private CustomVertex.PositionColoredTextured[] CreateMesh(int meshPointCount)
{
int upperBound = meshPointCount - 1;
float scaleFactor = (float)1 / upperBound;
double latrange = this.North - this.South;
double lonrange = this.East - this.West;
m_nVertices = meshPointCount * meshPointCount;
CustomVertex.PositionColoredTextured[] vertices = new CustomVertex.PositionColoredTextured[meshPointCount * meshPointCount];
for (int i = 0; i < meshPointCount; i++)
{
for (int j = 0; j < meshPointCount; j++)
{
Vector3 pos = SMath.SphericalToCartesian(
this.North - scaleFactor * latrange * i,
this.West + scaleFactor * lonrange * j,
m_fRadius);
vertices[i * meshPointCount + j].X = pos.X;
vertices[i * meshPointCount + j].Y = pos.Y;
vertices[i * meshPointCount + j].Z = pos.Z;
vertices[i * meshPointCount + j].Tu = (float)j / meshPointCount;
vertices[i * meshPointCount + j].Tv = (float)i / meshPointCount;
}
}
return(vertices);
}
private void UpdatePlayerTargetFromScreenInputPosition(Vector2 screenPosition)
{
if (Time.time - previousInputUpdateTime > InputRefreshRate)
{
float inputPlaneWidth = 40.0f;
float inputPlaneHeight = 40.0f;
Vector2[] inputPoints = SMath.GetDiscretePlanePointsFromCentrePoint(screenPosition, inputPlaneWidth, inputPlaneHeight, 10);
if (PlayerObject != null)
{
PlayerController controller = PlayerObject.GetComponent <PlayerController>();
Vector2 screenPoint = screenPosition;
for (int i = 0; i < inputPoints.Length; ++i)
{
if (ScreenPointChangesPlayerTarget(inputPoints[i], controller))
{
return;
}
}
if (controller != null)
{
controller.ClearTargetPosition();
}
}
previousInputUpdateTime = Time.time;
}
}
public BBox ShrinkAbsoluteBorder(Vector2d amount)
{
var dx = SMath.Clamp(amount.X, 0, 0.5 * Dx);
var dy = SMath.Clamp(amount.Y, 0.0, 0.5 * Dy);
return(new BBox(X0 + dx, Y0 + dy, X1 + dx, Y1 + dy));
}
protected virtual ImageTileInfo GetImageTileInfo(GeographicBoundingBox geoBox, int level)
{
int row = SMath.GetRowFromLatitude((geoBox.South + geoBox.North) / 2, geoBox.North - geoBox.South);
int col = SMath.GetColFromLongitude((geoBox.West + geoBox.East) / 2, geoBox.North - geoBox.South);
return(GetImageTileInfo(level, row, col));
}
private void movePlanets()
{
try
{
cleanForUpdate();
double angleStep = 0,
orbitalPeriodRatio = (route.ObjectOuter.OrbitalPeriod / route.ObjectInner.OrbitalPeriod);
if (route.ObjectInner.ParentObjectIndex == route.ObjectFrom.ParentObjectIndex)
{
angleStep = (180 - route.DeparturePhaseAngle) / 190;
angleOuter += angleStep;
angleInner += angleStep * orbitalPeriodRatio;
}
else
{
angleStep = Math.Abs((route.DeparturePhaseAngle + 180 + Math.Truncate(route.Rotations) * 360) / 190);
angleOuter += angleStep / orbitalPeriodRatio;
angleInner += angleStep;
}
line1EndPoint = SMath.FindNextPointByAngleAndDistance(centerPoint, innerRadius, angleInner);
line2EndPoint = SMath.FindNextPointByAngleAndDistance(centerPoint, outerRadius, angleOuter);
innerPlanetPoint = new Point(line1EndPoint.X - planetSize.Width / 2, line1EndPoint.Y - planetSize.Height / 2);
outerPlanetPoint = new Point(line2EndPoint.X - planetSize.Width / 2, line2EndPoint.Y - planetSize.Height / 2);
InnerPlanet.Margin = new Thickness(innerPlanetPoint.X, innerPlanetPoint.Y, 0, 0);
OuterPlanet.Margin = new Thickness(outerPlanetPoint.X, outerPlanetPoint.Y, 0, 0);
this.DrawCanvas.Children.Add(InnerPlanet);
this.DrawCanvas.Children.Add(OuterPlanet);
}
catch (Exception)
{
throw;
}
}
void StartGame()
{
grid = gridGameObject.GetComponent <IsometricQuadGrid>();
List <SavableComponent> list = SaveLoadManager.Load();
if (list != null)
{
for (int i = 0; i < list.Count; i++)
{
AddStructureBySaveData(list[i]);
}
}
unplaceableMarker = Instantiate(unplaceableMarker);
unplaceableMarker.SetActive(false);
placeableMarker = Instantiate(placeableMarker);
placeableMarker.SetActive(false);
GridNode gridNode = grid.GetNodeByIndex(0, 0);
Vector2 worldScale = SMath.GetWorldScale(gridNode.localSize, gridNode.parent);
placerSize = (1 / placeableMarker.GetComponent <SpriteRenderer>().sprite.bounds.size.x) * worldScale;
placeableMarker.transform.localScale = unplaceableMarker.transform.localScale = placerSize;
SetGameStageByID(0);
ArrangeLayouts();
}
protected override void Awake()
{
base.Awake();
coneAngle = SMath.ClampDegree0To360(coneAngle);
faceAngle = SMath.ClampDegree0To360(faceAngle);
var meshFilter = GetComponent <MeshFilter>();
if (meshFilter == null)
{
meshFilter = gameObject.AddComponent <MeshFilter>();
}
if (_mesh == null)
{
_mesh = new Mesh();
meshFilter.mesh = _mesh;
}
_losCamera = LOSManager.instance.losCamera;
Vector2 screenSize = SHelper.GetScreenSizeInWorld(_losCamera.unityCamera);
_raycastDistance = Mathf.Sqrt(screenSize.x * screenSize.x + screenSize.y * screenSize.y);
}
// OPT: This could prolly be more efficient.
