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Split distributors and mutators out of transforms.scad
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Revar Desmera
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distributors.scad
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distributors.scad
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mutators.scad
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mutators.scad
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//////////////////////////////////////////////////////////////////////
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// LibFile: transforms.scad
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// Functions and modules to mutate children in various ways.
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// To use, add the following lines to the beginning of your file:
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// ```
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// include <BOSL2/std.scad>
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// ```
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//////////////////////////////////////////////////////////////////////
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//////////////////////////////////////////////////////////////////////
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// Section: Halving Mutators
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//////////////////////////////////////////////////////////////////////
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// Module: half_of()
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//
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// Usage:
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// half_of(v, [cp], [s]) ...
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//
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// Description:
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// Slices an object at a cut plane, and masks away everything that is on one side.
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//
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// Arguments:
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// v = Normal of plane to slice at. Keeps everything on the side the normal points to. Default: [0,0,1] (UP)
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// cp = If given as a scalar, moves the cut plane along the normal by the given amount. If given as a point, specifies a point on the cut plane. This can be used to shift where it slices the object at. Default: [0,0,0]
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, it messes with centering your view. Default: 100
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// planar = If true, this becomes a 2D operation. When planar, a `v` of `UP` or `DOWN` becomes equivalent of `BACK` and `FWD` respectively.
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//
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// Examples:
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// half_of(DOWN+BACK, cp=[0,-10,0]) cylinder(h=40, r1=10, r2=0, center=false);
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// half_of(DOWN+LEFT, s=200) sphere(d=150);
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// Example(2D):
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// half_of([1,1], planar=true) circle(d=50);
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module half_of(v=UP, cp=[0,0,0], s=1000, planar=false)
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{
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cp = is_num(cp)? cp*normalize(v) : cp;
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if (cp != [0,0,0]) {
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translate(cp) half_of(v=v, s=s, planar=planar) translate(-cp) children();
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} else if (planar) {
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v = (v==UP)? BACK : (v==DOWN)? FWD : v;
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ang = atan2(v.y, v.x);
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difference() {
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children();
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rotate(ang+90) {
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back(s/2) square(s, center=true);
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}
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}
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} else {
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difference() {
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children();
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rot(from=UP, to=-v) {
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up(s/2) cube(s, center=true);
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}
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}
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}
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}
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// Module: left_half()
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//
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// Usage:
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// left_half([s], [x]) ...
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// left_half(planar=true, [s], [x]) ...
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//
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// Description:
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// Slices an object at a vertical Y-Z cut plane, and masks away everything that is right of it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// x = The X coordinate of the cut-plane. Default: 0
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// planar = If true, this becomes a 2D operation.
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//
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// Examples:
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// left_half() sphere(r=20);
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// left_half(x=-8) sphere(r=20);
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// Example(2D):
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// left_half(planar=true) circle(r=20);
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module left_half(s=1000, x=0, planar=false)
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{
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dir = LEFT;
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difference() {
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children();
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translate([x,0,0]-dir*s/2) {
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if (planar) {
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square(s, center=true);
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} else {
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cube(s, center=true);
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}
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}
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}
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}
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// Module: right_half()
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//
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// Usage:
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// right_half([s], [x]) ...
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// right_half(planar=true, [s], [x]) ...
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//
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// Description:
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// Slices an object at a vertical Y-Z cut plane, and masks away everything that is left of it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// x = The X coordinate of the cut-plane. Default: 0
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// planar = If true, this becomes a 2D operation.
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//
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// Examples(FlatSpin):
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// right_half() sphere(r=20);
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// right_half(x=-5) sphere(r=20);
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// Example(2D):
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// right_half(planar=true) circle(r=20);
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module right_half(s=1000, x=0, planar=false)
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{
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dir = RIGHT;
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difference() {
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children();
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translate([x,0,0]-dir*s/2) {
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if (planar) {
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square(s, center=true);
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} else {
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cube(s, center=true);
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}
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}
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}
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}
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// Module: front_half()
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//
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// Usage:
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// front_half([s], [y]) ...
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// front_half(planar=true, [s], [y]) ...
