School of Engineering · Playlist

CAD Certifications

Choose a credential path, then prepare with modeling and drawing practice.

  1. CAD Certifications
  2. CAD Certification Preparation
  3. Drawing Terminology Review
Engineering Graphics and CAD/CAD Modeling

CAD Certifications

Compare current mechanical CAD certification paths, distinguish requirements from recommendations, and verify the route before registering.

Use a certification to document assessed skills, not to replace design experience

Use a certification to document assessed skills, not to replace design experience

A CAD certification is a provider's record that you passed a defined assessment. Depending on the program, that assessment may cover drawing interpretation, sketches, parts, assemblies, documentation, collaboration, manufacturing, or analysis. It can give a learner a concrete practice goal and give an employer one more piece of evidence about a specific product or workflow.

Its meaning is bounded. A credential does not guarantee employment, prove that every model is manufacturable, or replace a portfolio, coursework, supervised practice, and engineering judgment. Product names and versions also matter: proficiency in one CAD system does not automatically transfer to every other system.

This overview leads with mechanical CAD. Architecture and construction, CAM, simulation, additive manufacturing, product-data management, and platform roles are useful branches when they match the work you want to do. Program information below was checked against official sources on October 29, 2026; recheck the linked catalog before registering.

Choose the product and work first, then the credential level

Choose the product and work first, then the credential level

Do not begin by looking for a universal Associate → Professional → Expert ladder. Providers use those words differently, and some products offer only selected levels. Begin with the software and tasks used in your course, internship, workplace, or intended field.

Core mechanical design
Look for sketching, parametric part modeling, assemblies, drawings, dimensions, materials, and model checks.
Specialized design
Sheet metal, surfacing, weldments, mold tools, drawing tools, and generative design usually require narrower practice than a general design credential.
Manufacturing and additive
CAM, turning, milling, additive-process, and design-for-manufacturing credentials connect geometry to process planning. They are not substitutes for machine or shop authorization.
Simulation
Static, thermal, flow, frequency, nonlinear, and other analysis credentials assess both software operation and interpretation. Passing does not make an unchecked result physically valid.
Platform and data roles
Cloud collaboration, revisions, lifecycle, PDM, and administrator credentials may assess data workflows rather than only geometry creation.

Read the assessed skills on the exact credential page. A badge for completing a course, a training certificate, and a certification earned by passing an assessment are not automatically the same thing.

Compare SOLIDWORKS and Autodesk mechanical paths

Compare SOLIDWORKS and Autodesk mechanical paths

SOLIDWORKS

The official SOLIDWORKS catalog groups the general design path as Design Associate, Design Professional, and Design Expert, but the levels assess different depth rather than the same checklist three times.

Design Associate (CSWA)
Foundational sketches, common part features, patterns, dimensions, materials and mass properties, component insertion and mates, drawing views, and annotations.
Design Professional (CSWP)
Professional parametric part design from drawings, linked dimensions and equations, configurations and design tables, mass-property changes, and assembly modeling across three segments.
Design Expert (CSWE)
Advanced part and assembly problem solving, including multibody/imported geometry, complex features, in-context work, configurations, and advanced bills of materials. Eligibility requires CSWP plus at least four of exactly these five advanced-topic exams: Sheet Metal, Weldments, Surfacing, Mold Tools/Mold Making, and Drawing Tools.

Those five design specialties form the CSWE prerequisite set. Other Professional credentials—such as CAM, MBD, API, and Flow Simulation—assess valuable but different work and are not listed as substitutes in the CSWE requirement. Additive Manufacturing Associate assesses processes, materials, design, slicing, and preparation without requiring SOLIDWORKS software during the assessment.

The simulation family is separate: Simulation Associate covers statics, materials, loads, mesh, and result checks; Simulation Professional adds static, frequency, thermal, beam/shell, and convergence work; Simulation Expert requires CSWP, CSWA-S, and CSWP-S and adds advanced contact, composites, thermal, dynamics, and nonlinear analysis. Flow Simulation Professional is another specialty, not a step in that three-credential prerequisite chain.

