private static List <Vector3> intersect(Bezeir b1, Bezeir b2)
{
Vector2 A2 = b1.P0 - 2 * b1.P1 + b1.P2;
Vector2 A1 = -2 * b1.P0 + 2 * b1.P1;
Vector2 A0 = b1.P0;
Vector2 B2 = b2.P0 - 2 * b2.P1 + b2.P2;
Vector2 B1 = -2 * b2.P0 + 2 * b2.P1;
Vector2 B0 = b2.P0;
return(filter(Algebra.parametricFunctionSolver(A0, A1, A2, B0, B1, B2), b1, b2));
}
public static Curve TryInit(Vector3 _P0, Vector3 _P1, Vector3 _P2)
{
if (Geometry.Parallel(_P1 - _P0, _P2 - _P1))
{
Debug.LogWarning("Bezeir Ctrl Point Parallel!");
return(Line.TryInit(_P0, _P2));
}
Bezeir candidate = new Bezeir(_P0, _P1, _P2);
if (Algebra.isclose(candidate.length, 0f))
{
Debug.LogWarning("try creating Bezeir of zero length!");
return(null);
}
else
{
return(candidate);
}
}
public override List <Curve> segmentation(float maxlen)
{
List <Curve> result = new List <Curve>();
float lastEnd = 0f;
int fragCount = Mathf.CeilToInt(this.length / maxlen);
for (int multipler = 0; multipler < fragCount; multipler++)
{
float thisEnd;
thisEnd = Algebra.NewTown(this.lengthByParam, this.lengthGradient, Mathf.Min(this.length, (float)(multipler + 1) * maxlen), Mathf.Min(1f, maxlen / this.length * (multipler + 1)));
Curve fragment = Bezeir.TryInit(this.P0, this.P1, this.P2, this.z_start + this.z_offset * lastEnd, this.z_start + this.z_offset * thisEnd);
fragment.t_start = toGlobalParam(lastEnd);
fragment.t_end = toGlobalParam(thisEnd);
result.Add(fragment);
lastEnd = thisEnd;
}
return(result);
}
Road generateVirtualRoad(int i1, int i2)
{
Road r1 = connection[i1];
Road r2 = connection[i2];
if (outLaneRange[i1, i2] == null)
{
return(null);
}
int loOutLaneNum = outLaneRange[i1, i2].First;
int hiOutLaneNum = outLaneRange[i1, i2].Second;
int loInLaneNum = inLaneRange[i2, i1].First;
int hiInLaneNum = inLaneRange[i2, i1].Second;
Debug.Assert(hiOutLaneNum - loOutLaneNum == hiInLaneNum - loInLaneNum);
float r1_margin = startof(r1.curve) ? r1.margin0Param : r1.margin1Param;
float r2_margin = startof(r2.curve) ? r2.margin0Param : r2.margin1Param;
float r1_radiOffset = 0.5f * (r1.getLaneCenterOffset(loOutLaneNum, !startof(r1.curve)) + r1.getLaneCenterOffset(hiOutLaneNum, !startof(r1.curve)));
float r2_radiOffset = 0.5f * (r2.getLaneCenterOffset(loInLaneNum, startof(r2.curve)) + r2.getLaneCenterOffset(hiInLaneNum, startof(r2.curve)));
Vector3 r1_endPos = r1.at(r1_margin) + r1.rightNormal(r1_margin) * r1_radiOffset;
Vector3 r2_endPos = r2.at(r2_margin) + r2.rightNormal(r2_margin) * r2_radiOffset;
List <string> virtualRoadLaneCfg = new List <string>();
int virtualRoadLaneCount = hiOutLaneNum - loOutLaneNum + 1;
for (int i = 0; i != virtualRoadLaneCount; ++i)
{
virtualRoadLaneCfg.Add("lane");
if (i != virtualRoadLaneCount - 1)
{
virtualRoadLaneCfg.Add("dash_white");
}
}
Vector2 r1_direction = startof(r1.curve) ? -r1.curve.direction_2d(r1_margin) : r1.curve.direction_2d(r1_margin);
Vector2 r2_direction = startof(r2.curve) ? -r2.curve.direction_2d(r2_margin) : r2.curve.direction_2d(r2_margin);
if (Geometry.Parallel(r1_direction, r2_direction))
{
/*TODO: perform a U turn when r1 = r2*/
if (Algebra.isRoadNodeClose(r1_endPos, r2_endPos))
{
/*exact same lane config for neighbors, just go straight*/
return(null);
}
//return new Road(Line.TryInit(r1_endPos, r2_endPos), virtualRoadLaneCfg, _noEntity: true);
return(createNoEntityRoadIfNotNull(Line.TryInit(r1_endPos, r2_endPos), virtualRoadLaneCfg));
