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Machining Technology
The machining strategy that you employ is controlled by the use of various machining technologies. In Cimatron, an NC machining technology consists of a Main Selection (the machining procedure group) and a Subselection (the actual machining procedure).
The machining technologies available in Cimatron are shown below, listed in alphabetical order by Subselection (see Technology Selection Mode to see how to display only a partial list of the Main Selection and/or Subselection options).
The following NC machining technologies and procedures are available (see below for a list of Legacy procedures).
The table below can be sorted; it has clickable headers that sort the table by the clicked column. The table is initially sorted by Subselection name.
Main Selection (Technology) | Subselection (Procedure) | |||
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3X Deburring is a high quality toolpath that removes or chamfers burrs on external sharp edges. Cimatron can automatically detect the machined edges or they can be selected manually; however, the geometry must be of adequate quality for the automatic edge detection to perform optimally. 3X Deburring also offers automatic linking between segments and collision detection. Note that this procedure only supports ball or lollipop cutters and is identical to 5X Deburring. |
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3X Geodesic is a high quality toolpath that calculates an even 3D step over complex parts. It includes support for guide curves and undercut and considers the holder to prevent collisions. It is typically used for parts that require a high quality surface finish, such as mold and die cores and/or cases where a continuous toolpath (start-to-end without reentries) is required. This procedure is identical to 5X Geodesic. |
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5X Projection projects motion patterns onto machined faces. Machined faces can be regular CAD faces or mesh geometry. |
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Convert single cutter 3-axis procedures to 5-axis procedures for those procedures that have not already been converted and use a ball cutter. |
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Cut surface edges after a vacuum forming process, deep drawn sheet metal parts and composite laminated parts. |
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Create 3, 4, and 5-axis tool motions on multiple surfaces, along a trajectory defined by an aiming surface. |
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The Automated Drill is an advanced drill programming application that supports 2.5 to 5-axis manufacturing as well as Thread Milling, Gun Drilling, Pockets, and Profiles. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Identifies and cleans unmachined areas that remain after previous machining operations. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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To enable the use of any cutter combinations, this procedure enables
the creation of auxiliary contours in the Cleanup
procedure, without creating motions. These contours can then be used later
as input to any other procedure. |
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Create a 3-5-axis connection between two NC procedures via a safety clearance, using an automatic retract and approach definition. |
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Take a single turning pass along a shape, creating a smooth surface
finish. |
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Copy source procedures to one or more destination transformation elements. |
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Copy source procedures to either a radial or rectangular array of transformation elements. |
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Create plunging motions with a plunge cutter at rounded corners of pockets. The pockets are created by the Pocket Manager. The plunging motions are parallel to the cylinder of the corner that may be vertical or slanted. The approach is parallel to the cylinder and the retract is horizontal. |
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Create 3-axis tool motions that trace a 2D or 3D contour, with or without reference surfaces. This function is ideal for machining the top of ribs that are defined only by their top contours. |
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Create 4 or 5-axis tool motions that trace a 2D or 3D contour, with or without reference surfaces. This function is ideal for machining the top of ribs that are defined only by their top contours and also for 4 and 5-axis slotting. |
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Create standard cycles for drilling operations. Drill procedures can be 3, 4, or 5-axis. |
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Cut along the edges of open contours. |
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Mill horizontal areas using either Parallel or Spiral machining. |
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Mill all areas using either Parallel, Spiral, or Layers machining. |
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Mill horizontal and/or vertical areas (divided by a slope angle) using different machining technologies. |
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Create geometry-independent rectangular grooves. |
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The Guided Cleanup procedure
ignores the direction vectors from the Remachine
Segments Table. Each segment or group of segments are milled from
the Z direction. In this case a Cleanup procedure is created for each
direction. |
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Cut along the edges of open contours. |
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Optimize milling processes combined with feedback from part measurements while the part is on the CNC machine. This procedure performs part measuring operations on the CNC machine and validates the current machining results. You can chose whether to fine-tune successive machining operations (for example, change the cutter diameter compensation value) or to stop the machine to avoid out of tolerance machining. |
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Create finishing tool paths on multiple surfaces for 3-axis machining. This procedure is very similar to 5X Production, limited to 3X machining only (regardless of the number of toolpath axes). |
