feat(GridFire): SERiF now uses GridFire

This commit is contained in:
2025-06-21 13:50:04 -04:00
parent 80e4f6c7d9
commit 4cb1a4841a
19 changed files with 42 additions and 1252 deletions

4
.gitignore vendored
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@@ -72,8 +72,12 @@ subprojects/libconstants/
subprojects/liblogging/
subprojects/libconfig/
subprojects/libcomposition/
subprojects/GridFire/
qhull.wrap
quill.wrap
yaml-cpp.wrap
cppad.wrap
.vscode/

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@@ -0,0 +1,2 @@
gridfire_p = subproject('GridFire')
gridfire_dep = gridfire_p.get_variable('network_dep')

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@@ -1,9 +1,9 @@
cmake = import('cmake')
subdir('fourdst')
subdir('GridFire')
subdir('mfem')
subdir('yaml-cpp')
subdir('boost')
subdir('opatIO')
subdir('mpi')

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@@ -1,10 +0,0 @@
quill_cmake_options = cmake.subproject_options()
quill_cmake_options.add_cmake_defines({
'BUILD_SHARED_LIBS': 'ON',
'CMAKE_SKIP_INSTALL_RULES': 'ON'
})
quill_sp = cmake.subproject(
'quill',
options: quill_cmake_options,
)
quill_dep = quill_sp.dependency('quill')

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@@ -1,12 +0,0 @@
yaml_cpp_cmake_options = cmake.subproject_options()
yaml_cpp_cmake_options.add_cmake_defines({
'CMAKE_POLICY_VERSION_MINIMUM': '3.5',
'BUILD_SHARED_LIBS': 'ON',
'CMAKE_SKIP_INSTALL_RULES': 'ON',
'YAML_CPP_BUILD_TESTS': 'OFF'
})
yaml_cpp_sp = cmake.subproject(
'yaml-cpp',
options: yaml_cpp_cmake_options,
)
yaml_cpp_dep = yaml_cpp_sp.dependency('yaml-cpp')

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@@ -25,7 +25,7 @@ py_mod = py_installation.extension_module(
mfem_dep,
polysolver_dep,
trampoline_dep,
network_dep,
gridfire_dep,
],
cpp_args : ['-UNDEBUG'], # Example: Ensure assertions are enabled if needed
install : true,

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@@ -18,7 +18,7 @@
# Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
#
# *********************************************************************** #
project('SERiF', 'cpp', version: '0.0.1a', default_options: ['cpp_std=c++23'], meson_version: '>=1.6.0')
project('SERiF', 'cpp', version: 'v0.0.1a', default_options: ['cpp_std=c++23'], meson_version: '>=1.5.0')
# Add default visibility for all C++ targets
add_project_arguments('-fvisibility=default', language: 'cpp')
@@ -37,6 +37,8 @@ endif
# Pass the DATA_DIR definition to the compiler
add_project_arguments('-DDATA_DIR=' + data_dir, language : 'cpp')
# We disable these because of CppAD
add_project_arguments('-Wno-bitwise-instead-of-logical', language: 'cpp')
# Build external dependencies first so that all the embedded resources are available to the other targets
subdir('build-config')

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@@ -15,7 +15,6 @@ subdir('meshIO')
subdir('resource')
# Physics Libraries
subdir('network')
subdir('polytrope')
# Python Bindings

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@@ -1,37 +0,0 @@
# Define the library
network_sources = files(
'private/network.cpp',
'private/approx8.cpp'
)
network_headers = files(
'public/network.h',
'public/approx8.h'
)
dependencies = [
boost_dep,
const_dep,
mfem_dep,
config_dep,
probe_dep,
composition_dep,
logging_dep
]
# Define the libnetwork library so it can be linked against by other parts of the build system
libnetwork = library('network',
network_sources,
include_directories: include_directories('public'),
dependencies: dependencies,
install : true)
network_dep = declare_dependency(
include_directories: include_directories('public'),
link_with: libnetwork,
sources: network_sources,
dependencies: dependencies,
)
# Make headers accessible
install_headers(network_headers, subdir : '4DSSE/network')

