private void chk3D_Checked(object sender, RoutedEventArgs e)
{
const double ZKICK = RADIUS / 100;
try
{
if (!_initialized)
{
return;
}
Random rand = StaticRandom.GetRandomForThread();
// When it's going from 2D to 3D, all the Zs will be zero. So give them a slight push into 3D
foreach (Dot dot in _dots)
{
if (dot.Position.Z.IsNearZero())
{
dot.Position = new Point3D(dot.Position.X, dot.Position.Y, dot.Position.Z + rand.NextDouble(-ZKICK, ZKICK));
dot.Translate_3DDot.OffsetZ = dot.Position.Z;
}
}
}
catch (Exception ex)
{
MessageBox.Show(ex.ToString(), TITLE, MessageBoxButton.OK, MessageBoxImage.Error);
}
}
private void CreateAsteroids()
{
double maxPos = _boundryMax.X * .9d; // this form will start pushing back at .85, so some of them will be inbound :)
double asteroidSize;
Random rand = StaticRandom.GetRandomForThread();
// Small
for (int cntr = 0; cntr < 65; cntr++)
{
asteroidSize = .5 + (rand.NextDouble() * 2);
CreateAsteroidsSprtBuild(asteroidSize, CreateAsteroidsSprtPosition(maxPos));
}
// Medium
for (int cntr = 0; cntr < 20; cntr++)
{
asteroidSize = 2 + (rand.NextDouble() * 3);
CreateAsteroidsSprtBuild(asteroidSize, CreateAsteroidsSprtPosition(maxPos));
}
// Large
for (int cntr = 0; cntr < 3; cntr++)
{
asteroidSize = 4.5 + (rand.NextDouble() * 5);
CreateAsteroidsSprtBuild(asteroidSize, CreateAsteroidsSprtPosition(maxPos));
}
}
//TODO: Take in the points/sizes/colorindex instead of deriving them here
public StarfieldVisual2(double size, double margin, int numStars, double starSizeMult, Tuple <Vector[], int> vectorField = null, Color?color = null)
{
this.Size = size;
Brush[] brushes_Small;
Brush[] brushes_Large;
if (color == null)
{
brushes_Small = _starBrushes_Small.Value;
brushes_Large = _starBrushes_Large.Value;
}
else
{
brushes_Small = new[] { new SolidColorBrush(color.Value) };
brushes_Large = new[] { new SolidColorBrush(color.Value) };
}
Random rand = StaticRandom.GetRandomForThread();
Point[] points = GetPoints(rand, size, margin, numStars, vectorField);
_visual = new DrawingVisual();
using (DrawingContext dc = _visual.RenderOpen())
{
for (int cntr = 0; cntr < numStars; cntr++)
{
Brush brush = null;
double radius;
double sizeRand = rand.NextDouble();
if (sizeRand > .995)
{
// Really Big
brush = brushes_Large[rand.Next(brushes_Large.Length)];
radius = rand.NextDouble(2, 6);
}
else if (sizeRand > .9)
{
// Big
radius = rand.NextDouble(.9, 1.2);
}
else
{
// Small
radius = rand.NextDouble(.7, .9);
}
radius *= starSizeMult;
if (brush == null)
{
brush = brushes_Small[rand.Next(brushes_Small.Length)];
}
dc.DrawEllipse(brush, null, points[cntr], radius, radius);
}
}
//_visual.BitmapEffect
//_visual.CacheMode
}
private static FlagColorCategory GetRandomFlagColors_Category(FlagColorCategory[] chooseFrom, Tuple <ColorHSV, FlagColorCategory>[] existing)
{
if (chooseFrom.Length == 1)
{
return(chooseFrom[0]);
}
Random rand = StaticRandom.GetRandomForThread();
int infiniteLoopDetector = 0;
// There are more than one to choose from. Pick one that hasn't been picked before
// For example { Black, White }, and White is used. Need to return Black
int index = -1;
while (true)
{
index = rand.Next(chooseFrom.Length);
if (!existing.Any(o => o.Item2 == chooseFrom[index]))
{
return(chooseFrom[index]);
}
infiniteLoopDetector++;
if (infiniteLoopDetector > 1000)
{
throw new ApplicationException("Infinite loop detected");
}
}
}
/// <summary>
/// This returns a random ball, with some optional fixed values
/// </summary>
public static WeaponSpikeBallDNA GetRandomDNA(WeaponSpikeBallMaterial?material = null, double?radius = null)
{
WeaponSpikeBallDNA retVal = new WeaponSpikeBallDNA();
