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#region SearchAThing.UnitTests, Copyright(C) 2016 Lorenzo Delana, License under MIT
/*
* The MIT License(MIT)
* Copyright(c) 2016 Lorenzo Delana, https://searchathing.com
*
* Permission is hereby granted, free of charge, to any person obtaining a
* copy of this software and associated documentation files (the "Software"),
* to deal in the Software without restriction, including without limitation
* the rights to use, copy, modify, merge, publish, distribute, sublicense,
* and/or sell copies of the Software, and to permit persons to whom the
* Software is furnished to do so, subject to the following conditions:
*
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
*
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING
* FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER
* DEALINGS IN THE SOFTWARE.
*/
#endregion
using SearchAThing.Core;
using SearchAThing.Sci;
using System;
using System.Collections.Generic;
using Xunit;
using System.Linq;
using static System.Math;
using System.Diagnostics;
using System.Globalization;
namespace SearchAThing.UnitTests
{
public class Sci
{
IModel model = new SampleModel();
[Fact(DisplayName = "Vector3D")]
public void Vector3DTest()
{
var tolLen = model.MUDomain.Length.DefaultTolerance;
var tolRad = model.MUDomain.PlaneAngle.DefaultTolerance;
// length
Assert.True(new Vector3D(1, 5.9, 4).Length.EqualsTol(tolLen, 7.198));
// normalized
Assert.True(new Vector3D(1, 5.9, 4).Normalized().EqualsTol(Constants.NormalizedLengthTolerance, new Vector3D(0.13893, 0.81968, 0.55572)));
// distance
Assert.True(new Vector3D(1, 5.9, 4).Distance(new Vector3D(3, 4.3, 1.03)).EqualsTol(tolLen, 3.9218));
// dot product
Assert.True(new Vector3D(5, 1, 3).DotProduct(new Vector3D(5, 4, 6)).EqualsTol(tolLen, 47));
// cross product
Assert.True(new Vector3D(2, 4, 12).CrossProduct(new Vector3D(3, 6, 1)).EqualsTol(tolLen, new Vector3D(-68, 34, 0)));
// angle rad
Assert.True(new Vector3D(3.48412, 2.06577, 0).AngleRad(tolLen, new Vector3D(1.4325, 2.70248, 0)).EqualsTol(tolRad, 0.548));
Assert.True(new Vector3D(.231334209442139, .143270492553711)
.AngleRad(Constants.NormalizedLengthTolerance, new Vector3D(-.224979639053345, -.153055667877197))
.EqualsTol(tolRad, (177.54306).ToRad()));
// angle rad
Assert.True(new Vector3D(3.48412, 2.06577, 0).AngleRad(tolLen, new Vector3D(-3.48412, -2.066, 0)).EqualsTol(tolRad, PI));
// angle contained
Assert.True(340d.ToRad().AngleInRange(tolRad, 330d.ToRad(), 3d.ToRad()));
Assert.True(0d.ToRad().AngleInRange(tolRad, 330d.ToRad(), 3d.ToRad()));
// vector projection
Assert.True(new Vector3D(101.546, 25.186, 1.3).Project(new Vector3D(48.362, 46.564, 5))
.EqualsTol(tolLen, new Vector3D(64.9889, 62.5728, 6.719)));
// vector vers
Assert.True(new Vector3D(101.546, 25.186, 1.3).Concordant(tolLen, new Vector3D(50.773, 12.593, .65)));
Assert.False(new Vector3D(101.546, 25.186, 1.3).Concordant(tolLen, new Vector3D(-50.773, -12.593, .65)));
// angle toward