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//
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// Description:
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// Slices an object at a vertical X-Z cut plane, and masks away everything that is behind it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// y = The Y coordinate of the cut-plane. Default: 0
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// planar = If true, this becomes a 2D operation.
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//
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// Examples(FlatSpin):
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// front_half() sphere(r=20);
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// front_half(y=5) sphere(r=20);
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// Example(2D):
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// front_half(planar=true) circle(r=20);
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module front_half(s=1000, y=0, planar=false)
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{
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dir = FWD;
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difference() {
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children();
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translate([0,y,0]-dir*s/2) {
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if (planar) {
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square(s, center=true);
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} else {
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cube(s, center=true);
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}
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}
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}
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}
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// Module: back_half()
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//
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// Usage:
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// back_half([s], [y]) ...
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// back_half(planar=true, [s], [y]) ...
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//
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// Description:
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// Slices an object at a vertical X-Z cut plane, and masks away everything that is in front of it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// y = The Y coordinate of the cut-plane. Default: 0
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// planar = If true, this becomes a 2D operation.
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//
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// Examples:
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// back_half() sphere(r=20);
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// back_half(y=8) sphere(r=20);
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// Example(2D):
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// back_half(planar=true) circle(r=20);
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module back_half(s=1000, y=0, planar=false)
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{
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dir = BACK;
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difference() {
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children();
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translate([0,y,0]-dir*s/2) {
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if (planar) {
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square(s, center=true);
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} else {
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cube(s, center=true);
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}
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}
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}
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}
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// Module: bottom_half()
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//
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// Usage:
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// bottom_half([s], [z]) ...
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//
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// Description:
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// Slices an object at a horizontal X-Y cut plane, and masks away everything that is above it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// z = The Z coordinate of the cut-plane. Default: 0
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//
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// Examples:
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// bottom_half() sphere(r=20);
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// bottom_half(z=-10) sphere(r=20);
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module bottom_half(s=1000, z=0)
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{
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dir = DOWN;
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difference() {
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children();
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translate([0,0,z]-dir*s/2) {
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cube(s, center=true);
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}
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}
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}
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// Module: top_half()
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//
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// Usage:
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// top_half([s], [z]) ...
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//
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// Description:
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// Slices an object at a horizontal X-Y cut plane, and masks away everything that is below it.
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//
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// Arguments:
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// s = Mask size to use. Use a number larger than twice your object's largest axis. If you make this too large, OpenSCAD's preview rendering may be incorrect. Default: 10000
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// z = The Z coordinate of the cut-plane. Default: 0
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//
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// Examples(Spin):
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// top_half() sphere(r=20);
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// top_half(z=5) sphere(r=20);
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module top_half(s=1000, z=0)
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{
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dir = UP;
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difference() {
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children();
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translate([0,0,z]-dir*s/2) {
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cube(s, center=true);
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}
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}
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}
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//////////////////////////////////////////////////////////////////////
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// Section: Chain Mutators
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//////////////////////////////////////////////////////////////////////
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// Module: chain_hull()
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//
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// Usage:
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// chain_hull() ...
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//
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// Description:
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// Performs hull operations between consecutive pairs of children,
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// then unions all of the hull results. This can be a very slow
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// operation, but it can provide results that are hard to get
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// otherwise.
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//
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// Side Effects:
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// `$idx` is set to the index value of the first child of each hulling pair, and can be used to modify each child pair individually.
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// `$primary` is set to true when the child is the first in a chain pair.
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//
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// Example:
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// chain_hull() {
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// cube(5, center=true);
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// translate([30, 0, 0]) sphere(d=15);
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// translate([60, 30, 0]) cylinder(d=10, h=20);
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// translate([60, 60, 0]) cube([10,1,20], center=false);
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// }
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// Example: Using `$idx` and `$primary`
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// chain_hull() {
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// zrot( 0) right(100) if ($primary) cube(5+3*$idx,center=true); else sphere(r=10+3*$idx);
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// zrot( 45) right(100) if ($primary) cube(5+3*$idx,center=true); else sphere(r=10+3*$idx);
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// zrot( 90) right(100) if ($primary) cube(5+3*$idx,center=true); else sphere(r=10+3*$idx);
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// zrot(135) right(100) if ($primary) cube(5+3*$idx,center=true); else sphere(r=10+3*$idx);
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// zrot(180) right(100) if ($primary) cube(5+3*$idx,center=true); else sphere(r=10+3*$idx);
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// }
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module chain_hull()
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{
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union() {
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if ($children == 1) {
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children();
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} else if ($children > 1) {
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for (i =[1:1:$children-1]) {
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$idx = i;
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hull() {
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let($primary=true) children(i-1);
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let($primary=false) children(i);
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}
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}
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}
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}
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}
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//////////////////////////////////////////////////////////////////////
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// Section: Offset Mutators
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//////////////////////////////////////////////////////////////////////
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// Module: round3d()
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// Usage:
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// round3d(r) ...