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@@ -1,542 +0,0 @@
/* ***********************************************************************
//
// Copyright (C) 2025 -- The 4D-STAR Collaboration
// File Author: Emily Boudreaux
// Last Modified: March 21, 2025
//
// 4DSSE is free software; you can use it and/or modify
// it under the terms and restrictions the GNU General Library Public
// License version 3 (GPLv3) as published by the Free Software Foundation.
//
// 4DSSE is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU Library General Public License for more details.
//
// You should have received a copy of the GNU Library General Public License
// along with this software; if not, write to the Free Software
// Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
//
// *********************************************************************** */
#include <cmath>
#include <stdexcept>
#include <array>
#include <boost/numeric/odeint.hpp>
#include "const.h"
#include "config.h"
#include "quill/LogMacros.h"
#include "approx8.h"
#include "network.h"
/* Nuclear reaction network in cgs units based on Frank Timmes' "approx8".
At this time it does neither screening nor neutrino losses. It includes
the following 8 isotopes:
h1
he3
he4
c12
n14
o16
ne20
mg24
and the following nuclear reactions:
---pp chain---
p(p,e+)d
d(p,g)he3
he3(he3,2p)he4
---CNO cycle---
c12(p,g)n13 - n13 -> c13 + p -> n14
n14(p,g)o15 - o15 + p -> c12 + he4
n14(a,g)f18 - proceeds to ne20
n15(p,a)c12 - / these two n15 reactions are \ CNO I
n15(p,g)o16 - \ used to calculate a fraction / CNO II
o16(p,g)f17 - f17 + e -> o17 and then o17 + p -> n14 + he4
---alpha captures---
c12(a,g)o16
triple alpha
o16(a,g)ne20
ne20(a,g)mg24
c12(c12,a)ne20
c12(o16,a)mg24
At present the rates are all evaluated using a fitting function.
The coefficients to the fit are from reaclib.jinaweb.org .
*/
namespace serif::network::approx8{
// using namespace std;
using namespace boost::numeric::odeint;
//helper functions
// a function to multiply two arrays and then sum the resulting elements: sum(a*b)
double sum_product( const vec7 &a, const vec7 &b){
if (a.size() != b.size()) {
throw std::runtime_error("Error: array size mismatch in sum_product");
}
double sum=0;
for (size_t i=0; i < a.size(); i++) {
sum += a[i] * b[i];
}
return sum;
}
// the fit to the nuclear reaction rates is of the form:
// exp( a0 + a1/T9 + a2/T9^(1/3) + a3*T9^(1/3) + a4*T9 + a5*T9^(5/3) + log(T9) )
// this function returns an array of the T9 terms in that order, where T9 is the temperatures in GigaKelvin
vec7 get_T9_array(const double &T) {
vec7 arr;
const double T9=1e-9*T;
const double T913=pow(T9,1./3.);
arr[0]=1;
arr[1]=1/T9;
arr[2]=1/T913;
arr[3]=T913;
arr[4]=T9;
arr[5]=pow(T9,5./3.);
arr[6]=log(T9);
return arr;
}
// this function uses the two preceding functions to evaluate the rate given the T9 array and the coefficients
double rate_fit(const vec7 &T9, const vec7 &coef){
return exp(sum_product(T9,coef));
}
// p + p -> d; this, like some of the other rates, this is a composite of multiple fits
double pp_rate(const vec7 &T9) {
constexpr vec7 a1 = {-34.78630, 0,-3.511930, 3.100860, -0.1983140, 1.262510e-2, -1.025170};
constexpr vec7 a2 = { -4.364990e+1,-2.460640e-3,-2.750700,-4.248770e-1,1.598700e-2,-6.908750e-4,-2.076250e-1};
return rate_fit(T9,a1) + rate_fit(T9,a2);
}
// p + d -> he3
double dp_rate(const vec7 &T9) {
constexpr vec7 a1 = {7.528980, 0, -3.720800, 0.8717820, 0, 0,-0.6666670};
constexpr vec7 a2 = {8.935250, 0, -3.720800, 0.1986540, 0, 0, 0.3333330};
return rate_fit(T9,a1) + rate_fit(T9,a2);
}
// he3 + he3 -> he4 + 2p
double he3he3_rate(const vec7 &T9){
constexpr vec7 a = {2.477880e+01,0,-12.27700,-0.1036990,-6.499670e-02,1.681910e-02,-6.666670e-01};
return rate_fit(T9,a);
}
// he3(he3,2p)he4
double he3he4_rate(const vec7 &T9){
constexpr vec7 a1 = {1.560990e+01,0.000000e+00,-1.282710e+01,-3.082250e-02,-6.546850e-01,8.963310e-02,-6.666670e-01};
constexpr vec7 a2 = {1.770750e+01,0.000000e+00,-1.282710e+01,-3.812600e+00,9.422850e-02,-3.010180e-03,1.333330e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2);
}
// he4 + he4 + he4 -> c12
double triple_alpha_rate(const vec7 &T9){
constexpr vec7 a1 = {-9.710520e-01,0.000000e+00,-3.706000e+01,2.934930e+01,-1.155070e+02,-1.000000e+01,-1.333330e+00};
constexpr vec7 a2 = {-1.178840e+01,-1.024460e+00,-2.357000e+01,2.048860e+01,-1.298820e+01,-2.000000e+01,-2.166670e+00};
constexpr vec7 a3 = {-2.435050e+01,-4.126560e+00,-1.349000e+01,2.142590e+01,-1.347690e+00,8.798160e-02,-1.316530e+01};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3);
}
// c12 + p -> n13
double c12p_rate(const vec7 &T9){
constexpr vec7 a1={1.714820e+01,0.000000e+00,-1.369200e+01,-2.308810e-01,4.443620e+00,-3.158980e+00,-6.666670e-01};
constexpr vec7 a2={1.754280e+01,-3.778490e+00,-5.107350e+00,-2.241110e+00,1.488830e-01,0.000000e+00,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2);
}
// c12 + he4 -> o16
double c12a_rate(const vec7 &T9){
constexpr vec7 a1={6.965260e+01,-1.392540e+00,5.891280e+01,-1.482730e+02,9.083240e+00,-5.410410e-01,7.035540e+01};
constexpr vec7 a2={2.546340e+02,-1.840970e+00,1.034110e+02,-4.205670e+02,6.408740e+01,-1.246240e+01,1.373030e+02};
return rate_fit(T9,a1) + rate_fit(T9,a2);
}
// n14(p,g)o15 - o15 + p -> c12 + he4
double n14p_rate(const vec7 &T9){
constexpr vec7 a1={1.701000e+01,0.000000e+00,-1.519300e+01,-1.619540e-01,-7.521230e+00,-9.875650e-01,-6.666670e-01};
constexpr vec7 a2={2.011690e+01,0.000000e+00,-1.519300e+01,-4.639750e+00,9.734580e+00,-9.550510e+00,3.333330e-01};
constexpr vec7 a3={7.654440e+00,-2.998000e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a4={6.735780e+00,-4.891000e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,6.820000e-02};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3) + rate_fit(T9,a4);
}
// n14(a,g)f18 assumed to go on to ne20
double n14a_rate(const vec7 &T9){
constexpr vec7 a1={2.153390e+01,0.000000e+00,-3.625040e+01,0.000000e+00,0.000000e+00,-5.000000e+00,-6.666670e-01};
constexpr vec7 a2={1.968380e-01,-5.160340e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a3={1.389950e+01,-1.096560e+01,-5.622700e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3);
}
// n15(p,a)c12 (CNO I)
double n15pa_rate(const vec7 &T9){
constexpr vec7 a1 = {2.747640e+01,0.000000e+00,-1.525300e+01,1.593180e+00,2.447900e+00,-2.197080e+00,-6.666670e-01};
constexpr vec7 a2 = {-4.873470e+00,-2.021170e+00,0.000000e+00,3.084970e+01,-8.504330e+00,-1.544260e+00,-1.500000e+00};
constexpr vec7 a3 = {2.089720e+01,-7.406000e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a4 = {-6.575220e+00,-1.163800e+00,0.000000e+00,2.271050e+01,-2.907070e+00,2.057540e-01,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3) + rate_fit(T9,a4);
}
// n15(p,g)o16 (CNO II)
double n15pg_rate(const vec7 &T9){
constexpr vec7 a1 = {2.001760e+01,0.000000e+00,-1.524000e+01,3.349260e-01,4.590880e+00,-4.784680e+00,-6.666670e-01};
constexpr vec7 a2 = {6.590560e+00,-2.923150e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a3 = {1.454440e+01,-1.022950e+01,0.000000e+00,0.000000e+00,4.590370e-02,0.000000e+00,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3);
}
double n15pg_frac(const vec7 &T9){
const double f1=n15pg_rate(T9);
const double f2=n15pa_rate(T9);
return f1/(f1+f2);
}
// o16(p,g)f17 then f17 -> o17(p,a)n14
double o16p_rate(const vec7 &T9){
constexpr vec7 a={1.909040e+01,0.000000e+00,-1.669600e+01,-1.162520e+00,2.677030e-01,-3.384110e-02,-6.666670e-01};
return rate_fit(T9,a);
}
// o16(a,g)ne20
double o16a_rate(const vec7 &T9){
constexpr vec7 a1={2.390300e+01,0.000000e+00,-3.972620e+01,-2.107990e-01,4.428790e-01,-7.977530e-02,-6.666670e-01};
constexpr vec7 a2={3.885710e+00,-1.035850e+01,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a3={9.508480e+00,-1.276430e+01,0.000000e+00,-3.659250e+00,7.142240e-01,-1.075080e-03,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3);
}
// ne20(a,g)mg24
double ne20a_rate(const vec7 &T9){
constexpr vec7 a1={2.450580e+01,0.000000e+00,-4.625250e+01,5.589010e+00,7.618430e+00,-3.683000e+00,-6.666670e-01};
constexpr vec7 a2={-3.870550e+01,-2.506050e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a3={1.983070e+00,-9.220260e+00,0.000000e+00,0.000000e+00,0.000000e+00,0.000000e+00,-1.500000e+00};
constexpr vec7 a4={-8.798270e+00,-1.278090e+01,0.000000e+00,1.692290e+01,-2.573250e+00,2.089970e-01,-1.500000e+00};
return rate_fit(T9,a1) + rate_fit(T9,a2) + rate_fit(T9,a3) + rate_fit(T9,a4);
}
// c12(c12,a)ne20
double c12c12_rate(const vec7 &T9){
constexpr vec7 a={6.128630e+01,0.000000e+00,-8.416500e+01,-1.566270e+00,-7.360840e-02,-7.279700e-02,-6.666670e-01};
return rate_fit(T9,a);
}
// c12(o16,a)mg24
double c12o16_rate(const vec7 &T9){
constexpr vec7 a={4.853410e+01,3.720400e-01,-1.334130e+02,5.015720e+01,-3.159870e+00,1.782510e-02,-2.370270e+01};
return rate_fit(T9,a);
}
// for Boost ODE solvers either a struct or a class is required
// a Jacobian matrix for implicit solvers
void Jacobian::operator() ( const vector_type &y, matrix_type &J, double /* t */, vector_type &dfdt ) const {
fourdst::constant::Constants& constants = fourdst::constant::Constants::getInstance();
const double avo = constants.get("N_a").value;
const double clight = constants.get("c").value;
// EOS
const vec7 T9=get_T9_array(y[Approx8Net::iTemp]);
// evaluate rates once per call
const double rpp=pp_rate(T9);
const double r33=he3he3_rate(T9);
const double r34=he3he4_rate(T9);
const double r3a=triple_alpha_rate(T9);
const double rc12p=c12p_rate(T9);
const double rc12a=c12a_rate(T9);
const double rn14p=n14p_rate(T9);
