include <omdl-base.scad>;
include <common/validation.scad>;
echo( str("openscad version ", version()) );
test_c =
[
["id", "identifier"],
["td", "description"],
["tv", "test value"]
];
test_r =
[
["fac", "Function argument count", undef
],
["crp", "Result precision", undef
],
["t01", "All undefined", [undef,undef,undef,undef,undef,undef]
],
],
["t03", "All scalars", [60, 50, 40, 30, 20, 10]
],
["t04", "All 1d vectors", [[99], [58], [12], [42], [15], [1]]
],
["t05", "All 2d vectors", [
[99,2], [58,16], [12,43],
[42,13], [15,59], [1,85]
]
],
["t06", "All 3d vectors", [
[199,20,55], [158,116,75], [12,43,90],
[42,13,34], [15,59,45], [62,33,69]
]
],
["t07", "All 4d vectors", [
[169,27,35,10], [178,016,25,20], [12,43,90,30],
[42,13,34,60], [15,059,45,50], [62,33,69,40]
]
],
["t08", "Orthogonal vectors", [
]
],
["t09", "Coplanar vectors", [
]
]
];
good_c =
merge_p([concat(
"id", test_ids), concat(
"identifier", test_ids)]);
skip = -1;
good_r =
[
["distance_pp",
2,
4,
undef,
undef,
undef,
undef,
43.3244,
106.2873,
undef,
1.4142,
1.4142
],
["is_left_ppp",
3,
4,
undef,
undef,
undef,
undef,
-463,
17009,
undef,
1,
-3
],
["point_to_3d",
1,
4,
undef,
undef,
undef,
undef,
[99,2,0],
[199,20,55],
undef,
],
["line_dim",
2,
4,
undef,
undef,
2,
undef,
2,
3,
undef,
3,
3
],
["line_tp",
2,
4,
undef,
undef,
[60,50],
undef,
[58,16],
[158,116,75],
undef,
],
["line_ip",
2,
4,
undef,
undef,
undef,
[99,2],
[199,20,55],
undef,
],
["vol_to_origin",
2,
4,
undef,
undef,
[60,50],
undef,
[-41,14],
[-41,96,20],
undef,
[-1,1,0],
[-1,1,0]
],
["dot_ll",
4,
4,
undef,
undef,
3900,
undef,
-1650,
-5230,
undef,
1,
0
],
["cross_ll",
4,
4,
skip,
skip,
skip,
skip,
810,
[-4776,-1696,-1650],
skip,
[-1,-1,1],
[0,0,4]
],
["striple_lll",
6,
4,
skip,
skip,
skip,
skip,
[-14760,5040],
-219976,
skip,
-2,
0
],
["angle_ll",
4,
4,
undef,
undef,
-2.9357,
undef,
153.8532,
134.4573,
undef,
60,
90
],
["angle_lll",
6,
4,
skip,
skip,
skip,
skip,
skip,
-91.362,
skip,
-63.4349,
0
],
["unit_l",
2,
4,
undef,
undef,
[.7682,0.6402],
undef,
[-0.9464,0.3231],
[-0.3857,0.9032,0.1882],
undef,
[-0.7071,0.7071,0],
[-0.7071,0.7071,0]
],
["are_coplanar_lll",
6,
4,
skip,
skip,
skip,
skip,
skip,
false,
skip,
false,
true
],
["plane_to_normal",
2,
4,
skip,
skip,
[60,50,0],
skip,
[0,0,1468],
[-4880,-6235,19924],
skip,
]
];
function gv( vid, e ) = get_value( vid )[e];
module log_test( m ) {
log_type (
"test", m ); }
module log_skip( f ) { log_test ( str("ignore: '", f, "'") ); }
module run( fname, vid )
{
children();
else
log_test( str(vid, " -skip-: '", fname, "(", value_text, ")'") );
}
module test( fname, fresult, vid, pair )
{
test_pass =
validate(cv=fresult, t=
"almost", ev=pass_value, p=comp_prcsn, pf=
true);
farg_text = (pair == true)
test_text =
validate(str(fname,
"(", farg_text,
")=", pass_value), fresult,
"almost", pass_value, comp_prcsn);
if ( pass_value != skip )
{
if ( !test_pass )
log_test( str(vid, " ", test_text, " (", value_text, ")") );
else
log_test( str(vid, " ", test_text) );
}
else
log_test( str(vid, " -skip-: '", fname, "(", value_text, ")'") );
}
run_ids = delete( test_ids, mv=["fac", "crp"] );
log_skip( "is_point()" );
log_skip( "is_vector()" );
log_skip( "is_line()" );
log_skip( "is_vol()" );
log_skip( "is_plane()" );
for (vid=run_ids) run(
"distance_pp",vid) test(
"distance_pp",
distance_pp(gv(vid,0),gv(vid,1)), vid,
false );
log_skip( "distance_pl()" );
log_skip( "distance_pn()" );
for (vid=run_ids) run(
"is_left_ppp",vid) test(
"is_left_ppp",
is_left_ppp(gv(vid,0),gv(vid,1),gv(vid,2)), vid,
false );
log_skip( "point_closest_pl()" );
log_skip( "point_closest_pn()" );
for (vid=run_ids) run(
"point_to_3d",vid) test(
"point_to_3d",
point_to_3d(gv(vid,0)), vid,
false );
log_skip( "interpolate2d_l_pp()" );
log_skip( "line2d_new()" );
log_skip( "line3d_new()" );
log_skip( "line_new()" );
for (vid=run_ids) run(
"line_dim",vid) test(
"line_dim",
line_dim([gv(vid,0),gv(vid,1)]), vid,
true );
for (vid=run_ids) run(
"line_tp",vid) test(
"line_tp",
line_tp([gv(vid,0),gv(vid,1)]), vid,
true );
for (vid=run_ids) run(