Assert.True(new Vector3D(120.317, 42.914, 0).AngleToward(tolLen, new Vector3D(28.549, 63.771, 0), Vector3D.ZAxis)
.EqualsTol(MUCollection.PlaneAngle.rad.Tolerance(model), 0.80726));
Assert.False(new Vector3D(120.317, 42.914, 0).AngleToward(tolLen, new Vector3D(28.549, 63.771, 0), -Vector3D.ZAxis)
.EqualsTol(MUCollection.PlaneAngle.rad.Tolerance(model), 0.80726));
Assert.True(new Vector3D(120.317, 42.914, 0).AngleToward(tolLen, new Vector3D(28.549, 63.771, 0), -Vector3D.ZAxis)
.EqualsTol(MUCollection.PlaneAngle.rad.Tolerance(model), 2 * PI - 0.80726));
Assert.True(Abs(
new Vector3D(-6.95, -5.1725, 0).AngleToward(1e-6, new Vector3D(6.95, 5.1725, 0), new Vector3D(0, 0, 71.89775))
- PI)
< model.MUDomain.PlaneAngle.DefaultTolerance);
// z-axis rotation
Assert.True(new Vector3D(109.452, 38.712, 0).RotateAboutZAxis((50.0).ToRad())
.EqualsTol(tolLen, new Vector3D(40.6992, 108.7286, 0)));
// arbitrary axis rotation
Assert.True(new Vector3D(747.5675, 259.8335, 0).RotateAboutAxis(new Vector3D(123.151, 353.8977, 25.6), (50.0).ToRad())
.EqualsTol(tolLen, new Vector3D(524.3462, 370.9603, -462.4069)));
// rotate relative
Assert.True(
new Vector3D(69.1831, 157.1155, 300).RotateAs(tolLen,
new Vector3D(443.6913, 107.8843, 0), new Vector3D(342.7154, 239.6307, 0))
.EqualsTol(tolLen, new Vector3D(7.3989, 171.5134, 300)));
// vector parallel (1-d)
Assert.True(new Vector3D(1, 0, 0).IsParallelTo(tolLen, new Vector3D(-1, 0, 0)));
Assert.True(new Vector3D(0, 1, 0).IsParallelTo(tolLen, new Vector3D(0, -2, 0)));
Assert.True(new Vector3D(0, 0, 1).IsParallelTo(tolLen, new Vector3D(0, 0, -3)));
// vector parallel (2-d)
Assert.True(new Vector3D(1, 1, 0).IsParallelTo(tolLen, new Vector3D(-2, -2, 0)));
Assert.False(new Vector3D(1, 1, 0).IsParallelTo(tolLen, new Vector3D(-2, 2, 0)));
Assert.True(new Vector3D(1, 0, 1).IsParallelTo(tolLen, new Vector3D(-2, 0, -2)));
Assert.False(new Vector3D(1, 0, 1).IsParallelTo(tolLen, new Vector3D(-2, 0, 2)));
Assert.True(new Vector3D(0, 1, 1).IsParallelTo(tolLen, new Vector3D(0, -2, -2)));
Assert.False(new Vector3D(0, 1, 1).IsParallelTo(tolLen, new Vector3D(0, -2, 2)));
// vector parallel (3-d)
Assert.True(new Vector3D(1, 1, 1).IsParallelTo(tolLen, new Vector3D(-2, -2, -2)));
Assert.True(new Vector3D(253.6625, 162.6347, 150).IsParallelTo(tolLen, new Vector3D(380.4937, 243.952, 225)));
// vector parallel ( tolerance checks )
{
// ensure mm tolerance 1e-1
var tmpModel = new SampleModel();
var tmpTolLen = 1e-1;
// Z component of first vector will be considered zero cause < 1e-1 model tolerance
Assert.True(new Vector3D(10, 0, 0.05).IsParallelTo(tmpTolLen, new Vector3D(-2, 0, 0)));
// Z component of first vector will be considered not-zero cause > 1e-1 model tolerance
Assert.False(new Vector3D(10, 0, 0.11).IsParallelTo(tmpTolLen, new Vector3D(-2, 0, 0)));
// X, Z components of first vector force internal usage of normalized tolerance 1e-4
// cause the length of the shortest vector here is < 1.5 and may represents a normalized vector
// or a result of such type of operation
