/// <summary>
/// Creates a line starting at the projection of this.loc on the intersection between this and another Plane.
/// The direction of the line is that of the crossproduct of this.normal and anotherPlane.normal.
/// </summary>
/// <returns>A line along the intersection of this and anotherPlane, returns "null" if two planes are significantly parallel</returns>
/// <param name="anotherPlane">A plane to calculate the intersection with</param>
public Scientrace.Line getIntersectionLineWith(Scientrace.Plane anotherPlane)
{
Scientrace.UnitVector n1, n2;
n1 = this.getNorm();
n2 = anotherPlane.getNorm();
Vector tw = n1.crossProduct(n2);
if (tw.length < MainClass.SIGNIFICANTLY_SMALL)
{
//Console.WriteLine("WARNING: two planes do not intersect since they are parallel.");
return(null);
}
UnitVector intersection_direction = tw.tryToUnitVector();
Vector tl1 = n1.crossProduct(intersection_direction);
if (tl1.length == 0)
{
throw new Exception("Plane.getIntersectionLineWith/l1.length can never be zero. If this happens, notify the [email protected] about this..." + this.ToString() + anotherPlane.ToString());
}
// l1 lies in "this" plane, and is orthogonal to the intersectionline-direction
UnitVector l1 = tl1.tryToUnitVector();
// where l1, starting at this.loc, meets anotherPlane we found a location on the intersectionline.
Scientrace.Location retLoc = anotherPlane.lineThroughPlane(new Line(this.loc, l1));
if (retLoc == null)
{
Console.WriteLine("WARNING: retLoc == null; l1: " + l1.ToString() + " ; anotherPlane:" + anotherPlane.getNorm().ToString());
return(null);
}
return(new Line(retLoc, intersection_direction));
}
public Scientrace.FlatShape2d baseIntersectionShape(double x, double y)
{
//return new Scientrace.FlatShape2d(new Plane(new Location(0,0,0), NonzeroVector.x1vector().negative(), NonzeroVector.z1vector()));
Scientrace.Plane refplane = new Scientrace.Plane(new Scientrace.Location(x, y, this.c * Math.Pow(x, 2) * Math.Pow(y, 2)),
new Scientrace.UnitVector(1, 0, 2 * c * x),
new Scientrace.UnitVector(0, 1, 2 * c * y));
//Console.WriteLine("Mirror plane ("+x+", "+y+") equals: "+refplane.getNorm().trico());
return(new Scientrace.FlatShape2d(refplane));
}
public PlaneBorder(Scientrace.Location loc, Scientrace.NonzeroVector allowedDirectionSurfaceNormal)
{
this.loc = loc;
this.allowedDirNormal = allowedDirectionSurfaceNormal;
this.radius = allowedDirectionSurfaceNormal.length;
this.allowedDirNormal.fillOrtogonalVectors(ref this.planeBaseVec1, ref this.planeBaseVec2);
this.trf = this.createNewTransform();
this.tPlane = new Scientrace.Plane(this.loc, this.planeBaseVec1, this.planeBaseVec2);
}
public PlaneBorder(Scientrace.Location loc, Scientrace.NonzeroVector allowedDirectionSurfaceNormal)
{
this.loc = loc;
this.allowedDirNormal = allowedDirectionSurfaceNormal;
this.radius = allowedDirectionSurfaceNormal.length;
this.allowedDirNormal.fillOrtogonalVectors(ref this.planeBaseVec1, ref this.planeBaseVec2);
this.trf = this.createNewTransform();
this.tPlane = new Scientrace.Plane(this.loc, this.planeBaseVec1, this.planeBaseVec2);
}
/* LINEAR MODIFIER METHODS >>> */
public Scientrace.Plane linearModify(Scientrace.Plane aPlane)
{
Scientrace.NonzeroVector aSurfaceNormal = aPlane.getNorm();
Scientrace.NonzeroVector newNormal =
this.modify(aSurfaceNormal,
this.random_modification_select ? this.getRandomNodeNumber() : this.getNextNodeNumber(),
this.modify_traces_count);
return(Scientrace.Plane.newPlaneOrthogonalTo(aPlane.loc,
newNormal, aPlane.u, aPlane.v));
}
