Class MillingEngagementUtil

Namespace

Hi.Milling.Engagements

Assembly

HiMech.dll

Utility of LayerMillingEngagement.

public static class MillingEngagementUtil

Inheritance

object

MillingEngagementUtil

Inherited Members

object.Equals(object)

object.Equals(object, object)

object.GetHashCode()

object.GetType()

object.MemberwiseClone()

object.ReferenceEquals(object, object)

object.ToString()

Methods

GetContoursDrawing(List<List<vec3d_t>>)

Gets a drawing representation of the contours.

public static Drawing GetContoursDrawing(List<List<vec3d_t>> contours)

Parameters

contours List<List<vec3d_t>>

The list of contours to draw.

Returns

Drawing

A drawing object representing the contours.

GetEngagedEdgeHeightFromToolTip_mm(LayerMillingEngagement, List<PairZr>, double, bool)

The height above the tool tip at which the cutting force of an engagement is placed for the cutter's deflection and for the beam sections the yielding stress ratio counts: the centroid of the engaged cutting edge. Every engaged layer weighs its interval (Dv: the thickness of a side layer, the radial interval of a bottom layer) times the sum of its engaged arcs in radians: the geometric centroid of the engaged edge, not the force's — the force kernel's layer force carries the chip thickness as well, and an edge force that goes with the edge length, both of which this weight leaves out; the radius enters the swept volume, not the force. A side layer stands at its key, the centre of its interval, where the kernel applies its force; a bottom layer at the bottom contour's height at its radius, 0 on the flat bottom the bottom layers belong to (a cutter whose contour starts on the axis — a ball, a cone — is scanned into side layers alone). Side layers above trialClippingHeight_mm are left out as the kernel leaves them out, a layer the contour gives no radius for likewise; the bottom layers count only when includeBottom, which the kernel decides by the tool moving down. NaN when nothing is engaged. The layers' forces are summed by the kernel before the deflection reads them, so the centroid stands in for the exact per-layer superposition: on a cutter engaged from its pointed apex that superposition grows with the logarithm of the engaged depth over the feed per tooth, and the centroid is its finite, slice-independent stand-in of the right order.

public static double GetEngagedEdgeHeightFromToolTip_mm(LayerMillingEngagement engagement, List<PairZr> shaperZrList, double trialClippingHeight_mm, bool includeBottom)

Parameters

engagement LayerMillingEngagement

The step's engagement; null is nothing engaged.

shaperZrList List<PairZr>

The cutter's shaper profile contour, ascending in z from the tip.

trialClippingHeight_mm double

The height above which side layers do not cut.

includeBottom bool

Whether the bottom layers cut this step.

Returns

double

The height from the tip, mm, or NaN.

GetZToDzList(List<double>, double)

Get Z to dZ list. The z values, i.e. the key of generated list, are all not repeated with the source z values. The generated z values are interpolated by the source z values. And each of the dz area is the same slope from the original source.

public static SortedList<double, double> GetZToDzList(List<double> constantZlopeZs, double resolution)

Parameters

constantZlopeZs List<double>

resolution double

Returns

SortedList<double, double>

Remarks

An interval wider than resolution is split into ceil(dz / resolution) slices whose centres are added only when the key is new (the first value of a key is kept); a narrower one puts its centre in, an equal key overwritten. The arithmetic lives in core.dll (mech/machining/machining_step_proc_t.cpp, the line-by-line port of the managed body it replaced on 2026-10-08, play-core migration P8): the step procedure computes the list of the mounted cutter once per (resolution, cutter) key, and this member is the same arithmetic for the gap-resolution switch of the engagement build.