private void UpdateColorMapFromControls(bool forceUpdate = false)
{
if (colorMapEditorType != ColorMapEditorType.Controls)
{
return;
}
AllocateColorMapData();
if (forceUpdate ||
!colorMapEditorGradient.Equals(colorMapEditorGradientOld) ||
colorMapEditorContrast_ != colorMapEditorContrast ||
colorMapEditorBrightness_ != colorMapEditorBrightness ||
colorMapEditorPosterize_ != colorMapEditorPosterize)
{
colorMapEditorGradientOld.CopyFrom(colorMapEditorGradient);
colorMapEditorContrast_ = colorMapEditorContrast;
colorMapEditorBrightness_ = colorMapEditorBrightness;
colorMapEditorPosterize_ = colorMapEditorPosterize;
AllocateColorMapData();
// Populate colorMapData
for (int i = 0; i < 256; i++)
{
// Apply contrast, brightness and posterization on the grayscale value
double value = (double)i / 255.0;
// Constrast and brightness
double contrastFactor = colorMapEditorContrast + 1; // UI runs from -1 to 1
value = (value - 0.5) * contrastFactor + 0.5 + colorMapEditorBrightness;
// Posterization
if (colorMapEditorPosterize > 0.0f)
{
// The posterization slider feels more useful if the progression is exponential. The function is emprically tuned.
const double posterizationBase = 50.0;
double posterize = (Math.Pow(posterizationBase, colorMapEditorPosterize) - 1.0) / (posterizationBase - 1.0);
value = Math.Round(value / posterize) * posterize;
}
// Clamp to [0, 1]
value = Math.Min(Math.Max(value, 0.0), 1.0);
// Map to value to color
Color color = colorMapEditorGradient.Evaluate((float)value);
WriteColorToColorMap(i, ref color);
}
styleDirty = true;
}
}
public bool Equals(Param other)
{
if (other.type != type || other.name != name)
{
return(false);
}
switch (type)
{
case ParamType.AngleLimits:
return(angleLimitsValue == other.angleLimitsValue);
case ParamType.Bool:
return(boolValue == other.boolValue);
case ParamType.Color:
return(colorValue == other.colorValue);
case ParamType.Object:
return(objectValue == other.objectValue);
case ParamType.Gradient:
return(gradientValue.Equals(other.gradientValue));
case ParamType.Curve:
return(curveValue.Equals(other.curveValue));
case ParamType.Float:
return(floatValue == other.floatValue);
case ParamType.String:
return(stringValue == other.stringValue);
case ParamType.Vector3:
return(vector3Value == other.vector3Value);
case ParamType.Rotation:
return(quaternionValue == other.quaternionValue);
case ParamType.Integer:
return(intValue == other.intValue);
case ParamType.Layer:
return(layerValue == other.layerValue);
}
throw new System.NotImplementedException();
}
public static bool GradientField(ref Gradient curValue, string label, params GUILayoutOption[] guiLayout)
{
Gradient newValue = new Gradient
{
colorKeys = curValue.colorKeys,
alphaKeys = curValue.alphaKeys,
};
BeginIndentSpaces();
newValue = EditorGUILayout.GradientField(label, newValue, guiLayout);
EndIndentSpaces();
FinishedElementDrawingCall();
if (!newValue.Equals(curValue))
{
ShouldBeDirty();
curValue = newValue;
return(true);
}
return(false);
}
// Start is called before the first frame update
void Start()
{
colorKey = new GradientColorKey[3];
colorKey[0].color = ColorLeft[0];
colorKey[0].time = 0.33f;
colorKey[1].color = ColorLeft[1];
colorKey[1].time = 0.67f;
colorKey[2].color = ColorLeft[2];
colorKey[2].time = 1f;
alphaKey = new GradientAlphaKey[3];
alphaKey[0].alpha = 1f;
alphaKey[0].time = 0.33f;
alphaKey[1].alpha = 1f;
alphaKey[1].time = 0.67f;
alphaKey[2].alpha = 1f;
alphaKey[2].time = 1f;
gradientLeft.mode = GradientMode.Fixed;
gradientLeft.SetKeys(colorKey, alphaKey);
//meshF = GetComponent<MeshFilter>();
//mesh = meshF.mesh;
//vertices = mesh.vertices;
Debug.Log(gradientBack.Equals(gradientForward));
//foreach (var item in vertSort)
//{
// Instantiate(Point, new Vector3(item.x, item.y, item.z), Quaternion.identity);
//}
}
public override void CommonRender(LightweightRenderPipeline pipelineInstance, ScriptableRenderContext context, Camera cameraSrp)
{
#endif
if (!MapsAreAssigned())
