diff --git a/Core/Multilayer/SpecularMagneticNewNCStrategy.cpp b/Core/Multilayer/SpecularMagneticNewNCStrategy.cpp
index da03ec2b0ecd6143883ef4c3e0b94dee8ca37b8e..426fc0c91ffcdb1b3a51b2ebea4e8b895599d1da 100644
--- a/Core/Multilayer/SpecularMagneticNewNCStrategy.cpp
+++ b/Core/Multilayer/SpecularMagneticNewNCStrategy.cpp
@@ -24,51 +24,49 @@ SpecularMagneticNewNCStrategy::computeRoughnessMatrices(const MatrixRTCoefficien
const MatrixRTCoefficients_v3& coeff_i1,
double sigma) const
{
- auto beta_i = coeff_i.m_lambda(1) - coeff_i.m_lambda(0);
- auto beta_i1 = coeff_i1.m_lambda(1) - coeff_i1.m_lambda(0);
+ complex_t beta_i = coeff_i.m_lambda(1) - coeff_i.m_lambda(0);
+ complex_t beta_i1 = coeff_i1.m_lambda(1) - coeff_i1.m_lambda(0);
auto roughness_matrix = [sigma, &coeff_i, &coeff_i1, beta_i, beta_i1](double sign){
- auto alpha_p = coeff_i1.m_lambda(0) + coeff_i1.m_lambda(1) +
+ const complex_t alpha_p = coeff_i1.m_lambda(0) + coeff_i1.m_lambda(1) +
sign * (coeff_i.m_lambda(0) + coeff_i.m_lambda(1));
auto b_p_vec = beta_i1 * coeff_i1.m_b + sign * beta_i * coeff_i.m_b;
auto square = [](auto & v){
return v.x() * v.x() + v.y() * v.y() + v.z() * v.z();
};
- auto beta_p = std::sqrt(checkForUnderflow(square(b_p_vec)));
+ complex_t beta_p = std::sqrt(checkForUnderflow(square(b_p_vec)));
b_p_vec /= beta_p;
- auto alpha_pp = -(alpha_p * alpha_p + beta_p * beta_p) * sigma * sigma / 8.;
- auto beta_pp = - alpha_p * beta_p * sigma * sigma / 4.;
+ const complex_t alpha_pp = -(alpha_p * alpha_p + beta_p * beta_p) * sigma * sigma / 8.;
+ const complex_t beta_pp = - alpha_p * beta_p * sigma * sigma / 4.;
Eigen::Matrix2cd QL, QR;
- auto factor1 = std::sqrt(2. * (1. + b_p_vec.z()));
- auto factor2 = std::sqrt(2. * (1. - b_p_vec.z()));
+ const complex_t factor1 = std::sqrt(2. * (1. + b_p_vec.z()));
+ const complex_t factor2 = std::sqrt(2. * (1. - b_p_vec.z()));
QL << (b_p_vec.z() + 1.)/factor1, (b_p_vec.z() - 1.)/factor2,
(b_p_vec.x() + I * b_p_vec.y())/factor1, (b_p_vec.x() + I * b_p_vec.y())/factor2;
QR << (b_p_vec.z() + 1.)/factor1, (b_p_vec.x() - I * b_p_vec.y())/factor1,
(b_p_vec.z() - 1.)/factor2, (b_p_vec.x() - I * b_p_vec.y())/factor2;
- auto exp1 = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>(
- {std::exp(alpha_pp), std::exp(alpha_pp)}));
+ const Eigen::Matrix2cd exp1 = Eigen::DiagonalMatrix<complex_t, 2>(
+ {std::exp(alpha_pp), std::exp(alpha_pp)});
- Eigen::Matrix2cd roughnessMatrix;
if( std::abs(beta_p) > std::numeric_limits<double>::epsilon() * 10. )
{
Eigen::Matrix2cd exp2 = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>(
{std::exp(beta_pp), std::exp(-beta_pp)}));
- roughnessMatrix = exp1 * QL * exp2 * QR;
+ return Eigen::Matrix2cd{exp1 * QL * exp2 * QR};
+ }
- }else
- roughnessMatrix = exp1;
- return roughnessMatrix;
+ return exp1;
};
- auto roughness_sum = roughness_matrix(1.);
- auto roughness_diff = roughness_matrix(-1.);
+ const Eigen::Matrix2cd roughness_sum = roughness_matrix(1.);
+ const Eigen::Matrix2cd roughness_diff = roughness_matrix(-1.);
return {roughness_sum, roughness_diff};
}
@@ -81,14 +79,14 @@ SpecularMagneticNewNCStrategy::computeBackwardsSubmatrices(const MatrixRTCoeffic
Eigen::Matrix2cd roughness_sum{Eigen::Matrix2cd::Identity()};
Eigen::Matrix2cd roughness_diff{Eigen::Matrix2cd::Identity()};