}
else
{
Curve l1 = Line.TryInit(Algebra.toVector2(r1_endPos), Algebra.toVector2(r1_endPos) + Algebra.InfLength * r1_direction, r1_endPos.y, r1_endPos.y);
Curve l2 = Line.TryInit(Algebra.toVector2(r2_endPos), Algebra.toVector2(r2_endPos) + Algebra.InfLength * r2_direction, r2_endPos.y, r2_endPos.y);
List <Vector3> intereSectionPoint = Geometry.curveIntersect(l1, l2);
if (intereSectionPoint.Count == 1)
{
//return new Road(Bezeir.TryInit(r1_endPos, intereSectionPoint.First(), r2_endPos), virtualRoadLaneCfg, _noEntity: true);
return(createNoEntityRoadIfNotNull(Bezeir.TryInit(r1_endPos, intereSectionPoint.First(), r2_endPos), virtualRoadLaneCfg));
}
else
{
//return new Road(Line.TryInit(r1_endPos, r2_endPos), virtualRoadLaneCfg, _noEntity: true);
return(createNoEntityRoadIfNotNull(Line.TryInit(r1_endPos, r2_endPos), virtualRoadLaneCfg));
}
}
}
Pair <float, float> smoothenCrossing(Road r1, Road r2, out List <Curve> smootheners)
{
float r1_angle = startof(r1.curve) ? r1.curve.angle_ending(true) : r1.curve.angle_ending(false);
float r2_angle = startof(r2.curve) ? r2.curve.angle_ending(true) : r2.curve.angle_ending(false);
float delta_angle = r1_angle < r2_angle ? r2_angle - r1_angle : r2_angle + 2 * Mathf.PI - r1_angle;
this.r1 = r1;
this.r2 = r2;
smootheners = new List <Curve>();
Vector2 streetCorner = approxStreetCorner();
//debugPoints.Add(Algebra.toVector3(streetCorner));
switch (Geometry.getAngleType(delta_angle))
{
case angleType.Sharp:
case angleType.Blunt:
if (c1_offset > 0f && c2_offset > 0f)
{
/*c1,c2>0*/
float extraSmoothingLength = arcSmoothingRadius / Mathf.Tan(delta_angle / 2);
addIfNotNull(smootheners, Arc.TryInit(r1.curve.at_ending_2d(startof(r1.curve), c1_offset + extraSmoothingLength) +
Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), c1_offset + extraSmoothingLength) + Mathf.PI / 2) * r1.width / 2,
Mathf.PI - delta_angle,
r2.curve.at_ending_2d(startof(r2.curve), c2_offset + extraSmoothingLength) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), c2_offset + extraSmoothingLength) - Mathf.PI / 2) * r2.width / 2));
return(new Pair <float, float>(c1_offset + extraSmoothingLength, c2_offset + extraSmoothingLength));
}
if (c1_offset > 0f)
{
/*c1>0, c2<=0*/
float smoothRadius = -c2_offset;
addIfNotNull(smootheners, Arc.TryInit(r1.curve.at_ending_2d(startof(r1.curve), c1_offset + smoothRadius) +
Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), c1_offset + smoothRadius) + Mathf.PI / 2) * r1.width / 2,
Mathf.PI - delta_angle,
r2.curve.at_ending_2d(startof(r2.curve)) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve)) - Mathf.PI / 2) * r2.width / 2));
/*TODO: calculate more precise delta_angle*/
return(new Pair <float, float>(c1_offset + smoothRadius, 0));
}
if (c2_offset > 0f)
{
/*c1<0, c2>0*/
float smoothRadius = -c1_offset;
Curve smoothener = Arc.TryInit(r1.curve.at_ending_2d(startof(r1.curve)) +
Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve)) + Mathf.PI / 2) * r1.width / 2,
Mathf.PI - delta_angle,
r2.curve.at_ending_2d(startof(r2.curve), c2_offset + smoothRadius) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), c2_offset + smoothRadius) - Mathf.PI / 2) * r2.width / 2);
addIfNotNull(smootheners, smoothener);
return(new Pair <float, float>(0, c2_offset + smoothRadius));
}