public Line reflectLine(Scientrace.Line line, Scientrace.Plane plane)
{
Scientrace.UnitVector norm = plane.getNorm();
/*ADDED and removed 20131030 make surface normal in direction of incoming beam
* if (line.direction.dotProduct(norm) > 0) {
* norm.negated();
* }*/
return(this.reflectLineAbout(line, norm));
}
public void setRefAxis(Scientrace.NonzeroVector refVec)
{
if (refVec == null)
{
return;
}
this.refVecZ = refVec.toUnitVector();
Scientrace.Plane tPlane = Plane.newPlaneOrthogonalTo(new Scientrace.Location(0, 0, 0), refVec);
this.refVecX = tPlane.u.toUnitVector();
this.refVecY = tPlane.v.toUnitVector();
}
public SpiralLightSource(Scientrace.Object3dEnvironment env, Scientrace.Location center,
Scientrace.UnitVector direction, Scientrace.Plane plane, int linecount,
double radius, double loops, double distance, LightSpectrum spectrum) : base(env)
{
/*Scientrace.UniformTraceModifier utm =
* //new UniformTraceModifier(DistributionPattern.PeriodicSingleCircle, SpatialDistribution.UniformAngles);
* new UniformTraceModifier(DistributionPattern.SquareGrid, SpatialDistribution.UniformProjections);
* utm.add_self = false;
* utm.setMaxAngleDeg(0.5);
* utm.modify_traces_count = 16;
* utm.randomSeed = 1;
* this.modifiers.Add(utm); */
//this.init_findmultip(env, center, direction, plane, linecount, radius, loops, spectrum);
this.paramInit(center, direction, plane, linecount, radius, loops, distance);
}
public void paramInit(Scientrace.Location center,
Scientrace.UnitVector direction, Scientrace.Plane plane, int linecount,
double radius, double loops, double distance)
{
this.loops = loops;
this.radius = radius;
this.center = center;
//direction had been commented out. WHY? Re-enabled.
this.direction = direction;
this.spiral_plane = plane;
this.tag = String.Format("{0:0.###}", loops) + "LoopSpiral";
this.distance = distance;
//added later:
this.linecount = linecount;
//and removed again:
//this.spectrum = spectrum;
}
public override string exportX3D(Scientrace.Object3dEnvironment env)
{
//TODO: try to transform to indexedlineset
Scientrace.Vector a, b, c, d, e, f, g, h;
a = this.width;
//front circle edges
b = this.height;
c = this.width.negative();
d = this.height.negative();
e = this.length + this.width;
//back triangle
f = this.length + this.height;
g = this.length - this.width;
h = this.length - this.height;
//circle front
//circle back (translated out of the "loc" starting point)
//also end ratation transform. The connecting lines don't need that.
//lineset for connecting lines to make the cylinder shape visible
//connecting circles
Scientrace.Plane circleplane = new Scientrace.Plane(new Scientrace.Location(0, 0, 0), width, height);
return("<!-- Start CircularPrism instance -->\n<Transform translation='" + this.loc.trico() + "'>" + circleplane.x3dRotationTransform() +
"<Shape>" +
"<Circle2D radius='" + this.width.length + "' containerField='geometry'/>" +
"</Shape></Transform>" +
"<Transform translation='" + this.length.trico() + "'>" + circleplane.x3dRotationTransform() +
"<Shape><Circle2D radius='" + this.width.length + "' containerField='geometry'/>" +
"</Shape>" +
"</Transform>" +
"</Transform>" + "<Shape>" +
"<LineSet vertexCount='2 2 2 2'>" +
"<Coordinate point='" +
a.tricon() + e.tricon() + b.tricon() + f.tricon() + c.tricon() + g.tricon() + d.tricon() + h.tricon() + "'/>" +
" </LineSet> </Shape> </Transform>\n<!-- End CircularPrism instance -->");
// <Color color='1 0 0 1 0.5 0 1 1 0 0 1 0 1 0 0 0 0 1 0.8 0 0.8 0.3 0 0.3 1 1 1 0 0 1 1 0 0 0 0 1 1 0.5 0 0.8 0 0.8 1 1 0 0.3 0 0.3 0 1 0 1 1 1'/>