Random rand = StaticRandom.GetRandomForThread();
// Radius
if (radius != null)
{
retVal.Radius = radius.Value;
}
else
{
retVal.Radius = rand.NextDouble(.2, .5);
}
// Material
if (material == null)
{
retVal.Material = UtilityCore.GetRandomEnum <WeaponSpikeBallMaterial>();
}
else
{
retVal.Material = material.Value;
}
return(retVal);
}
public ColorHSV GetRandomColor(FlagColorCategory category, double?hue = null)
{
Random rand = StaticRandom.GetRandomForThread();
double hueActual = hue ?? rand.NextDouble(360);
ColorHSV retVal;
if (category == FlagColorCategory.Other)
{
// This category is under other category rectangles, so do a brute force repeat until match
FlagColorCategory cat;
do
{
retVal = new ColorHSV(hueActual, rand.NextDouble(100), rand.NextDouble(100));
cat = Categorize(retVal);
} while (cat != category);
}
else
{
// The color range is stored as a rectangle (X is saturation, Y is value)
Rect catRect = this.Categories.First(o => o.Item2 == category).Item1;
retVal = new ColorHSV(hueActual, rand.NextDouble(catRect.Left, catRect.Right), rand.NextDouble(catRect.Top, catRect.Bottom));
}
return(retVal);
}
private void DrawPower()
{
double power;
if (!double.TryParse(txtPow.Text, out power))
{
txtPow.Effect = _errorEffect;
return;
}
txtPow.Effect = null;
Random rand = StaticRandom.GetRandomForThread();
IEnumerable <double> samples = Enumerable.Range(0, 200000).
Select(o => rand.NextPow(power));
IEnumerable <Point> idealLine = Enumerable.Range(0, 100).
Select(o =>
{
double x = o / 100d;
return(new Point(x, Math.Pow(x, power)));
});
DrawGraph(samples, idealLine);
}
private static void LoadInventory(ListBox listbox, Inventory inventory, List <AnimateRotation> animations, double maxWeaponRadius)
{
// Clear existing
listbox.Items.Clear();
Random rand = StaticRandom.GetRandomForThread();
if (inventory.Weapons.Count > 0)
{
#region Weapons
foreach (Weapon weapon in inventory.Weapons)
{
//NOTE: No need for a border, the ListBoxItem has been restyled to be a border
InventoryItem item = new InventoryItem();
item.SetItem(weapon, weapon.Radius / maxWeaponRadius);
listbox.Items.Add(item);
item.RotateTransform.Quaternion = new Quaternion(new Vector3D(1, 0, 0), StaticRandom.NextDouble(360d));
animations.Add(AnimateRotation.Create_Constant(item.RotateTransform, rand.NextDouble(4d, 7d)));
}
#endregion
}
}
private void MoveAllInitial(DateTime eventTime)
{
Random rand = StaticRandom.GetRandomForThread();
foreach (Snapshot <T> item in _initialBuffer)
{
var rightPercent = GetPercent(item.Time, eventTime, _dontStoreTime, _tentativeTime, _dontStore_Seconds, _graySpan_Seconds);
if (!rightPercent.Item1)
{
// This is too close to the event, and shouldn't be stored
continue;
}
Snapshot <T> finalItem = ExaminePercents(item, rightPercent.Item2);
if (finalItem.Percent == null)
{
TransferToLongterm(finalItem, rand);
}
else
{
TransferToTentative(finalItem);
}
}
_initialBuffer.Clear();
}
public T[] GetSamples(int count)
{
lock (_lock)
{
//TODO: May want to consider when count > one of these lists. But probably not
// This is used when the front of the list should be favored
Random rand = StaticRandom.GetRandomForThread();
var randFunc = new Func <int, int, int>((min, max) => min + UtilityCore.GetIndexIntoList(rand.NextPow(2), max - min));
if (_longTermIndex < 0 && _tentativeBuffer.Count == 0)
{
// Empty
return(new T[0]);
}
else if (_longTermIndex >= _abandonTentativeSize)
{
#region all from longterm
return(UtilityCore.RandomRange(0, _longTermIndex + 1, count). // the randrange function takes care of reducing count if greater than range
Select(o => _longTermBuffer[o].Item).
