//******** actual Composite-cutters ******************************* */
// only constructors required, drop-cutter and push-cutter calls handled by base-class
// TESTING
public CompCylCutter(double diam2, double clength)
{
MillingCutter shaft = new CylCutter(diam2, clength);
addCutter(shaft, diam2 / 2.0, clength, 0.0);
length = clength;
}
} // dummy, required(?) by python wrapper
/// create cylconecutter
public CylConeCutter(double diam1, double diam2, double angle)
{
MillingCutter cyl = new CylCutter(diam1, 1);
MillingCutter cone = new ConeCutter(diam2, angle);
MillingCutter shaft = new CylCutter(diam2, 20); // FIXME: dummy height
double cone_offset = -(diam1 / 2) / Math.Tan(angle);
double cyl_height = 0.0;
double cone_height = (diam2 / 2.0) / Math.Tan(angle) + cone_offset;
addCutter(cyl, diam1 / 2.0, cyl_height, 0.0);
addCutter(cone, diam2 / 2.0, cone_height, cone_offset);
addCutter(shaft, diam2 / 2.0, (diam2 / 2.0) / Math.Tan(angle) + 20, cone_height);
length = cyl_height + cone_height + 10; // Arbitrary 10 here!
}
} // dummy, required(?) by python wrapper
/// create cone-cone cutter with lower cone (diam1,angle1) and upper cone (diam2,angle2)
/// we assume angle2 < angle1 and diam2 > diam1.
public ConeConeCutter(double diam1, double angle1, double diam2, double angle2)
{
MillingCutter c1 = new ConeCutter(diam1, angle1); // at offset zero
MillingCutter c2 = new ConeCutter(diam2, angle2);
MillingCutter shaft = new CylCutter(diam2, 20);
double height1 = (diam1 / 2.0) / Math.Tan(angle1);
double tmp = (diam1 / 2.0) / Math.Tan(angle2);
double cone_offset = -(tmp - height1);
double height2 = (diam2 / 2.0) / Math.Tan(angle2) + cone_offset;
double shaft_offset = height2;
addCutter(c1, diam1 / 2.0, height1, 0.0);
addCutter(c2, diam2 / 2.0, height2, cone_offset);
addCutter(shaft, diam2 / 2.0, height2 + 20, shaft_offset);
length = 30;
}
} // dummy, required(?) by python wrapper
/// create bullconecutter
public BullConeCutter(double diam1, double radius1, double diam2, double angle)
{
MillingCutter c1 = new BullCutter(diam1, radius1, 1.0); // at offset zero
MillingCutter c2 = new ConeCutter(diam2, angle);
MillingCutter shaft = new CylCutter(diam2, 20);
double h1 = radius1 * Math.Sin(angle); // the contact point is this much down from the toroid-ring
double rad = Math.Sqrt(ocl.GlobalMembers.square(radius1) - ocl.GlobalMembers.square(h1));
double rcontact = (diam1 / 2.0) - radius1 + rad; // radius of the contact-ring
double cone_offset = -(rcontact / Math.Tan(angle) - (radius1 - h1));
double height1 = radius1 - h1;
double height2 = (diam2 / 2.0) / Math.Tan(angle) + cone_offset;
double shaft_offset = height2;
addCutter(c1, rcontact, height1, 0.0);
addCutter(c2, diam2 / 2.0, height2, cone_offset);
addCutter(shaft, diam2 / 2.0, height2 + 20, shaft_offset);
length = 30;
}
} // dummy, required(?) by python wrapper
/// create ballconecutter
public BallConeCutter(double diam1, double diam2, double angle)
{
MillingCutter c1 = new BallCutter(diam1, 1); // at offset zero
MillingCutter c2 = new ConeCutter(diam2, angle);
MillingCutter shaft = new CylCutter(diam2, 20); // FIXME: length
double radius1 = diam1 / 2.0;
double radius2 = diam2 / 2.0;
double rcontact = radius1 * Math.Cos(angle);
double height1 = radius1 - Math.Sqrt(ocl.GlobalMembers.square(radius1) - ocl.GlobalMembers.square(rcontact));
double cone_offset = -((rcontact) / Math.Tan(angle) - height1);
double height2 = radius2 / Math.Tan(angle) + cone_offset;
double shaft_offset = height2;
// cutter, radivec, heightvec, zoffset
addCutter(c1, rcontact, height1, 0.0);
addCutter(c2, diam2 / 2.0, height2, cone_offset);
addCutter(shaft, diam2 / 2.0, height2 + 20, shaft_offset);
length = 30;
}