const double rn14a=n14a_rate(T9);
const double ro16p=o16p_rate(T9);
const double ro16a=o16a_rate(T9);
const double rne20a=ne20a_rate(T9);
const double r1212=c12c12_rate(T9);
const double r1216=c12o16_rate(T9);
const double pFrac=n15pg_frac(T9);
const double aFrac=1-pFrac;
const double yh1 = y[Approx8Net::ih1];
const double yhe3 = y[Approx8Net::ihe3];
const double yhe4 = y[Approx8Net::ihe4];
const double yc12 = y[Approx8Net::ic12];
const double yn14 = y[Approx8Net::in14];
const double yo16 = y[Approx8Net::io16];
const double yne20 = y[Approx8Net::ine20];
// zero all elements to begin
for (int i=0; i < Approx8Net::nVar; i++) {
for (int j=0; j < Approx8Net::nVar; j++) {
J(i,j)=0.0;
}
}
// h1 jacobian elements
J(Approx8Net::ih1,Approx8Net::ih1) = -3*yh1*rpp - 2*yc12*rc12p -2*yn14*rn14p -2*yo16*ro16p;
J(Approx8Net::ih1,Approx8Net::ihe3) = 2*yhe3*r33 - yhe4*r34;
J(Approx8Net::ih1,Approx8Net::ihe4) = -yhe3*r34;
J(Approx8Net::ih1,Approx8Net::ic12) = -2*yh1*rc12p;
J(Approx8Net::ih1,Approx8Net::in14) = -2*yh1*rn14p;
J(Approx8Net::ih1,Approx8Net::io16) = -2*yh1*ro16p;
// he3 jacobian elements
J(Approx8Net::ihe3,Approx8Net::ih1) = yh1*rpp;
J(Approx8Net::ihe3,Approx8Net::ihe3) = -2*yhe3*r33 - yhe4*r34;
J(Approx8Net::ihe3,Approx8Net::ihe4) = -yhe3*r34;
// he4 jacobian elements
J(Approx8Net::ihe4,Approx8Net::ih1) = yn14*aFrac*rn14p + yo16*ro16p;
J(Approx8Net::ihe4,Approx8Net::ihe3) = yhe3*r33 - yhe4*r34;
J(Approx8Net::ihe4,Approx8Net::ihe4) = yhe3*r34 - 1.5*yhe4*yhe4*r3a - yc12*rc12a - 1.5*yn14*rn14a - yo16*ro16a - yne20*rne20a;
J(Approx8Net::ihe4,Approx8Net::ic12) = -yhe4*rc12a + yc12*r1212 + yo16*r1216;
J(Approx8Net::ihe4,Approx8Net::in14) = yh1*aFrac*rn14p - 1.5*yhe4*rn14a;
J(Approx8Net::ihe4,Approx8Net::io16) = yh1*ro16p - yhe4*ro16a + yc12*r1216;
J(Approx8Net::ihe4,Approx8Net::ine20) = -yhe4*rne20a;
// c12 jacobian elements
J(Approx8Net::ic12,Approx8Net::ih1) = -yc12*rc12p + yn14*aFrac*rn14p;
J(Approx8Net::ic12,Approx8Net::ihe4) = 0.5*yhe4*yhe4*r3a - yhe4*rc12a;
J(Approx8Net::ic12,Approx8Net::ic12) = -yh1*rc12p - yhe4*rc12a - yo16*r1216 - 2*yc12*r1212;
J(Approx8Net::ic12,Approx8Net::in14) = yh1*yn14*aFrac*rn14p;
J(Approx8Net::ic12,Approx8Net::io16) = -yc12*r1216;
// n14 jacobian elements
J(Approx8Net::in14,Approx8Net::ih1) = yc12*rc12p - yn14*rn14p + yo16*ro16p;
J(Approx8Net::in14,Approx8Net::ihe4) = -yn14*rn14a;
J(Approx8Net::in14,Approx8Net::ic12) = yh1*rc12p;
J(Approx8Net::in14,Approx8Net::in14) = -yh1*rn14p - yhe4*rn14a;
J(Approx8Net::in14,Approx8Net::io16) = yo16*ro16p;
// o16 jacobian elements
J(Approx8Net::io16,Approx8Net::ih1) = yn14*pFrac*rn14p - yo16*ro16p;
J(Approx8Net::io16,Approx8Net::ihe4) = yc12*rc12a - yo16*ro16a;
J(Approx8Net::io16,Approx8Net::ic12) = yhe4*rc12a - yo16*r1216;
J(Approx8Net::io16,Approx8Net::in14) = yh1*pFrac*rn14p;
J(Approx8Net::io16,Approx8Net::io16) = yh1*ro16p - yc12*r1216 -yhe4*ro16a;
// ne20 jacobian elements
J(Approx8Net::ine20,Approx8Net::ihe4) = yn14*rn14a + yo16*ro16a - yne20*rne20a;
J(Approx8Net::ine20,Approx8Net::ic12) = yc12*r1212;
J(Approx8Net::ine20,Approx8Net::in14) = yhe4*rn14a;
J(Approx8Net::ine20,Approx8Net::io16) = yo16*ro16a;
J(Approx8Net::ine20,Approx8Net::ine20) = -yhe4*rne20a;
// mg24 jacobian elements
J(Approx8Net::img24,Approx8Net::ihe4) = yne20*rne20a;
J(Approx8Net::img24,Approx8Net::ic12) = yo16*r1216;
J(Approx8Net::img24,Approx8Net::io16) = yc12*r1216;
J(Approx8Net::img24,Approx8Net::ine20) = yhe4*rne20a;
// energy accounting
for (int j=0; j<Approx8Net::nIso; j++) {
for (int i=0; i<Approx8Net::nIso; i++) {
J(Approx8Net::iEnergy,j) += J(i,j)*Approx8Net::mIon[i];
}
J(Approx8Net::iEnergy,j) *= -avo*clight*clight;
}
}
void ODE::operator() ( const vector_type &y, vector_type &dydt, double /* t */) const {
const fourdst::constant::Constants& constants = fourdst::constant::Constants::getInstance();
const double avo = constants.get("N_a").value;
const double clight = constants.get("c").value;
// EOS
const double T = y[Approx8Net::iTemp];
const double den = y[Approx8Net::iDensity];
const vec7 T9=get_T9_array(T);
// rates
const double rpp=den*pp_rate(T9);
const double r33=den*he3he3_rate(T9);
const double r34=den*he3he4_rate(T9);
const double r3a=den*den*triple_alpha_rate(T9);
const double rc12p=den*c12p_rate(T9);
const double rc12a=den*c12a_rate(T9);
const double rn14p=den*n14p_rate(T9);
const double rn14a=n14a_rate(T9);
const double ro16p=den*o16p_rate(T9);
const double ro16a=den*o16a_rate(T9);
const double rne20a=den*ne20a_rate(T9);
const double r1212=den*c12c12_rate(T9);
const double r1216=den*c12o16_rate(T9);
const double pFrac=n15pg_frac(T9);
const double aFrac=1-pFrac;
const double yh1 = y[Approx8Net:: ih1];
const double yhe3 = y[Approx8Net:: ihe3];
const double yhe4 = y[Approx8Net:: ihe4];
const double yc12 = y[Approx8Net:: ic12];
const double yn14 = y[Approx8Net:: in14];
const double yo16 = y[Approx8Net:: io16];
const double yne20 = y[Approx8Net::ine20];
dydt[Approx8Net::ih1] = -1.5*yh1*yh1*rpp;
dydt[Approx8Net::ih1] += yhe3*yhe3*r33;
dydt[Approx8Net::ih1] += -yhe3*yhe4*r34;
dydt[Approx8Net::ih1] += -2*yh1*yc12*rc12p;
dydt[Approx8Net::ih1] += -2*yh1*yn14*rn14p;
dydt[Approx8Net::ih1] += -2*yh1*yo16*ro16p;
dydt[Approx8Net::ihe3] = 0.5*yh1*yh1*rpp;
dydt[Approx8Net::ihe3] += -yhe3*yhe3*r33;
dydt[Approx8Net::ihe3] += -yhe3*yhe4*r34;
dydt[Approx8Net::ihe4] = 0.5*yhe3*yhe3*r33;
dydt[Approx8Net::ihe4] += yhe3*yhe4*r34;
dydt[Approx8Net::ihe4] += -yhe4*yc12*rc12a;
dydt[Approx8Net::ihe4] += yh1*yn14*aFrac*rn14p;
dydt[Approx8Net::ihe4] += yh1*yo16*ro16p;
dydt[Approx8Net::ihe4] += -0.5*yhe4*yhe4*yhe4*r3a;
dydt[Approx8Net::ihe4] += -yhe4*yo16*ro16a;
dydt[Approx8Net::ihe4] += 0.5*yc12*yc12*r1212;
dydt[Approx8Net::ihe4] += yc12*yo16*r1216;
dydt[Approx8Net::ihe4] += -yhe4*yne20*rne20a;
dydt[Approx8Net::ic12] = (1./6.)*yhe4*yhe4*yhe4*r3a;
dydt[Approx8Net::ic12] += -yhe4*yc12*rc12a;
dydt[Approx8Net::ic12] += -yh1*yc12*rc12p;
dydt[Approx8Net::ic12] += yh1*yn14*aFrac*rn14p;
dydt[Approx8Net::ic12] += -yc12*yc12*r1212;
dydt[Approx8Net::ic12] += -yc12*yo16*r1216;
dydt[Approx8Net::in14] = yh1*yc12*rc12p;
dydt[Approx8Net::in14] += -yh1*yn14*rn14p;
dydt[Approx8Net::in14] += yh1*yo16*ro16p;
dydt[Approx8Net::in14] += -yhe4*yn14*rn14a;
dydt[Approx8Net::io16] = yhe4*yc12*rc12a;
dydt[Approx8Net::io16] += yh1*yn14*pFrac*rn14p;
dydt[Approx8Net::io16] += -yh1*yo16*ro16p;
dydt[Approx8Net::io16] += -yc12*yo16*r1216;
dydt[Approx8Net::io16] += -yhe4*yo16*ro16a;
dydt[Approx8Net::ine20] = 0.5*yc12*yc12*r1212;
dydt[Approx8Net::ine20] += yhe4*yn14*rn14a;
dydt[Approx8Net::ine20] += yhe4*yo16*ro16a;
dydt[Approx8Net::ine20] += -yhe4*yne20*rne20a;
dydt[Approx8Net::img24] = yc12*yo16*r1216;
dydt[Approx8Net::img24] += yhe4*yne20*rne20a;
dydt[Approx8Net::iTemp] = 0.;
dydt[Approx8Net::iDensity] = 0.;
// energy accounting
double eNuc = 0.;
for (int i=0; i<Approx8Net::nIso; i++) {
eNuc += Approx8Net::mIon[i]*dydt[i];
}
dydt[Approx8Net::iEnergy] = -eNuc*avo*clight*clight;
}
Approx8Network::Approx8Network() : Network(APPROX8) {}
NetOut Approx8Network::evaluate(const NetIn &netIn) {
m_y = convert_netIn(netIn);
m_tMax = netIn.tMax;
m_dt0 = netIn.dt0;
const double stiff_abs_tol = m_config.get<double>("Network:Approx8:Stiff:AbsTol", 1.0e-6);
const double stiff_rel_tol = m_config.get<double>("Network:Approx8:Stiff:RelTol", 1.0e-6);
const double nonstiff_abs_tol = m_config.get<double>("Network:Approx8:NonStiff:AbsTol", 1.0e-6);
const double nonstiff_rel_tol = m_config.get<double>("Network:Approx8:NonStiff:RelTol", 1.0e-6);
int num_steps = -1;
if (m_stiff) {
LOG_DEBUG(m_logger, "Using stiff solver for Approx8Network");
num_steps = integrate_const(
make_dense_output<rosenbrock4<double>>(stiff_abs_tol, stiff_rel_tol),
std::make_pair(ODE(), Jacobian()),
m_y,
0.0,
m_tMax,
m_dt0
);
} else {
LOG_DEBUG(m_logger, "Using non stiff solver for Approx8Network");
num_steps = integrate_const (
make_dense_output<runge_kutta_dopri5<vector_type>>(nonstiff_abs_tol, nonstiff_rel_tol),
ODE(),
m_y,
0.0,
m_tMax,
m_dt0
);
}
double ySum = 0.0;
for (int i = 0; i < Approx8Net::nIso; i++) {
m_y[i] *= Approx8Net::aIon[i];
ySum += m_y[i];
}
for (int i = 0; i < Approx8Net::nIso; i++) {
m_y[i] /= ySum;
}
NetOut netOut;
std::vector<double> outComposition;
outComposition.reserve(Approx8Net::nVar);
for (int i = 0; i < Approx8Net::nIso; i++) {
outComposition.push_back(m_y[i]);
}
netOut.energy = m_y[Approx8Net::iEnergy];
netOut.num_steps = num_steps;
const std::vector<std::string> symbols = {"H-1", "He-3", "He-4", "C-12", "N-14", "O-16", "Ne-20", "Mg-24"};
netOut.composition = fourdst::composition::Composition(symbols, outComposition);
return netOut;
}
void Approx8Network::setStiff(bool stiff) {
m_stiff = stiff;
}
vector_type Approx8Network::convert_netIn(const NetIn &netIn) {
vector_type y(Approx8Net::nVar, 0.0);
y[Approx8Net::ih1] = netIn.composition.getMassFraction("H-1");
y[Approx8Net::ihe3] = netIn.composition.getMassFraction("He-3");
y[Approx8Net::ihe4] = netIn.composition.getMassFraction("He-4");
y[Approx8Net::ic12] = netIn.composition.getMassFraction("C-12");
y[Approx8Net::in14] = netIn.composition.getMassFraction("N-14");
y[Approx8Net::io16] = netIn.composition.getMassFraction("O-16");
y[Approx8Net::ine20] = netIn.composition.getMassFraction("Ne-20");
y[Approx8Net::img24] = netIn.composition.getMassFraction("Mg-24");
y[Approx8Net::iTemp] = netIn.temperature;
y[Approx8Net::iDensity] = netIn.density;
y[Approx8Net::iEnergy] = netIn.energy;
double ySum = 0.0;
for (int i = 0; i < Approx8Net::nIso; i++) {
y[i] /= Approx8Net::aIon[i];
ySum += y[i];
}
for (int i = 0; i < Approx8Net::nIso; i++) {
y[i] /= ySum;
}
return y;
}
};
// main program