// But a core i5 handles 50k particles without much sweat, so, no sweat.
public void Update(double dt, ParticleGroup group)
{
var fdt = (float)dt;
var particles = group.Particles;
// We iterate downwards through the list so if we remove a particle we don't
// reorder anything we haven't already updated.
for (int i = particles.Count - 1; i > -1; i--)
{
var p = particles[i];
if (scaleWithTime)
{
p.Scale += (deltaScale * fdt);
p.Scale = (float)SMath.Clamp(p.Scale, 0.1, 5);
}
if (changeColorWithTime)
{
doColorFade(ref p, group.colorFader, fdt);
//group.colorFader.setColor(ref p);
}
doMovement(ref p, dt);
particles[i] = p;
if (p.Life < 0)
{
group.Remove(i);
}
}
}
public static string GetStringParam(Entry arg, SMath.Math.Store context)
{
var dbl = GetNumberParam(arg, context).obj as SMath.Math.Numeric.TDouble;
if (!dbl.isText)
throw new SMath.Manager.MathException(Errors.ArgumentMustBeString);
return dbl.ToString().Trim(Symbols.StringChar[0]);
}
/// <summary>
/// Initializes a new instance of the <see cref= "T:WorldWind.BoundingSphere"/> class
/// from a set of lat/lon values (degrees)
/// </summary>
public BoundingSphere(double south, double north, double west, double east, double radius1, double radius2)
{
// Compute the points in world coordinates
Vector3d[] corners = new Vector3d[8];
double scale = radius2 / radius1;
corners[0] = SMath.SphericalToCartesianV3D(south, west, radius1);
corners[1] = corners[0] * scale;
corners[2] = SMath.SphericalToCartesianV3D(south, east, radius1);
corners[3] = corners[2] * scale;
corners[4] = SMath.SphericalToCartesianV3D(north, west, radius1);
corners[5] = corners[4] * scale;
corners[6] = SMath.SphericalToCartesianV3D(north, east, radius1);
corners[7] = corners[6] * scale;
//Find the center. In this case, we'll simply average the coordinates.
foreach (Vector3d v in corners)
{
Center += v;
}
Center *= 1.0 / 8.0;
//Loop through the coordinates and find the maximum distance from the center. This is the radius.
foreach (Vector3d v in corners)
{
double distSq = (v - Center).LengthSq;
if (distSq > RadiusSq)
{
RadiusSq = distSq;
}
}
}
public override bool OnUpdate(float inDeltaSeconds)
{
base.OnUpdate(inDeltaSeconds);
if (Actor.Blackboard.Target != null)
{
Vector2 target = Actor.Blackboard.Target.Spatial.WorldPosition;
float targetHeading = (float)Actor.Spatial.WorldPosition.AngleTo(target) * SMath.RAD2DEG;
float headingDelta = SMath.GetDeltaAngle(Actor.Spatial.WorldHeading, targetHeading);
float headingToChange = Math.Sign(headingDelta) * Math.Min(Math.Abs(headingDelta), inDeltaSeconds * Actor.TurnSpeed);
Turning = Math.Abs(headingToChange) > 10.0f;
if (Turning)
{
// Turn
Actor.Spatial.SetFacing(Actor.Spatial.WorldHeading + headingToChange);
}
else
{
// Attack
Actor.Weapon.FireRequested = true;
}
DebugRenderer.Instance.Line(Actor.Spatial.WorldPosition, target, turning ? Color.Blue : Color.Red);
}
return(true);
}
public static string GetStringParam(Term[] arg, ref SMath.Math.Store context)
{
var dbl = GetNumberParam(arg, ref context).obj as SMath.Math.Numeric.TDouble;
if (!dbl.isText)
throw new SMath.Manager.EvaluationException(Errors.ArgumentMustBeString);
return dbl.ToString().Trim('"');
}
/// <summary>
/// Rescale frame buffer object. If not given a power of 2 size,
/// scales it up until it is.