ToArray());
#endregion
}
else if (_longTermIndex < 0)
{
#region all from tentative
// Don't pull uniform randomly from tentative. Favor items at the front of the list
return(UtilityCore.RandomRange(0, _tentativeBuffer.Count, count, randFunc).
Select(o => _tentativeBuffer[o].Item).
ToArray());
#endregion
}
else
{
#region mixture
// Pull from long term then tentative
return(UtilityCore.RandomRange(0, _longTermIndex + 1 + _tentativeBuffer.Count, count, randFunc).
Select(o =>
{
if (o <= _longTermIndex)
{
return _longTermBuffer[o].Item;
}
else
{
return _tentativeBuffer[o - (_longTermIndex + 1)].Item;
}
}).
ToArray());
#endregion
}
}
}
//TODO: random chance of randomly placing metal fittings on the handle
private static void GetModel_Rod_Wood(Model3DGroup geometries, WeaponHandleDNA dna, WeaponHandleDNA finalDNA, WeaponMaterialCache materials)
{
const double PERCENT = 1;
Random rand = StaticRandom.GetRandomForThread();
var from = dna.KeyValues;
var to = finalDNA.KeyValues;
GeometryModel3D geometry = new GeometryModel3D();
#region material
switch (dna.HandleMaterial)
{
case WeaponHandleMaterial.Soft_Wood:
geometry.Material = materials.Handle_SoftWood;
break;
case WeaponHandleMaterial.Hard_Wood:
geometry.Material = materials.Handle_HardWood;
break;
default:
throw new ApplicationException("Unexpected WeaponHandleMaterial: " + dna.HandleMaterial.ToString());
}
geometry.BackMaterial = geometry.Material;
#endregion
#region tube
double maxX1 = WeaponDNA.GetKeyValue("maxX1", from, to, rand.NextDouble(.45, .7));
double maxX2 = WeaponDNA.GetKeyValue("maxX2", from, to, rand.NextDouble(.45, .7));
double maxY1 = WeaponDNA.GetKeyValue("maxY1", from, to, rand.NextDouble(.85, 1.05));
double maxY2 = WeaponDNA.GetKeyValue("maxY2", from, to, rand.NextDouble(.85, 1.05));
List <TubeRingBase> rings = new List <TubeRingBase>();
rings.Add(new TubeRingRegularPolygon(0, false, maxX1 * .45, maxY1 * .75, true));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring1", from, to, rand.NextPercent(.5, PERCENT)), false, maxX1 * .5, maxY1 * 1, false));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring2", from, to, rand.NextPercent(2, PERCENT)), false, maxX1 * .4, maxY1 * .8, false));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring3", from, to, rand.NextPercent(5, PERCENT)), false, Math1D.Avg(maxX1, maxX2) * .35, Math1D.Avg(maxY1, maxY2) * .75, false));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring4", from, to, rand.NextPercent(5, PERCENT)), false, maxX2 * .4, maxY2 * .8, false));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring5", from, to, rand.NextPercent(2, PERCENT)), false, maxX2 * .5, maxY2 * 1, false));
rings.Add(new TubeRingRegularPolygon(WeaponDNA.GetKeyValue("ring6", from, to, rand.NextPercent(.5, PERCENT)), false, maxX2 * .45, maxY2 * .75, true));
rings = TubeRingBase.FitNewSize(rings, dna.Radius * Math.Max(maxX1, maxX2), dna.Radius * Math.Max(maxY1, maxY2), dna.Length); // multiplying x by maxX, because the rings were defined with x maxing at maxX, and y maxing at 1