Debug.Assert(false);
break;
case angleType.Flat:
if (r1.width == r2.width)
{
return(new Pair <float, float>(0, 0));
}
float widthDiff = Math.Abs(r1.width - r2.width) / 2;
if (r1.width > r2.width)
{
Vector2 P0 = r1.curve.at_ending_2d(startof(r1.curve)) +
Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve)) + Mathf.PI / 2) * r1.width / 2;
Vector2 P1 = r2.curve.at_ending_2d(startof(r2.curve), widthDiff * bezeirSmoothingScale * 0.25f) +
Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), widthDiff * bezeirSmoothingScale * 0.25f) + Mathf.PI / 2) * r1.width / 2;
Vector2 P4 = r2.curve.at_ending_2d(startof(r2.curve), widthDiff * bezeirSmoothingScale) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), widthDiff * bezeirSmoothingScale) - Mathf.PI / 2) * r2.width / 2;
Vector2 P3 = r2.curve.at_ending_2d(startof(r2.curve), widthDiff * bezeirSmoothingScale * 0.75f) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), widthDiff * bezeirSmoothingScale * 0.75f) - Mathf.PI / 2) * r2.width / 2;
Vector2 P2 = (P1 + P3) / 2;
addIfNotNull(smootheners, Bezeir.TryInit(P0, P1, P2));
addIfNotNull(smootheners, Bezeir.TryInit(P2, P3, P4));
return(new Pair <float, float>(0f, widthDiff * bezeirSmoothingScale));
}
else
{
Vector2 P0 = r1.curve.at_ending_2d(startof(r1.curve), widthDiff * bezeirSmoothingScale)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), widthDiff * bezeirSmoothingScale) + Mathf.PI / 2) * r1.width / 2;
Vector2 P1 = r1.curve.at_ending_2d(startof(r1.curve), widthDiff * bezeirSmoothingScale * 0.75f)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), widthDiff * bezeirSmoothingScale * 0.75f) + Mathf.PI / 2) * r1.width / 2;
Vector2 P3 = r1.curve.at_ending_2d(startof(r1.curve), widthDiff * bezeirSmoothingScale * 0.25f)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), widthDiff * bezeirSmoothingScale * 0.25f) + Mathf.PI / 2) * r2.width / 2;
Vector2 P4 = r2.curve.at_ending_2d(startof(r2.curve)) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve)) - Mathf.PI / 2) * r2.width / 2;
Vector2 P2 = (P1 + P3) / 2;
addIfNotNull(smootheners, Bezeir.TryInit(P0, P1, P2));
addIfNotNull(smootheners, Bezeir.TryInit(P2, P3, P4));
return(new Pair <float, float>(widthDiff * bezeirSmoothingScale, 0f));
}
case angleType.Reflex:
float arcRadius = Mathf.Max(r1.width / 2, r2.width / 2);
float bWidthDiff = Mathf.Abs(r1.width - r2.width) / 2;
Curve arcSmoothener = Arc.TryInit(twodPosition,
twodPosition + Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve)) + Mathf.PI / 2) * arcRadius,
delta_angle - Mathf.PI);
if (r1.width == r2.width)
{
addIfNotNull(smootheners, arcSmoothener);
return(new Pair <float, float>(0f, 0f));
}
if (r1.width > r2.width)
{
Vector2 P0 = r2.curve.at_ending_2d(startof(r2.curve)) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve)) - Mathf.PI / 2) * r1.width / 2;
Vector2 P1 = r2.curve.at_ending_2d(startof(r2.curve), bWidthDiff * bezeirSmoothingScale * 0.25f) +
Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), bWidthDiff * bezeirSmoothingScale * 0.25f) - Mathf.PI / 2) * r1.width / 2;
Vector2 P4 = r2.curve.at_ending_2d(startof(r2.curve), bWidthDiff * bezeirSmoothingScale)
+ Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), bWidthDiff * bezeirSmoothingScale) - Mathf.PI / 2) * r2.width / 2;
Vector2 P3 = r2.curve.at_ending_2d(startof(r2.curve), bWidthDiff * bezeirSmoothingScale * 0.75f)
