Shrlalgo.RvKits/ShrlAlgoToolkit.RevitAddins/RvIndependent/MetroTunnel/MetroTunnelCmd.cs

using System.Windows;
using Autodesk.Revit.Attributes;
using Autodesk.Revit.DB;
using Autodesk.Revit.UI;
using CommunityToolkit.Diagnostics;
using Nice3point.Revit.Toolkit.External;


namespace ShrlAlgoToolkit.RevitAddins.RvIndependent.MetroTunnel;

[Transaction(TransactionMode.Manual)]
[Regeneration(RegenerationOption.Manual)]
public class MetroTunnelCmd : ExternalCommand
{
    public override void Execute()
    {
        MetroTunnelViewModel viewModel = new();
        MetroTunnelView view = new(viewModel);
        view.ShowDialog();
        if (view.DialogResult == false)
        {
            Result = Result.Cancelled;
            return;
        }

        var importInstance = UiDocument.SelectObject<ImportInstance>("请选择dwg实例");
        if (importInstance == null || !importInstance.Category.Name.EndsWith(".dwg"))
        {
            MessageBox.Show("请选择dwg隧道中心线", "提示");
            Result = Result.Cancelled;
            return;
        }

        var curves = importInstance.GetCurves();
        if (curves.Count == 0)
        {
            ErrorMessage = "所选dwg参照不存在曲线";
            Result = Result.Failed;
            return;
        }

        List<XYZ> points = [];
        //精度，每条曲线均分数
        double precision = 3;
        for (var i = 0; i < curves.Count; i++)
        {
            var curve = curves[i];

            //points.Add(curve.GetEndPoint(0));

            if (curve is Arc)
            {
                for (var j = 0; j < precision; j++)
                {
                    points.Add(curve.Evaluate(j / precision, true));
                }
            }

            if (i == curves.Count - 1)
            {
                points.Add(curve.GetEndPoint(1));
            }
        }

        var spline = HermiteSpline.Create(points, false);
        //var dividePoint = spline.Divide();
        //起始角度
        var startAngle = viewModel.StartAngle;
        //前邻接块角度
        var frontBehindAngle = viewModel.FrontTubeAngle;
        //后邻接块角度
        var backBehindAngle = viewModel.BackTubeAngle;
        //标准块角度
        var standardAngle = viewModel.StandardTubeAngle;
        //管片宽度
        var width = viewModel.TubeWidth / 304.8;
        //管片厚度
        var thickness = viewModel.TubeThickness / 304.8;
        //大圆半径
        var outerDiameter = viewModel.TubeOuterDiameter / 304.8;
        ;
        //小圆半径
        var interDiameter = outerDiameter - (2 * thickness);
        //错缝变化角度
        var switchAngle = viewModel.StaggerAngle;
        SegmentPlacementType placementType = 0;
        var num = Math.Floor(spline.Length / width);
        List<List<XYZ>> lists = [];
        for (var i = 0; i < num - 1; i++)
        {
            //var p1 = spline.Evaluate(i * 2000 / 304.8, false);
            //if (spline.IsInsideEx((i + 1) * 2000 / 304.8))
            //{
            //    var p2 = spline.Evaluate((i + 1) * 2000 / 304.8, false);
            //}
            //basicX为切向量，basicY为法向量（垂直该点），basicZ为basicX叉乘basicY
            var transform1 = spline.ComputeDerivatives(i * width, false);
            var transform2 = spline.ComputeDerivatives((i + 1) * width, false);
            //Frame frame1 = new Frame();
            //frame1.Transform(transform1);
            //平面法向与路线曲线方向相反，即平面法向面向人视角，在创建圆时才能保证角度旋转准确
            //var frontPlane = Plane.CreateByNormalAndOrigin(-transform1.BasisX, transform1.Origin);
            var frontRight = transform1.BasisX.CrossProduct(XYZ.BasisZ).Normalize();
            var frontTop = frontRight.CrossProduct(transform1.BasisX).Normalize();
            var frontPlane = Plane.CreateByOriginAndBasis(transform1.Origin, frontRight, frontTop);

            //Frame frame2 = new Frame();
            //frame1.Transform(transform2);
            //var backPlane = Plane.CreateByNormalAndOrigin(transform2.BasisX, transform2.Origin);
            var backRight = transform2.BasisX.CrossProduct(XYZ.BasisZ).Normalize();
            var backTop = backRight.CrossProduct(transform2.BasisX).Normalize();
            var backPlane = Plane.CreateByOriginAndBasis(transform2.Origin, backRight, backTop);

            var frontOuterCircle = Arc.Create(frontPlane, outerDiameter / 2, 0, Math.PI * 2);
            var frontInnerCircle = Arc.Create(frontPlane, interDiameter / 2, 0, Math.PI * 2);
            var backOuterCircle = Arc.Create(backPlane, outerDiameter / 2, 0, Math.PI * 2);
            var backInnerCircle = Arc.Create(backPlane, interDiameter / 2, 0, Math.PI * 2);

