fl3 CCone::getColor(vector<CLight> Lights, int SceneLightCount)
{
//здесь интенсивностb света от разных источников суммируютс¤.
if (CLight::light_model != CLight::LM_NO_LIGHT)
{
int n = Lights.size();
if (n == 0) return fl3(0, 0, 0);
calculatePointColor();
calculateIntensity(Lights);
fl3 col = fl3(0, 0, 0);
for (int i = 0; i < n; i++)
{
fl3 clr = Lights[i].clr;
float r = clr.m[0],
g = clr.m[1],
b = clr.m[2];
fl3 intensity = SavedIntensity[i];
float ir = intensity.m[0],
ig = intensity.m[1],
ib = intensity.m[2];
col += fl3(r*ir, g*ig, b*ib);
}
col = SavedColor ^ col;
//col /= (float)SceneLightCount;
return col;
}
return SavedNormal;
}
/**
* Set pixle color r,g,b in raster for x,y
*/
void bkgl::setPixel(Point p)
{
if (isInScreen(p) && isInViewport(p) && checkzbuffer(p))
{
Color light = calculateIntensity(p.world, p.normal.normalize());
Color spec = calculateSpecularColor(p.world, p.normal.normalize());
Color newColor = applyLightToColor(light, p.color, spec);
raster[((p.y*SCREENWIDTH) + p.x)*3 + 0] = newColor[0];
raster[((p.y*SCREENWIDTH) + p.x)*3 + 1] = newColor[1];
raster[((p.y*SCREENWIDTH) + p.x)*3 + 2] = newColor[2];
if (gldepthTest)
zbuffer[(p.y*SCREENWIDTH) + p.x] = p.z;
}
}