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// round3d(or) ...
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// round3d(ir) ...
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// round3d(or, ir) ...
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// Description:
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// Rounds arbitrary 3D objects. Giving `r` rounds all concave and convex corners. Giving just `ir`
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// rounds just concave corners. Giving just `or` rounds convex corners. Giving both `ir` and `or`
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// can let you round to different radii for concave and convex corners. The 3D object must not have
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// any parts narrower than twice the `or` radius. Such parts will disappear. This is an *extremely*
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// slow operation. I cannot emphasize enough just how slow it is. It uses `minkowski()` multiple times.
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// Use this as a last resort. This is so slow that no example images will be rendered.
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// Arguments:
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// r = Radius to round all concave and convex corners to.
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// or = Radius to round only outside (convex) corners to. Use instead of `r`.
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// ir = Radius to round only inside (concave) corners to. Use instead of `r`.
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module round3d(r, or, ir, size=100)
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{
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or = get_radius(r1=or, r=r, dflt=0);
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ir = get_radius(r1=ir, r=r, dflt=0);
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offset3d(or, size=size)
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offset3d(-ir-or, size=size)
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offset3d(ir, size=size)
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children();
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}
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// Module: offset3d()
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// Usage:
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// offset3d(r, [size], [convexity]);
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// Description:
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// Expands or contracts the surface of a 3D object by a given amount. This is very, very slow.
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// No really, this is unbearably slow. It uses `minkowski()`. Use this as a last resort.
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// This is so slow that no example images will be rendered.
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// Arguments:
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// r = Radius to expand object by. Negative numbers contract the object.
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// size = Maximum size of object to be contracted, given as a scalar. Default: 100
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// convexity = Max number of times a line could intersect the walls of the object. Default: 10
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module offset3d(r=1, size=100, convexity=10) {
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n = quant(max(8,segs(abs(r))),4);
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if (r==0) {
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children();
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} else if (r>0) {
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render(convexity=convexity)
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minkowski() {
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children();
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sphere(r, $fn=n);
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}
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} else {
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size2 = size * [1,1,1];
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size1 = size2 * 1.02;
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render(convexity=convexity)
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difference() {
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cube(size2, center=true);
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minkowski() {
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difference() {
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cube(size1, center=true);
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children();
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}
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sphere(-r, $fn=n);
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}
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}
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}
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}
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// Module: round2d()
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// Usage:
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// round2d(r) ...
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// round2d(or) ...
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// round2d(ir) ...
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// round2d(or, ir) ...
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// Description:
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// Rounds arbitrary 2D objects. Giving `r` rounds all concave and convex corners. Giving just `ir`
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// rounds just concave corners. Giving just `or` rounds convex corners. Giving both `ir` and `or`
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// can let you round to different radii for concave and convex corners. The 2D object must not have
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// any parts narrower than twice the `or` radius. Such parts will disappear.
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// Arguments:
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// r = Radius to round all concave and convex corners to.
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// or = Radius to round only outside (convex) corners to. Use instead of `r`.
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// ir = Radius to round only inside (concave) corners to. Use instead of `r`.