if (sigma != 0.) {
- auto ret = computeRoughnessMatrices(coeff_i, coeff_i1, sigma);
+ const auto ret = computeRoughnessMatrices(coeff_i, coeff_i1, sigma);
roughness_sum = std::get<0>(ret);
roughness_diff = std::get<1>(ret);
}
- auto P = Eigen::Matrix2cd(coeff_i.computeInverseP() * coeff_i1.computeP());
- auto mp = 0.5 * (Eigen::Matrix2cd::Identity() + P) * roughness_diff;
- auto mm = 0.5 * (Eigen::Matrix2cd::Identity() - P) * roughness_sum;
+ const auto P = Eigen::Matrix2cd(coeff_i.computeInverseP() * coeff_i1.computeP());
+ const auto mp = 0.5 * (Eigen::Matrix2cd::Identity() + P) * roughness_diff;
+ const auto mm = 0.5 * (Eigen::Matrix2cd::Identity() - P) * roughness_sum;
return {mp, mm};
}
diff --git a/Core/Multilayer/SpecularMagneticNewStrategy.cpp b/Core/Multilayer/SpecularMagneticNewStrategy.cpp
index 53d41f45cf0f5ed3a877b414976dbc8af7ebe1a0..5462c6643906ff369098079cdbb6e8d7e6e60675 100644
--- a/Core/Multilayer/SpecularMagneticNewStrategy.cpp
+++ b/Core/Multilayer/SpecularMagneticNewStrategy.cpp
@@ -97,7 +97,7 @@ SpecularMagneticNewStrategy::computeTR(const std::vector<Slice>& slices,
void SpecularMagneticNewStrategy::calculateUpwards(
std::vector<MatrixRTCoefficients_v3>& coeff, const std::vector<Slice>& slices) const
{
- auto N = slices.size();
+ const auto N = slices.size();
std::vector<Eigen::Matrix2cd> SMatrices(N-1);
std::vector<complex_t> Normalization(N-1);
@@ -111,7 +111,7 @@ void SpecularMagneticNewStrategy::calculateUpwards(
sigma = roughness->getSigma();
// compute the 2x2 submatrices in the write-up denoted as P+, P- and delta
- auto mpmm = computeBackwardsSubmatrices(coeff[i], coeff[i + 1], sigma);
+ const auto mpmm = computeBackwardsSubmatrices(coeff[i], coeff[i + 1], sigma);
const Eigen::Matrix2cd mp = mpmm.first;
const Eigen::Matrix2cd mm = mpmm.second;
@@ -122,7 +122,7 @@ void SpecularMagneticNewStrategy::calculateUpwards(
Si = mp + mm * coeff[i+1].m_R;
S << Si(1, 1) , -Si(0, 1),
-Si(1, 0), Si(0, 0);
- auto norm = S(0, 0) * S(1, 1) - S(0, 1) * S(1, 0);
+ const complex_t norm = S(0, 0) * S(1, 1) - S(0, 1) * S(1, 0);
S = S * delta;
// store the rotation matrix and normalization constant in order to rotate
@@ -142,7 +142,7 @@ void SpecularMagneticNewStrategy::calculateUpwards(
// normalization constants. In addition rotate the polarization by the amount
// that was rotated above the current interface
// if the normalization overflows, all amplitudes below that point are set to zero
- auto dumpingFactor = complex_t(1, 0);
+ complex_t dumpingFactor = 1;
Eigen::Matrix2cd S = Eigen::Matrix2cd::Identity();
for (size_t i = 1; i < N; ++i) {
dumpingFactor = dumpingFactor * Normalization[i - 1];
diff --git a/Core/Multilayer/SpecularMagneticNewTanhStrategy.cpp b/Core/Multilayer/SpecularMagneticNewTanhStrategy.cpp
index 4725681b3321799c794051e2fc4b8f129fb9383b..7ca12455e59b85d4f940dbef5e382f672fbbd354 100644
--- a/Core/Multilayer/SpecularMagneticNewTanhStrategy.cpp
+++ b/Core/Multilayer/SpecularMagneticNewTanhStrategy.cpp
@@ -28,41 +28,38 @@ SpecularMagneticNewTanhStrategy::computeRoughnessMatrix(const MatrixRTCoefficien
if (sigma < 10 * std::numeric_limits<double>::epsilon())
return Eigen::Matrix2cd{Eigen::Matrix2cd::Identity()};
- const auto sigeff = pi2_15 * sigma;