/// </summary>
/// <param name="width">Screen width.</param>
/// <param name="height">Screen height.</param>
public void Resize(int width, int height)
{
width = (int)SMath.RoundUpToPowerOf2(width);
height = (int)SMath.RoundUpToPowerOf2(height);
DestTexture1.ClearAndResize(width, height);
DestTexture2.ClearAndResize(width, height);
}
private int GetElementCount(int time, bool transparent)
{
List <DebugRenderTriangleIndexMarker> triangleMarkers = transparent ? transparentTriangleMarkers : opaqueTriangleMarkers;
int indexElementCount = 0;
DebugRenderTriangleIndexMarker searchItem = new DebugRenderTriangleIndexMarker(0, time);
int index = triangleMarkers.BinarySearch(searchItem);
if (index < 0)
{
index = ~index;
}
index = triangleMarkers.Count > 0 ? SMath.Clamp(index, 0, triangleMarkers.Count - 1) : index;
if (index < triangleMarkers.Count)
{
while (index > 0 && triangleMarkers[index].time > time)
{
// Not exact match but the next one -> Decrease index by one to have only the range that counts up for the requested time
index--;
}
if (index < triangleMarkers.Count && triangleMarkers[index].time <= time)
{
indexElementCount = triangleMarkers[index].index + 1;
}
}
return(indexElementCount);
}
public static Texture RenderString(string s, Color4 color, int fontSize = 24)
{
var textColor = Util.FromColor4(color);
var font = new Font(FontFamily.GenericMonospace, fontSize, FontStyle.Bold);
var dummy = new Bitmap(1, 1);
SizeF size;
using (var graphics = System.Drawing.Graphics.FromImage(dummy)) {
// We need this stupid dummy drawing context because System.Drawing.Graphics is sorta lame and assumes
// you never need to know how big a string is _before_ allocating memory for it.
// The alternative is adding a dependency on Windows.Forms, so, forget that.
size = graphics.MeasureString(s, font);
}
// BUGGO: This squishes the drawn text into a square shape no matter what shape it is!
var pow2Width = (int)SMath.RoundUpToPowerOf2(size.Width);
var pow2Height = (int)SMath.RoundUpToPowerOf2(size.Height);
var bitmap = new Bitmap(pow2Width, pow2Height, System.Drawing.Imaging.PixelFormat.Format32bppArgb);
using (var graphics = System.Drawing.Graphics.FromImage(bitmap)) {
graphics.FillRectangle(new SolidBrush(Color.Transparent), 0, 0, pow2Width, pow2Height);
graphics.DrawString(s, font, new SolidBrush(textColor), 0, 0);
graphics.Flush();
}
return(new Texture(bitmap));
}
public void EvaluateTest()
{
var expression = "2 + 3 * 10 - 4 / 2 + 4 * 3";
var expectedResult = 42;
var actualResult = SMath.Evaluate(expression);
Assert.AreEqual(expectedResult, actualResult);
}
public static LineArtVertex Lerp(LineArtVertex v0, LineArtVertex v1, double alpha, Vector2d?pos = null)
{
return(new LineArtVertex(
pos ?? Vector2d.Lerp(v0.Pos, v1.Pos, alpha),
color: SMath.Lerp(v0.Color, v1.Color, alpha),
strokeWidth: SMath.Lerp(v0.StrokeWidth, v1.StrokeWidth, alpha)
));
}
private void CreateMesh()
{
double height = 0.5;
double radius = 0.5;
Segments = SMath.Clamp(Segments, 3, 256);
VertexList = new VertexNormalColor[Segments * (CreateCaps ? 2 : 1) + 1];
IndexList = new uint[Segments * 3 + (CreateCaps ? (Segments - 2) * 3 : 0)];
// Create vertices
VertexList[0].Position = new Vector3(0, 0, height);
for (int i = 0; i < Segments; i++)
{
double angle = ((double)i / (double)Segments) * Math.PI * 2.0;
Vector2 planarCoordinate = Vector2.FromAngle(angle, radius);
VertexList[i + 1].Position = new Vector3(planarCoordinate.X, planarCoordinate.Y, -height);
if (CreateCaps)
{
// Top (for cap)
VertexList[i + Segments + 1].Position = new Vector3(planarCoordinate.X, planarCoordinate.Y, -height);
}
}
// Create normals
Vector3 capNormal = CreateCaps ? GeometryMath.GetTriangleNormal(VertexList[1].Position, VertexList[2].Position, VertexList[3].Position) : new Vector3(0, 0, 0);
for (int i = 0; i < Segments; i++)
{
Vector3 manifoldNormal = GeometryMath.GetTriangleNormal(VertexList[0].Position, VertexList[(i + 1) % Segments + 1].Position, VertexList[i + 1].Position);
VertexList[i + 1].Normal = manifoldNormal;
if (CreateCaps)
{
VertexList[Segments + i + 1].Normal = capNormal;
}
}
// Create triangles
int index = 0;
for (int i = 0; i < Segments; i++)
{
// Manifold
IndexList[index++] = 0;
IndexList[index++] = (uint)((i + 1) % Segments + 1);
IndexList[index++] = (uint)(i + 1);
if (CreateCaps && i < Segments - 2)
{
// Cap
IndexList[index++] = (uint)(Segments + 1);
IndexList[index++] = (uint)(Segments + i + 2);
IndexList[index++] = (uint)(Segments + i + 3);
}
}
}
public void Evaluate_Static_API(string input, double variable, double expected)
{
SMath.SetValues(new VariablesCollection
{
["b"] = 2,
["a"] = variable
});
Assert.AreEqual(expected, SMath.Evaluate(input));
}
void Update()
{
Vector3 direction = followObject.transform.position - transform.position;
float degree = SMath.VectorToDegree(direction);
transform.eulerAngles = new Vector3(0, 0, degree); //get component losradial light and ste face angle to new angle.
transform.position = Vector3.Lerp(transform.position, followObject.transform.position + Offset, Time.deltaTime * speed);
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var param = coolpropPlugin.GetStringParam(value.Items[0], context);
var Result = CoolPropDLLfunc(param);
coolpropPlugin.LogInfo("[INFO]", "param = {0}, Result = {1}", param, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var param = coolpropPlugin.GetStringParam(value.Items[0], context);
string resultStr;
if (!CoolPropDLLfunc(param, out resultStr))
coolpropPlugin.CoolPropError();
result = coolpropPlugin.MakeStringResult(resultStr);
return true;
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var param = coolpropPlugin.GetStringParam(args[0], ref context);
var Result = CoolPropDLLfunc(param);
coolpropPlugin.LogInfo("[INFO ]", "param = {0}, Result = {1}", param, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
public ArcSegment(LineArtVertex v0, LineArtVertex v1, Vector2d center,
bool?clockwise = null, int?requestedSegments = null)
: base(v0, v1)
{
Center = center;
Clockwise = clockwise ?? SMath.CrossZ(V0.Pos - Center, V1.Pos - Center) < 0;
// XXX: Might be better to come up with something based on RADIANS_PER_PIECE
// and the angle span of the arc.