Cloud xDesign and xShape credentials are not alternate names for desktop CSWA/CSWP. The xDesign Professional and xShape Professional pages require the relevant app, prescribed training, 3DSwymer Associate, ENOVIA Collaborative Industry Innovator Associate, and a new collaboration space. Exact student-cloud bundle mapping remains unclear, so confirm access before choosing one.

Route matters for students. Through the Academic Certification program, free exams depend on the school being an Academic Certification Provider, an active subscription, and region-specific license minimums; this is not an entitlement for every student. The current Design Premium for Students offer separately lists CSWA and CSWP attempts, while free Design Standard software does not list them. Recheck the current offer before purchase. Ordinary CSWP publishes no general prior-certification requirement, except that K–12 students using an Academic Certification Provider must first pass CSWA. The distinct CSWP-Academic route requires CSWA-Academic at least 30 days earlier and qualified, proctored institutional delivery.

Autodesk

Autodesk names four broad levels: Certified User (ACU), Certified Associate (ACA), Certified Professional (ACP), and Certified Expert (ACE). Not every product has every level, and the official overview does not establish a universal prerequisite ladder.

Mechanical starting points include ACU exams for AutoCAD, Inventor, and Fusion; ACA in CAD for Mechanical Design; ACP in Inventor for Mechanical Design, AutoCAD for Design and Drafting, and Design for Manufacturing; and ACE in Generative Design for Manufacturing. Optional extensions include Fusion CAM credentials, ACP in Simulation for Static Stress Analysis, and AEC credentials for Revit, Civil 3D, and BIM management.

ACU registration runs through Certiport; Autodesk's current ACU guidance says exams may be delivered online or in person, so do not assume a testing-center-only route. ACA, ACP, and ACE pages instead route candidates through Autodesk's application/dashboard to Pearson VUE or OnVUE. Those ACA/ACP/ACE exams use selected-response questions rather than live CAD software, so preparation should include concepts and workflow decisions as well as software practice. See Autodesk certification support for current policies and preparation routes. Free Autodesk education software and free learning resources do not establish a free exam or student discount.

Compare Onshape, Creo, NX, and Solid Edge

Compare Onshape, Creo, NX, and Solid Edge

Onshape
The live Learning Center certification catalog lists Certified Onshape Associate for parts, multipart design, assemblies, drawings, and collaboration, and Certified Onshape Professional for advanced modeling, motion, in-context work, versioning, branching, and linked-data collaboration. No Associate prerequisite is published for Professional. Register through the Learning Center and its Training Dashboard. A student Associate voucher has been described only through a conditional preparation route; current course access and voucher availability must be confirmed.
PTC Creo
The current PTC Learning Connector uses Product Proficiency for foundational sketches, features, assemblies, properties, and analysis; Modeling Specialist for advanced design intent, sketches, and solids; and Surfacing, Sheetmetal, Assembly, and Documentation specialists for their named workflows. Older User/Associate/Professional labels should not replace the live catalog. Enroll through the specific Learning Connector exam with appropriate active LEARN access; learning paths are recommended, and the current FAQ says prior certifications are not prerequisites. A separate academic certification-only route offers Product Proficiency, Modeling Specialist, Assembly Specialist, and Documentation Specialist after Proxi.id academic verification. It does not include every specialist or prove a universal student entitlement.
Siemens NX
The live Siemens Xcelerator Academy catalog lists NX Design Associate for solid and assembly models, modeling strategies, parametric/non-parametric methods, and interpart links; NX Design Professional adds curves and surfaces, PMI, validation, downstream model use, and drafting. The NX Design learning map makes Associate a prerequisite for Professional. Register from the catalog's Buy route. Optional NX CAM Associate/Professional and Additive Manufacturing Associate paths assess manufacturing work. Academic discounts or free vouchers may depend on institutional licensing; no universal student entitlement is established.
Siemens Solid Edge
The Solid Edge registry publishes Associate, Professional, and Expert. Associate covers introductory parts, assemblies, sketches, and drawings; Professional adds advanced synchronous, sheet-metal, assembly, and documentation work. Associate before Professional is recommended, not stated as mandatory; Expert requires Professional and assesses advanced ordered/synchronous modeling and detailing. Use Getting Started to register, complete the profile, review the guide, and select an exam. Enrollment pages currently display the exams as free, but verify region and delivered software version.
Keep CATIA V5 and 3DEXPERIENCE credentials separate