+ Algebra.angle2dir(r2.curve.angle_ending(startof(r2.curve), bWidthDiff * bezeirSmoothingScale * 0.75f) - Mathf.PI / 2) * r2.width / 2;
Vector2 P2 = (P1 + P3) / 2;
addIfNotNull(smootheners, arcSmoothener);
addIfNotNull(smootheners, Bezeir.TryInit(P0, P1, P2));
addIfNotNull(smootheners, Bezeir.TryInit(P2, P3, P4));
return(new Pair <float, float>(0f, bWidthDiff * bezeirSmoothingScale));
}
else
{
Vector2 P0 = r1.curve.at_ending_2d(startof(r1.curve), bWidthDiff * bezeirSmoothingScale)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), bWidthDiff * bezeirSmoothingScale) + Mathf.PI / 2) * r1.width / 2;
Vector2 P1 = r1.curve.at_ending_2d(startof(r1.curve), bWidthDiff * bezeirSmoothingScale * 0.75f)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), bWidthDiff * bezeirSmoothingScale * 0.75f) + Mathf.PI / 2) * r1.width / 2;
Vector2 P3 = r1.curve.at_ending_2d(startof(r1.curve), bWidthDiff * bezeirSmoothingScale * 0.25f)
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve), bWidthDiff * bezeirSmoothingScale * 0.25f) + Mathf.PI / 2) * r2.width / 2;
Vector2 P4 = r1.curve.at_ending_2d(startof(r1.curve))
+ Algebra.angle2dir(r1.curve.angle_ending(startof(r1.curve)) + Mathf.PI / 2) * r2.width / 2;
Vector2 P2 = (P1 + P3) / 2;
addIfNotNull(smootheners, Bezeir.TryInit(P0, P1, P2));
addIfNotNull(smootheners, Bezeir.TryInit(P2, P3, P4));
addIfNotNull(smootheners, arcSmoothener);
return(new Pair <float, float>(bWidthDiff * bezeirSmoothingScale, 0f));
}
default:
return(new Pair <float, float>(-1f, -1f));
}
return(new Pair <float, float>(-1f, -1f));
}
private static List <Vector3> intersect(Line b1, Bezeir b2)
{
return(intersect(b2, b1));
}
public void Update()
{
clearAngleDrawing();
laneConfig = GameObject.FindWithTag("UI/laneconfig").GetComponent <LaneConfigPanelBehavior>().laneconfigresult;
interestedApproxLines.Clear();
if (pointer >= 1)
{
interestedApproxLines.Add(Line.TryInit(controlPoint[pointer - 1] + Vector3.back * Algebra.InfLength, controlPoint[pointer - 1] + Vector3.forward * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[pointer - 1] + Vector3.left * Algebra.InfLength, controlPoint[pointer - 1] + Vector3.right * Algebra.InfLength));
if (targetRoad != null && !Algebra.isProjectionClose(controlPoint[pointer - 1], targetRoad.curve.AttouchPoint(controlPoint[pointer - 1])))
{
interestedApproxLines.Add(Line.TryInit(controlPoint[pointer - 1], targetRoad.curve.AttouchPoint(controlPoint[pointer - 1])));
}
}
if (indicatorType == IndicatorType.none)
{
nodeIndicator.transform.localScale = Vector3.zero;
}
if (controlPoint[pointer].x != Vector3.negativeInfinity.x && indicatorType != IndicatorType.none)
{
Vector3 adjustedAttach;
if (targetRoad != null)
{
adjustedAttach = targetRoad.at(targetRoad.curve.paramOf(targetRoad.curve.AttouchPoint(controlPoint[pointer])).Value);
}
else
{
adjustedAttach = controlPoint[pointer];
}
nodeIndicator.transform.position = new Vector3(adjustedAttach.x, adjustedAttach.y / 2 + 0.1f, adjustedAttach.z);
nodeIndicator.transform.localScale = new Vector3(1.5f, Mathf.Max(1f, adjustedAttach.y / 2), 1.5f);
if (indicatorType == IndicatorType.line)
{
if (pointer == 1)
{
Destroy(roadIndicator);
addAngleDrawing(controlPoint[1], controlPoint[0]);
addAngleDrawing(controlPoint[0], controlPoint[1]);
Road cp0_targetRoad;