RequestedSegments = requestedSegments ?? DEFAULT_SEGMENTS;
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
string FluidName = coolpropPlugin.GetStringParam(args[0], ref context),
Output = coolpropPlugin.GetStringParam(args[1], ref context);
var Result = CoolPropDLLfunc(FluidName, Output);
coolpropPlugin.LogInfo("[INFO ]", "FluidName = {0}, Output = {1}, Result = {2}", FluidName, Output, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.Find(Output));
return true;
}
public override void UpdatePreviousInfo () {
base.UpdatePreviousInfo ();
_previousFaceAngle = SMath.ClampDegree0To360(faceAngle);
_previousLightAngle = SMath.ClampDegree0To360(coneAngle);
_previousColor = color;
_previousObstacleLayer = obstacleLayer;
_previousInvertMode = invertMode;
_previousDegreeStep = degreeStep;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var Ref = coolpropPlugin.GetStringParam(value.Items[0], context);
var reference_state = coolpropPlugin.GetStringParam(value.Items[1], context);
var Result = CoolPropDLLfunc(Ref, reference_state);
coolpropPlugin.LogInfo("[INFO]", "Ref = {0}, reference_state = {1} Result = {2}", Ref, reference_state, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var Ref = coolpropPlugin.GetStringParam(args[0], ref context);
var reference_state = coolpropPlugin.GetStringParam(args[1], ref context);
var Result = CoolPropDLLfunc(Ref, reference_state);
coolpropPlugin.LogInfo("[INFO ]", "Ref = {0}, reference_state = {1} Result = {2}", Ref, reference_state, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
public PostprocPipeline(int width, int height)
{
this.width = (int)SMath.RoundUpToPowerOf2(width);
this.height = (int)SMath.RoundUpToPowerOf2(height);
// Sanity checking.
Log.Assert(Util.IsPowerOf2(this.width));
Log.Assert(Util.IsPowerOf2(this.height));
steps = new List <IPostprocStep>();
fboTexture = new Texture(this.width, this.height);
fbo = new FramebufferObject(fboTexture);
}
public void Resize(int width, int height)
{
var width2 = (int)SMath.RoundUpToPowerOf2(width);
var height2 = (int)SMath.RoundUpToPowerOf2(height);
fboTexture.ClearAndResize(width2, height2);
foreach (var ppstep in steps)
{
ppstep.Resize(width2, height2);
}
}
public void Arc(double cx, double cy, double radius, double sweep, Color4 color, double startAngle = 0.0,
int?numSegments = null)
{
var pos0 = SMath.Rotate(Vector2d.UnitX, startAngle) * radius;
var pos1 = SMath.Rotate(Vector2d.UnitX, startAngle + sweep) * radius;
//Log.Message("Start angle {0}, sweep {1}, radius {2}, pos0 {3}, pos1 {4}, length1 {5}, length2 {6}",
// startAngle, sweep, radius, pos0, pos1, pos0.Length, pos1.Length);
var v0 = new LineArtVertex(pos0, color: color);
var v1 = new LineArtVertex(pos1, color: color);
SubmitOpenPath(new ArcSegment(v1, v0, new Vector2d(cx, cy), true, numSegments));
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var param = coolpropPlugin.GetStringParam(args[0], ref context);
var output = new System.Text.StringBuilder(10000);
var Result = CoolPropDLLfunc(param, output, output.Capacity);
coolpropPlugin.LogInfo("[INFO ]", "param = {0} output = {1} Result = {2}", param, output.ToString(), Result);
if (Result != 1)
throw new EvaluationException(Errors.ArgumentDoesNotMatchToExpectedKind);
result = coolpropPlugin.MakeStringResult(output.ToString());
return true;
}
/// <summary>
/// Checks the a particular degree is within cone area or not.