{
return;
}
var roll = cameraSrp.transform.localEulerAngles.z;
Shader.SetGlobalFloat(CameraRoll, roll);
Shader.SetGlobalMatrix(InvViewProjection,
(GL.GetGPUProjectionMatrix(cameraSrp.projectionMatrix, false) * cameraSrp.worldToCameraMatrix).inverse);
//// Water matrix
//const float quantizeValue = 6.25f;
//const float forwards = 10f;
//const float yOffset = -0.25f;
//var newPos = cameraSrp.transform.TransformPoint(Vector3.forward * forwards);
//newPos.y = yOffset;
//newPos.x = quantizeValue * (int)(newPos.x / quantizeValue);
//newPos.z = quantizeValue * (int)(newPos.z / quantizeValue);
//var matrix = Matrix4x4.TRS(newPos + transform.position, Quaternion.identity, Vector3.one); // transform.localToWorldMatrix;
//Debug.Log("draw mesh");
//foreach (var mesh in defaultWaterMeshes)
//{
// Graphics.DrawMesh(mesh,
// matrix,
// defaultSeaMaterial,
// gameObject.layer,
// cameraSrp,
// 0,
// null,
// ShadowCastingMode.Off,
// true,
// null,
// LightProbeUsage.Off,
// null);
//}
//reinitalize the waves etc. if any value changes
if (_waterDepthVisibility != WaterDepthVisibility ||
!_absorptionRamp.Equals(AbsorptionRamp) ||
!_scatterRamp.Equals(ScatterRamp) ||
_basicWaveSettings.amplitude != BasicWaveSettings.amplitude ||
_basicWaveSettings.direction != BasicWaveSettings.direction ||
_basicWaveSettings.numWaves != BasicWaveSettings.numWaves ||
_basicWaveSettings.wavelength != BasicWaveSettings.wavelength)
{
Debug.Log("Water waves init called again...");
_waterDepthVisibility = WaterDepthVisibility;
_absorptionRamp = new Gradient
{
alphaKeys = AbsorptionRamp.alphaKeys,
colorKeys = AbsorptionRamp.colorKeys,
mode = AbsorptionRamp.mode
};
_scatterRamp = new Gradient
{
alphaKeys = ScatterRamp.alphaKeys,
colorKeys = ScatterRamp.colorKeys,
mode = ScatterRamp.mode
};
_basicWaveSettings = new BasicWaves(BasicWaveSettings.amplitude, BasicWaveSettings.direction,
BasicWaveSettings.wavelength);
_basicWaveSettings.numWaves = BasicWaveSettings.numWaves;
Init();
}
foreach (var shade in Shades)
{
if (shade.MaterialToChange.HasProperty("_BumpScale"))
{
shade.MaterialToChange.SetFloat("_BumpScale", WaveDetail);
}
if (shade.MaterialToChange.HasProperty("_WaveRefraction"))
{
shade.MaterialToChange.SetFloat("_WaveRefraction", WaveRefraction);
}
if (WaterShadow)
{
shade.MaterialToChange.DisableKeyword("_RECEIVE_SHADOWS_OFF");
}
else
{
shade.MaterialToChange.EnableKeyword("_RECEIVE_SHADOWS_OFF");
}
if (UseCustomDepth)
{
shade.MaterialToChange.EnableKeyword("DO_NOT_USE_DEPTH");
}
else
{
shade.MaterialToChange.DisableKeyword("DO_NOT_USE_DEPTH");
}
//if (shade.MaterialToChange.HasProperty("_ManualDistanceSurface"))
// shade.MaterialToChange.SetFloat("_ManualDistanceSurface", ManualDistanceForSurface);
//if (shade.MaterialToChange.HasProperty("_ManualDistanceDepth"))
// shade.MaterialToChange.SetFloat("_ManualDistanceDepth", ManualDistanceForDepth);
}
}
/// <inheritdoc />
public bool Equals([AllowNull] Marker other)
{
if (other == null)
{
return(false);
}
if (ReferenceEquals(this, other))
{
return(true);
}
return
((
Symbol == other.Symbol ||
Symbol != null &&
Symbol.Equals(other.Symbol)
) &&
(
Equals(SymbolArray, other.SymbolArray) ||
SymbolArray != null && other.SymbolArray != null &&
SymbolArray.SequenceEqual(other.SymbolArray)
) &&
(
Opacity == other.Opacity ||
Opacity != null &&
Opacity.Equals(other.Opacity)
) &&
(
Equals(OpacityArray, other.OpacityArray) ||
OpacityArray != null && other.OpacityArray != null &&
OpacityArray.SequenceEqual(other.OpacityArray)
) &&
(
Size == other.Size ||
Size != null &&
Size.Equals(other.Size)
) &&
(
Equals(SizeArray, other.SizeArray) ||
SizeArray != null && other.SizeArray != null &&
SizeArray.SequenceEqual(other.SizeArray)
) &&
(
MaxDisplayed == other.MaxDisplayed ||
MaxDisplayed != null &&
MaxDisplayed.Equals(other.MaxDisplayed)
) &&
(
SizeRef == other.SizeRef ||
SizeRef != null &&
SizeRef.Equals(other.SizeRef)
) &&
(
SizeMin == other.SizeMin ||
SizeMin != null &&