geometry.Geometry = UtilityWPF.GetMultiRingedTube(10, rings, true, true, new RotateTransform3D(new AxisAngleRotation3D(new Vector3D(0, 1, 0), 90))); // the tube builds along z, but this class wants along x
#endregion
geometries.Children.Add(geometry);
}
private static SOMRules GetSOMRules_Rand()
{
Random rand = StaticRandom.GetRandomForThread();
return(new SOMRules(
rand.Next(15, 50),
rand.Next(2000, 5000),
rand.NextDouble(.2, .4),
rand.NextDouble(.05, .15)));
}
private static Vector3D GetRandomScale(double baseScale, double percent = .5)
{
Random rand = StaticRandom.GetRandomForThread();
//NOTE: The parts that need the same values for X,Y,Z will take averages, so it's ok to be lazy here (they are designed to take imperfect mutated inputs)
return(new Vector3D(
rand.NextPercent(baseScale, percent),
rand.NextPercent(baseScale, percent),
rand.NextPercent(baseScale, percent)
));
}
/// <summary>
/// Get a random vector between boundry lower and boundry upper
/// </summary>
public static MyVector GetRandomVector(MyVector boundryLower, MyVector boundryUpper)
{
MyVector retVal = new MyVector();
Random rand = StaticRandom.GetRandomForThread();
retVal.X = boundryLower.X + (rand.NextDouble() * (boundryUpper.X - boundryLower.X));
retVal.Y = boundryLower.Y + (rand.NextDouble() * (boundryUpper.Y - boundryLower.Y));
retVal.Z = boundryLower.Z + (rand.NextDouble() * (boundryUpper.Z - boundryLower.Z));
return(retVal);
}
public void Activate()
{
// Don't even look at the input. Just fill the output with random values
Random rand = StaticRandom.GetRandomForThread();
for (int cntr = 0; cntr < OutputSignalArray.Length; cntr++)
{
OutputSignalArray[cntr] = _isPositiveOnly ?
rand.NextDouble(1) :
rand.NextDouble(-1, 1);
}
}
/// <summary>
/// Gets a value between -maxValue and maxValue
/// </summary>
public static double GetNearZeroValue(double maxValue)
{
Random rand = StaticRandom.GetRandomForThread();
double retVal = rand.NextDouble() * maxValue;
if (rand.Next(0, 2) == 1)
{
retVal *= -1;
}
return(retVal);
}
/// <summary>
/// Creates or adds to a set of colors to be used by klinth weapons
/// </summary>
/// <param name="existing">This is a material definition that may already exist, or partially filled out</param>
/// <param name="basedOn">This is a way to force the return hue (a spike ball's colors could be based on the handle's colors)</param>
public static MaterialDefinition[] GetRandomMaterials_Klinth(MaterialDefinition[] existing = null, ColorHSV?basedOn = null)
{
List <MaterialDefinition> retVal = new List <MaterialDefinition>();
Random rand = StaticRandom.GetRandomForThread();
if (existing != null)
{
retVal.AddRange(existing);
}
// Main color (in the case of a handle, the only color)
if (retVal.Count < 1)
{
double hue;
if (basedOn == null)
{
hue = StaticRandom.NextDouble(0, 360);
}
else
{
//hue = GetRandomHue(basedOn.Value.H);
hue = basedOn.Value.H; // klinth shouldn't allow an opposite hue (it looks really bad)
}
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.HSVtoRGB(hue, StaticRandom.NextDouble(50, 80), StaticRandom.NextDouble(40, 90)).ToHex(),
SpecularColor = UtilityWPF.HSVtoRGB(StaticRandom.NextDouble(0, 360), StaticRandom.NextDouble(50, 80), StaticRandom.NextDouble(40, 90)).ToHex(),