/// </summary>
/// <returns><c>true</c>, if degree is within cone areac>false</c> otherwise.</returns>
/// <param name="degree">Degree.</param>
public bool CheckDegreeWithinCone (float degree) {
if (coneAngle == 0) return true;
float min = faceAngle - coneAngle / 2;
float max = faceAngle + coneAngle / 2;
if (degree > max) {return false;}
if (min < 0) {
min = SMath.ClampDegree0To360(min);
}
return degree > min;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var fluid = coolpropPlugin.GetStringParam(value.Items[0], context);
var param = coolpropPlugin.GetStringParam(value.Items[1], context);
var output = new System.Text.StringBuilder(10000);
var Result = CoolPropDLLfunc(fluid, param, output, output.Capacity);
coolpropPlugin.LogInfo("[INFO]", "fluid = {0} param = {1} output = {2} Result = {3}", fluid, param, output.ToString(), Result);
if (Result != 1)
coolpropPlugin.CoolPropError();
result = coolpropPlugin.MakeStringResult(output.ToString());
return true;
}
// Works in counter-clock wise, pointA is the one with smaller angle against vector (1, 0)
public List <Vector3> GetViewboxCornersBetweenPoints(Vector3 pointA, Vector3 pointB, Vector3 origin, bool give4CornersWhenAEqualB)
{
pointA.z = 0;
pointB.z = 0;
origin.z = 0;
float degreeA = SMath.VectorToDegree(pointA - origin);
float degreeB = SMath.VectorToDegree(pointB - origin);
if (degreeA == 360)
{
degreeA = 0;
}
if (degreeA > degreeB + 0.0005f || (degreeA >= degreeB && degreeA <= degreeB + 0.0005f && give4CornersWhenAEqualB)) // 0.0005f is the tolerance
{
degreeA -= 360;
}
Dictionary <float, Vector3> tempResults = new Dictionary <float, Vector3>();
foreach (var line in viewbox)
{
Vector3 corner = line.end;
float degreeToA = 0;
float degreeCorner = SMath.VectorToDegree(corner - origin);
if (((degreeToA = (degreeCorner - degreeA)) > 0 && degreeCorner < degreeB) ||
((degreeToA = (degreeCorner - 360 - degreeA)) > 0 && degreeCorner - 360 < degreeB) ||
((degreeToA = (degreeCorner + 360 - degreeA)) > 0 && degreeCorner + 360 < degreeB))
{
tempResults.Add(degreeToA, corner);
}
}
List <float> degreesToA = new List <float>();
foreach (float degreeToA in tempResults.Keys)
{
degreesToA.Add(degreeToA);
}
degreesToA.Sort();
List <Vector3> results = new List <Vector3>();
foreach (float degreeToA in degreesToA)
{
results.Add(tempResults[degreeToA]);
}
return(results);
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
string FluidName = coolpropPlugin.GetStringParam(value.Items[0], context),
Output = coolpropPlugin.GetStringParam(value.Items[1], context);
var Result = CoolPropDLLfunc(FluidName, Output);
coolpropPlugin.LogInfo("[INFO]", "FluidName = {0}, Output = {1}, Result = {2}", FluidName, Output, Result);
var ResUnit = Unit.Find(Output);
// Props1SI may take parameters in either order; so, Output may actually be in FluidName
if (ResUnit == Unit.unitless)
ResUnit = Unit.Find(FluidName);
result = coolpropPlugin.MakeDoubleResult(Result, ResUnit);
return true;
}
/// <summary>
/// Draws a tropic line at specified latitude with specified label
/// </summary>
/// <param name="latitude">Latitude in degrees</param>
void RenderTropicLine(DrawArgs drawArgs, float latitude, string label)
{
int vertexIndex = 0;
for (float longitude = MinVisibleLongitude; longitude <= MaxVisibleLongitude; longitude = longitude + LongitudeInterval)
{
if (LongitudeInterval == 10)
{
for (int i = 0; i < 10; i++)
{
Vector3d p = SMath.SphericalToCartesianV3D(latitude, longitude + i, radius);
lineVertices[vertexIndex].X = (float)p.X;
lineVertices[vertexIndex].Y = (float)p.Y;
lineVertices[vertexIndex].Z = (float)p.Z;
lineVertices[vertexIndex].Color = World.Settings.TropicLinesColor.ToArgb();
vertexIndex++;
}
continue;
}
Vector3d pointXyz = SMath.SphericalToCartesianV3D(latitude, longitude, radius);
lineVertices[vertexIndex].X = (float)pointXyz.X;
lineVertices[vertexIndex].Y = (float)pointXyz.Y;
lineVertices[vertexIndex].Z = (float)pointXyz.Z;
lineVertices[vertexIndex].Color = World.Settings.TropicLinesColor.ToArgb();
vertexIndex++;
}
//TODO JHJ 10度线做了差值 9点
if (LongitudeInterval == 10)
{
drawArgs.device.DrawUserPrimitives(PrimitiveType.LineStrip, LongitudePointCount * 10 - 1, lineVertices);