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@@ -1,69 +0,0 @@
/* ***********************************************************************
//
// Copyright (C) 2025 -- The 4D-STAR Collaboration
// File Authors: Aaron Dotter, Emily Boudreaux
// Last Modified: March 21, 2025
//
// 4DSSE is free software; you can use it and/or modify
// it under the terms and restrictions the GNU General Library Public
// License version 3 (GPLv3) as published by the Free Software Foundation.
//
// 4DSSE is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU Library General Public License for more details.
//
// You should have received a copy of the GNU Library General Public License
// along with this software; if not, write to the Free Software
// Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
//
// *********************************************************************** */
#include "network.h"
#include "config.h"
#include "approx8.h"
#include "logging.h"
#include "quill/LogMacros.h"
namespace serif::network {
Network::Network(const NetworkFormat format) :
m_config(fourdst::config::Config::getInstance()),
m_logManager(fourdst::logging::LogManager::getInstance()),
m_logger(m_logManager.getLogger("log")),
m_format(format) {
if (format == NetworkFormat::UNKNOWN) {
LOG_ERROR(m_logger, "nuclearNetwork::Network::Network() called with UNKNOWN format");
throw std::runtime_error("nuclearNetwork::Network::Network() called with UNKNOWN format");
}
}
NetworkFormat Network::getFormat() const {
return m_format;
}
NetworkFormat Network::setFormat(const NetworkFormat format) {
const NetworkFormat oldFormat = m_format;
m_format = format;
return oldFormat;
}
NetOut Network::evaluate(const NetIn &netIn) {
NetOut netOut;
switch (m_format) {
case APPROX8: {
approx8::Approx8Network network;
netOut = network.evaluate(netIn);
break;
}
case UNKNOWN: {
LOG_ERROR(m_logger, "Network format {} is not implemented.", FormatStringLookup.at(m_format));
throw std::runtime_error("Network format not implemented.");
}
default: {
LOG_ERROR(m_logger, "Unknown network format.");
throw std::runtime_error("Unknown network format.");
}
}
return netOut;
}
}