EmissiveColor = UtilityWPF.GetRandomColor(0, 255).ToHex()
});
}
// Secondary color (in the case of ball and spikes, this is the spikes)
if (retVal.Count < 2)
{
ColorHSV firstDiff = UtilityWPF.ColorFromHex(retVal[0].DiffuseColor).ToHSV();
ColorHSV firstSpec = UtilityWPF.ColorFromHex(retVal[0].SpecularColor).ToHSV();
ColorHSV firstEmis = UtilityWPF.ColorFromHex(retVal[0].EmissiveColor).ToHSV();
// Needs to be roughly the same color as the ball, just a bit darker
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.HSVtoRGB(firstDiff.H, firstDiff.S * 1.25, firstDiff.V * .66d).ToHex(),
SpecularColor = UtilityWPF.HSVtoRGB(firstSpec.H, firstSpec.S * 1.1, firstSpec.V).ToHex(),
EmissiveColor = UtilityWPF.HSVtoRGB(firstEmis.H, firstEmis.S, firstEmis.V).ToHex(),
});
}
return(retVal.ToArray());
}
/// <summary>
/// Creates or adds to a set of colors to be used by composite weapons
/// </summary>
/// <param name="existing">This is a material definition that may already exist, or partially filled out</param>
/// <param name="basedOn">This is a way to force the return hue (a spike ball's colors could be based on the handle's colors)</param>
public static MaterialDefinition[] GetRandomMaterials_Composite(MaterialDefinition[] existing = null, ColorHSV?basedOn = null)
{
List <MaterialDefinition> retVal = new List <MaterialDefinition>();
Random rand = StaticRandom.GetRandomForThread();
if (existing != null)
{
retVal.AddRange(existing);
}
if (retVal.Count < 1)
{
if (basedOn == null)
{
// For the first one, just pick any random color
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.GetRandomColor(0, 255).ToHex()
});
}
else
{
// Make this based on the hue of the color passed in
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.HSVtoRGB(GetRandomHue(basedOn.Value.H), rand.NextDouble(100), rand.NextDouble(100)).ToHex()
});
}
}
ColorHSV first = UtilityWPF.ColorFromHex(retVal[0].DiffuseColor).ToHSV();
if (retVal.Count < 2)
{
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.HSVtoRGB(GetRandomHue(first.H), rand.NextDouble(100), rand.NextDouble(100)).ToHex()
});
}
if (retVal.Count < 3)
{
retVal.Add(new MaterialDefinition()
{
DiffuseColor = UtilityWPF.HSVtoRGB(GetRandomHue(first.H), rand.NextDouble(100), rand.NextDouble(100)).ToHex()
});
}
return(retVal.ToArray());
}
private static Convolution2D GetRandomFilter_Positive(bool isSquare)
{
Random rand = StaticRandom.GetRandomForThread();
var size = GetFilterSize(rand, isSquare);
double[] values = Enumerable.Range(0, size.Item1 * size.Item2).
Select(o => rand.NextDouble()).
ToArray();
values = Convolutions.ToUnit(values);
return(new Convolution2D(values, size.Item1, size.Item2, false));
}
private void RandomizePrices()
{
Random rand = StaticRandom.GetRandomForThread();
RandomBellArgs bell = new RandomBellArgs(1, -45, 1, -45);
_partPriceAdjustments = BotConstructor.AllPartTypes.Value.
Select(o => Tuple.Create(o, RandomizePrices_Percent(rand, bell))).
ToArray();
_mineralPriceAdjustments = UtilityCore.GetEnums <MineralType>().
Select(o => Tuple.Create(o, RandomizePrices_Percent(rand, bell))).