SizeMin.Equals(other.SizeMin)
) &&
(
SizeMode == other.SizeMode ||
SizeMode != null &&
SizeMode.Equals(other.SizeMode)
) &&
(
Line == other.Line ||
Line != null &&
Line.Equals(other.Line)
) &&
(
Gradient == other.Gradient ||
Gradient != null &&
Gradient.Equals(other.Gradient)
) &&
(
Color == other.Color ||
Color != null &&
Color.Equals(other.Color)
) &&
(
Equals(ColorArray, other.ColorArray) ||
ColorArray != null && other.ColorArray != null &&
ColorArray.SequenceEqual(other.ColorArray)
) &&
(
CAuto == other.CAuto ||
CAuto != null &&
CAuto.Equals(other.CAuto)
) &&
(
CMin == other.CMin ||
CMin != null &&
CMin.Equals(other.CMin)
) &&
(
CMax == other.CMax ||
CMax != null &&
CMax.Equals(other.CMax)
) &&
(
CMid == other.CMid ||
CMid != null &&
CMid.Equals(other.CMid)
) &&
(
ColorScale == other.ColorScale ||
ColorScale != null &&
ColorScale.Equals(other.ColorScale)
) &&
(
AutoColorScale == other.AutoColorScale ||
AutoColorScale != null &&
AutoColorScale.Equals(other.AutoColorScale)
) &&
(
ReverseScale == other.ReverseScale ||
ReverseScale != null &&
ReverseScale.Equals(other.ReverseScale)
) &&
(
ShowScale == other.ShowScale ||
ShowScale != null &&
ShowScale.Equals(other.ShowScale)
) &&
(
ColorBar == other.ColorBar ||
ColorBar != null &&
ColorBar.Equals(other.ColorBar)
) &&
(
ColorAxis == other.ColorAxis ||
ColorAxis != null &&
ColorAxis.Equals(other.ColorAxis)
) &&
(
SymbolSrc == other.SymbolSrc ||
SymbolSrc != null &&
SymbolSrc.Equals(other.SymbolSrc)
) &&
(
OpacitySrc == other.OpacitySrc ||
OpacitySrc != null &&
OpacitySrc.Equals(other.OpacitySrc)
) &&
(
SizeSrc == other.SizeSrc ||
SizeSrc != null &&
SizeSrc.Equals(other.SizeSrc)
) &&
(
ColorSrc == other.ColorSrc ||
ColorSrc != null &&
ColorSrc.Equals(other.ColorSrc)
));
}
public void SwitchColors()
{
_currentColor = _currentColor.Equals(gradientA) ? gradientB : gradientA;
}
void Update()
{
if (Input.GetKeyDown(KeyCode.Keypad1))
{
LerpToColourIndex(1, 3);
}
if (Input.GetKeyDown(KeyCode.Keypad2))
{
LerpToColourIndex(2, 3);
}
if (Input.GetKeyDown(KeyCode.Keypad3))
{
LerpToColourIndex(3, 3);
}
if (bIsGradientLerping)
{
trailRenderer.colorGradient = Util.Gradient.Lerp(trailRenderer.colorGradient, targetGradient /*TODO: Use array index*/, Time.deltaTime / gradientLerpDivider);
gradientLerpTimer += (Time.deltaTime / gradientLerpDivider);
if (Gradient.Equals(trailRenderer.colorGradient, targetGradient))
{
bIsGradientLerping = false;
}
}
if (useWobble)
{
if ((targetWobblePos + targetYPos) > (targetYPos + wobbleRange) || (targetYPos + targetWobblePos) < (targetYPos - wobbleRange))
{
invertWobble = !invertWobble;
}
if (!invertWobble)
{
targetWobblePos += (Time.deltaTime * wobbleMultiplier);
}
else
{
targetWobblePos -= (Time.deltaTime * wobbleMultiplier);
}
}
if (useLerp)
{
if (isLerping)
{
lerpPosSpeed = Mathf.Lerp(lerpPosSpeedMinMax.x, lerpPosSpeedMinMax.y, 0.5f /*0 - 1*/);
lerpPosTimer += Time.deltaTime * lerpPosSpeed;
transform.localPosition = Vector3.Lerp(startPos, endPos, Mathf.Clamp01(lerpPosTimer));
if (lerpPosTimer >= 1)
{
lerpPosTimer -= 1;
if (forward)
{
currentNumber += stepSize;
currentIt++;
}
else
{
currentNumber -= stepSize;
currentIt--;
}
if (currentIt > 0 && currentIt < maxIt)
{
SetLerpPosition();
}
else // current iteration has hit 0 or maxiteration
{
if (repeat)
{
if (invert)
{
forward = !forward;
SetLerpPosition();
}
else
{
currentNumber = numberStart;
currentIt = 0;
SetLerpPosition();
}
}
else
{
isLerping = false;
}
}
}
}
}
if (!useLerp)
{
phyllotaxisPos = CalculatePhyllotaxis(degree, scale, currentNumber);
transform.localPosition = new Vector3(phyllotaxisPos.x, Mathf.Lerp(this.transform.position.y, Mathf.Lerp(transform.position.y, targetYPos + targetWobblePos, Time.deltaTime), Time.deltaTime * 5), phyllotaxisPos.y);
//Debug.Log("targetYPos + targetWobblePos = " + targetYPos + targetWobblePos);
currentNumber += stepSize;
currentIt++;
}
}
public bool Equals(Gradient gradient)
{
return(gradientSource.Equals(gradient));
}