private void startConvo()
{
ps.initMetric.reset();
ps.totalMetric.reset();
ps.totalMetric.begin();
ps.initMetric.begin();
int convSize = uiConvoSize;
int cubeSize = 1 << (int)uiCubeSize;
int outExponentCount = 0;
if (outDIM.cube)
{
outExponentCount++;
}
if (outSIM.cube)
{
if (uiMipChain)
{
outExponentCount += (int)uiCubeSize;
}
else
{
outExponentCount++;
}
}
outMipSizes = new int[outExponentCount];
outExponents = new int[outExponentCount];
if (outDIM.cube)
{
outMipSizes[outExponentCount - 1] = cubeSize;
outExponents[outExponentCount - 1] = 1;
}
if (outSIM.cube)
{
if (uiMipChain)
{
int maxExp = 256;
int maxSize = cubeSize;
//SIM exponents
for (int i = 0; i < outExponentCount - 1; ++i)
{
outExponents[i] = maxExp >> i;
outMipSizes[i] = maxSize >> i;
}
}
else
{
outMipSizes[0] = cubeSize;
outExponents[0] = uiExponent;
}
}
ps.reset();
ps.exponentCount = (ulong)outExponentCount;
ps.gammaCompress = uiGammaCompress;
if (inSKY.input)
{
this.uiShowPreview = false;
if (outSIM.cube)
{
ps.buildMipChain = uiMipChain;
ps.reflectionInSIM = uiReflectionInSIM && uiMipChain;
}
else
{
ps.buildMipChain = false;
ps.reflectionInSIM = false;
}
//NOTE: ps.IN is now a direct reference to the input sky. This is ok because we lock the CubemapGUIs
//ps.IN.filterMode = CubeBuffer.FilterMode.BILINEAR;
ps.IN = inSKY.buffers[0];
ps.IN.applyExposure(uiExposure);
ps.CONVO.resize(convSize);
ps.IN.resampleToBuffer(ref ps.CONVO);
ps.CONVO.filterMode = CubemapGUI.sFilterMode;
gatherLights(ref ps.CONVO);
ulong opcount = ps.lightCount * ps.lightCount * ps.exponentCount;
ps.setOpCount(stepsPerFrame, opcount);
inSKY.locked =
outSKY.locked =
outDIM.locked =
outSIM.locked = true;
ps.play();
}
ps.initMetric.end();
}