private static bool ProportionalLines(float[][] matrix, float[] vector, int i, int j)
{
float firstQuotient = matrix[i][0] / matrix[j][0];
float secondQuotient = matrix[i][1] / matrix[j][1];
float thirdQuotient = vector[i] / vector[j];
if (firstQuotient.ApproximatelyEquals(secondQuotient, _approximation) &&
firstQuotient.ApproximatelyEquals(thirdQuotient, _approximation))
{
return(true);
}
if (float.IsNaN(firstQuotient) && secondQuotient.ApproximatelyEquals(thirdQuotient, _approximation))
{
return(true);
}
if (float.IsNaN(secondQuotient) && firstQuotient.ApproximatelyEquals(thirdQuotient, _approximation))
{
return(true);
}
if (float.IsNaN(thirdQuotient) && firstQuotient.ApproximatelyEquals(secondQuotient, _approximation))
{
return(true);
}
return(false);
}
private void AdjustHeightIfNeeded()
{
if (!_preventExpandingHeight)
{
return;
}
if (_contentHeight.ApproximatelyEquals(position.height))
{
return;
}
Rect positionToAdjust = position;
positionToAdjust.height = Math.Min(_contentHeight, DropdownStyle.MaxWindowHeight);
minSize = new Vector2(minSize.x, positionToAdjust.height);
maxSize = new Vector2(maxSize.x, positionToAdjust.height);
float screenHeight = Screen.currentResolution.height - 40f;
if (positionToAdjust.yMax >= screenHeight)
{
positionToAdjust.y -= positionToAdjust.yMax - screenHeight;
}
position = positionToAdjust;
}
public bool Equals(Vector other)
{
return(X.ApproximatelyEquals(other.X) &&
Y.ApproximatelyEquals(other.Y) &&
Z.ApproximatelyEquals(other.Z) &&
W.ApproximatelyEquals(other.W));
}
public void ToggleGlow(bool enable)
{
if (enable == originalGlowRadius.ApproximatelyEquals(Props.glowRadius))
{
return;
}
Props.glowRadius = enable ? originalGlowRadius : 0f;
// reset cache in parent class
RemoteTechController.Instance.CompGlowerGlowOnField.SetValue(this, !(bool)RemoteTechController.Instance.CompGlowerShouldBeLitProperty.GetValue(this, null));
UpdateLit(parent.Map);
}
public void Intersect(Point origin, Vector direction, float t0, float t1)
{
var cone = new Cone();
direction = Vector.Normalize(direction);
var ray = new Ray(origin, direction);
var intersections = cone.Intersect(ray);
Assert.Equal(2, intersections.Count);
Assert.True(t0.ApproximatelyEquals(intersections[0].Time));
Assert.True(t1.ApproximatelyEquals(intersections[1].Time));
}
public void ApproximatelyEquals_ShouldReturnExpectedResult(
float lhs,
float rhs,
bool expected
)
{
// arrange
// act
var actual = lhs.ApproximatelyEquals(rhs);
// assert
actual.Should().Be(expected, $"{lhs} should {(expected ? "" : "not ")} equal {rhs}");
}
public Color RefractedColor(IntersectionInfo info, int remaining)
{
if (remaining < 1)
{
return(Color.Black);
}
float materialTransparency = info.Intersection.Shape.Material.Transparency;
if (materialTransparency.ApproximatelyEquals(0))
{
return(Color.Black);
}
// Find the ratio of the first index of refraction to the second
float ratio = info.RefractiveIndex1 / info.RefractiveIndex2;
// Theta_i is the angle of the incoming ray
// Cos(Theta_i) is the same as the dot product of the two vectors
float cosineI = Vector.Dot(info.EyeVector, info.Normal);
// Theta_t is the angle of the refracted ray
// Find Sin(Theta_t)^2
float sin2T = (ratio * ratio) * (1 - (cosineI * cosineI));
if (sin2T > 1)
{
// Total internal reflection
return(Color.Black);
}
float cosineT = MathF.Sqrt(1 - sin2T);
// Compute direction of the refracted ray
var direction = info.Normal * (ratio * cosineI - cosineT) - info.EyeVector * ratio;
var refractedRay = new Ray(info.UnderPoint, direction);
return(ColorAt(refractedRay, remaining - 1) * materialTransparency);
}
public bool Equals(Distance other)
{
return(AsMeters
.ApproximatelyEquals(other.AsMeters));
}
public static bool ApproximatelyGreaterThan(this float thisFloat, float otherFloat, float differenceCap)
{
return((thisFloat > otherFloat) || thisFloat.ApproximatelyEquals(otherFloat, differenceCap));
}
public bool Equals(Speed other)
{
return(AsMetersPerSecond
.ApproximatelyEquals(other.AsKilometersPerHour));
}
/// <summary>Determines if the number are not equal with a certain tolerance.</summary> /// <param name="firstNum">First number.</param> /// <param name="secondNum">Second number.</param> /// <param name="tolerance">Tolerance by which to determine if the numbers are equal. Default is 0.01f.</param> /// <returns>Whether the numbers are not equal with tolerance.</returns> /// <example><code> /// if (_optimalWidth.DoesNotEqualApproximately(position.width)) /// this.Resize(_optimalWidth); /// </code></example> [PublicAPI] public static bool DoesNotEqualApproximately(this float firstNum, float secondNum, float tolerance = 0.01f) => !firstNum.ApproximatelyEquals(secondNum, tolerance);
public bool Equals(Color other)
{
return(R.ApproximatelyEquals(other.R) &&
G.ApproximatelyEquals(other.G) &&
B.ApproximatelyEquals(other.B));
}