}
public RandomCircleLightSource(Scientrace.Object3dEnvironment env, Scientrace.Location center, Scientrace.UnitVector direction,
Scientrace.Plane plane, double radius, int linecount, LightSpectrum spectrum) : base(env)
{
//this.direction = direction;
Random randNum = new Random();
Scientrace.UnitVector urange, vrange;
double r1, r2;
urange = plane.u.toUnitVector();
vrange = plane.v.toUnitVector();
Scientrace.Line line;
for (int iline = 0; iline < linecount; iline++)
{
//Scientrace.Line line = new Scientrace.Line(loc+(urange*randNum.NextDouble()+(vrange*randNum.NextDouble())).toLocation(), direction);
r1 = 1 - randNum.NextDouble() * 2;
r2 = 1 - randNum.NextDouble() * 2;
if (Math.Pow(r1, 2) + Math.Pow(r2, 2) < 1)
{
line = new Scientrace.Line(center + ((urange * r1 * radius) + (vrange * r2 * radius)).toLocation(), direction);
}
else
{
iline--;
continue;
}
//this.traces.Add(new Scientrace.Trace(wavelength*0.6, this, line, env));
//this.traces.Add(new Scientrace.Trace(wavelength*0.8, this, line, env));
//double wavelength = wlmin+(randNum.NextDouble()*(wlmax-wlmin));
double wavelength = spectrum.wl(iline);
double intensity = spectrum.it(iline);
Console.WriteLine("Warning: ParallelRandomCylindricalLightSource does not use modulo yet");
this.addTrace(new Scientrace.Trace(wavelength, this, line, env, intensity, intensity));
//this.traces.Add(new Scientrace.Trace(wavelength*1.2, this, line, env));
//this.traces.Add(new Scientrace.Trace(wavelength*1.4, this, line, env));
}
}
public override string exportX3D(Scientrace.Object3dEnvironment env)
{
//TODO: try to transform to indexedlineset
Scientrace.Vector a, b, c, d, e, f, g, h;
a = this.width;
//front circle edges
b = this.height;
c = this.width.negative();
d = this.height.negative();
e = this.length+this.width;
//back triangle
f = this.length+this.height;
g = this.length-this.width;
h = this.length-this.height;
//circle front
//circle back (translated out of the "loc" starting point)
//also end ratation transform. The connecting lines don't need that.
//lineset for connecting lines to make the cylinder shape visible
//connecting circles
Scientrace.Plane circleplane = new Scientrace.Plane(new Scientrace.Location(0,0,0), width, height);
return "<!-- Start CircularPrism instance -->\n<Transform translation='"+this.loc.trico()+"'>"+circleplane.x3dRotationTransform()+
"<Shape>" +
"<Circle2D radius='"+this.width.length+"' containerField='geometry'/>" +
"</Shape></Transform>"+
"<Transform translation='"+this.length.trico()+"'>"+circleplane.x3dRotationTransform()+
"<Shape><Circle2D radius='"+this.width.length+"' containerField='geometry'/>" +
"</Shape>" +
"</Transform>" +
"</Transform>"+"<Shape>" +
"<LineSet vertexCount='2 2 2 2'>" +
"<Coordinate point='"+
a.tricon()+e.tricon()+b.tricon()+f.tricon()+c.tricon()+g.tricon()+d.tricon()+h.tricon()+"'/>" +
" </LineSet> </Shape> </Transform>\n<!-- End CircularPrism instance -->";
// <Color color='1 0 0 1 0.5 0 1 1 0 0 1 0 1 0 0 0 0 1 0.8 0 0.8 0.3 0 0.3 1 1 1 0 0 1 1 0 0 0 0 1 1 0.5 0 0.8 0 0.8 1 1 0 0.3 0 0.3 0 1 0 1 1 1'/>
}
public RandomCircleLightSource(ShadowScientrace.ShadowLightSource shadowObject) : base(shadowObject)
{
int?random_seed = shadowObject.getNInt("random_seed");
Scientrace.Location location = shadowObject.getLocation("location"); //corner
Scientrace.UnitVector direction = shadowObject.getUnitVector("direction");
Scientrace.UnitVector normal = shadowObject.getUnitVector("normal");
// if normal is not defined, use the beam direction as the surface normal.