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@@ -1,333 +0,0 @@
/* ***********************************************************************
//
// Copyright (C) 2025 -- The 4D-STAR Collaboration
// File Author: Emily Boudreaux
// Last Modified: March 21, 2025
//
// 4DSSE is free software; you can use it and/or modify
// it under the terms and restrictions the GNU General Library Public
// License version 3 (GPLv3) as published by the Free Software Foundation.
//
// 4DSSE is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU Library General Public License for more details.
//
// You should have received a copy of the GNU Library General Public License
// along with this software; if not, write to the Free Software
// Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
//
// *********************************************************************** */
#pragma once
#include <array>
#include <boost/numeric/odeint.hpp>
#include "network.h"
/**
* @file approx8.h
* @brief Header file for the Approx8 nuclear reaction network.
*
* This file contains the definitions and declarations for the Approx8 nuclear reaction network.
* The network is based on Frank Timmes' "approx8" and includes 8 isotopes and various nuclear reactions.
* The rates are evaluated using a fitting function with coefficients from reaclib.jinaweb.org.
*/
namespace serif::network::approx8{
/**
* @typedef vector_type
* @brief Alias for a vector of doubles using Boost uBLAS.
*/
typedef boost::numeric::ublas::vector< double > vector_type;
/**
* @typedef matrix_type
* @brief Alias for a matrix of doubles using Boost uBLAS.
*/
typedef boost::numeric::ublas::matrix< double > matrix_type;
/**
* @typedef vec7
* @brief Alias for a std::array of 7 doubles.
*/
typedef std::array<double,7> vec7;
using namespace boost::numeric::odeint;
/**
* @struct Approx8Net
* @brief Contains constants and arrays related to the nuclear network.
*/
struct Approx8Net{
static constexpr int ih1=0;
static constexpr int ihe3=1;
static constexpr int ihe4=2;
static constexpr int ic12=3;
static constexpr int in14=4;
static constexpr int io16=5;
static constexpr int ine20=6;
static constexpr int img24=7;
static constexpr int iTemp=img24+1;
static constexpr int iDensity =iTemp+1;
static constexpr int iEnergy=iDensity+1;
static constexpr int nIso=img24+1; // number of isotopes
static constexpr int nVar=iEnergy+1; // number of variables
static constexpr std::array<int,nIso> aIon = {
1,
3,
4,
12,
14,
16,
20,
24
};
static constexpr std::array<double,nIso> mIon = {
1.67262164e-24,
5.00641157e-24,
6.64465545e-24,
1.99209977e-23,
2.32462686e-23,
2.65528858e-23,
3.31891077e-23,
3.98171594e-23
};
};
/**
* @brief Multiplies two arrays and sums the resulting elements.
* @param a First array.
* @param b Second array.
* @return Sum of the product of the arrays.
* @example
* @code
* vec7 a = {1.0, 2.0, 3.0, 4.0, 5.0, 6.0, 7.0};
* vec7 b = {0.5, 0.5, 0.5, 0.5, 0.5, 0.5, 0.5};
* double result = sum_product(a, b);
* @endcode
*/
double sum_product( const vec7 &a, const vec7 &b);
/**
* @brief Returns an array of T9 terms for the nuclear reaction rate fit.
* @param T Temperature in GigaKelvin.
* @return Array of T9 terms.
* @example
* @code
* double T = 1.5;
* vec7 T9_array = get_T9_array(T);
* @endcode
*/
vec7 get_T9_array(const double &T);
/**
* @brief Evaluates the nuclear reaction rate given the T9 array and coefficients.
* @param T9 Array of T9 terms.
* @param coef Array of coefficients.
* @return Evaluated rate.
* @example
* @code
* vec7 T9 = get_T9_array(1.5);
* vec7 coef = {1.0, 0.1, 0.01, 0.001, 0.0001, 0.00001, 0.000001};
* double rate = rate_fit(T9, coef);
* @endcode
*/
double rate_fit(const vec7 &T9, const vec7 &coef);
/**
* @brief Calculates the rate for the reaction p + p -> d.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double pp_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction p + d -> he3.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double dp_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction he3 + he3 -> he4 + 2p.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double he3he3_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction he3(he3,2p)he4.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double he3he4_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction he4 + he4 + he4 -> c12.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double triple_alpha_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction c12 + p -> n13.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double c12p_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction c12 + he4 -> o16.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double c12a_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction n14(p,g)o15 - o15 + p -> c12 + he4.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double n14p_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction n14(a,g)f18 assumed to go on to ne20.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double n14a_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction n15(p,a)c12 (CNO I).
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double n15pa_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction n15(p,g)o16 (CNO II).
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double n15pg_rate(const vec7 &T9);
/**
* @brief Calculates the fraction for the reaction n15(p,g)o16.
* @param T9 Array of T9 terms.
* @return Fraction of the reaction.
*/
double n15pg_frac(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction o16(p,g)f17 then f17 -> o17(p,a)n14.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double o16p_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction o16(a,g)ne20.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double o16a_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction ne20(a,g)mg24.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double ne20a_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction c12(c12,a)ne20.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double c12c12_rate(const vec7 &T9);
/**
* @brief Calculates the rate for the reaction c12(o16,a)mg24.
* @param T9 Array of T9 terms.
* @return Rate of the reaction.
*/
double c12o16_rate(const vec7 &T9);
/**
* @struct Jacobian
* @brief Functor to calculate the Jacobian matrix for implicit solvers.
*/
struct Jacobian {
/**
* @brief Calculates the Jacobian matrix.
* @param y State vector.
* @param J Jacobian matrix.
* @param dfdt Derivative of the state vector.
*/
void operator() ( const vector_type &y, matrix_type &J, double /* t */, vector_type &dfdt ) const;
};
/**
* @struct ODE
* @brief Functor to calculate the derivatives for the ODE solver.
*/
struct ODE {
/**
* @brief Calculates the derivatives of the state vector.
* @param y State vector.
* @param dydt Derivative of the state vector.
*/
void operator() ( const vector_type &y, vector_type &dydt, double /* t */) const;
};
/**
* @class Approx8Network
* @brief Class for the Approx8 nuclear reaction network.
*/
class Approx8Network final : public Network {
public:
Approx8Network();
/**
* @brief Evaluates the nuclear network.
* @param netIn Input parameters for the network.
* @return Output results from the network.
*/
NetOut evaluate(const NetIn &netIn) override;
/**
* @brief Sets whether the solver should use a stiff method.
* @param stiff Boolean indicating if a stiff method should be used.
*/
void setStiff(bool stiff);
/**
* @brief Checks if the solver is using a stiff method.
* @return Boolean indicating if a stiff method is being used.
*/
bool isStiff() const { return m_stiff; }
private:
vector_type m_y;
double m_tMax = 0;
double m_dt0 = 0;
bool m_stiff = false;
/**
* @brief Converts the input parameters to the internal state vector.
* @param netIn Input parameters for the network.
* @return Internal state vector.
*/
static vector_type convert_netIn(const NetIn &netIn);
};
} // namespace nnApprox8

