void EffectsGenerator::gradientSigmoidTransition(int transitionSize, std::string &os)
{
RGBColor tempColor;
for (int j = 0; j < (int)colors.size() - 1; j++)
{
vector<double> RedOperations = SigmoidCalculator(0, transitionSize, colors[j].getR(), colors[j + 1].getR());
vector<double> GreenOperations = SigmoidCalculator(0, transitionSize, colors[j].getG(), colors[j + 1].getG());
vector<double> BlueOperations = SigmoidCalculator(0, transitionSize, colors[j].getB(), colors[j + 1].getB());
for (int i = 0; i < transitionSize; i++)
{
tempColor.calculateColor(RedOperations,GreenOperations,BlueOperations,i);
//Envoyer les valeurs aux leds, ajouter un delais ou changer le transitionSize
os += to_string(tempColor.getR()) + " "
+ to_string(tempColor.getG()) + " "
+ to_string(tempColor.getB()) + " ";
//A remplacer par:
//sendColorToServer(tempColor.getR(),tempColor.getG(),tempColor.getB())
}
}
}
HSVColor::HSVColor(RGBColor color) {
float r = color.getR();
float g = color.getG();
float b = color.getB();
float min, max;
min = getMin(r, getMin(g, b));
max = getMax(r, getMax(g, b));
if (min == max)
h = 0;
else if (max == r && g >= b)
h = 60.0f*((g-b)/(max-min)) + 0;
else if (max == r && g < b)
h = 60.0f*((g-b)/(max-min)) + 360;
else if (max == g)
h = 60.0f*((b-r)/(max-min)) + 120;
else if (max == b)
h = 60.0f*((r-g)/(max-min)) + 240;
if (max == 0) s = 0;
else s = 1 - (min/max);
v = max;
};