private void UpdateHighLightScale(Vector3 clampScale)
{
float max = Math.Max(clampScale) * highlightSphereScale;
highlightObj.transform.localScale = new Vector3((1 / clampScale.x) * max,
(1 / clampScale.y) * max,
(1 / clampScale.z) * max);
// If tbe clamp is too small, match a minimum global size
if (highlightObj.transform.lossyScale.x < minHighlightGlobalSize)
{
Vector3 globalSize = new Vector3(minHighlightGlobalSize, minHighlightGlobalSize, minHighlightGlobalSize);
Transform curParent = transform.parent;
// Convert global size to local space
do
{
globalSize = new Vector3(globalSize.x / curParent.localScale.x,
globalSize.y / curParent.localScale.y,
globalSize.z / curParent.localScale.z);
curParent = curParent.parent;
} while (curParent.parent != null);
globalSize = new Vector3(globalSize.x / curParent.localScale.x,
globalSize.y / curParent.localScale.y,
globalSize.z / curParent.localScale.z);
highlightObj.transform.localScale = globalSize;
}
}
/// <summary>
/// Sets the radius and height of the clamp
/// </summary>
private void SetScale(Neuron.NodeData cellNodeData)
{
currentVisualizationScale = (float)simulation.VisualInflation;
float radiusScalingValue = radiusRatio * (float)cellNodeData.NodeRadius;
float heightScalingValue = heightRatio * simulation.AverageDendriteRadius;
//Ensures clamp is always at least as wide as tall when Visual Inflation is 1
float radiusLength = Math.Max(radiusScalingValue, heightScalingValue) * currentVisualizationScale;
//if (somaClamp) transform.parent.localScale = new Vector3(radiusLength, radiusLength, radiusLength);
transform.parent.localScale = new Vector3(radiusLength, radiusLength, heightScalingValue);
UpdateHighLightScale(transform.parent.localScale);
}