Keep CATIA V5 and 3DEXPERIENCE credentials separate

Dassault Systèmes publishes two different families. 3DEXPERIENCE role certifications include Associate roles such as Mechanical Designer, Mechanical & Shape Designer, SheetMetal Designer, and Function Driven Generative Designer. Associate exams use the Edu Space and certification-credit route with access to the appropriate roles/apps. The Professional registry covers advanced Mechanical Designer, Function Driven Generative Designer, and SheetMetal Designer work through authorized certification centers—public centers for general candidates or private academic centers for their students. Role trigrams identify software roles, not separate marketed exam codes.

CATIA V5 certification is another center-delivered family, marketed at Associate and Expert levels for Part Design, Assembly Design, and Surface Design. Its catalog describes training and regular practice as preparation, but the inspected pages do not publish a prior Associate credential as a universal Expert gate. Contact an authorized center for the available V5 route rather than registering through the 3DEXPERIENCE Associate Edu Space.

Student CATIA/3DEXPERIENCE offers can bundle software and exams under eligibility, billing-country, age, and noncommercial-use conditions. Official pages conflict on the exact bundled exam roster and renewal wording, so confirm the cart and current student terms rather than promising a particular set of credentials.

Separate prerequisites, preparation, access, and payment; Checklist

Separate prerequisites, preparation, access, and payment

  • Credential prerequisite: a prior certification the exact exam page says you must hold. Examples include the published CSWE, SOLIDWORKS Simulation Expert, NX Design Professional, and Solid Edge Expert chains.
  • Recommended preparation: experience hours, courses, learning paths, or practice described as readiness guidance. Do not silently convert a recommendation into an admission rule.
  • Software or platform access: the app, version, role, testing client, collaboration space, or live software needed to prepare for or take that route.
  • Registration condition: account, identity, age/consent, testing-center, remote-proctor, institutional, region, or academic-verification requirements.
  • Payment condition: a public purchase, institutional voucher, subscription benefit, bundle, or conditional student offer. Free student software is not the same as a free exam.

Voucher expiration and credential validity are also different. For example, Certiport governs ACU credential policy while Autodesk's other credentials use Autodesk/Pearson routes. Confirm the exact program, country, tax, proctoring, retake, voucher, and validity terms immediately before paying or scheduling.

Use one verified route from comparison through preparation

Use one verified route from comparison through preparation

  1. Name the product and work you want to demonstrate: general mechanical design, drawings, manufacturing, simulation, or data workflow.
  2. Open the provider's current catalog and the exact credential page. Record the title, assessed skills, delivery route, and published prerequisites.
  3. Mark recommendations separately from requirements. Confirm that you can access the needed software, account, testing center, or remote-proctor setup.
  4. Ask your institution about participation or vouchers without assuming it has them. Verify any student offer, region, expiration, and checkout total directly.
  5. Use official preparation materials without copying exam questions, answer keys, or protected sample parts. Practise the underlying workflow with original drawings and models.

For a worked preparation case, continue to CAD Certification Preparation. It uses CSWA to organize drawing, modeling, assembly, units, material, mass-property, checking, and revision practice while keeping the official exam specification outside CourseWiki.

Engineering Graphics and CAD/CAD Modeling

CAD Certification Preparation

Build dependable modeling habits, check your work, and use official sources to plan an entry-level CAD certification attempt.

Use certification as a goal for building dependable CAD skills

Use certification as a goal for building dependable CAD skills

A CAD certification gives you a way to demonstrate skills assessed by its provider. Preparing for one can help you become more productive, build models that survive changes, and describe your skills on a resume. Passing does not guarantee a job or prove that every design you make will work.

