Engrave machines along the contours with V-shaped chamfer tools. Select the profile with Edges, Sketches or Faces. The tip of the tool is used to create sharp edges on the cavity corners.
Manufacture > Milling > 2D > Engrave ![]()
![]() Toolpath generated for the selected Edges |
![]() The Edge is selected (Blue). The area is cleared out. The corners are sharpened with the tool. |

Select the type of coolant used with the machine tool. Not all types will work with all machine postprocessors.
Spindle and Feedrate cutting parameters.

Select the profile to be engraved using Edges, Sketches or Faces. Contiguous geometry is automatically chained. Engrave finds the center and drives the chamfer tool between the selected edges. The tool moves up and down as the width of the area being cut changes. Text and imported art work is commonly machined using Engrave,

Specifies how the tool orientation is determined using a combination of triad orientation and origin options.
The Orientation drop-down menu provides the following options to set the orientation of the X, Y, and Z triad axes:
The Origin drop-down menu offers the following options for locating the triad origin:

For machining heights, see Setting machining heights and:

The tolerance used when linearizing geometry such as splines and ellipses. The tolerance is taken as the maximum chord distance.
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| Loose Tolerance .100 | Tight Tolerance .001 |
CNC machine contouring motion is controlled using line G1 and arc G2 G3 commands. To accommodate this, Fusion approximates spline and surface toolpaths by linearizing them; creating many short line segments to approximate the desired shape. How accurately the toolpath matches the desired shape depends largely on the number of lines used. More lines result in a toolpath that more closely approximates the nominal shape of the spline or surface.
Data Starving
It is tempting to always use very tight tolerances, but there are trade-offs including longer toolpath calculation times, large G-code files, and very short line moves. The first two are not much of a problem because Fusion calculates very quickly and most modern controls have at least 1MB of RAM. However, short line moves, coupled with high feedrates, may result in a phenomenon known as data starving.
Data starving occurs when the control becomes so overwhelmed with data that it cannot keep up. CNC controls can only process a finite number of lines of code (blocks) per second. That can be as few as 40 blocks/second on older machines and 1,000 blocks/second or more on a newer machine like the Haas Automation control. Short line moves and high feedrates can force the processing rate beyond what the control can handle. When that happens, the machine must pause after each move and wait for the next servo command from the control.
The purpose of Engrave is to create sharp corners in the pocket by moving the cutter along the corner intersection. If the angle between edges is greater than this value, there will not be a corner clean out move.
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When enabled you can specify the Maximum Stepdown per cut.
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| Disabled 1 Cut |
Enabled Max. Stepdown .020 in |

Specifies when rapid movements should be output as true rapids (G0) and when they should be output as high feedrate movements (G1).
This parameter is usually set to avoid collisions at rapids on machines which perform "dog-leg" movements at rapid.
The feedrate to use for rapid movements output as G1 instead of G0.
When enabled, the strategy avoids retracting when the distance to the next area is below the specified stay-down distance.
Specifies the maximum distance allowed for stay-down moves.
![]() 1" Maximum stay-down |
![]() 2" Maximum stay-down distance |
Select geometry near the location where you want the tool to enter.