Assert.True(new Vector3D(0.09, 0, 0.09).IsParallelTo(tmpTolLen, new Vector3D(-20, 0, -20)));
}
}
[Fact(DisplayName = "Helpers")]
void HelpersTest()
{
// MRound
Assert.True((1.32).MRound(.2).EqualsTol(1e-6, 1.4));
Assert.True((56781.52).MRound(125).EqualsTol(1e-6, 56750));
// Magnitude
Assert.True((190.0).Magnitude() == 2);
Assert.True((.0034).Magnitude() == -3);
Assert.True((0.1).Magnitude() == -1);
Assert.True((0.0).Magnitude() == 0);
Assert.True((1.0).Magnitude() == 0);
Assert.True((10.0).Magnitude() == 1);
// RoundTol
Assert.True((1923.56789).MRound(1e-1).EqualsTol(1e-6, 1923.6));
Assert.True((1923.52789).MRound(1e-1).EqualsTol(1e-6, 1923.5));
}
[Fact(DisplayName = "Vector3DCmp")]
void Vector3DCmp()
{
var tol = 1e-3;
var cmp = new Vector3DEqualityComparer(tol);
{
var rnd = new Random();
var lst = new List<Vector3D>();
for (int i = 0; i < 150; ++i)
{
lst.Add(new Vector3D(rnd.NextDouble(), rnd.NextDouble(), rnd.NextDouble()));
}
var last = lst.Last();
var someIn = new Vector3D(last.X, last.Y, last.Z); // different reference
var K = 100000;
var cnt = 0;
var hs = new HashSet<Vector3D>(); // with-out Vector3DCompare it search for same ref
lst.ForEach(w => hs.Add(w));
for (int j = 0; j < K; ++j)
{
if (hs.Contains(someIn)) ++cnt;
}
Assert.True(cnt == 0); // and it don't found
var sw1 = new Stopwatch();
sw1.Start();
hs = new HashSet<Vector3D>(cmp); // using the comparer it search for value
lst.ForEach(w => hs.Add(w));
cnt = 0;
for (int j = 0; j < K; ++j)
{
if (hs.Contains(someIn)) ++cnt;
}
Assert.True(cnt == K);
sw1.Stop();
// using list it should run slower
var sw2 = new Stopwatch();
sw2.Start();
cnt = 0;
for (int j = 0; j < K; ++j)
{
if (lst.Any(r => r.EqualsTol(tol, someIn))) // word case
++cnt;
}
Assert.True(cnt == K);
sw2.Stop();
// sw1.Elapsed {00:00:00.0195037} System.TimeSpan
// sw2.Elapsed {00:00:01.0507771} System.TimeSpan
Assert.True(sw1.Elapsed < sw2.Elapsed);
}
{
var lst = Vector3D.From3DCoords(
.004, .45, 30
);
// tol is 1e-3
Assert.True(lst.Contains(new Vector3D(.004, .45, 30), cmp));
Assert.True(lst.Contains(new Vector3D(.0049, .45, 30), cmp));
Assert.False(lst.Contains(new Vector3D(.0051, .45, 30), cmp));
}
{
var v1 = new Vector3D(10, 0, 0);
var v2 = new Vector3D(9.9999999999999716, 0, 0);
var vcmp = new Vector3DEqualityComparer(1e-4);
Assert.True(vcmp.GetHashCode(v1) == vcmp.GetHashCode(v2));
Assert.True(vcmp.Equals(v1, v2));
}
}
[Fact(DisplayName = "Line3D")]
void Line3DTest()
{
var tolLen = model.MUDomain.Length.DefaultTolerance;
// line contains point
{
var tolLenExcess = tolLen + 1e-10;
// line (0,0,0)-(1,0,0)
var l = new Line3D(Vector3D.Zero, new Vector3D(1, 0, 0), Line3DConstructMode.PointAndVector);
Assert.True(l.LineContainsPoint(tolLen, 2, 0, 0));
Assert.False(l.LineContainsPoint(tolLen, 2, 1, 0));
Assert.False(l.LineContainsPoint(tolLen, 2, 0, 1));
Assert.True(l.SegmentContainsPoint(tolLen, 1, 0, 0));
Assert.True(l.SegmentContainsPoint(tolLen, 0, 0, 0));
Assert.False(l.SegmentContainsPoint(tolLen, -tolLenExcess, 0, 0));