ToArray();
}
/// <summary>
/// This returns a random axe, with some optional fixed values
/// </summary>
public static WeaponAxeDNA GetRandomDNA(double?sizeSingleSide = null, WeaponAxeType?axeType = null, WeaponAxeSides?sides = null, WeaponAxeStye?style = null)
{
WeaponAxeDNA retVal = new WeaponAxeDNA();
Random rand = StaticRandom.GetRandomForThread();
// Size
if (sizeSingleSide != null)
{
retVal.SizeSingle = sizeSingleSide.Value;
}
else
{
retVal.SizeSingle = rand.NextDouble(.4, 1);
}
// AxeType
if (axeType != null)
{
retVal.AxeType = axeType.Value;
}
else
{
retVal.AxeType = UtilityCore.GetRandomEnum <WeaponAxeType>();
}
// Sides
if (sides != null)
{
retVal.Sides = sides.Value;
}
else
{
retVal.Sides = UtilityCore.GetRandomEnum <WeaponAxeSides>();
}
// Style
if (style != null)
{
retVal.Style = style.Value;
}
else
{
retVal.Style = UtilityCore.GetRandomEnum <WeaponAxeStye>();
}
return(retVal);
}
public double GetDamage_Collision(IMapObject collidedWith, Point3D positionModel, Vector3D velocityModel, double mass1, double mass2)
{
const double MAXMASSRATIO = 3;
TakesDamageWorker_Props props = GetTypeModifier(collidedWith);
double speed = velocityModel.Length;
// If the impact velocity is low enough, there won't be damage
if (speed < props.VelocityThreshold)
{
return(0);
}
// Restrict mass
// If the difference in mass is large enough, then the larger could just be considered as a stationary object. Including more of the larger's
// mass would make it appear like there is more energy than there actually is (a probe hitting a large asteroid or a planet will feel the
// same impulse, even though the masses are very different)
UtilityCore.MinMax(ref mass1, ref mass2);
if (mass2 > mass1 * MAXMASSRATIO)
{
mass2 = mass1 * MAXMASSRATIO;
}
// Next check is the collision energy
// Energy = m/2 * v^2
double energy = ((mass1 + mass2) / 2d) * speed * speed;
//May or may not want this check
// If one of the masses is significantly small relative to the other, then velocity will need to be very large for damage to occur
// Next is the min energy threshold
if (energy < props.EnergyTheshold)
{
return(0);
}
// Final step should just be to convert energy into hitpoint loss
// HitPointLoss = Energy * c
double retVal = energy * props.EnergyToHitpointMult;
// Finally, run it through a randomization
retVal *= StaticRandom.GetRandomForThread().NextBellPercent(ItemOptions.DAMAGE_RANDOMBELL, props.RandomPercent);
//LogHit(mass1, mass2, speed, energy);
return(retVal);
}
public StarfieldVisual1(double size, double margin, int numLayers, double starSizeMult, Color?color = null)
{
const double DENSITY = .002;
int numStars = Convert.ToInt32((DENSITY / numLayers) * size * size);
Brush[] brushes;
if (color == null)
{
brushes = _starBrushes.Value;
}
else
{
brushes = new[] { new SolidColorBrush(color.Value) };
}
Random rand = StaticRandom.GetRandomForThread();
double sizeMinMargin = size - margin;
_visual = new DrawingVisual();
using (DrawingContext dc = _visual.RenderOpen())
{
for (int cntr = 0; cntr < numStars; cntr++)
{
//NOTE: Can't go all the way to the edge, stars would get cut off (the caller has to know the margin so it can properly overlap the images)
Point point = new Point(rand.NextDouble(margin, sizeMinMargin), rand.NextDouble(margin, sizeMinMargin));
double radius;
