public void Render(CommandList cl)
{
if (areQuadsDirty)
{
float hw = data.width * curScale * 0.5f;
float fX = data.width * curScale * 0.35350001f; // original magic values
float fY = data.width * curScale * 0.353553f;
var vertices = quadMeshBuffer[quadRange];
SetPlane(vertices, 0, 0f, hw);
if (data.complexity != BeamStarComplexity.OnePlane)
{
SetPlane(vertices, 1, hw, 0f);
}
if (data.complexity == BeamStarComplexity.FourPlanes)
{
SetPlane(vertices, 2, fX, fY);
SetPlane(vertices, 3, -fX, fY);
}
var rotation = Quaternion.CreateFromAxisAngle(Vector3.UnitZ, curRotation * MathF.PI / 180f);
for (int i = 0; i < vertices.Length; i++)
{
vertices[i].pos = Vector3.Transform(vertices[i].pos, rotation);
}
}
(material as IMaterial).Apply(cl);
quadMeshBuffer.Render(cl, quadRange);
}
public void Render(CommandList cl)
{
if (areQuadsDirty)
{
areQuadsDirty = false;
var count = 0;
foreach (var plane in planes.Where(p => p.life > 0f))
{
UpdateQuad(in plane, quadRange.Start.Offset(count++));
}
aliveRange = quadRange.Start..quadRange.Start.Offset(count);
}
(material as IMaterial).Apply(cl);
quadMeshBuffer.Render(cl, aliveRange);
}
public void Render(CommandList cl)
{
(material as IMaterial).Apply(cl);
quadMeshBuffer.Render(cl, quadRange);
}