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@@ -1,129 +0,0 @@
/* ***********************************************************************
//
// Copyright (C) 2025 -- The 4D-STAR Collaboration
// File Authors: Emily Boudreaux, Aaron Dotter
// Last Modified: March 21, 2025
//
// 4DSSE is free software; you can use it and/or modify
// it under the terms and restrictions the GNU General Library Public
// License version 3 (GPLv3) as published by the Free Software Foundation.
//
// 4DSSE is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
// See the GNU Library General Public License for more details.
//
// You should have received a copy of the GNU Library General Public License
// along with this software; if not, write to the Free Software
// Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
//
// *********************************************************************** */
#pragma once
#include <vector>
#include "logging.h"
#include "config.h"
#include "quill/Logger.h"
#include "composition.h"
#include <unordered_map>
namespace serif::network {
enum NetworkFormat {
APPROX8, ///< Approx8 nuclear reaction network format.
UNKNOWN,
};
static inline std::unordered_map<NetworkFormat, std::string> FormatStringLookup = {
{APPROX8, "Approx8"},
{UNKNOWN, "Unknown"}
};
/**
* @struct NetIn
* @brief Input structure for the network evaluation.
*
* This structure holds the input parameters required for the network evaluation.
*
* Example usage:
* @code
* nuclearNetwork::NetIn netIn;
* netIn.composition = {1.0, 0.0, 0.0};
* netIn.tmax = 1.0e6;
* netIn.dt0 = 1.0e-3;
* netIn.temperature = 1.0e8;
* netIn.density = 1.0e5;
* netIn.energy = 1.0e12;
* @endcode
*/
struct NetIn {
fourdst::composition::Composition composition; ///< Composition of the network
double tMax; ///< Maximum time
double dt0; ///< Initial time step
double temperature; ///< Temperature in Kelvin
double density; ///< Density in g/cm^3
double energy; ///< Energy in ergs
};
/**
* @struct NetOut
* @brief Output structure for the network evaluation.
*
* This structure holds the output results from the network evaluation.
*
* Example usage:
* @code
* nuclearNetwork::NetOut netOut = network.evaluate(netIn);
* std::vector<double> composition = netOut.composition;
* int steps = netOut.num_steps;
* double energy = netOut.energy;
* @endcode
*/
struct NetOut {
fourdst::composition::Composition composition; ///< Composition of the network after evaluation
int num_steps; ///< Number of steps taken in the evaluation
double energy; ///< Energy in ergs after evaluation
};
/**
* @class Network
* @brief Class for network evaluation.
*
* This class provides methods to evaluate the network based on the input parameters.
*
* Example usage:
* @code
* nuclearNetwork::Network network;
* nuclearNetwork::NetIn netIn;
* // Set netIn parameters...
* nuclearNetwork::NetOut netOut = network.evaluate(netIn);
* @endcode
*/
class Network {
public:
explicit Network(const NetworkFormat format = NetworkFormat::APPROX8);
virtual ~Network() = default;
NetworkFormat getFormat() const;
NetworkFormat setFormat(const NetworkFormat format);
/**
* @brief Evaluate the network based on the input parameters.
*
* @param netIn Input parameters for the network evaluation.
* @return NetOut Output results from the network evaluation.
*/
virtual NetOut evaluate(const NetIn &netIn);
protected:
fourdst::config::Config& m_config; ///< Configuration instance
fourdst::logging::LogManager& m_logManager; ///< Log manager instance
quill::Logger* m_logger; ///< Logger instance
NetworkFormat m_format; ///< Format of the network
};
} // namespace nuclearNetwork

