vector3d_angle -> vector_angle

beziers.scad

@@ -154,7 +154,7 @@ function fillet3pts(p0, p1, p2, r, maxerr=0.1, w=0.5, dw=0.25) = let(
 		v0 = normalize(p0-p1),
 		v1 = normalize(p2-p1),
 		midv = normalize((v0+v1)/2),
-		a = vector3d_angle(v0,v1),
+		a = vector_angle(v0,v1),
 		tanr = min(r/tan(a/2), norm(p0-p1)*0.99, norm(p2-p1)*0.99),
 		tp0 = p1+v0*tanr,
 		tp1 = p1+v1*tanr,

debug.scad

@@ -123,7 +123,7 @@ module debug_faces(vertices, faces, size=1, disabled=false) {
 					nrm0 = normalize(cross(dv0, dv1));
 					nrm1 = [0, 0, 1];
 					axis = normalize(cross(nrm0, nrm1));
-					ang = vector3d_angle(nrm0,  nrm1);
+					ang = vector_angle(nrm0,  nrm1);
 					theta = atan2(nrm0[1], nrm0[0]);
 					translate(c) {
 						rotate(a=180-ang, v=axis) {

math.scad

@@ -568,6 +568,7 @@ function normalize(v) = v/norm(v);
 
 
 // Function: vector2d_angle()
+// Status: DEPRECATED, use `vector_angle()` instead.
 // Usage:
 //   vector2d_angle(v1,v2);
 // Description:
@@ -575,9 +576,11 @@ function normalize(v) = v/norm(v);
 // Arguments:
 //   v1 = First 2D vector.
 //   v2 = Second 2D vector.
-function vector2d_angle(v1,v2) = atan2(v1[1],v1[0]) - atan2(v2[1],v2[0]);
+function vector2d_angle(v1,v2) = vector_angle(v1,v2);
+
 
 // Function: vector3d_angle()
+// Status: DEPRECATED, use `vector_angle()` instead.
 // Usage:
 //   vector3d_angle(v1,v2);
 // Description:
@@ -585,8 +588,19 @@ function vector2d_angle(v1,v2) = atan2(v1[1],v1[0]) - atan2(v2[1],v2[0]);
 // Arguments:
 //   v1 = First 3D vector.
 //   v2 = Second 3D vector.
+function vector3d_angle(v1,v2) = vector_angle(v1,v2);
+
+
+// Function: vector_angle()
+// Usage:
+//   vector_angle(v1,v2);
+// Description:
+//   Returns angle in degrees between two vectors of similar dimensions.
+// Arguments:
+//   v1 = First vector.
+//   v2 = Second vector.
 // NOTE: constrain() corrects crazy FP rounding errors that exceed acos()'s domain.
-function vector3d_angle(v1,v2) = acos(constrain((v1*v2)/(norm(v1)*norm(v2)), -1, 1));
+function vector_angle(v1,v2) = acos(constrain((v1*v2)/(norm(v1)*norm(v2)), -1, 1));
 
 
 // Section: Coordinates Manipulation

paths.scad

@@ -85,7 +85,7 @@ function simplify3d_path(path, eps=1e-6) = concat(
 		) let (
 			v1 = path[i] - path[i-1],
 			v2 = path[i+1] - path[i-1]
-		) if (vector3d_angle(v1,v2) > eps) path[i]
+		) if (vector_angle(v1,v2) > eps) path[i]
 	],
 	[path[len(path)-1]]
 );
@@ -165,7 +165,7 @@ function points_along_path3d(
 	v2 = (n == end)? normalize(path[n]-path[n-1]) : normalize(path[n+1]-path[n]),
 	crs = cross(v1, v2),
 	axis = norm(crs) <= 0.001? [0, 0, 1] : crs,
-	ang = vector3d_angle(v1, v2),
+	ang = vector_angle(v1, v2),
 	hang = ang * (n==0? 1.0 : 0.5),
 	hrot = Quat(axis, hang),
 	arot = Quat(axis, ang),
@@ -376,7 +376,7 @@ module extrude_2dpath_along_3dpath(polyline, path, ang=0, convexity=10) {
 module extrude_2d_shapes_along_3dpath(path, convexity=10, clipsize=100) {
 	function polyquats(path, q=Q_Ident(), v=[0,0,1], i=0) = let(
 			v2 = path[i+1] - path[i],
-			ang = vector3d_angle(v,v2),
+			ang = vector_angle(v,v2),
 			axis = ang>0.001? normalize(cross(v,v2)) : [0,0,1],
 			newq = Q_Mul(Quat(axis, ang), q),
 			dist = norm(v2)

transforms.scad

@@ -289,7 +289,7 @@ module rot(a=0, v=undef, cp=undef, from=undef, to=undef, reverse=false)
 				V_RIGHT
 			);
 			axis = normalize(cross(vv1, vv3));
-			ang = vector3d_angle(vv1, vv2);
+			ang = vector_angle(vv1, vv2);
 			if (reverse) {
 				rotate(a=-ang, v=axis) rotate(a=-a, v=vv1) children();
 			} else {