roadManager.approxNodeToExistingRoad(controlPoint[0], out cp0_targetRoad);
if (cp0_targetRoad != null)
{
//perpendicular
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d((float)cp0_targetRoad.curve.paramOf(controlPoint[0])) + Mathf.PI / 2) * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d((float)cp0_targetRoad.curve.paramOf(controlPoint[0])) - Mathf.PI / 2) * Algebra.InfLength));
//extension
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(true), controlPoint[0]))
{
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(true), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
else
{
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(false), controlPoint[0]))
{
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(false), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
}
}
if (!Algebra.isProjectionClose(controlPoint[0], controlPoint[1]))
{
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(Line.TryInit(controlPoint[0], controlPoint[1]), laneConfig);
}
}
if (pointer == 2)
{
roadManager.addRoad(Line.TryInit(controlPoint[0], controlPoint[1]), laneConfig);
reset();
}
}
if (indicatorType == IndicatorType.bezeir)
{
if (pointer == 1)
{
Destroy(roadIndicator);
addAngleDrawing(controlPoint[1], controlPoint[0]);
addAngleDrawing(controlPoint[0], controlPoint[1]);
interestedApproxLines.Add(Line.TryInit(controlPoint[0] + Vector3.back * Algebra.InfLength, controlPoint[0] + Vector3.forward * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[0] + Vector3.left * Algebra.InfLength, controlPoint[0] + Vector3.right * Algebra.InfLength));
Road cp0_targetRoad;
roadManager.approxNodeToExistingRoad(controlPoint[0], out cp0_targetRoad);
if (cp0_targetRoad != null)
{
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d((float)cp0_targetRoad.curve.paramOf(controlPoint[0])) + Mathf.PI / 2) * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d((float)cp0_targetRoad.curve.paramOf(controlPoint[0])) - Mathf.PI / 2) * Algebra.InfLength));
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(true), controlPoint[0]))
{
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(true), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
else
{
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(false), controlPoint[0]))
{
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(false), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
}
}
if (!Algebra.isProjectionClose(controlPoint[0], controlPoint[1]))
{
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(Line.TryInit(controlPoint[0], controlPoint[1]), laneConfig);
}
}
if (pointer == 2)
{
if (!Geometry.Parallel(controlPoint[1] - controlPoint[0], controlPoint[2] - controlPoint[1]) &&
!Algebra.isRoadNodeClose(controlPoint[2], controlPoint[1]))
{
Destroy(roadIndicator);
addAngleDrawing(controlPoint[2], controlPoint[1]);
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(Bezeir.TryInit(controlPoint[0], controlPoint[1], controlPoint[2]), laneConfig);
}
}
if (pointer == 3)
{
if (!Geometry.Parallel(controlPoint[1] - controlPoint[0], controlPoint[2] - controlPoint[1]) &&
!Algebra.isRoadNodeClose(controlPoint[2], controlPoint[1]))
{
roadManager.addRoad(Bezeir.TryInit(controlPoint[0], controlPoint[1], controlPoint[2]), laneConfig);
reset();
}
else
{
pointer = 2;
}
}
}
if (indicatorType == IndicatorType.arc)
{