Assert.True(l.SegmentContainsPoint(tolLen, 0, tolLen, 0));
Assert.False(l.SegmentContainsPoint(tolLen, 0, tolLenExcess, 0));
var l2 = new Line3D(Vector3D.Zero, new Vector3D(5, 0, 0), Line3DConstructMode.PointAndVector);
// point on line
Assert.True(l2.SegmentContainsPoint(.5, new Vector3D(-.5, 0, 0)));
Assert.False(l2.SegmentContainsPoint(.5, new Vector3D(-.5 - 1e-10, 0, 0)));
}
// line 3d intersection
{
{
var l1 = new Line3D(new Vector3D(0, 0, 0), new Vector3D(1, 0, 0));
var l2 = new Line3D(new Vector3D(2, 0, 0), new Vector3D(2, 0, 2));
Assert.True(l1.Intersect(tolLen, l2).EqualsTol(tolLen, 2, 0, 0));
}
{
var l1 = new Line3D(new Vector3D(0, 0, 0), new Vector3D(0, 1, 0));
var l2 = new Line3D(new Vector3D(0, 2, 0), new Vector3D(2, 2, 0));
Assert.True(l1.Intersect(tolLen, l2).EqualsTol(tolLen, 0, 2, 0));
}
{
var l1 = new Line3D(new Vector3D(0, 0, 0), new Vector3D(0, 0, 1));
var l2 = new Line3D(new Vector3D(0, 0, 2), new Vector3D(2, 0, 2));
Assert.True(l1.Intersect(tolLen, l2).EqualsTol(tolLen, 0, 0, 2));
}
{
var l1 = new Line3D(new Vector3D(0, 0, 0), new Vector3D(1.6206, 2, -1.4882));
var l2 = new Line3D(new Vector3D(1.2, .7, 2), new Vector3D(.6338, .3917, .969));
Assert.True(l1.Intersect(tolLen, l2).EqualsTol(tolLen, 0.0675, 0.0833, -0.062));
}
}
// project point on a line
{
var p = new Vector3D(1, 1, 0);
var perpLine = Line3D.XAxisLine.Perpendicular(tolLen, p);
Assert.True(perpLine.From.EqualsTol(tolLen, p) && perpLine.To.EqualsTol(tolLen, 1, 0, 0));
}
// check two lines are colinear
{
Assert.True(new Line3D(new Vector3D(0, 0, 0), new Vector3D(1, 1, 1))
.Colinear(tolLen, new Line3D(new Vector3D(2, 2, 2), new Vector3D(3, 3, 3))));
Assert.False(new Line3D(new Vector3D(0, 0, 0), new Vector3D(1, 1, 1))
.Colinear(tolLen, new Line3D(new Vector3D(0, 0, 0), new Vector3D(1, 1, 1.11))));
{
var v1 = Vector3D.From2DCoords(22.646652351539, 13.9522716251755, 23.5544912108728, 15.1454145967669);
var v2 = Vector3D.From2DCoords(32.1714356467077, 26.4617928826826, 23.5548859449172, 15.1451142433282);
var s1 = new Line3D(v1[0], v1[1]);
var s2 = new Line3D(v2[0], v2[1]);
Assert.True(s1.Colinear(1e-3, s2) == s2.Colinear(1e-3, s1));
}
{
var s1 = new Line3D(-90, 29.4932764928483, -90, 40);
var s2 = new Line3D(-90, -2.84E-14, -90, 80);
var segs = new[] { s1, s2 };
Assert.True(segs.MergeColinearSegments(1e-3).Count() == 1);
}
}
// merge segments
{
var sega = new Line3D(new Vector3D(0, 0, 0), new Vector3D(2, 0, 0));
var segb = new Line3D(new Vector3D(1, 0, 0), new Vector3D(3, 0, 0));
var segc = new Line3D(new Vector3D(3, 0, 0), new Vector3D(1, 0, 0));
{
var merge = new List<Line3D>() { sega, segb }.MergeColinearSegments(tolLen).ToList();
Assert.True(merge.Count == 1 && merge.First().EqualsTol(tolLen, new Line3D(new Vector3D(0, 0, 0), new Vector3D(3, 0, 0))));
}
{
var merge = new List<Line3D>() { sega, segc }.MergeColinearSegments(tolLen).ToList();
Assert.True(merge.Count == 1 && merge.First().EqualsTol(tolLen, new Line3D(new Vector3D(0, 0, 0), new Vector3D(3, 0, 0))));
}
}
}
[Fact(DisplayName = "Matrix3D")]
