate) certification exam? A printable CSWA practice test PDF gives you an offline format to review part modeling, assembly modeling, drawing views, and the SolidWorks 3D CAD concepts that the CSWA examination assesses. Understanding the theoretical foundations of parametric modeling, assembly constraints, and drawing standards solidifies the practical skills needed for the hands-on CSWA exam. This page provides a free PDF download and a comprehensive CSWA exam preparation guide.

The CSWA certification is the entry-level SolidWorks credential issued by Dassault Systèmes. CSWA validates proficiency in SolidWorks 3D CAD software and is recognized by employers in mechanical engineering, industrial design, product development, and manufacturing. The exam is taken on a computer with SolidWorks installed and requires candidates to create and modify 3D models within a timed environment.

Key Takeaway: CSWA certification demonstrates expertise in this field. Most candidates spend 4-8 weeks preparing with practice tests before taking the exam.

📄Free CSWA Practice Test PDF

CSWA Exam Content Areas

Your CSWA practice test PDF covers the SolidWorks knowledge areas tested in the certification examination.

Part Modeling Fundamentals

Part modeling is the core of the CSWA exam. Key concepts: sketch-based features (extrude boss/base — creating solid geometry from a closed sketch; extrude cut — removing material; revolve — rotating a sketch around a centerline; sweep — extruding a profile along a path; loft — transitioning between two profiles), reference geometry (planes — default planes Front/Top/Right plus user-defined offset and angled planes; axes — for revolves and circular patterns), feature relationships (parent-child dependencies — features built on other features create dependencies; if a parent feature changes, child features update automatically), and design intent (how to build models that update predictably when dimensions change — parametric modeling principle). The CSWA exam provides target dimensions and mass properties — you must model to match them exactly.

Advanced Part Features and Modifications

Advanced features tested: fillet/chamfer (rounding or beveling edges), draft (adding taper to faces for molding/casting), shell (hollowing out a solid body with uniform wall thickness), linear and circular patterns (copying features at regular intervals), mirror (reflecting features across a plane), equations (mathematical relationships between dimensions — parametric control), configurations (multiple versions of a part with different dimensions in one file — ConfigurationManager), and mass properties (calculating mass, volume, center of gravity, and moments of inertia from a solid model). CSWA exam problems typically provide a sketch with overall dimensions and ask for mass or other mass property values after specific modifications — precision is critical.

Assembly Modeling

Assembly knowledge: inserting components (bringing part files into an assembly), mates (geometric relationships that constrain component position — Coincident: aligns faces/edges/points; Parallel: makes two planes parallel; Concentric: aligns circular geometry; Distance: sets a specified gap; Angle: sets angular relationship), degrees of freedom (6 DOF for each unconstrained component — 3 translational + 3 rotational; fully constrained = 0 DOF; fixed component has no movement), assembly hierarchy (subassemblies within assemblies — promotes reuse and organization), and assembly mass properties (total mass, center of gravity of the assembly). CSWA assembly questions ask you to mate components and answer questions about resulting positions or mass properties.

Drawing Views and Standards

Drawing fundamentals: standard views (front, top, right views — third-angle projection in US/Canada; first-angle in much of the world — CSWA tests third-angle), projected views (creating additional orthographic views from existing views), section views (cutting through the part to reveal internal features), detail views (enlarged circular cutout of a complex area), dimensions (linear, radial, angular, ordinate — annotations that communicate sizes), tolerances (geometric dimensioning and tolerancing GD&T basics — straightness, flatness, circularity, cylindricity, perpendicularity, parallelism, true position symbols), and title block requirements (drawing number, revision, scale, material, drawn by, approved by). Understanding drawing standards (ASME Y14.5) is important even for the foundational CSWA level.

How to Use This PDF

Study mass property calculations and mate types — CSWA exam questions consistently ask for mass values after modifications. After this PDF, take online CSWA practice tests at cswa exam for instant scored feedback by content area.

If you want more targeted practice, the cswa practice exam page covers the same material with additional questions and explanations.

✓Know sketch constraints: fully defined (black) vs. under-defined (blue) vs. over-defined (red)
✓Practice extrude boss/base and extrude cut: these are the most-used features on the exam
✓Study mate types: coincident, concentric, parallel, distance, angle — what each constrains
✓Know degrees of freedom: fully constrained assembly = 0 DOF per component (except fixed components)
✓Review reference planes: Front/Top/Right defaults + how to create offset and angled reference planes
✓Practice mass properties: mass = density × volume; know how to check via Tools > Evaluate > Mass Properties
✓Study configurations: creating multiple variants of a part (different dimensions) in one SolidWorks file
✓Review shell command: thickness direction, faces to remove, thin-walled part creation
✓Know linear and circular patterns: pitch, number of instances, skip instances
✓Practice CSWA sample exam: Dassault provides free sample exam — attempt before test day

Free CSWA Practice Tests Online

After completing this PDF, take full online CSWA practice tests at cswa exam — instant scoring across part modeling, assembly modeling, drawing views, and SolidWorks fundamentals with explanations for every answer. Use both: PDF for offline concept review, online for timed CSWA certification exam simulation.

Sample CSWA - Certified Solidworks Associate Practice Questions

Try these questions from our free CSWA - Certified Solidworks Associate practice tests. The correct answer and an explanation follow each question.

You are modeling a part that requires a circular pattern of features, but there is no cylindrical face or linear edge to define the pattern's center axis. Which is the MOST direct method to create a suitable axis of revolution that passes through the intersection of the Front and Right planes?
- A. Create a sketch with a construction line and use the line as the axis.
- B. Select the Front Plane and the Right Plane in the Axis reference geometry tool.
- C. Create two reference points and then create an axis between them.
- D. Use the default origin as the axis.

Answer: B. Select the Front Plane and the Right Plane in the Axis reference geometry tool.

The Reference Axis tool can create an axis at the intersection of two planes. By selecting the Front Plane and the Right Plane as the references, SOLIDWORKS will generate a fully defined axis precisely where they intersect, which is the most efficient and direct method.

To create an engraved effect for a logo on the curved surface of a bottle, you have created a sketch on a plane tangent to the bottle. Which feature and type should be used to remove material from the bottle's face following the sketch?

A. Wrap feature with the 'Emboss' option.
B. An Extruded Cut feature with the 'Offset from Surface' end condition.
C. Wrap feature with the 'Scribe' option.
D. Wrap feature with the 'Deboss' option.

Answer: D. Wrap feature with the 'Deboss' option.

The Wrap feature is used to project a sketch onto a curved (or flat) surface. To create an engraved or indented effect, which involves removing material, the 'Deboss' option is the correct choice. 'Emboss' adds material, and 'Scribe' only splits the face without adding or removing material.

What does a gray (dimmed) icon next to a feature in the FeatureManager Design Tree indicate?

A. The feature is selected
B. The feature is suppressed
C. The feature has an error
D. The feature is locked

Answer: B. The feature is suppressed

Suppressed features appear grayed out in the FeatureManager Design Tree to visually distinguish them from active features.

What does 'suppressing' a feature within a configuration do?

A. Deletes the feature permanently
B. Hides the feature visually without removing it
C. Removes the feature from model geometry in that configuration only
D. Changes the feature material

Answer: C. Removes the feature from model geometry in that configuration only

Suppressing a feature in a configuration removes it from the model geometry for that configuration while keeping it available in others.

Take the full CSWA - Certified Solidworks Associate practice test

Join the Discussion

Connect with other students preparing for this exam. Share tips, ask questions, and get advice from people who have been there.

View discussion (9 replies)