            //frontOuterCircle.MakeBound(0, frontOuterCircle.Length);
            //frontInnerCircle.MakeBound(0, frontInnerCircle.Length);
            //backOuterCircle.MakeBound(0, backOuterCircle.Length);
            //backInnerCircle.MakeBound(0, backInnerCircle.Length);
            //doc.Invoke(ts =>
            //{
            //    if (i < 10)
            //    {
            //        doc.Create.NewModelCurve(frontFaceOuterCircle, sk1);
            //        doc.Create.NewModelCurve(frontFaceInnerCircle, sk1);
            //        doc.Create.NewModelCurve(backFaceOuterCircle, sk2);
            //        doc.Create.NewModelCurve(backFaceInnerCircle, sk2);
            //    }

            //});
            var actuallyFrontStartAngle = MetroTunnelCmd.GetReallyStartAngle(placementType, startAngle, switchAngle, i);
            var actuallyBackStartAngle = MetroTunnelCmd.GetReallyStartAngle(placementType, startAngle, switchAngle, i + 1);
            var param = MetroTunnelCmd.CurveParameters(actuallyFrontStartAngle, frontBehindAngle, standardAngle);
            var param1 = MetroTunnelCmd.CurveParameters(actuallyBackStartAngle, backBehindAngle, standardAngle);
            for (var j = 0; j < param.Length; j++)
            {
                var paramF = param[j];
                var paramB = param1[j];
                //doc.Invoke(_ =>
                //{
                //var sk1 = SketchPlane.Create(doc, frontPlane);
                //var sk2 = SketchPlane.Create(doc, backPlane);

                //var p1 = frontInnerCircle.Evaluate(paramF[0], true);
                //var p2 = frontInnerCircle.Evaluate(paramF[1], true);
                //var p3 = frontInnerCircle.Evaluate(paramF[2], true);
                var arc1 = Arc.Create(
                    frontPlane,
                    interDiameter / 2,
                    (paramF[0] > paramF[2] ? paramF[0] - 1 : paramF[0]) * 360.0.ToRadian(),
                    paramF[2] * 360.0.ToRadian()
                );
                var points1 = arc1.GetEquivalentPoints(2);
                //var mc1 = doc.Create.NewModelCurve(arc1, sk1);
                //var l1 = mc1.GeometryCurve.Length;

                //var p4 = backInnerCircle.Evaluate(paramB[0], true);
                //var p5 = backInnerCircle.Evaluate(paramB[1], true);
                //var p6 = backInnerCircle.Evaluate(paramB[2], true);

                var arc2 = Arc.Create(
                    backPlane,
                    interDiameter / 2,
                    (paramB[0] > paramB[2] ? paramB[0] - 1 : paramB[0]) * 360.0.ToRadian(),
                    paramB[2] * 360.0.ToRadian()
                );
                //var mc2 = doc.Create.NewModelCurve(arc2, sk2);
                var points2 = arc2.GetEquivalentPoints(2);
                //if (j == 0)
                //{
                //    doc.Create.NewModelCurve(Arc.Create(p1, 2, 0, 2 * Math.PI, frontPlane.XVec, frontPlane.YVec), sk1);
                //    doc.Create.NewModelCurve(Arc.Create(frontInnerCircle.Evaluate(0, true), 2, 0, 2 * Math.PI, frontPlane.XVec, frontPlane.YVec), sk1);
                //    doc.Create.NewModelCurve(frontOuterCircle, sk1);

                //    doc.Create.NewModelCurve(Arc.Create(p2, 2, 0, 2 * Math.PI, frontPlane.XVec, frontPlane.YVec), sk1);
                //    doc.Create.NewModelCurve(Arc.Create(p3, 2, 0, 2 * Math.PI, frontPlane.XVec, frontPlane.YVec), sk1);
                //    doc.Create.NewModelCurve(Line.CreateBound(frontPlane.Origin, frontPlane.Origin + frontPlane.XVec), sk1);
                //    doc.Create.NewModelCurve(Line.CreateBound(frontPlane.Origin, frontPlane.Origin + frontPlane.YVec), sk1);
                //    //doc.Create.NewModelCurve(Arc.Create(backInnerCircle.Evaluate(0, true), 2, 0, 2 * Math.PI, frontPlane.XVec, frontPlane.YVec), sk2);
                //}
                //var l2 = mc2.GeometryCurve.Length;
                //var p7 = frontOuterCircle.Evaluate(paramF[0], true);
                //var p8 = frontOuterCircle.Evaluate(paramF[1], true);
                //var p9 = frontOuterCircle.Evaluate(paramF[2], true);
                //doc.Create.NewModelCurve(Arc.Create(p7, p9, p8), sk1);
                //var p10 = backOuterCircle.Evaluate(paramB[0] , true);
                //var p11 = backOuterCircle.Evaluate(paramB[1], true);
                //var p12 = backOuterCircle.Evaluate(paramB[2], true);
                //doc.Create.NewModelCurve(Arc.Create(p10, p12, p11), sk2);
                var arc3 = Arc.Create(
                    frontPlane,
                    outerDiameter / 2,
                    (paramF[0] > paramF[2] ? paramF[0] - 1 : paramF[0]) * 360.0.ToRadian(),
                    paramF[2] * 360.0.ToRadian()
                );
                var points3 = arc3.GetEquivalentPoints(2);
                var arc4 = Arc.Create(
                    backPlane,
                    outerDiameter / 2,
                    (paramB[0] > paramB[2] ? paramB[0] - 1 : paramB[0]) * 360.0.ToRadian(),
                    paramB[2] * 360.0.ToRadian()
                );
                var points4 = arc4.GetEquivalentPoints(2);
                var list = new List<XYZ>();
                list.AddRange(points1);
                list.AddRange(points2);
                list.AddRange(points3);
                list.AddRange(points4);
                //list = new List<XYZ>()
                //{
                //    p1, p2, p3,p4,p5,p6, p7, p8, p9,p10,p11,p12
                //};
                //});
                lists.Add(list);
            }
        }