if (pointer == 1)
{
Road cp0_targetRoad;
roadManager.approxNodeToExistingRoad(controlPoint[0], out cp0_targetRoad);
if (cp0_targetRoad != null)
{
addAngleDrawing(controlPoint[0], controlPoint[1]);
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(true), controlPoint[0]))
{
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d(0f) + Mathf.PI / 2) * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d(0f) - Mathf.PI / 2) * Algebra.InfLength));
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(true), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
else
{
if (Algebra.isclose(cp0_targetRoad.curve.at_ending(false), controlPoint[0]))
{
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d(1f) + Mathf.PI / 2) * Algebra.InfLength));
interestedApproxLines.Add(Line.TryInit(controlPoint[0], controlPoint[0] + Algebra.angle2dir_3d(cp0_targetRoad.curve.Angle_2d(1f) - Mathf.PI / 2) * Algebra.InfLength));
Node crossingRoad;
roadManager.findNodeAt(cp0_targetRoad.curve.at_ending(false), out crossingRoad);
Debug.Assert(crossingRoad != null);
interestedApproxLines.AddRange(crossingRoad.directionalLines(Algebra.InfLength, reverse: true));
}
}
}
/*ind[0] is start, ind[1] isorigin*/
Destroy(roadIndicator);
if (!Algebra.isProjectionClose(controlPoint[0], controlPoint[1]))
{
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(Line.TryInit(controlPoint[1], controlPoint[0]), laneConfig);
if (!Algebra.isclose(controlPoint[1], controlPoint[0]))
{
roadConfigure.generate(Arc.TryInit(controlPoint[1], controlPoint[0], 1.999f * Mathf.PI), laneConfig);
}
}
}
if (pointer == 2)
{
Vector3 basedir = controlPoint[0] - controlPoint[1];
Vector3 towardsdir = controlPoint[2] - controlPoint[1];
interestedApproxLines.Add(Arc.TryInit(controlPoint[1], controlPoint[0], Mathf.PI * 1.999f));
if (!Algebra.isProjectionClose(Vector3.zero, towardsdir) && !Algebra.isProjectionClose(controlPoint[1], controlPoint[0]) && !Geometry.Parallel(basedir, towardsdir))
{
Destroy(roadIndicator);
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(Arc.TryInit(Algebra.toVector2(controlPoint[1]), Algebra.toVector2(controlPoint[0]),
Mathf.Deg2Rad * Vector2.SignedAngle(Algebra.toVector2(basedir), Algebra.toVector2(towardsdir)),
controlPoint[0].y, controlPoint[2].y), laneConfig);
roadConfigure.generate(Arc.TryInit(controlPoint[1], controlPoint[1] + Vector3.right, 1.999f * Mathf.PI), laneConfig);
}
}
if (pointer == 3)
{
Vector3 basedir = controlPoint[0] - controlPoint[1];
Vector3 towardsdir = controlPoint[2] - controlPoint[1];
if (Algebra.isclose(0, towardsdir.magnitude))
{
pointer = 2;
}
else
{
roadManager.addRoad(Arc.TryInit(Algebra.toVector2(controlPoint[1]), Algebra.toVector2(controlPoint[0]), Mathf.Deg2Rad * Vector2.SignedAngle(Algebra.toVector2(basedir), Algebra.toVector2(towardsdir)),
controlPoint[0].y, controlPoint[2].y), laneConfig);
reset();
}
}
}
if (indicatorType == IndicatorType.delete)
{
if (pointer == 0)
{
Destroy(roadIndicator);
if (targetRoad != null)
{
roadIndicator = Instantiate(roadIndicatorPrefab, transform);
RoadRenderer roadConfigure = roadIndicator.GetComponent <RoadRenderer>();
roadConfigure.generate(targetRoad.marginedOutCurve, new List <string> {
"removal_" + targetRoad.width
});
}
}
else
{
if (targetRoad != null)
{
roadManager.deleteRoad(targetRoad);
reset();
}
else
{
pointer = 0;
}
}
}
}
}