if (normal == null)
{
normal = direction;
}
int ray_count = shadowObject.getInt("ray_count"); //linecount,
this.distance = shadowObject.getDouble("distance", 0); //distance,
//This line has been moved to the LightSource parent shadowconstructor
//Scientrace.LightSpectrum spectrum = (Scientrace.LightSpectrum)shadowObject.getObject("spectrum"); //spectrum
double radius = shadowObject.getDouble("radius"); //urange,
Random randNum;
if (random_seed == null || random_seed == -1)
{
randNum = new Random();
}
else
{
randNum = new Random((int)random_seed);
}
Scientrace.Plane plane = Scientrace.Plane.newPlaneOrthogonalTo(location, normal);
Scientrace.UnitVector urange, vrange;
double r1, r2;
urange = plane.u.toUnitVector();
vrange = plane.v.toUnitVector();
Scientrace.Line line;
for (int iline = 0; iline < ray_count; iline++)
{
r1 = 1 - randNum.NextDouble() * 2;
r2 = 1 - randNum.NextDouble() * 2;
if (Math.Pow(r1, 2) + Math.Pow(r2, 2) < 1)
{
line = new Scientrace.Line(location + ((urange * r1 * radius) + (vrange * r2 * radius)).toLocation(), direction);
// THIS IS BEING DONE BY THE PARENT LIGHTSOURCE CLASS ALREADY: line.startingpoint = line.startingpoint - (direction.toLocation()*distance);
}
else
{
iline--;
continue;
}
double wavelength = spectrum.wl(iline);
double intensity = spectrum.it(iline);
Scientrace.Trace newtrace = new Scientrace.Trace(wavelength, this, line, env, intensity, intensity);
newtrace.traceid = "RS" + (random_seed == null?"r":random_seed.ToString()) + "-" + iline;
this.addTrace(newtrace);
}
}
public FlatShape2d(Scientrace.Location loc, Scientrace.NonzeroVector u, Scientrace.NonzeroVector v)
{
this.plane = new Plane(loc, u, v);
}
public FlatShape2d(Scientrace.Plane aPlane)
{
this.plane = aPlane;
}
public FlatShape2d(FlatShape2d copyFlatShape2d)
{
this.plane = new Scientrace.Plane(copyFlatShape2d.plane);
}
public FlatShape2d(Scientrace.Location loc, Scientrace.NonzeroVector u, Scientrace.NonzeroVector v)
{
this.plane = new Plane(loc, u, v);
}
public void setLightSourceConstructorParams(ShadowScientrace.ShadowLightSource shadowLS, XElement xel)
{
// STRUCTURE
/* "dictionary name of the parameter"
* Description of this parameters
* used at: list of light source classes that use this parameter
* nullable: yes if this field may be empty
*/
/* "location"
* The location of the light source
* used at: all
* nullable: no
*/
Scientrace.Location location = this.X.getXLocation(xel, "Location", null);
shadowLS.arguments.Add("location", location);
/* "width" and "height"
* The width of the light source
* used at: random square light source
* nullable: yes
*/
Scientrace.Vector width = this.X.getXLocation(xel, "Width", null);
Scientrace.Vector height = this.X.getXLocation(xel, "Height", null);
shadowLS.arguments.Add("width", width);
shadowLS.arguments.Add("height", height);
/* "ray count"
* The number of traces that will be initiated by the light source,
* some of the rays may be split or absorbed during simulation
* Previously called: BeamCount, but renamed to RayCount.
* used at: SpiralLightSource
* nullable: no
*/
int ray_count = this.X.getXInt(xel, "RayCount", this.X.getXInt(xel, "BeamCount", 256));
shadowLS.arguments.Add("ray_count", ray_count);
/* "loops"
* The number of loops the spiral makes
* used at: SpiralLightSource
* nullable: yes
*/
if (this.X.hasAttribute(xel, "Loops"))
{
double?loops = this.X.getXNullDouble(xel, "Loops");
/* MOVED TO SPIRALLIGHTSOURCE
* if (loops == -1) {
* loops = 1.0154 * Math.Pow(Math.PI*2*(1-Math.Sqrt(((double)ray_count - 1) / (double)ray_count)), -0.5);
* Console.WriteLine("Number of loops for "+ray_count+" beams set to: {"+loops.ToString("#,0.000")+"}.");
* } */
shadowLS.arguments.Add("loops", loops);
}
/* "radius"
* The radius for any circle shaped irradiating surface
* used at: SpiralLightSource
* nullable: no
*/
double?radius = this.X.getXNullDouble(xel, "Radius");
if (radius == null)
{
radius = this.X.getXNullDouble(xel, "Diameter") / 2;
}
if (radius != null && radius < 0)
{
throw new ArgumentOutOfRangeException("Radius " + radius + " out of range");
}
shadowLS.arguments.Add("radius", radius);
/* "distance"
* In some cases the user might want to describe a surface/orientation where the
* rays to trace pass, but should they actually start a given distance up front.
* The distance parameter describes the distance to start "before" the given surface.