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@@ -13,22 +13,22 @@ namespace py = pybind11;
void register_network_bindings(pybind11::module &network_submodule) {
py::enum_<serif::network::NetworkFormat>(network_submodule, "NetworkFormat")
.value("APPROX8", serif::network::NetworkFormat::APPROX8)
.value("UNKNOWN", serif::network::NetworkFormat::UNKNOWN)
.def("__str__", [](const serif::network::NetworkFormat format) {
return serif::network::FormatStringLookup[format];
py::enum_<gridfire::NetworkFormat>(network_submodule, "NetworkFormat")
.value("APPROX8", gridfire::NetworkFormat::APPROX8)
.value("UNKNOWN", gridfire::NetworkFormat::UNKNOWN)
.def("__str__", [](const gridfire::NetworkFormat format) {
return gridfire::FormatStringLookup[format];
});
py::class_<serif::network::NetIn>(network_submodule, "NetIn")
py::class_<gridfire::NetIn>(network_submodule, "NetIn")
.def(py::init<>())
.def_readwrite("composition", &serif::network::NetIn::composition)
.def_readwrite("tMax", &serif::network::NetIn::tMax)
.def_readwrite("dt0", &serif::network::NetIn::dt0)
.def_readwrite("temperature", &serif::network::NetIn::temperature)
.def_readwrite("density", &serif::network::NetIn::density)
.def_readwrite("energy", &serif::network::NetIn::energy)
.def("__repr__", [](const serif::network::NetIn &netIn) {
.def_readwrite("composition", &gridfire::NetIn::composition)
.def_readwrite("tMax", &gridfire::NetIn::tMax)
.def_readwrite("dt0", &gridfire::NetIn::dt0)
.def_readwrite("temperature", &gridfire::NetIn::temperature)
.def_readwrite("density", &gridfire::NetIn::density)
.def_readwrite("energy", &gridfire::NetIn::energy)
.def("__repr__", [](const gridfire::NetIn &netIn) {
std::stringstream ss;
ss << "NetIn(composition=" << netIn.composition
<< ", tMax=" << netIn.tMax
@@ -39,11 +39,11 @@ void register_network_bindings(pybind11::module &network_submodule) {
return ss.str();
});
py::class_<serif::network::NetOut>(network_submodule, "NetOut")
.def_readonly("composition", &serif::network::NetOut::composition)
.def_readonly("num_steps", &serif::network::NetOut::num_steps)
.def_readonly("energy", &serif::network::NetOut::energy)
.def("__repr__", [](const serif::network::NetOut &netOut) {
py::class_<gridfire::NetOut>(network_submodule, "NetOut")
.def_readonly("composition", &gridfire::NetOut::composition)
.def_readonly("num_steps", &gridfire::NetOut::num_steps)
.def_readonly("energy", &gridfire::NetOut::energy)
.def("__repr__", [](const gridfire::NetOut &netOut) {
std::stringstream ss;
ss << "NetOut(composition=" << netOut.composition
<< ", num_steps=" << netOut.num_steps
@@ -51,14 +51,14 @@ void register_network_bindings(pybind11::module &network_submodule) {
return ss.str();
});
py::class_<serif::network::Network>(network_submodule, "Network")
.def(py::init<serif::network::NetworkFormat>(), py::arg("format"))
.def("evaluate", &serif::network::Network::evaluate, py::arg("netIn"))
.def("getFormat", &serif::network::Network::getFormat)
.def("setFormat", &serif::network::Network::setFormat, py::arg("format"))
.def("__repr__", [](const serif::network::Network &network) {
py::class_<gridfire::Network>(network_submodule, "Network")
.def(py::init<gridfire::NetworkFormat>(), py::arg("format"))
.def("evaluate", &gridfire::Network::evaluate, py::arg("netIn"))
.def("getFormat", &gridfire::Network::getFormat)
.def("setFormat", &gridfire::Network::setFormat, py::arg("format"))
.def("__repr__", [](const gridfire::Network &network) {
std::stringstream ss;
ss << "Network(format=" << serif::network::FormatStringLookup[network.getFormat()] << ")";
ss << "Network(format=" << gridfire::FormatStringLookup[network.getFormat()] << ")";
return ss.str();
});
@@ -68,7 +68,7 @@ void register_network_bindings(pybind11::module &network_submodule) {
}
void register_approx8_bindings(pybind11::module &network_submodule) {
using namespace serif::network::approx8;
using namespace gridfire::approx8;
py::class_<vec7>(network_submodule, "vec7")
.def("__getitem__", [](const vec7 &v, const size_t i) {

