Use 2D CAD to lay out a concept, document how a system connects or communicate exactly what needs to be built.
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Assembly · Creo Layout2D CAD (computer-aided design) lets engineers and designers create, revise and annotate drawings on a flat plane. They can define geometry at a precise scale and use dimensions, notes and symbols to tell others what to build, install or inspect.
Teams often sketch a layout before building a 3D model, then use drawings to communicate details that need to be read at a glance. The right drawing depends on what the reader needs to know.
Follow a mounting bracket from the first layout to the drawing a machinist and inspector can use.
For a mounting bracket, set the drawing units and establish a reference edge. Sketch the outline and hole centers on separate layers so you can check the fit against the mating part and revise the layout as needed.
A concept layout for checking fit.
Turn the accepted layout into a drawing the shop can use. Specify the hole size and location, add the tolerances that matter for assembly, and use a detail or section view if the main view hides an important feature.
An annotated drawing for shop and inspection review.
Walk through the dimensions, notes and revision with manufacturing and inspection. Resolve any questions before issuing the approved sheet in the agreed format. Keep the editable CAD file so later changes can be traced.
A released sheet and a revision-controlled CAD file.
A 2D drawing shows a design from selected viewpoints. Drafting turns those views into a technical document by adding the dimensions, symbols and notes another person needs to build, install or inspect it.
The dimension line above the gearbox spans two reference points. On a production drawing, the value and any applicable tolerance tell the shop what to make and inspection what to check.
The dashed line through the shaft identifies its axis. Centerlines help readers align features across views and distinguish reference geometry from physical edges.
The side-view label tells readers how the gearbox is oriented. Add a section view to reveal an internal bore or an enlarged detail when a small feature is hard to read.
A well-structured drawing helps teams find the right information, revise it efficiently and agree on what has to be built.
Separate geometry, dimensions and reference information with layers. Use approved title blocks, symbols and templates so related sheets have a consistent structure.
On a plant layout, show equipment footprints and access clearances together for review, then hide the reference layers when preparing the installation sheet.
Edit existing geometry and reuse standard details when a design changes. Keep the editable drawing with its revision history, and review every affected view before sharing an update.
If a machine guard changes, revise its mounting detail and check the related sheets before sending the new revision to fabrication.
Draw at a defined scale and use dimensions, tolerances and notes to state what the reader needs to verify. A shared drawing gives design, manufacturing and inspection a common reference.
For a machined plate, state the hole size and location on the drawing so the shop and inspector can use the same requirements.
Explore three ways teams use 2D CAD to communicate what to build, connect or service.
A roller assembly drawing can use a front view to locate the supports and a section view to show how a shaft seats in its bearing. Dimensions and tolerances give machining and inspection the same requirements to work from.
An electrical schematic can trace a motor circuit from its power source to its terminals. A fluid schematic can show the equivalent paths through valves and actuators. Reference labels let technicians follow connections across sheets and cross-check them against the physical installation.
A concept layout can set the footprint of a gearbox and reserve room for mounting and service access before the assembly is modeled. After the design is defined, an exploded technical illustration can show which parts to remove and in what order.
Different tools help teams define geometry, document how a system works and carry design information into manufacturing or service.
PTC Illustrate can reuse a 3D model to create exploded views, parts callouts and step-by-step instructions. The separated cover and gasket show how an illustration can make a service task easier to follow.
Start with the deliverable you need, then compare the tools for creating, revising and sharing it.
Develop 2D concepts and reference selected geometry in Creo Parametric as the design moves into 3D.
Creo Layout datasheet (PDF) ↗Create electrical and fluid diagrams and use connection information in supported 3D routing workflows.
Creo Schematics datasheet (PDF) ↗Generate drawing views from the model and annotate them for manufacturing and inspection.
Explore Creo ↗Use a direct drafting workflow to edit legacy and stand-alone drawings.
Explore Creo Elements/Direct ↗)){kind=logo}
Reuse CAD geometry for exploded views, part callouts and step-by-step service illustrations.
Explore Arbortext ↗A gearbox layout establishes where the shafts, housing and mounting points belong. In Creo Parametric, selected layout geometry can guide the assembly while engineers check how the parts fit and whether there is room to install or service them.
Agree on shaft centerlines, the housing envelope and mounting interfaces. Use the layout to record relationships that need to carry into the assembly.
Reference selected layout geometry as you build the parts. Check the space around the gears and shafts, and confirm there is room to remove components during service.
Start with what the people building, installing or servicing the product need to see.
Where does the maintenance team need access?
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Which interfaces must both disciplines agree on?
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Which configuration and revision should the receiving team use?
Explore Aerospace & DefenseCheck what to draft in 2D, what to carry into 3D, and what to review when the model changes.
Start in 2D for flat layouts, circuit logic and manufacturing sheets. Use 3D when you need to study fit, clearance or how parts interact through space.
An isometric view shows three sides of a part in one image. It helps readers visualize the part, while orthographic and section views usually carry the detailed requirements.
Many tools can import these formats. Check the units, scale, fonts, layers and any geometry you intend to reuse before migrating a library.
Associative views can reflect changes in their referenced model. Review affected dimensions, notes and views before releasing a new revision.
Tell TriStar what you draw, what your team needs to share and which tools you already use.
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