}
else
{
drawArgs.device.DrawUserPrimitives(PrimitiveType.LineStrip, LongitudePointCount - 1, lineVertices);
}
Vector3d t1 = SMath.SphericalToCartesianV3D(latitude,
drawArgs.WorldCamera.Longitude.Degrees - drawArgs.WorldCamera.TrueViewRange.Degrees * 0.3 * 0.5, radius);
if (drawArgs.WorldCamera.ViewFrustum.ContainsPoint(t1))
{
t1 = drawArgs.WorldCamera.Project(t1);
DrawArgs.Instance.DrawText(null, label, new System.Drawing.Rectangle((int)t1.X, (int)t1.Y, 640, 480), DrawTextFormat.Left, World.Settings.tropicLinesColor);
}
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
// Possible inputs:
// "Omega"="HumRat"="W" = Humidity ratio
// "Tdp"="T_dp"="DewPoint"="D" = Dewpoint temperature
// "Twb"="T_wb"="WetBulb"="B" = Wet bulb temperature
// "Enthalpy"="H" = Enthalpy
// "Entropy"="S" = Entropy
// "RH"="RelHum"="R" = Relative humidity
// "Tdb"="T_db"="T" = Dry-bulb temperature
// "P" = Pressure
// "V"="Vda" = Volume of dry air
// "mu"="Visc"="M" = Viscosity
// "k"="Conductivity"="K" = Conductivity
// Output:
// "Vda"="V"[m^3/kg_da]
// "Vha"[m^3/kg_ha]
// "Y"[mol_w/mol]
// "Hda"="H"
// "Hha"[kJ/kg_ha]
// "S"="Entropy"[kJ/kg_da]
// "C"="cp"[kJ/kg_da]
// "Cha"="cp_ha"[kJ/kg_da]
// "Tdp"="D"[K]
// "Twb"="T_wb"="WetBulb"="B"[K]
// "Omega"="HumRat"="W"
// "RH"="RelHum"="R"
// "mu"="Visc"="M"
// "k"="Conductivity"="K"
var Output = coolpropPlugin.GetStringParam(value.Items[0], context);
var Name1 = coolpropPlugin.GetStringParam(value.Items[1], context);
var Prop1 = coolpropPlugin.GetNumberParam(value.Items[2], context);
Unit.matchHA(Name1, Prop1, context);
var Name2 = coolpropPlugin.GetStringParam(value.Items[3], context);
var Prop2 = coolpropPlugin.GetNumberParam(value.Items[4], context);
Unit.matchHA(Name2, Prop2, context);
var Name3 = coolpropPlugin.GetStringParam(value.Items[5], context);
var Prop3 = coolpropPlugin.GetNumberParam(value.Items[6], context);
Unit.matchHA(Name3, Prop3, context);
var Result = CoolPropDLLfunc(Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), Name3, Prop3.obj.ToDouble());
coolpropPlugin.LogInfo("[INFO]",
"Output = {0}, Name1 = {1}, Prop1 = {2}, Name2 = {3}, Prop2 = {4}, Name3 = {5}, Prop3 = {6}, Result = {7}",
Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), Name3, Prop3.obj.ToDouble(), Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.FindHA(Output));
return true;
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var Ref = coolpropPlugin.GetStringParam(args[0], ref context);
var T = coolpropPlugin.GetNumberParam(args[1], ref context);
var rho = coolpropPlugin.GetNumberParam(args[2], ref context);
var h0 = coolpropPlugin.GetNumberParam(args[3], ref context);
var s0 = coolpropPlugin.GetNumberParam(args[4], ref context);
var Result = CoolPropDLLfunc(Ref, T.obj.ToDouble(), rho.obj.ToDouble(), h0.obj.ToDouble(), s0.obj.ToDouble());
coolpropPlugin.LogInfo("[INFO ]",
"Ref = {0} T = {1} rho = {2} h0 = {3} s0 = {4} Result = {5}",
Ref, T.obj.ToDouble(), rho.obj.ToDouble(), h0.obj.ToDouble(), s0.obj.ToDouble(), Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var Ref = coolpropPlugin.GetStringParam(value.Items[0], context);
var T = coolpropPlugin.GetNumberParam(value.Items[1], context);
var rho = coolpropPlugin.GetNumberParam(value.Items[2], context);
var h0 = coolpropPlugin.GetNumberParam(value.Items[3], context);
var s0 = coolpropPlugin.GetNumberParam(value.Items[4], context);
var Result = CoolPropDLLfunc(Ref, T.obj.ToDouble(), rho.obj.ToDouble(), h0.obj.ToDouble(), s0.obj.ToDouble());
coolpropPlugin.LogInfo("[INFO]",
"Ref = {0} T = {1} rho = {2} h0 = {3} s0 = {4} Result = {5}",
Ref, T.obj.ToDouble(), rho.obj.ToDouble(), h0.obj.ToDouble(), s0.obj.ToDouble(), Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.unitless);
return true;
}
protected void UpdateUVs (Vector3[] vertices) {
Vector2[] uvs = new Vector2[vertices.Length];
for (int i=0; i<uvs.Length; i++) {
float u = vertices[i].x / GetMaxLightLength() / 2 + 0.5f;
float v = vertices[i].y / GetMaxLightLength() / 2 + 0.5f;
u = SMath.Clamp(0, u, 1);
v = SMath.Clamp(0, v, 1);
uvs[i] = new Vector2(u, v);
}
_mesh.uv = uvs;
}
/// <summary>
/// Checks the a particular degree is within cone area or not.