if (rand.NextDouble() > .9)
{
// Big
radius = rand.NextDouble(.9, 1.2);
}
else
{
// Small
radius = rand.NextDouble(.7, .9);
}
radius *= starSizeMult;
Brush brush = brushes[rand.Next(brushes.Length)];
//TODO: Blur these a bit
dc.DrawEllipse(brush, null, point, radius, radius);
}
}
}
private static Tuple <int, int, double>[] BuildLinksRandomSprtLinks(int fromCount, int toCount, int count, bool isSameList)
{
SortedList <Tuple <int, int>, double> retVal = new SortedList <Tuple <int, int>, double>();
Random rand = StaticRandom.GetRandomForThread();
int fromIndex, toIndex;
double weight;
// Come up with links
for (int cntr = 0; cntr < count; cntr++)
{
fromIndex = rand.Next(fromCount);
if (isSameList)
{
toIndex = rand.Next(toCount - 1); // a neuron can't point to itself, so pick from one less than the size of the list
if (toIndex >= fromIndex)
{
toIndex++;
}
}
else
{
toIndex = rand.Next(toCount);
}
weight = Math1D.GetNearZeroValue(MAXWEIGHT);
Tuple <int, int> key = new Tuple <int, int>(fromIndex, toIndex);
// Add to the return (don't allow dupes)
if (retVal.ContainsKey(key))
{
retVal[key] += weight;
}
else
{
retVal.Add(key, weight);
}
}
// Exit Function
return(retVal.Keys.Select(o => new Tuple <int, int, double>(o.Item1, o.Item2, retVal[o])).ToArray());
}
public static Tuple <FlagBackType, FlagOverlayType?, FlagOverlayType?> GetRandomEnums()
{
Random rand = StaticRandom.GetRandomForThread();
double overlayProb = rand.NextDouble();
// Choose a background
FlagBackType backType = UtilityCore.GetRandomEnum <FlagBackType>();
FlagOverlayType[] backTypeFilter = _similarOptions.Value.
Where(o => o.Item2.Any(p => p == backType)).
SelectMany(o => o.Item1).
ToArray();
// Choose overlay one
FlagOverlayType?overlayType1 = null;
if (overlayProb > .33)
{
overlayType1 = UtilityCore.GetRandomEnum <FlagOverlayType>(backTypeFilter);
}
// Choose overlay two
FlagOverlayType?overlayType2 = null;
if (overlayProb > .66)
{
var test = _notAbove.Value.
Where(o => o.Item2.Any(p => p == overlayType1.Value)).
SelectMany(o => o.Item1).
ToArray();
IEnumerable <FlagOverlayType> filter2 = UtilityCore.Iterate(
new[] { overlayType1.Value },
backTypeFilter,
_similarOptions.Value.Where(o => o.Item1.Any(p => p == overlayType1.Value)).SelectMany(o => o.Item1),
_notAbove.Value.Where(o => o.Item2.Any(p => p == overlayType1.Value)).SelectMany(o => o.Item1)
);
overlayType2 = UtilityCore.GetRandomEnum <FlagOverlayType>(filter2);
}
return(Tuple.Create(backType, overlayType1, overlayType2));
}
private static double GetRandomFlagColors_Hue(double[] existing)
{
Random rand = StaticRandom.GetRandomForThread();
double retVal = 0;
while (true)
{
retVal = rand.NextDouble(360);
if (!existing.Any(o => UtilityWPF.GetHueDistance(o, retVal) < 60))
{
break;
}
}
return(retVal);
}
/// <summary>
/// This is exposed so it can be called externally on a separate thread, then call this asteroid's constructor
/// in the main thread once this returns
/// </summary>
public static ITriangleIndexed[] GetHullTriangles(double radius)
{
const int NUMPOINTS = 60; // too many, and it looks too perfect
Exception lastException = null;
Random rand = StaticRandom.GetRandomForThread();
for (int infiniteLoopCntr = 0; infiniteLoopCntr < 50; infiniteLoopCntr++) // there is a slight chance that the convex hull generator will choke on the inputs. If so just retry