void Matrix3DTest()
{
var m = new Matrix3D(new double[] {
1, .5, 6,
.1, 2, .05,
.7, 11, .55
});
// det
Assert.True(m.Determinant().EqualsTol(1e-6, -1.260));
// inv
Assert.True(m.Inverse().EqualsTol(1e-3, new Matrix3D(new double[] {
-0.437, -52.163, 9.504,
0.016, 2.897, -0.437,
0.238, 8.452, -1.548
})));
// solve
Assert.True(m.Solve(1.1, 2.2, 3.3).EqualsTol(1e-3, new Vector3D(-83.875, 4.95, 13.75)));
}
[Fact(DisplayName = "CoordinateSystem3D")]
void Coordinate3DSystemTest()
{
var p = new Vector3D(53.0147, 34.5182, 20.1);
var o = new Vector3D(15.3106, 22.97, 0);
var v1 = new Vector3D(10.3859, 3.3294, 30);
var v2 = new Vector3D(2.3515, 14.101, 0);
var cs = new CoordinateSystem3D(o, v1, v2);
var u = p.ToUCS(cs);
Assert.True(u.EqualsTol(1e-4, 32.3623, 12.6875, -27.3984));
Assert.True(u.ToWCS(cs).EqualsTol(1e-4, p));
}
[Fact(DisplayName = "Plane3D")]
void Plane3DTest()
{
var tol = model.MUDomain.Length.DefaultTolerance;
var plane = new Plane3D(new CoordinateSystem3D(Vector3D.Zero, Vector3D.XAxis, Vector3D.YAxis));
var q = new Line3D(new Vector3D(1, -3, -5), new Vector3D(10, 4, 6)).Intersect(tol, plane);
Assert.True(q.EqualsTol(tol, 5.0909, 0.1818, 0));
Assert.True(plane.CS.IsParallelTo(tol, new Plane3D(new CoordinateSystem3D(
new Vector3D(0, 0, 1), new Vector3D(-1, 0, 0), new Vector3D(0, -1, 0))).CS));
}
[Fact(DisplayName = "Circle3D")]
void Circle3DTest()
{
var tol = model.MUDomain.Length.DefaultTolerance;
{
var circle = new Circle3D(
new Vector3D(52.563, 177.463, 0),
new Vector3D(180.94, 258.505, 0),
new Vector3D(297.124, 112.916, 50));
Assert.True(circle.Radius.EqualsTol(tol, 129.6516));
Assert.True(circle.Area.EqualsTol(tol, 52808.7467));
Assert.True(circle.Center.EqualsTol(tol, 170.9181, 132.1797, 27.4052));
Assert.True(circle.CS.BaseX.EqualsTol(Constants.NormalizedLengthTolerance, -0.9128, 0.3492, -0.2113));
Assert.True(circle.CS.BaseY.EqualsTol(Constants.NormalizedLengthTolerance, 0.3837, 0.9107, -0.1526));
}
{
tol = 2e-4;
var center = new Vector3D(22.51209044, 14.12016062, 6.80146259);
var N = new Vector3D(3.42020143, 2.43210347, -9.07673371);
var c = new Circle3D(new CoordinateSystem3D(center, N), 6.39114677);
var ltangent = new Line3D(
new Vector3D(12.87708949, 20.20572433, 4.80152252),
new Vector3D(30.90622113, 20.43217568, 11.65575191));
var lcoplanar = new Line3D(
new Vector3D(13.64224068, 16.47774921, 4.09093100),
new Vector3D(30.67186845, 16.07799217, 10.40074559));
var l1point = new Line3D(
new Vector3D(3.39057372, 13.97172849, -2.64691872),
new Vector3D(29.98782817, 12.34242299, 11.34548562));
var lout = new Line3D(
new Vector3D(12.61618025, 9.11647552, 5.03700782),
new Vector3D(29.98782817, 8.95992883, 10.43914904));
var ips = c.Intersect(tol, ltangent).ToList();
Assert.True(ips.Count == 1 && ips[0].EqualsTol(tol, 21.89165531, 20.31895000, 8.22863722));
ips = c.Intersect(tol, lcoplanar).ToList();
Assert.True(ips.Count == 2 &&
ips.Any(w => w.EqualsTol(tol, 16.75040000, 16.40478763, 5.24256563)) &&