        Document.Invoke(ts =>
        {
            var familySymbol = Document
                .OfClass<FamilySymbol>()
                .Cast<FamilySymbol>()
                .First(
                    symbol => symbol.Name == "盾构管片" && AdaptiveComponentInstanceUtils.IsAdaptiveFamilySymbol(symbol)
                );
            if (!familySymbol.IsActive)
            {
                familySymbol.Activate();
            }

            for (var i = 0; i < lists.Count; i++)
            {
                var list = lists[i];
                if (i == 100)
                {
                    return;
                }

                familySymbol.CreateAdaptiveComponent(list);
            }
        });
    }

    /// <summary>
    ///     计算圆弧上的所有自适应布置点角度与整圆（360）的比值[0,1]
    /// </summary>
    /// <param name="startAngle">实际起始角度</param>
    /// <param name="behindAngle">邻接块角度跨度</param>
    /// <param name="standardAngle">标准块角度跨度</param>
    /// <returns>数组的数组集合</returns>
    private static double[][] CurveParameters(double startAngle, double behindAngle, double standardAngle)
    {
        var x = startAngle / 360;
        //封顶块
        var fdq = 360 - (standardAngle * 3) - (behindAngle * 2);
        Guard.IsGreaterThan(fdq, 0, "封顶块角度跨度不能为负");

        var a0 = startAngle + behindAngle;
        var b0 = a0 + fdq;
        var c0 = b0 + behindAngle;
        var d0 = c0 + standardAngle;
        var e0 = d0 + standardAngle;

        var aq = a0 / 360;
        var bq = b0 / 360;
        var cq = c0 / 360;
        var dq = d0 / 360;
        var eq = e0 / 360;
        var xaq = (x + aq) / 2;
        var abq = (aq + bq) / 2;
        var bcq = (bq + cq) / 2;
        var cdq = (cq + dq) / 2;
        var deq = (dq + eq) / 2;
        var con = (eq - 1 + x) / 2;
        var exq = con < 0 ? 1 + con : con;
        return
        [
            [x, xaq, aq],
            [aq, abq, bq],
            [bq, bcq, cq],
            [cq, cdq, dq],
            [dq, deq, eq],
            [eq, exq, x]
        ];
    }

    /// <summary>
    ///     计算起始角度每环的实际起始角度（第一环不用计算就是StartAngle）
    /// </summary>
    /// <param name="placementType">拼装方式</param>
    /// <param name="startAngle">标准块起始角度</param>
    /// <param name="switchAngle">错缝变化角度</param>
    /// <param name="currentFaceNumber">当前管环面的索引+1</param>
    /// <returns></returns>
    private static double GetReallyStartAngle(
        SegmentPlacementType placementType,
        double startAngle,
        double switchAngle,
        int currentFaceNumber
    )
    {
        double result = default;
        switch (placementType)
        {
            case SegmentPlacementType.Common:
                result = startAngle + (switchAngle * (0.5 - (0.5 * Math.Pow(1, currentFaceNumber))));
                break;
            case SegmentPlacementType.Swing:
                result = startAngle + (switchAngle * (0.5 + (0.5 * Math.Pow(-1, currentFaceNumber))));
                break;
            case SegmentPlacementType.ClockWise:
                result = startAngle + (switchAngle * (currentFaceNumber - 1));
                break;
            case SegmentPlacementType.CounterClockWise:
                result =
                    startAngle
                    - (switchAngle * (currentFaceNumber - 1))
                    - (Math.Floor((startAngle - (switchAngle * (currentFaceNumber - 1))) / 360) * 360);
                break;
        }

        return result;
    }
}