cv::Mat mylib::complexMul(const cv::Mat& A, const cv::Mat& B)
{
if (A.channels() != B.channels())
exit(1);
else
{
cv::Mat AA,BB;
//int ddd = A.channels();
if (A.channels()!=2 && A.channels()!=6)
{
AA = toComplex(A);
BB = toComplex(B);
}
else
{
AA = A;
BB = B;
}
//int a = AA.type();
//int b = A.type();
//int c = BB.type();
//int d = B.type();
cv::Mat rst;
cv::mulSpectrums(AA,BB,rst,DFT_ROWS,true);
return rst;
}
}
cv::Mat mylib::toComplex(const cv::Mat& A)
{
if (A.channels() == 2) //already complex
return A;
else
{
cv::Mat AZim = cv::Mat::zeros(A.rows,A.cols,A.type());
return toComplex(A,AZim);
}
}
RVector DC1dModellingC::response(const RVector & model) {
if (model.size() < (nlayers_ * 3 - 1)){
throwError(1, WHERE_AM_I + " model vector to small: nlayers_ * 2 + 1 = " + toStr(nlayers_ * 3 - 1) + " > " + toStr(model.size()));
}
if (model.size() > (nlayers_ * 3 - 1)){
throwError(1, WHERE_AM_I + " model vector to large: nlayers_ * 2 + 1 = " + toStr(nlayers_ * 3 - 1) + " < " + toStr(model.size()));
}
RVector thk(model(0, nlayers_ -1));
RVector rhoM(model(nlayers_ - 1, 2 * nlayers_ -1));
RVector rhoP(- model(2 * nlayers_ -1, 3 * nlayers_ -1));
// for (size_t i = 0 ; i < nlayers_ -1 ; i++) thk[i] = model[i];
// for (size_t i = 0 ; i < nlayers_ ; i++) rhoM[i] = model[nlayers_ + i -1];
// for (size_t i = 0 ; i < nlayers_ ; i++) rhoP[i] = - model[2 * nlayers_ + i -1];
CVector rhoC = toComplex(RVector(rhoM * cos(rhoP)), RVector(rhoM * sin(rhoP)));
CVector rhoaC = rhoaT< CVector >(rhoC, thk);
RVector angPlus = abs(angle(rhoaC));
return cat(abs(rhoaC), angPlus);
}
// Implicit conversion to complex function.
numeric::operator complex() const { return toComplex(); }