ips.Any(w => w.EqualsTol(tol, 27.98738426, 16.14100832, 9.40609100)));
ips = c.Intersect(tol, l1point).ToList();
Assert.True(ips.Count == 1 && ips[0].EqualsTol(tol, 16.68920095, 13.15707574, 4.34928345));
ips = c.Intersect(tol, lout).ToList();
Assert.True(ips.Count == 0);
}
{
tol = 1e-3;
var p = new Vector3D(3.29679008, 9.48216033, 0);
var t = new Line3D(new Vector3D(18.14266304, 4.72460258, 0), new Vector3D(1.29059103, 1.80128397, 0));
var r = 9.8191;
var circles = Circle3D.CircleRTanP(tol, p, t, r);
Assert.True(circles.Count() == 2);
Assert.True(circles.All(w => w.Radius.EqualsTol(tol, 9.81913052)));
Assert.True(circles.Any(w => w.Center.EqualsTol(tol, 12.18378030, 13.65597387)));
Assert.True(circles.Any(w => w.Center.EqualsTol(tol, -6.47673267, 10.41894611)));
}
}
[Fact(DisplayName = "Polygon")]
void PolygonTest()
{
{
var tolLen = model.MUDomain.Length.DefaultTolerance;
var B = 700; var b = 50;
var H = 900; var h = 50;
var pts = new List<Vector3D>()
{
new Vector3D(0, 0, 0), new Vector3D(B, 0, 0),
new Vector3D(B, h, 0),new Vector3D(b, h, 0),
new Vector3D(b, H+h, 0), new Vector3D(B, H+h, 0),
new Vector3D(B, H +2*h, 0), new Vector3D(0, H+2*h, 0)
};
// area
var area = pts.Area(tolLen);
Assert.True(area.EqualsTol(tolLen, 2 * B * h + H * b));
// centroid
Assert.True(pts.Centroid(tolLen, area).EqualsTol(tolLen, (2 * h * B * B / 2 + b * b * H / 2) / area, H / 2 + h, 0));
// segment contains point
// inner
Assert.True(pts.ContainsPoint(tolLen, new Vector3D(28.173, 275.518, 0)));
Assert.False(pts.ContainsPoint(tolLen, new Vector3D(78.044, 312.565, 0)));
// on right segment
Assert.True(pts.ContainsPoint(tolLen, new Vector3D(b, (H + 2 * h) / 2, 0)));
// on left segment
Assert.True(pts.ContainsPoint(tolLen, new Vector3D(0, (H + 2 * h) / 2, 0)));
}
{
var tol = 1e-3;
{
var pts = Vector3D.From2DCoords(
0, 0,
10, 0,
10, 10,
0, 10
);
Assert.True(pts.Centroid(tol).EqualsTol(tol, 5, 5, 0));
pts = pts.Select(w => w - new Vector3D(10, 10)).ToList();
Assert.True(pts.Centroid(tol).EqualsTol(tol, -5, -5, 0));
}
{
var pts = Vector3D.From2DCoords(
0, 2,
33, 2,
33, 35,
0, 35
);
var A = pts.Area(tol);
Assert.True(A.EqualsTol(1e-1, 1089));
Assert.True(pts.Centroid(tol).EqualsTol(tol, 16.5, 18.5, 0));
}
{
var pts = Vector3D.From2DCoords(
0, 2,
0, 35,
33, 35,
33, 2
);
var A = pts.Area(tol);
Assert.True(A.EqualsTol(1e-1, 1089));
Assert.True(pts.SortPoly(tol, Vector3D.ZAxis).ToList().Centroid(tol).EqualsTol(tol, 16.5, 18.5, 0));
}
}
{
var tol = 1e-2;
var pts = Vector3D.From2DCoords(
68.12, 78.93,
71.86, 75.28,
71.68, 74.92,
71.18, 74.56,
67.03, 78.61);
Assert.True(pts.Area(tol).EqualsTol(5.51624999, 1e-6));
}
{
var tol = 1e-4;
var pts = Vector3D.From3DCoords(82864.6156987284, 50220.4741441392, 0, 82865.1044856623, 50219.6005979311, 0, 82865.7272074748, 50219.9865042438, 0, 82865.6869543679, 50220.5655944049, 0, 82865.14866095, 50220.8044258826, 0);
var pt = new Vector3D(82868.5968081355, 50220.4742179776, 0);
Assert.False(pts.ContainsPoint(tol, pt));
}
{
var tol = 1e-4;