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// Examples(2D):
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// round2d(r=10) {square([40,100], center=true); square([100,40], center=true);}
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// round2d(or=10) {square([40,100], center=true); square([100,40], center=true);}
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// round2d(ir=10) {square([40,100], center=true); square([100,40], center=true);}
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// round2d(or=16,ir=8) {square([40,100], center=true); square([100,40], center=true);}
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module round2d(r, or, ir)
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{
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or = get_radius(r1=or, r=r, dflt=0);
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ir = get_radius(r1=ir, r=r, dflt=0);
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offset(or) offset(-ir-or) offset(delta=ir,chamfer=true) children();
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}
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// Module: shell2d()
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// Usage:
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// shell2d(thickness, [or], [ir], [fill], [round])
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// Description:
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// Creates a hollow shell from 2D children, with optional rounding.
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// Arguments:
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// thickness = Thickness of the shell. Positive to expand outward, negative to shrink inward, or a two-element list to do both.
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// or = Radius to round convex corners/pointy bits on the outside of the shell.
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// ir = Radius to round concave corners on the outside of the shell.
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// round = Radius to round convex corners/pointy bits on the inside of the shell.
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// fill = Radius to round concave corners on the inside of the shell.
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// Examples(2D):
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// shell2d(10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(-10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d([-10,10]) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(10,or=10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(10,ir=10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(10,round=10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(10,fill=10) {square([40,100], center=true); square([100,40], center=true);}
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// shell2d(8,or=16,ir=8,round=16,fill=8) {square([40,100], center=true); square([100,40], center=true);}
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module shell2d(thickness, or=0, ir=0, fill=0, round=0)
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{
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thickness = is_num(thickness)? (
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thickness<0? [thickness,0] : [0,thickness]
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||||
) : (thickness[0]>thickness[1])? (
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||||
[thickness[1],thickness[0]]
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||||
) : thickness;
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||||
difference() {
|
||||
round2d(or=or,ir=ir)
|
||||
offset(delta=thickness[1])
|
||||
children();
|
||||
round2d(or=fill,ir=round)
|
||||
offset(delta=thickness[0])
|
||||
children();
|
||||
}
|
||||
}
|
||||
|
||||
|
||||
//////////////////////////////////////////////////////////////////////
|
||||
// Section: Colors
|
||||
//////////////////////////////////////////////////////////////////////
|
||||
|
||||
// Function&Module: HSL()
|
||||
// Usage:
|
||||
// HSL(h,[s],[l],[a]) ...
|
||||
// rgb = HSL(h,[s],[l]);
|
||||
// Description:
|
||||
// When called as a function, returns the [R,G,B] color for the given hue `h`, saturation `s`, and lightness `l` from the HSL colorspace.
|
||||
// When called as a module, sets the color to the given hue `h`, saturation `s`, and lightness `l` from the HSL colorspace.
|
||||
// Arguments:
|
||||
// h = The hue, given as a value between 0 and 360. 0=red, 60=yellow, 120=green, 180=cyan, 240=blue, 300=magenta.
|
||||
// s = The saturation, given as a value between 0 and 1. 0 = grayscale, 1 = vivid colors. Default: 1
|
||||
// l = The lightness, between 0 and 1. 0 = black, 0.5 = bright colors, 1 = white. Default: 0.5
|
||||
// a = When called as a module, specifies the alpha channel as a value between 0 and 1. 0 = fully transparent, 1=opaque. Default: 1
|
||||
// Example:
|
||||
// HSL(h=120,s=1,l=0.5) sphere(d=60);
|
||||
// Example:
|
||||
// rgb = HSL(h=270,s=0.75,l=0.6);
|
||||
// color(rgb) cube(60, center=true);
|
||||
function HSL(h,s=1,l=0.5) =
|
||||
let(
|
||||
h=posmod(h,360)
|
||||
) [
|
||||
for (n=[0,8,4]) let(
|
||||
k=(n+h/30)%12
|
||||
) l - s*min(l,1-l)*max(min(k-3,9-k,1),-1)
|
||||
];
|
||||
|
||||
module HSL(h,s=1,l=0.5,a=1) color(HSL(h,s,l),a) children();
|
||||
|
||||
|
||||
// Function&Module: HSV()
|
||||
// Usage:
|
||||
// HSV(h,[s],[v],[a]) ...
|
||||
// rgb = HSV(h,[s],[v]);
|
||||
// Description:
|
||||
// When called as a function, returns the [R,G,B] color for the given hue `h`, saturation `s`, and value `v` from the HSV colorspace.