The Certified SOLIDWORKS Associate (CSWA) is the worked case here, offered through Dassault Systèmes' SOLIDWORKS certification program. Its hands-on modeling workflow does not describe every vendor exam: some routes use selected-response questions, testing-center delivery, platform roles, or different software-access rules. Compare those routes first in CAD Certifications. CourseWiki is an independent learning resource and is not affiliated with or endorsed by Dassault Systèmes.

Find the current exam rules before you register; Checklist

Find the current exam rules before you register

Start at the official SOLIDWORKS certification program, then select the CSWA Design Associate page. Check the exact credential name: similarly named certifications can assess different tools.

  • Read the current exam description, skill coverage, format, length, question count, passing rules, and any section weights on the official page.
  • Follow the official registration or purchase route; confirm the current price and any voucher conditions before paying.
  • Check software, computer, account, and testing-client requirements, plus the rules for permitted resources and retakes.
  • Find the official sample or practice resources linked from the certification page and read their use instructions.

For current numerical exam details, see the official page. This guide does not reproduce an exam specification, exam questions, answer keys, or sample parts. The official certification FAQ is another starting point for registration and testing questions. Academic and ordinary CSWP routes have different conditions, and student software access does not by itself prove an exam voucher is included.

Practise reading, modeling, assembling, and checking

Practise reading, modeling, assembling, and checking

Use these general skill areas to organize practice; use the official description to confirm what your chosen certification assesses.

  • Read a drawing: identify views, dimensions, and feature notes before building. Start with Drawing Terminology Review.
  • Sketch deliberately: use dimensions and geometric relations to control size and shape. Review Geometric Relations in Sketches.
  • Build and revise parts: choose features that express the shape, then change a dimension and check the result. Review Feature-based Modeling.
  • Assemble components: place parts and constrain their intended positions or motion with mates. Review Assembly Files and Mates.
  • Inspect the result: measure dimensions, check mass properties, and confirm the correct model state. Review CAD Model Views and Checks.
Check geometry, units, and material before trusting mass; Checklist; Practice

Check geometry, units, and material before trusting mass

For a uniform solid, mass = density × volume. Use compatible units: density in g/cm³ multiplied by volume in cm³ gives mass in g. To convert mm³ to cm³, divide by 1,000 because 1 cm³ = 10 × 10 × 10 mm³.

Changing only the displayed units changes the number and unit label, not the physical size or mass. Entering a dimension in the wrong units changes the geometry. Choosing a different density changes mass even when the shape stays the same.

  • Confirm the drawing's units and the units used when entering dimensions.
  • Check overall dimensions, holes, and removed material against all relevant views.
  • Assign the specified material or density to the intended bodies or components.
  • Rebuild after edits; confirm the intended configuration and which bodies or components are included.
  • Read the requested quantity and its output units before recording an answer.

Supporting detail: Addendum 1 — Why matching mass does not prove the shape is right.

Practise mass from volume Practise cubic units Check a unit change

Build accuracy first, then practise with a time limit

Build accuracy first, then practise with a time limit

Choose an original, ungraded drawing you have permission to use. Build the part without following a click-by-click demonstration. Explain how each view supports the geometry, then check the dimensions and material. Repeat with a changed dimension to see whether the model updates as intended.

Once that process is reliable, set a practice time limit. Include time to read, model, check, and save. Record where you lose time and practise that skill next. During an actual attempt, follow the provider's rules about navigation, returning to questions, and saving work.

Keep a short error log: drawing interpretation, sketch control, feature choice, assembly position, units, or material. Rebuild after correcting the cause instead of memorizing the previous answer.

Engineering Graphics and CAD/Reading Drawings

Drawing Terminology Review

Recognize drawing terms used when turning a drawing into a CAD model, then follow links for the full methods.

Identify the view before interpreting the shape

Identify the view before interpreting the shape

This short vocabulary review supports CAD certification preparation. It is general drawing language, not a list of guaranteed exam terms.

A view is a picture of the part from a chosen direction. First identify how the picture represents the part; then read its lines, dimensions, and notes.