* used at: SpiralLightSource
* nullable: default = 0
*/
shadowLS.arguments.Add("distance", this.X.getXDouble(xel, "Distance", 0));
/* "weighted_intensity"
* The intensity of the entire lightsource may be weighted/redefined by setting its intensity.
* nullable: yes
* used at: all
*/
shadowLS.arguments.Add("weighted_intensity", this.X.getXNullDouble(xel, "Intensity"));
/* "random_seed"
* In order to make repreducable results, a randomized may be seeded
* used at: RandomSquare
* nullable: default = null
*/
shadowLS.arguments.Add("random_seed", this.X.getXNullInt(xel, "RandomSeed"));
/* "direction"
* The direction in which the rays leave the (parallel) source
* used at: SpiralLightSource, RandomSquare
* nullable: no
*/
shadowLS.arguments.Add("direction", this.X.getXUnitVectorByName(xel, "Direction", null));
/* "orthogonal to plane in which the "circle of light" is created"
* used at: RandomCircleLightSource
* nullable: yes
*/
shadowLS.arguments.Add("normal", this.X.getXUnitVectorByName(xel, "Normal", null));
/* "orthogonal to plane about which spiral is created"
* sued at: SpiralLightSource
* nullable: yes
*/
Scientrace.NonzeroVector spiral_axis = this.X.getXNzVectorByName(xel, "SpiralAxis", null);
if (spiral_axis != null)
{
Scientrace.Plane spiralplane = Scientrace.Plane.newPlaneOrthogonalTo(location, spiral_axis);
shadowLS.arguments.Add("spiral_plane", spiralplane);
}
/* "spectrum"
* The wavelengths that are irradiated by the source with their relative intensities
* used at: all except CustomTraces
*
*/
XMLSpectrumParser xsp = new XMLSpectrumParser();
Scientrace.LightSpectrum spectrum = xsp.parseLightSpectrum(xel.Element("Spectrum"));
//if (spectrum==null) { throw new Exception("LightSpectrum "+xel.Element("Spectrum").ToString()+" unknown"); }
shadowLS.arguments.Add("spectrum", spectrum);
/* "efficiency_characteristics"
* If the performance of a cell depends on the angle of incidence or the wavelength of light, it can be defined
* in efficiency_characteristics. The default fractions are "1" for both.
* used at: all
*/
XMLEfficiencyCharacteristicsParser xecp = new XMLEfficiencyCharacteristicsParser();
Scientrace.OpticalEfficiencyCharacteristics oec = xecp.parseEfficiencyForLightSource(xel);
shadowLS.arguments.Add("efficiency_characteristics", oec);
/* "traces_list"
* A generic List<Scientrace.Trace> with traces that are manually added to a lightsource.
* used at: CustomTraces
*/
shadowLS.arguments.Add("traces_list", this.getCustomTracesListFromXData(xel, shadowLS.env));
}
/* end of intersectplanes function */
public Line reflectAt(Scientrace.Plane plane)
{
return(this.reflectLine(this.traceline, plane));
}
public void setUniformPolarisation() {
Scientrace.Plane dummyPlane = Scientrace.Plane.newPlaneOrthogonalTo(Scientrace.Location.ZeroLoc(),
this.traceline.direction);
this.pol_vec_1 = dummyPlane.u.toVector()*Math.Sqrt(0.5*this.intensity);
this.pol_vec_2 = dummyPlane.v.toVector()*Math.Sqrt(0.5*this.intensity);
}
public Scientrace.SpiralLightSource setSpiralLightFromXData(XElement xlight, List <Scientrace.UniformTraceModifier> utms,
Scientrace.Object3dEnvironment env)
{
/* "Spiral"
* d class.radius, d class.loops, d distance, i beamcount, i maxinteractions, d minintensity
* i modulomultiplier, str spectrum, vec location, vec direction */
double radius = this.X.getXDouble(xlight.Attribute("Radius"));
if (radius < 0)
{
throw new ArgumentOutOfRangeException("Radius " + radius + " out of range");
}
double distance = this.X.getXDouble(xlight.Attribute("Distance"), 0);
int beamcount = this.X.getXInt(xlight.Attribute("RayCount"), this.X.getXInt(xlight.Attribute("BeamCount")));
//int maxinteractions = this.X.getXInt(xlight, "MaxInteractions", 8); //default value max_interactions -> 8
double minintensity = this.X.getXDouble(xlight, "MinIntensity", 0.2); //default minimum intensity for tracing set to 1%