{
try
{
double minRadius = radius * .9d;
Point3D[] points = new Point3D[NUMPOINTS];
// Make a point cloud
for (int cntr = 0; cntr < NUMPOINTS; cntr++)
{
points[cntr] = Math3D.GetRandomVector_Spherical(minRadius, radius).ToPoint();
}
// Squash it
Transform3DGroup transform = new Transform3DGroup();
transform.Children.Add(new ScaleTransform3D(.33d + (rand.NextDouble() * .66d), .33d + (rand.NextDouble() * .66d), 1d)); // squash it
transform.Children.Add(new RotateTransform3D(new QuaternionRotation3D(Math3D.GetRandomRotation()))); // giving it a random rotation, since it's always squashed along the same axiis
transform.Transform(points);
// Get a hull that wraps those points
ITriangleIndexed[] retVal = Math3D.GetConvexHull(points.ToArray());
// Get rid of unused points
retVal = TriangleIndexed.Clone_CondensePoints(retVal);
// Exit Function
return(retVal);
}
catch (Exception ex)
{
lastException = ex;
}
}
throw new ApplicationException(lastException.ToString());
}
private void DrawBell3()
{
Point[] points = GetBellPoints(txtBell3.Text);
if (points == null)
{
txtBell3.Effect = _errorEffect;
return;
}
txtBell3.Effect = null;
BezierSegment3D bezier = new BezierSegment3D(0, 1, points.Select(o => o.ToPoint3D()).ToArray(), new[] { new Point3D(0, 0, 0), new Point3D(1, 1, 0) });
Random rand = StaticRandom.GetRandomForThread();
IEnumerable <double> samples = Enumerable.Range(0, 100000).
Select(o => BezierUtil.GetPoint(rand.NextDouble(), bezier).Y);
IEnumerable <Point> idealLine = BezierUtil.GetPoints(100, bezier).
Select(o => o.ToPoint2D());
DrawGraph(samples, idealLine);
Rect bounds = GetBounds();
for (int cntr = 0; cntr < bezier.ControlPoints.Length - 1; cntr++)
{
Point from = GetScaledPoint(bezier.ControlPoints[cntr], bounds);
Point to = GetScaledPoint(bezier.ControlPoints[cntr + 1], bounds);
AddLine(from, to, _brushLightBlue);
}
if (bezier.ControlPoints.Length > 0)
{
Point from = GetScaledPoint(bezier.EndPoint0, bounds);
Point to = GetScaledPoint(bezier.ControlPoints[0], bounds);
AddLine(from, to, _brushLightBlue);
from = GetScaledPoint(bezier.EndPoint1, bounds);
to = GetScaledPoint(bezier.ControlPoints[bezier.ControlPoints.Length - 1], bounds);
AddLine(from, to, _brushLightBlue);
}
}
private static Convolution2D GetRandomFilter_PosNeg(bool isSquare)
{
Random rand = StaticRandom.GetRandomForThread();
var size = GetFilterSize(rand, isSquare);
double[] values = Enumerable.Range(0, size.Item1 * size.Item2).
Select(o => rand.NextDouble(-1, 1)).
ToArray();
if (values.All(o => o > 0) || values.All(o => o < 0))
{
// They are all positive or all negative. Flip one of them
values[rand.Next(values.Length)] *= -1d;
}
values = Convolutions.ToUnit(values);
return(new Convolution2D(values, size.Item1, size.Item2, true));
}
/// <summary>
/// This method removes how many it's told, or figures out how many to remove
/// </summary>
private static void RemoveRandomItems <T>(IList <T> list, int?removeCount = null)
{
if (list.Count == 0)
{
return;
}
Random rand = StaticRandom.GetRandomForThread();
if (removeCount == null)
{
double percent = rand.NextDouble(.33, 1);
removeCount = Convert.ToInt32(list.Count * percent);
}
for (int cntr = 0; cntr < removeCount.Value; cntr++)
{
list.RemoveAt(rand.Next(list.Count));
}
}