- auto b = coeff.m_b;
+ const double sigeff = pi2_15 * sigma;
+ const auto b = coeff.m_b;
- Eigen::Matrix2cd R;
if (std::abs(b.mag() - 1.) < std::numeric_limits<double>::epsilon() * 10.) {
Eigen::Matrix2cd Q;
- auto factor1 = 2. * (1. + b.z());
+ const double factor1 = 2. * (1. + b.z());
Q << (1. + b.z()), (I * b.y() - b.x()),
(b.x() + I * b.y()), (b.z() + 1.);
- auto l1 = std::sqrt(MathFunctions::tanhc(sigeff * coeff.m_lambda(1)));
- auto l2 = std::sqrt(MathFunctions::tanhc(sigeff * coeff.m_lambda(0)));
+ complex_t l1 = std::sqrt(MathFunctions::tanhc(sigeff * coeff.m_lambda(1)));
+ complex_t l2 = std::sqrt(MathFunctions::tanhc(sigeff * coeff.m_lambda(0)));
if (inverse) {
l1 = 1. / l1;
l2 = 1. / l2;
}
- auto lambda = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>({l1, l2}));
+ const Eigen::Matrix2cd lambda = Eigen::DiagonalMatrix<complex_t, 2>({l1, l2});
- R = Q * lambda * Q.adjoint() / factor1;
+ return Q * lambda * Q.adjoint() / factor1;
} else if (b.mag() < 10 * std::numeric_limits<double>::epsilon()) {
- auto alpha =
+ complex_t alpha =
std::sqrt(MathFunctions::tanhc(0.5 * sigeff * (coeff.m_lambda(1) + coeff.m_lambda(0))));
if (inverse)
alpha = 1. / alpha;
- auto lambda = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>({alpha, alpha}));
+ const Eigen::Matrix2cd lambda = Eigen::DiagonalMatrix<complex_t, 2>({alpha, alpha});
- R = lambda;
-
- } else
- throw std::runtime_error("Broken magnetic field vector");
+ return lambda;
+ }
- return R;
+ throw std::runtime_error("Broken magnetic field vector");
}
std::pair<Eigen::Matrix2cd, Eigen::Matrix2cd>
@@ -81,9 +78,9 @@ SpecularMagneticNewTanhStrategy::computeBackwardsSubmatrices(
* computeRoughnessMatrix(coeff_i1, sigma, true);
}
- auto mproduct = Eigen::Matrix2cd(coeff_i.computeInverseP() * coeff_i1.computeP());
- auto mp = 0.5 * (RInv + mproduct * R);
- auto mm = 0.5 * (RInv - mproduct * R);
+ const Eigen::Matrix2cd mproduct = coeff_i.computeInverseP() * coeff_i1.computeP();
+ const Eigen::Matrix2cd mp = 0.5 * (RInv + mproduct * R);
+ const Eigen::Matrix2cd mm = 0.5 * (RInv - mproduct * R);
return {mp, mm};
}
diff --git a/Core/RT/MatrixRTCoefficients_v3.cpp b/Core/RT/MatrixRTCoefficients_v3.cpp
index 32e2e74b8c896fc826b63d45f293e4a50c12b52a..18b4ec09c8c749ee42ecd529e209429a698104ec 100644
--- a/Core/RT/MatrixRTCoefficients_v3.cpp
+++ b/Core/RT/MatrixRTCoefficients_v3.cpp
@@ -14,7 +14,6 @@
#include "Core/RT/MatrixRTCoefficients_v3.h"
#include "Core/Basics/Assert.h"
-#include <iostream>
namespace
{
@@ -45,25 +44,21 @@ MatrixRTCoefficients_v3* MatrixRTCoefficients_v3::clone() const
Eigen::Matrix2cd MatrixRTCoefficients_v3::TransformationMatrix(complex_t eigenvalue,
Eigen::Vector2d selection) const
{
- Eigen::Matrix2cd result;
-
- auto exp2 = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>(selection));
+ const Eigen::Matrix2cd exp2 = Eigen::DiagonalMatrix<complex_t, 2>(selection);
if (std::abs(m_b.mag() - 1.) < eps) {
Eigen::Matrix2cd Q;
- auto factor1 = 2. * (1. + m_b.z());
+ const double factor1 = 2. * (1. + m_b.z());
Q << (1. + m_b.z()), (I * m_b.y() - m_b.x()), (m_b.x() + I * m_b.y()), (m_b.z() + 1.);
- result = Q * exp2 * Q.adjoint() / factor1;
+ return Q * exp2 * Q.adjoint() / factor1;
} else if (m_b.mag() < eps && eigenvalue != 0.)