//Spiralspecific
double loops = this.X.getXDouble(xlight, "Loops", -1);
if (loops == -1)
{
loops = 1.0154 * Math.Pow(Math.PI * 2 * (1 - Math.Sqrt(((double)beamcount - 1) / (double)beamcount)), -0.5);
Console.WriteLine("Number of loops for " + beamcount + " beams set to: {" + loops.ToString("#,0.000") + "}.");
}
Scientrace.NonzeroVector light_direction = this.X.getXNzVector(xlight.Element("Direction"));
Scientrace.NonzeroVector spiral_axis = this.X.getXNzVector(xlight.Element("SpiralAxis"));
Scientrace.Location centerloc = this.X.getXVector(xlight.Element("Location")).toLocation();
/*Scientrace.Location locoffset = (light_direction.toVector().negative()*distance).toLocation(); //distance cm above surface
* Scientrace.Location loc = locoffset + centerloc; */
XMLSpectrumParser xsp = new XMLSpectrumParser();
Scientrace.LightSpectrum spectrum = xsp.parseLightSpectrum(xlight.Element("Spectrum"));
if (spectrum == null)
{
throw new Exception("LightSpectrum " + xlight.Element("Spectrum").ToString() + " unknown");
}
double divangle = 0;
double divdistance = 0;
Scientrace.NonzeroVector divpinvec = null; //= new Scientrace.NonzeroVector(0,1,0);
int divsteps = 1;
bool divincludebase = true;
this.getDivergence(xlight, ref divangle, ref divpinvec, ref divdistance, ref divincludebase, ref divsteps);
if (divangle > 0)
{
if (divpinvec.crossProduct(light_direction).length == 0)
{
throw new ArgumentOutOfRangeException("divpinvec", "Divergence Pinvector (" + divpinvec.trico() + ") is parallel to light directon (" +
light_direction.trico() + ")");
}
}
// INSERT OPERATION THAT MAKES BOTH SPIRAL PLANE VECTORS ORTHOGONAL TO DIRECTION
Scientrace.Plane spiralplane = Scientrace.Plane.newPlaneOrthogonalTo(centerloc, spiral_axis);
//Scientrace.NonzeroVector direction = light_direction.tryToUnitVector();
Scientrace.SpiralLightSource retlight = new Scientrace.SpiralLightSource(env, centerloc, light_direction.toUnitVector(),
spiralplane, beamcount, radius, loops, distance, spectrum);
/* BEFORE REMOVAL OF DISPERSION_STEPS Scientrace.LightSource retlight = new Scientrace.SpiralLightSource(env, loc, light_direction.toUnitVector(),
* spiralplane, beamcount, radius, loops, spectrum,
* divangle, divpinvec, divdistance, divincludebase, divsteps); */
//retlight.max_interactions = maxinteractions;
retlight.minimum_intensity_fraction = minintensity;
retlight.lightsource_modifiers.AddRange(utms);
//retlight.createStartTraces();
return(retlight);
}
public FlatShape2d(Scientrace.Plane aPlane)
{
this.plane = aPlane;
}
public Scientrace.Plane transformback(Scientrace.Plane plane)
{
return(new Scientrace.Plane(this.transformback(plane.loc), this.transformback(plane.u).tryToNonzeroVector(), this.transformback(plane.v).tryToNonzeroVector()));
}
public FlatShape2d(FlatShape2d copyFlatShape2d)
{
this.plane = new Scientrace.Plane(copyFlatShape2d.plane);
}
public void paramInit(Scientrace.Location center,
Scientrace.UnitVector direction, Scientrace.Plane plane, int linecount,
double radius, double loops, double distance)
{
this.loops = loops;
this.radius = radius;
this.center = center;
//direction had been commented out. WHY? Re-enabled.
this.direction = direction;
this.spiral_plane = plane;
this.tag = String.Format("{0:0.###}",loops)+"LoopSpiral";
this.distance = distance;
//added later:
this.linecount = linecount;
//and removed again:
//this.spectrum = spectrum;
}
/// <summary>
/// Copy Constructor Initializes a new instance of the <see cref="Scientrace.Plane"/> class.
/// </summary>
/// <param name='aPlane'>
/// A plane instance with the same (copied) values (yet different instances) as parameters.
/// </param>
public Plane(Scientrace.Plane aPlane)
{
this.loc = aPlane.loc.copy();
this.u = aPlane.u.copy();
this.v = aPlane.v.copy();
}