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@@ -5,7 +5,7 @@ bindings_headers = files('bindings.h')
dependencies = [
python3_dep,
pybind11_dep,
network_dep,
gridfire_dep,
]
shared_module('py_network',

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@@ -0,0 +1,4 @@
[wrap-git]
url = https://github.com/4D-STAR/GridFire.git
revision = v0.0.3a
depth = 1

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@@ -8,7 +8,6 @@ subdir('meshIO')
subdir('probe')
subdir('eos')
subdir('resource')
subdir('network')
subdir('poly')

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@@ -1,63 +0,0 @@
#include <gtest/gtest.h>
#include <string>
#include "approx8.h"
#include "config.h"
#include "network.h"
#include "composition.h"
#include <vector>
std::string TEST_CONFIG = std::string(getenv("MESON_SOURCE_ROOT")) + "/tests/testsConfig.yaml";
class approx8Test : public ::testing::Test {};
/**
* @brief Test the constructor of the Config class.
*/
TEST_F(approx8Test, constructor) {
fourdst::config::Config& config = fourdst::config::Config::getInstance();
config.loadConfig(TEST_CONFIG);
EXPECT_NO_THROW(serif::network::approx8::Approx8Network());
}
TEST_F(approx8Test, setStiff) {
serif::network::approx8::Approx8Network network;
EXPECT_NO_THROW(network.setStiff(true));
EXPECT_TRUE(network.isStiff());
EXPECT_NO_THROW(network.setStiff(false));
EXPECT_FALSE(network.isStiff());
}
TEST_F(approx8Test, evaluate) {
serif::network::approx8::Approx8Network network;
serif::network::NetIn netIn;
std::vector<double> comp = {0.708, 2.94e-5, 0.276, 0.003, 0.0011, 9.62e-3, 1.62e-3, 5.16e-4};
std::vector<std::string> symbols = {"H-1", "He-3", "He-4", "C-12", "N-14", "O-16", "Ne-20", "Mg-24"};
fourdst::composition::Composition composition;
composition.registerSymbol(symbols, true);
composition.setMassFraction(symbols, comp);
bool isFinalized = composition.finalize(true);
EXPECT_TRUE(isFinalized);
netIn.composition = composition;
netIn.temperature = 1e7;
netIn.density = 1e2;
netIn.energy = 0.0;
netIn.tMax = 3.15e17;
netIn.dt0 = 1e12;
serif::network::NetOut netOut;
EXPECT_NO_THROW(netOut = network.evaluate(netIn));
double energyFraction = netOut.energy / 1.6433051127589775E+18;
double H1MassFraction = netOut.composition.getMassFraction("H-1")/ 0.50166262445895604;
double He4MassFraction = netOut.composition.getMassFraction("He-4") / 0.48172273720971226;
double relError = 1e-6;
EXPECT_NEAR(H1MassFraction, 1.0, relError);
EXPECT_NEAR(He4MassFraction, 1.0, relError);
EXPECT_NEAR(energyFraction, 1.0, relError);
}

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@@ -1,25 +0,0 @@
# Test files for network
test_sources = [
'approx8Test.cpp',
]
foreach test_file : test_sources
exe_name = test_file.split('.')[0]
message('Building test: ' + exe_name)
# Create an executable target for each test
test_exe = executable(
exe_name,
test_file,
dependencies: [gtest_dep, gtest_main, network_dep, composition_dep],
include_directories: include_directories('../../src/network/public'),
link_with: libnetwork, # Link the dobj library
install_rpath: '@loader_path/../../src' # Ensure runtime library path resolves correctly
)
# Add the executable as a test
test(
exe_name,
test_exe,
env: ['MESON_SOURCE_ROOT=' + meson.project_source_root(), 'MESON_BUILD_ROOT=' + meson.project_build_root()])
endforeach