/// </summary>
/// <returns><c>true</c>, if degree is within cone areac>false</c> otherwise.</returns>
/// <param name="degree">Degree.</param>
public bool CheckDegreeWithinCone(float degree)
{
if (coneAngle == 0)
{
return(true);
}
float min = faceAngle - coneAngle / 2;
float max = faceAngle + coneAngle / 2;
var cc = 0;
if (min < 0)
{
min = SMath.ClampDegree0To360(min);
cc += 1;
}
if (max < 0)
{
max = SMath.ClampDegree0To360(max);
cc += 2;
}
switch (cc)
{
case 0:
return(degree > min && degree < max);
break;
case 1:
return(degree > min || degree < max);
break;
case 2:
return(degree > min && degree < max);
break;
case 3:
return(degree > min && degree < max);
break;
}
return(degree > min);
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var fluid_name = coolpropPlugin.GetStringParam(args[0], ref context);
var output = coolpropPlugin.GetStringParam(args[1], ref context);
var Q = (int)coolpropPlugin.GetNumberParam(args[2], ref context).obj.ToDouble();
var input = coolpropPlugin.GetStringParam(args[3], ref context);
var value = coolpropPlugin.GetNumberParam(args[4], ref context);
Unit.match(input, value, context);
var Result = CoolPropDLLfunc(fluid_name, output, Q, input, value.obj.ToDouble());
coolpropPlugin.LogInfo("[INFO ]",
"fluid_name = {0}, output = {1}, Q = {2}, input = {3}, value = {4}, Result = {5}",
fluid_name, output, Q, input, value.obj.ToDouble(), Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.Find(output));
return true;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var fluid_name = coolpropPlugin.GetStringParam(value.Items[0], context);
var output = coolpropPlugin.GetStringParam(value.Items[1], context);
var Q = (int)coolpropPlugin.GetNumberParam(value.Items[2], context).obj.ToDouble();
var inputVar = coolpropPlugin.GetStringParam(value.Items[3], context);
var inputVal = coolpropPlugin.GetNumberParam(value.Items[4], context);
Unit.match(inputVar, inputVal, context);
var Result = CoolPropDLLfunc(fluid_name, output, Q, inputVar, inputVal.obj.ToDouble());
coolpropPlugin.LogInfo("[INFO]",
"fluid_name = {0}, output = {1}, Q = {2}, input = {3}, value = {4}, Result = {5}",
fluid_name, output, Q, inputVar, inputVal.obj.ToDouble(), Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.Find(output));
return true;
}
public void UpdateViewingBox()
{
Vector2 screenSize = SHelper.GetScreenSizeInWorld(unityCamera);
halfViewboxSize = screenSize / 2 * LOSManager.instance.viewboxExtension;
Vector2 upperRight = new Vector2(halfViewboxSize.x, halfViewboxSize.y) + SMath.Vec3ToVec2(_trans.position);
Vector2 upperLeft = new Vector2(-halfViewboxSize.x, halfViewboxSize.y) + SMath.Vec3ToVec2(_trans.position);
Vector2 lowerLeft = new Vector2(-halfViewboxSize.x, -halfViewboxSize.y) + SMath.Vec3ToVec2(_trans.position);
Vector2 lowerRight = new Vector2(halfViewboxSize.x, -halfViewboxSize.y) + SMath.Vec3ToVec2(_trans.position);
viewbox[0].SetStartEnd(lowerRight, upperRight); // right
viewbox[1].SetStartEnd(upperRight, upperLeft); // up
viewbox[2].SetStartEnd(upperLeft, lowerLeft); // left
viewbox[3].SetStartEnd(lowerLeft, lowerRight); // down
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var Output = coolpropPlugin.GetStringParam(args[0], ref context);
var Name1 = coolpropPlugin.GetStringParam(args[1], ref context);
var Prop1 = coolpropPlugin.GetNumberParam(args[2], ref context);
Unit.match(Name1, Prop1, context);
var Name2 = coolpropPlugin.GetStringParam(args[3], ref context);
var Prop2 = coolpropPlugin.GetNumberParam(args[4], ref context);
Unit.match(Name2, Prop2, context);
var FluidName = coolpropPlugin.GetStringParam(args[5], ref context);
var Result = CoolPropDLLfunc(Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName);
coolpropPlugin.LogInfo("[INFO ]",
"Output = {0}, Name1 = {1}, Prop1 = {2}, Name2 = {3}, Prop2 = {4}, FluidName = {5}, Result = {6}",
Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.Find(Output));
return true;
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var Output = coolpropPlugin.GetStringParam(value.Items[0], context);
var Name1 = coolpropPlugin.GetStringParam(value.Items[1], context);
var Prop1 = coolpropPlugin.GetNumberParam(value.Items[2], context);
Unit.match(Name1, Prop1, context);
var Name2 = coolpropPlugin.GetStringParam(value.Items[3], context);
var Prop2 = coolpropPlugin.GetNumberParam(value.Items[4], context);
Unit.match(Name2, Prop2, context);
var FluidName = coolpropPlugin.GetStringParam(value.Items[5], context);
var Result = CoolPropDLLfunc(Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName);
coolpropPlugin.LogInfo("[INFO]",
"Output = {0}, Name1 = {1}, Prop1 = {2}, Name2 = {3}, Prop2 = {4}, FluidName = {5}, Result = {6}",
Output, Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, Result);
result = coolpropPlugin.MakeDoubleResult(Result, Unit.Find(Output));
return true;
}
private double FaceVariance(short v1, short v2, short v3)
{
double MaxVar = 0;
if ((v1 - v2 <= 1 && v1 - v2 >= -1) || (v3 - v2 <= 1 && v3 - v2 >= -1) || v3 == v1)
{
MaxVar = 0; // minimal face, no variance
}
else
{
try
{
// find vertice in middle of hypothenuse
short mid_hyp_indice = MidHypVerticeIndice(v1, v3);
// find real elevation in middle of hypothenuse
CustomVertex.PositionColoredTextured vh = this._elevatedVertices[mid_hyp_indice];
Vector3d v = SMath.CartesianToSpherical((double)vh.X, (double)vh.Y, (double)vh.Z);
double real = v.X - this._layerRadius;
// find extrapolated elevation in middle hyp.