- result = exp2;
+ return exp2;
// result = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>({0.5, 0.5}));
else if (m_b.mag() < eps && eigenvalue == 0.)
- result = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>({0.5, 0.5}));
- else
- throw std::runtime_error("Broken magnetic field vector");
+ return Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>({0.5, 0.5}));
- return result;
+ throw std::runtime_error("Broken magnetic field vector");
}
Eigen::Matrix2cd MatrixRTCoefficients_v3::T1Matrix() const
@@ -78,52 +73,42 @@ Eigen::Matrix2cd MatrixRTCoefficients_v3::T2Matrix() const
Eigen::Vector2cd MatrixRTCoefficients_v3::T1plus() const
{
- auto mat = T1Matrix();
- return mat * m_T.col(0);
- ;
+ return T1Matrix() * m_T.col(0);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::R1plus() const
{
- auto mat = T1Matrix();
- return mat * m_R.col(0);
- ;
+ return T1Matrix() * m_R.col(0);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::T2plus() const
{
- auto mat = T2Matrix();
- return mat * m_T.col(0);
+ return T2Matrix() * m_T.col(0);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::R2plus() const
{
- auto mat = T2Matrix();
- return mat * m_R.col(0);
+ return T2Matrix() * m_R.col(0);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::T1min() const
{
- auto mat = T1Matrix();
- return mat * m_T.col(1);
+ return T1Matrix() * m_T.col(1);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::R1min() const
{
- auto mat = T1Matrix();
- return mat * m_R.col(1);
+ return T1Matrix() * m_R.col(1);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::T2min() const
{
- auto mat = T2Matrix();
- return mat * m_T.col(1);
+ return T2Matrix() * m_T.col(1);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::R2min() const
{
- auto mat = T2Matrix();
- return mat * m_R.col(1);
+ return T2Matrix() * m_R.col(1);
}
Eigen::Vector2cd MatrixRTCoefficients_v3::getKz() const
@@ -171,10 +156,10 @@ Eigen::Matrix2cd MatrixRTCoefficients_v3::computeInverseP() const
Eigen::Matrix2cd MatrixRTCoefficients_v3::computeDeltaMatrix(double thickness)
{
Eigen::Matrix2cd result;
- const auto alpha = 0.5 * thickness * (m_lambda(1) + m_lambda(0));
+ const complex_t alpha = 0.5 * thickness * (m_lambda(1) + m_lambda(0));
- const auto exp2 = Eigen::Matrix2cd(Eigen::DiagonalMatrix<complex_t, 2>(
- {GetImExponential(thickness * m_lambda(1)), GetImExponential(thickness * m_lambda(0))}));
+ const Eigen::Matrix2cd exp2 = Eigen::DiagonalMatrix<complex_t, 2>(
+ {GetImExponential(thickness * m_lambda(1)), GetImExponential(thickness * m_lambda(0))});
// Compute resulting phase matrix according to exp(i p_m d_m) = exp1 * Q * exp2 * Q.adjoint();
if (std::abs(m_b.mag() - 1.) < eps) {
@@ -182,15 +167,12 @@ Eigen::Matrix2cd MatrixRTCoefficients_v3::computeDeltaMatrix(double thickness)
const double factor1 = 2. * (1. + m_b.z());
Q << (1. + m_b.z()), (I * m_b.y() - m_b.x()), (m_b.x() + I * m_b.y()), (m_b.z() + 1.);
- result = Q * exp2 * Q.adjoint() / factor1;
-
- } else if (m_b.mag() < eps) {
- result = Eigen::Matrix2cd::Identity() * GetImExponential(alpha);
+ return Q * exp2 * Q.adjoint() / factor1;
- } else
- throw std::runtime_error("Broken magnetic field vector");
+ } else if (m_b.mag() < eps)
+ return Eigen::Matrix2cd::Identity() * GetImExponential(alpha);
- return result;
+ throw std::runtime_error("Broken magnetic field vector");
}
namespace