var pts = Vector3D.From3DCoords(82864.4498220986, 50219.2717508153, 0, 82865.1044856623, 50219.6005979311, 0, 82864.6156987284, 50220.4741441392, 0, 82864.0553965054, 50220.1926961096, 0, 82863.9773540763, 50219.6089969349, 0);
var pt = new Vector3D(82868.5968081355, 50220.4742179776, 0);
Assert.False(pts.ContainsPoint(tol, pt));
}
{
var tol = 1e-4;
var pts = Vector3D.From3DCoords(82865.1486609555, 50220.8044259296, 0, 82865.1367431909, 50221.4029804696, 0, 82864.5665724475, 50221.62015258, 0, 82864.126911018, 50221.3476917443, 0, 82864.6156997685, 50220.4741466723, 0);
var pt = new Vector3D(82868.5968081355, 50220.474217977557, 0);
Assert.False(pts.ContainsPoint(tol, pt));
}
{
var tol = 1e-4;
var pts = Vector3D.From3DCoords(82806.2853751313, 50287.8496284662, 0, 82806.9567465798, 50287.1038154201, 0, 82804.856242037, 50285.5083768389, 0, 82804.856242037, 50285.5083768389, 0, 82804.3249042247, 50286.3605524571, 0, 82804.3249042247, 50286.3605524571, 0, 82806.2853751312, 50287.8496284662, 0);
var pt = new Vector3D(82821.621856159938, 50304.487467415951);
Assert.False(pts.ContainsPoint(tol, pt, zapDuplicates: true));
}
}
[Fact(DisplayName = "ClosedPolys2D")]
void ClosedPolys2D()
{
var dxf = netDxf.DxfDocument.Load(
System.IO.Path.Combine(System.IO.Path.Combine(AppDomain.CurrentDomain.BaseDirectory, "data"), "test_closed_polys1.dxf"));
var segs = dxf.Lines.Select(w => w.ToLine3D()).ToList();
segs = segs.AutoIntersect(1e-3).ToList();
var polys = segs.ClosedPolys2D(1e-3).ToList();
Assert.True(polys.Count == 9);
Assert.True(polys.All(r => r.ToList().Area(1e-3).EqualsTol(1e-3, 1111.1111)));
}
[Fact(DisplayName = "SortPolygon")]
void SortPolygonTest()
{
var tol = model.MUDomain.Length.DefaultTolerance;
{
var p1 = new Vector3D(-19.331, 168.749, 0);
var p2 = new Vector3D(95.57, 90.108, 0);
var p3 = new Vector3D(286.757, 182.876, 0);
var p4 = new Vector3D(149.253, 277.528, 0);
var p5 = new Vector3D(29.173, 265.755, 0);
var pts = new List<Vector3D>() { p4, p2, p5, p3, p1 };
var pts2 = pts.SortPoly(tol).ToList();
Assert.True(
pts2[0].EqualsTol(tol, p3) &&
pts2[1].EqualsTol(tol, p2) &&
pts2[2].EqualsTol(tol, p1) &&
pts2[3].EqualsTol(tol, p5) &&
pts2[4].EqualsTol(tol, p4));
}
{
var pts = Vector3D.From2DCoords(
100, 500,
300, 700,
300, 500,
100, 700);
var pts2 = pts.SortPoly(tol).ToList();
Assert.True(pts2.EqualsTol(tol, Vector3D.From2DCoords(
300, 500,
300, 700,
100, 700,
100, 500)));
pts2 = pts.SortPoly(tol, -Vector3D.ZAxis).ToList();
Assert.True(pts2.EqualsTol(tol, Vector3D.From2DCoords(
100, 700,
300, 700,
300, 500,
100, 500)));
}
{
var pts = Vector3D.From2DCoords(
-1, -3.96,
12.9, -3.96,
-1, 6.3850000000000007,
12.9, 6.3850000000000007
);
var pts2 = pts.SortPoly(1e-6).ToList();
Assert.True(pts2.EqualsTol(tol, Vector3D.From2DCoords(
12.9, -3.96,
12.9, 6.385,
-1, 6.385,
-1, -3.96)));
}
}
[Fact(DisplayName = "BBox3D")]
void BBox3DTest()
{
var tolLen = model.MUDomain.Length.DefaultTolerance;
var pts = Vector3D.From3DCoords(
1, 5, 8,
-2, -.5, 9,
10, .5, .9);
var bbox = pts.BBox();
Assert.True(bbox.Min.EqualsTol(tolLen, -2, -.5, .9));