double xe = (this._elevatedVertices[v1].X + this._elevatedVertices[v3].X) / 2;
double ye = (this._elevatedVertices[v1].Y + this._elevatedVertices[v3].Y) / 2;
double ze = (this._elevatedVertices[v1].Z + this._elevatedVertices[v3].Z) / 2;
v = SMath.CartesianToSpherical(xe, ye, ze);
double extrapolated = v.X - this._layerRadius;
// variance Note: could be done w/out MathEngine by computing raw cartesian distance
MaxVar = real - extrapolated;
// recurse for potential childs until unit face
if (v2 != v1 || mid_hyp_indice != v2 || v1 != v3)
{
MaxVar = Math.Max(MaxVar, FaceVariance(v2, mid_hyp_indice, v1));
}
if (v3 != v1 || mid_hyp_indice != v2 || v2 != v3)
{
MaxVar = Math.Max(MaxVar, FaceVariance(v3, mid_hyp_indice, v2));
}
}
catch
{
}
}
return(MaxVar);
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
var Name1 = coolpropPlugin.GetStringParam(value.Items[0], context);
var Prop1 = coolpropPlugin.GetNumberParam(value.Items[1], context);
Unit.match(Name1, Prop1, context);
var Name2 = coolpropPlugin.GetStringParam(value.Items[2], context);
var Prop2 = coolpropPlugin.GetNumberParam(value.Items[3], context);
Unit.match(Name2, Prop2, context);
var FluidName = coolpropPlugin.GetStringParam(value.Items[4], context);
var phase = new System.Text.StringBuilder(10000);
var Result = CoolPropDLLfunc(Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, phase, phase.Capacity);
coolpropPlugin.LogInfo("[INFO]",
"Name1 = {0}, Prop1 = {1}, Name2 = {2}, Prop2 = {3}, FluidName = {4}, phase = {5}, Result = {6}",
Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, phase.ToString(), Result);
if (Result != 1)
coolpropPlugin.CoolPropError();
result = coolpropPlugin.MakeStringResult(phase.ToString());
return true;
}
bool IFunction.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
var Name1 = coolpropPlugin.GetStringParam(args[0], ref context);
var Prop1 = coolpropPlugin.GetNumberParam(args[1], ref context);
Unit.match(Name1, Prop1, context);
var Name2 = coolpropPlugin.GetStringParam(args[2], ref context);
var Prop2 = coolpropPlugin.GetNumberParam(args[3], ref context);
Unit.match(Name2, Prop2, context);
var FluidName = coolpropPlugin.GetStringParam(args[4], ref context);
var phase = new System.Text.StringBuilder(10000);
var Result = CoolPropDLLfunc(Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, phase, phase.Capacity);
coolpropPlugin.LogInfo("[INFO ]",
"Name1 = {0}, Prop1 = {1}, Name2 = {2}, Prop2 = {3}, FluidName = {4}, phase = {5}, Result = {6}",
Name1, Prop1.obj.ToDouble(), Name2, Prop2.obj.ToDouble(), FluidName, phase.ToString(), Result);
if (Result != 1)
throw new EvaluationException(Errors.ArgumentDoesNotMatchToExpectedKind);
result = coolpropPlugin.MakeStringResult(phase.ToString());
return true;
}
public static Term[] MakeDoubleResult(double result, SMath.Math.Symbolic.MItem unit)
{
var d = new SMath.Math.Numeric.TDouble(result);
d.Units = unit;
return d.ToTerms();
}
static void matchInternal(MItem unit, SMath.Math.Numeric.TNumber val, ref SMath.Math.Store context)
{
// First, reduce our units to basic representation to allow MathEqual()
var t = SMath.Math.Decision.Preprocessing(unit.ToTerms(), ref context);
var u = Expression.SimplifyEx(Converter.ToMItem(t), context);
if (!val.obj.Units.MathEqual(u) && !val.obj.Units.MathEqual(unitless))
throw new SMath.Manager.EvaluationException(SMath.Manager.Errors.UnitsDontMatch);
}
public bool TryEvaluateExpression(Entry value, SMath.Math.Store context, out Entry result)
{
result = null;
if (value.Type != TermType.Function)
return false;
foreach (var func in functions)
{
if (!func.Info.Equals(value.ToTerm()))
continue;
try
{
return func.TryEvaluateExpression(value, context, out result);
}
catch (System.Exception ex)
{
LogInfo("[ERROR]", "{0}({1}) {2}", value.Text, value.ArgsCount, ex.Message);
throw;
}
}
return false;
}
public static SMath.Math.Numeric.TNumber GetNumberParam(Entry arg, SMath.Math.Store context)
{
// var arg1 = SMath.Math.Decision.Preprocessing(arg, ref context);
// return SMath.Math.Numeric.Expression.Calculate(arg1, context).obj as SMath.Math.Numeric.TDouble;
return SMath.Math.Decision.NumericCalculation(arg, context);
}
bool SMath.Math.IPluginLowLevelEvaluation.ExpressionEvaluation(Term root, Term[][] args, ref SMath.Math.Store context, ref Term[] result)
{
if (root.Type != TermType.Function)
return false;
foreach (var func in functions) {
if (!func.Info.Equals(root))
continue;
try {
return func.ExpressionEvaluation(root, args,ref context, ref result);
}
catch (System.Exception ex) {
LogInfo("[ERROR]", "{0}({1}) {2}", root.Text, root.ChildCount, ex.Message);
throw;
}
}
return false;
}
public static void matchHA(string param, SMath.Math.Numeric.TNumber val, SMath.Math.Store context)
{
matchInternal(FindHA(param), val, ref context);
}
public static Entry MakeDoubleResult(double result, SMath.Math.Symbolic.MItem unit)
{
if (double.IsInfinity(result))
{
CoolPropError();
}
var d = new SMath.Math.Numeric.TDouble(result);
d.Units = unit;
return Entry.Create(d.ToTerms());
}