Orthographic view
The principal orthographic views look straight at the part from the front, above, or a side, using parallel lines of sight perpendicular to each viewing plane. Front shows width and height; top shows width and depth; a side view shows depth and height. Read the views together to understand one three-dimensional part.
One stepped block beside its labeled front, top, and right orthographic views. The front has an L-shaped outline; top and right show its depth.
The pictorial on the left helps you recognize the block. The front, top, and right views on the right show the same fixed part from separate directions. This example uses third-angle placement; Orthographic Projection explains the views and First-Angle and Third-Angle Projection explains their placement on the sheet.
Isometric view
An angled pictorial that helps you see width, height, and depth together. Its three principal axis directions are 120° apart and use the same scale. An isometric projection foreshortens lengths equally along all three axes; an ordinary isometric drawing lays out axis-parallel lengths at the chosen drawing scale. Use stated dimensions to model the part rather than measuring its apparent lengths on the picture.
Three isometric axis rays labeled height, depth, and width, with 120 degrees between each pair. Below, a rectangular block has vertical edges and two sets of sloping edges following those same axis directions.
The block is an isometric drawing: its edges follow three consistent directions. The dashed grid on its top is a construction aid, not hidden edges of this part. See Pictorial Sketching for making the sketch and the distinction between drawing and projection scales; compare isometric with dimetric and trimetric in CAD Model Views and Checks.
Line conventions describe edges and centers within a view

Line conventions describe edges and centers within a view

A view type tells you how the part is represented. A line convention tells you what a particular mark means within that view. Visible, hidden, and center lines are line conventions, not additional view types.

Visible line
A continuous line shows an edge or outline you can see from this viewing direction.
Hidden line
Short dashes show an edge concealed by material.
Center line
A long-short pattern identifies an axis, center, or symmetry reference. It is not a physical seam in the part.
Labeled samples show a thick solid visible line, short-dashed hidden line, long-short center line, and long-short-short phantom line.
The first three samples match the terms above. The fourth, phantom, can indicate an alternate position or reference. Read the pattern together with its context; the dashed construction grid in the isometric figure above is a teaching aid. Review the full conventions in The Alphabet of Lines.
Read dimensions and callouts as instructions about features; Practice

Read dimensions and callouts as instructions about features

Dimension and extension lines
A dimension gives a size or location. A dimension line is a thin line, usually ending in arrowheads, that shows the extent of the measurement; extension lines carry the edges of the measured feature out to it. Read the value and units instead of measuring a picture. See Dimension Anatomy and Placement.
Diameter and radius
Diameter spans a circle through its center; radius runs from its center to its edge. The diameter symbol is Ø; R denotes radius. Confusing them changes the modeled size. See how holes and arcs are called out in Hole and Feature Callouts.
Hole and feature callout
A note describing a feature, possibly including quantity, size, depth, or thread information. A through hole passes through the material; a blind hole stops within it. See Hole and Feature Callouts.
Tolerance
The permitted variation in a specified dimension. Read the stated limits or applicable drawing note; do not assume that every dimension has the same tolerance. See Dimension Anatomy and Placement.

Practise radius and diameter

Distinguish a section, a detail, and an auxiliary view; Practice

Distinguish a section, a detail, and an auxiliary view

  • Section view: shows the part as if cut by an imaginary plane so internal features can be read. A cutting-plane indication locates the cut; section lining identifies material crossed by it. See Section Views.
  • Detail view: enlarges a selected area so small features are easier to read. Check its scale and labels.
  • Auxiliary view: looks perpendicular to an inclined surface to show its true shape. Compare it with a detail view in Auxiliary and Detail Views.

Before modeling, point to the view or callout that establishes each feature. If a shape is unclear, look for another view rather than guessing from a pictorial.

Check the purpose of a detail view

Supporting detail

Addendum

Additional evidence, standards context, and background referenced from the main text.

  1. Engineering Graphics and CAD/CAD Modeling/CAD Certification Preparation

    Addendum 1. Why matching mass does not prove the shape is right

    Different shapes can have the same volume and density, and therefore the same mass. A missing cut and extra material removed elsewhere can cancel numerically. Treat mass as one independent check alongside dimensions, feature locations, and drawing views.

    Back to reference 1