Assert.True(bbox.Max.EqualsTol(tolLen, 10, 5, 9));
var bbox2 = new BBox3D().Union(new Vector3D(1, 2, 3));
Assert.True(bbox.EqualsTol(tolLen, bbox.Union(bbox2)));
Assert.True(bbox.Contains(tolLen, bbox2));
}
[Fact(DisplayName = "MeasureUnit")]
void MeasureUnitTest()
{
{
var measure = Measure.TryParse("10mm [Length]", null, CultureInfo.InvariantCulture);
Assert.True(measure != null &&
measure.MU == MUCollection.Length.mm &&
measure.MU.PhysicalQuantity == PQCollection.Length &&
Abs(measure.Value - 10) < 1e-3);
}
var mud = new MUDomain();
// Length
{
var tol = mud.Length.DefaultTolerance;
var mm = MUCollection.Length.mm;
var m = MUCollection.Length.m;
var km = MUCollection.Length.km;
var inch = MUCollection.Length.inch;
var ft = MUCollection.Length.ft;
var yard = MUCollection.Length.yard;
var links = MUCollection.Length.links;
var a = (212356.435 * mm).ConvertTo(mud).Value;
Assert.True(a.EqualsTol(tol, (212356.435).Convert(mm, mud)));
Assert.True(a.EqualsTol(tol, (212.356435).Convert(m, mud)));
Assert.True(a.EqualsTol(tol, (0.212356435).Convert(km, mud)));
Assert.True(a.EqualsTol(tol, (8360.489567).Convert(inch, mud)));
Assert.True(a.EqualsTol(tol, (696.7074639).Convert(ft, mud)));
Assert.True(a.EqualsTol(tol, (232.2358213).Convert(yard, mud)));
Assert.True(a.EqualsTol(tol, (1055.6173695617595).Convert(links, mud)));
}
// Temperature
{
var tol = mud.Temperature.DefaultTolerance;
var C = MUCollection.Temperature.C;
var K = MUCollection.Temperature.K;
var F = MUCollection.Temperature.F;
var C_ = 20.35;
var K_ = 293.5;
var F_ = 68.63;
{
var T = (C_ * C);
Assert.True(T.ConvertTo(K).Value.EqualsTol(1e-1, K_));
Assert.True(T.ConvertTo(F).Value.EqualsTol(1e-2, F_));
}
{
var T = (K_ * K);
Assert.True(T.ConvertTo(C).Value.EqualsTol(1e-2, C_));
Assert.True(T.ConvertTo(F).Value.EqualsTol(1e-2, F_));
}
{
var T = (F_ * F);
Assert.True(T.ConvertTo(C).Value.EqualsTol(1e-2, C_));
Assert.True(T.ConvertTo(K).Value.EqualsTol(1e-1, K_));
}
}
}
[Fact(DisplayName = "Line3DAutoIntersect")]
void Line3DAutoIntersect()
{
var dxf = netDxf.DxfDocument.Load(
System.IO.Path.Combine(
System.IO.Path.Combine(AppDomain.CurrentDomain.BaseDirectory, "data"),
"test_autointersect.dxf"));
var input_segs = dxf.Lines
.Where(r => r.Layer.Name == "lay_input")
.Select(w => w.ToLine3D()).ToList();
var processed_segs = input_segs.AutoIntersect(1e-4);
var expected_segs = dxf.Lines
.Where(r => r.Layer.Name == "lay_ok")
.Select(w => w.ToLine3D()).ToList();
var tolLen = 1e-4;
var q1 = processed_segs.OrderBy(w => w.MidPoint.ToString(tolLen)).ToList();
var q2 = expected_segs.OrderBy(w => w.MidPoint.ToString(tolLen)).ToList();
Assert.True(q1.Count == q2.Count);
for (int i = 0; i < q1.Count; ++i)
{
Assert.True(q1[i].EqualsTol(tolLen, q2[i]));
}
}
[Fact(DisplayName = "NumberTest")]
void NumberTest()
{
Assert.True((3.1415926535897931).NormalizeAngle2PI() == (3.1415926535897931));
}
/*
[Fact(DisplayName = "ConvexHull")]
void ConvexHullTest()
{
var pts = new List<Vector3D>();
pts.SampleIp();
}
*/
}
}