|
||||
// When called as a module, sets the color to the given hue `h`, saturation `s`, and value `v` from the HSV colorspace.
|
||||
// Arguments:
|
||||
// h = The hue, given as a value between 0 and 360. 0=red, 60=yellow, 120=green, 180=cyan, 240=blue, 300=magenta.
|
||||
// s = The saturation, given as a value between 0 and 1. 0 = grayscale, 1 = vivid colors. Default: 1
|
||||
// v = The value, between 0 and 1. 0 = darkest black, 1 = bright. Default: 1
|
||||
// a = When called as a module, specifies the alpha channel as a value between 0 and 1. 0 = fully transparent, 1=opaque. Default: 1
|
||||
// Example:
|
||||
// HSV(h=120,s=1,v=1) sphere(d=60);
|
||||
// Example:
|
||||
// rgb = HSV(h=270,s=0.75,v=0.9);
|
||||
// color(rgb) cube(60, center=true);
|
||||
function HSV(h,s=1,v=1) =
|
||||
let(
|
||||
h=posmod(h,360),
|
||||
v2=v*(1-s),
|
||||
r=lookup(h,[[0,v], [60,v], [120,v2], [240,v2], [300,v], [360,v]]),
|
||||
g=lookup(h,[[0,v2], [60,v], [180,v], [240,v2], [360,v2]]),
|
||||
b=lookup(h,[[0,v2], [120,v2], [180,v], [300,v], [360,v2]])
|
||||
) [r,g,b];
|
||||
|
||||
module HSV(h,s=1,v=1,a=1) color(HSV(h,s,v),a) children();
|
||||
|
||||
|
||||
// Module: rainbow()
|
||||
// Usage:
|
||||
// rainbow(list) ...
|
||||
// Description:
|
||||
// Iterates the list, displaying children in different colors for each list item.
|
||||
// This is useful for debugging lists of paths and such.
|
||||
// Arguments:
|
||||
// list = The list of items to iterate through.
|
||||
// stride = Consecutive colors stride around the color wheel divided into this many parts.
|
||||
// Side Effects:
|
||||
// Sets the color to progressive values along the ROYGBIV spectrum for each item.
|
||||
// Sets `$idx` to the index of the current item in `list` that we want to show.
|
||||
// Sets `$item` to the current item in `list` that we want to show.
|
||||
// Example(2D):
|
||||
// rainbow(["Foo","Bar","Baz"]) fwd($idx*10) text(text=$item,size=8,halign="center",valign="center");
|
||||
// Example(2D):
|
||||
// rgn = [circle(d=45,$fn=3), circle(d=75,$fn=4), circle(d=50)];
|
||||
// rainbow(rgn) stroke($item, closed=true);
|
||||
module rainbow(list, stride=1)
|
||||
{
|
||||
ll = len(list);
|
||||
huestep = 360 / ll;
|
||||
hues = [for (i=[0:1:ll-1]) posmod(i*huestep+i*360/stride,360)];
|
||||
for($idx=idx(list)) {
|
||||
$item = list[$idx];
|
||||
HSV(h=hues[$idx]) children();
|
||||
}
|
||||
}
|
||||
|
||||
|
||||
// vim: noexpandtab tabstop=4 shiftwidth=4 softtabstop=4 nowrap
|
||||
2
std.scad
2
std.scad
@ -27,6 +27,8 @@ include <geometry.scad>
|
||||
include <regions.scad>
|
||||
|
||||
include <transforms.scad>
|
||||
include <distributors.scad>
|
||||
include <mutators.scad>
|
||||
include <attachments.scad>
|
||||
include <primitives.scad>
|
||||
include <shapes.scad>
|
||||
|
||||
1637
transforms.scad
1637
transforms.scad
File diff suppressed because it is too large
Load Diff
@ -8,7 +8,7 @@
|
||||
//////////////////////////////////////////////////////////////////////
|
||||
|
||||
|
||||
BOSL_VERSION = [2,0,109];
|
||||
BOSL_VERSION = [2,0,110];
|
||||
|
||||
|
||||
// Section: BOSL Library Version Functions
|
||||
|
||||
Loading…
x
Reference in New Issue
Block a user