"line_ip",vid) test(
"line_ip",
line_ip([gv(vid,0),gv(vid,1)]), vid,
true );
for (vid=run_ids) run(
"vol_to_origin",vid) test(
"vol_to_origin",
vol_to_origin([gv(vid,0),gv(vid,1)]), vid,
true );
log_skip( "vol_to_point()" );
for (vid=run_ids) run(
"dot_ll",vid) test(
"dot_ll",
dot_ll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)]), vid,
true );
for (vid=run_ids) run(
"cross_ll",vid) test(
"cross_ll",
cross_ll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)]), vid,
true );
for (vid=run_ids) run(
"striple_lll",vid) test(
"striple_lll",
striple_lll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)],[gv(vid,4),gv(vid,5)]), vid,
true );
for (vid=run_ids) run(
"angle_ll",vid) test(
"angle_ll",
angle_ll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)]), vid,
true );
for (vid=run_ids) run(
"angle_lll",vid) test(
"angle_lll",
angle_lll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)],[gv(vid,4),gv(vid,5)]), vid,
true );
for (vid=run_ids) run(
"unit_l",vid) test(
"unit_l",
unit_l([gv(vid,0),gv(vid,1)]), vid,
true );
for (vid=run_ids) run(
"are_coplanar_lll",vid) test(
"are_coplanar_lll",
are_coplanar_lll([gv(vid,0),gv(vid,1)],[gv(vid,2),gv(vid,3)],[gv(vid,4),gv(vid,5)]), vid,
true );
for (vid=run_ids) run(
"plane_to_normal",vid) test(
"plane_to_normal",
plane_to_normal([gv(vid,0),gv(vid,1)]), vid,
true );
module log_type(t, m)
Output diagnostic message to console.
x_axis3d_uv
<vector-3d> The unit vector of the positive x-axis in 3d Euclidean space.
z_axis3d_uv
<vector-3d> The unit vector of the positive z-axis in 3d Euclidean space.
origin2d
<point-2d> The origin point coordinate in 2d Euclidean space.
origin3d
<point-3d> The origin point coordinate in 3-dimensional Euclidean space.
y_axis3d_uv
<vector-3d> The unit vector of the positive y-axis in 3d Euclidean space.
empty_lst
<list> A list with no values (the empty list).
function validate(d, cv, t, ev, p=4, pf=false)
Compare a computed test value with an known good result.
function line_tp(l)
Return the terminal point of a line or vector.
function dot_ll(l1, l2)
Compute the dot product of two lines or vectors in a 3d or 2d-space.
function are_coplanar_lll(l1, l2, l3, d=6)
Test if three lines or vectors are coplanar in 3d-space.
function angle_ll(l1, l2, s=true)
Compute the angle between two lines or vectors in a 3d or 2d-space.
function line_dim(l)
Return the number of dimensions of a line or vector.
function striple_lll(l1, l2, l3)
Compute the scalar triple product of three lines or vectors in a 3d or 2d-space.
function angle_lll(l1, l2, n)
Compute the angle between two lines or vectors in a 3d-space.
function vol_to_origin(l)
Convert line to vector by shifting it to the origin.
function point_to_3d(p)
Return 3d point unchanged or add a zeroed third dimension to 2d point.
function line_ip(l)
Return the initial point of a line or vector.
function cross_ll(l1, l2)
Compute the cross product of two lines or vectors in a 3d or 2d-space.
function is_left_ppp(p1, p2, p3)
Test if a point is left, on, or right of an infinite line in a 2d-space.
function unit_l(l)
Compute the normalized unit vector of a line or vector.
function plane_to_normal(n, cw=true)
Convert a planes' normal specification into a normal vector.
function distance_pp(p1, p2)
Compute the distance between two points.
function select_r(v, i)
Select a range of elements from an iterable value.
function append_e(nv, v, r=true, j=true, l=true)
Append a value to each element of an iterable value.
function sequence_ns(v, n=1, s=1, w=false)
Return a list of all n-element sequential-subsets of an iterable value.
function strl(v)
Convert a list of values to a concatenated string.
function merge_p(v, j=true)
Parallel-merge the iterable elements of a list.
module table_check(r, c, verbose=false)
Perform basic format checks on a table and output errors to console.
function table_get_row_ids(r)
Form a list of all table row identifiers.
function table_get_value(r, c, ri, ci)
Get the table cell value for a specified row and column identifier.