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Create a hole in the center of the turning material. |
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Copy source procedures about a mirroring entity to a destination transformation element. |
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Move source procedures about a mirroring entity to a destination transformation element. |
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Move source procedures to one or more destination transformation elements. |
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The Multi Axes Guided Cleanup
procedure uses the direction vectors from the Remachine
Segments Table. This procedure tilts all motions created by a pencil
curve to the vector direction of that curve. Each segment or group of
segments are milled by the direction associated with it, making it a 3+2
Axis procedure. |
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Multi blade parts describes a part family. Typical part types are impeller (used for pumps) and bladed disks (or so called 'Blisks', used in aeroplane engines). These parts will be used to compress or transport a fluid or gas. They share different geometrical attributes and they are all constructed with the same elements. |
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Enable the programming of multiple probing measurements at the end of machining while the part is still on the CNC machine, automatically generating a Quality Assurance (QA) report. |
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Create 3, 4 and 5-axis tool motions for milling strips of adjacent surfaces, while following the parametric curves of these surfaces. |
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Machine one pass along all internal sharp corners in the part, as well as areas with radius of curvature smaller than the cutter radius. The results of this procedure are clean and smooth internal corners. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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The Port machining is used to create either a roughing or finishing toolpath for port type geometries. The aim is to reach the full area with a single toolpath, machining from the top and the bottom. The toolpath will be calculated on a triangle mesh. The idea here is to use a spine. This spine is a center line to the port's center. From here the cuts are projected perpendicular onto the port surface. Note that only ball mill are supported. |
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Create finishing toolpaths on multiple surfaces for 3 to 5-axis machining. This procedure supports 3 to 5-axis machining with a wide variety of machining strategies and cutters (including Lollipop and Slot Mill). You have full control over the cutter orientation and over the behavior between cutting motions. Up to four sets of check faces can be used, each with a different offset and a different response when a theoretical path gouges it. Defining machine limits and other machine properties are also available. Multiple layers (based on 3D offsets) can be used, combined with gouge check and control and the use of drive surfaces allows roughing in 4 / 5X machining for special cases such as turbine blades machining. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Cut along the edge of closed contours, while following the shape of multiple part surfaces. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Cut along the edge of closed contours, while following the shape of multiple part surfaces. |
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Calculates the milling regions based on the Previous Cutter, allowing any cutter combination and milling those regions using the Finish Mill by Limit Angle procedure technology. |
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Remove turning material using multiple passes on a shape. Various technologies are available, such as turning, pattern offsets or plunging. |
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This feature creates a multi-axis toolpath that can be used to rough out pocket shaped geometries. This calculation-based type uses STL meshes as well as IGES geometries as input. Specify the floor, wall, and ceiling surfaces and the system automatically creates the roughing toolpath. The parameters are identical to the triangle mesh-based roughing cycle, including the adaptive roughing feature. |
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Remove volume material. Cutting is performed in horizontal layers. The cutter passes are parallel when viewed from the Z direction. |
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Remove volume material. Cutting is performed in horizontal layers. The milling is performed in spiral motions. |
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Create a sequence of linked ruled surfaces, defined by two contours, and create tool motions for machining them following their parametric curves using 3, 4 or 5-axis machining. The ruled surface is defined by connecting the endpoints (contour break points) of the curves of the two contours (open or closed) by straight line segments. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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Cut along the edges of open contours. |
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SWARF (Side Wall Axial Relief Feed) machining, or also called 'flank milling', is a 5-axis simultaneous milling process. It will be used for machining fluid parts for turbo-engines or aeronautical parts like integral elements. |
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Create a thread on the outside or inside diameter of the turning material. |
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Remove volume material from pocket features recognized by the Pocket Manager. |
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Cut along the edges of open contours. |
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Remove volume material using High Speed Machining technology, while maintaining a constant chip width for all motions. |
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Remove turning material using a cutter with a round insert. Smooth flowing
motions are created that evenly distribute wear on tool inserts. VoluTurn
is particularly well-suited to machining tough materials such as titanium
and hardened steels. |
Legacy Procedures
Main Selection |
Subselection
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