#include "structures.h" #include "catima/nucdata.h" #include namespace catima{ bool operator==(const Projectile &a, const Projectile&b){ if( (a.A==b.A) && (a.Z==b.Z) && (a.Q==b.Q)){ return true; } else return false; } bool operator==(const Material &a, const Material&b){ if(a.density() != b.density())return false; if(a.ncomponents() != b.ncomponents())return false; if(a.I() != b.I())return false; for(int i=0;i>list,double _density, double _ipot):rho(_density),i_potential(_ipot){ std::initializer_list>::iterator it; atoms.reserve(list.size()); for ( it=list.begin(); it!=list.end(); ++it){ add_element((*it)[0],(*it)[1],(*it)[2]); } calculate(); // calculate if needed, ie average molar mass } Material::Material(double _a, int _z, double _rho, double _th):rho(_rho),th(_th){ add_element(_a,_z,1.0); } void Material::add_element(double _a, int _z, double _stn){ double a = (_a>0)?_a:element_atomic_weight(_z); atoms.push_back({a,_z,_stn}); molar_mass += _stn*a; } void Material::calculate(){ if(std::all_of(atoms.begin(),atoms.end(),[](const Target &t){return t.stn<1.0;})){ double sum = 0; for(auto& e: atoms){ sum+= e.stn/e.A; } molar_mass = 1.0/sum; } } Layers& Layers::operator=(const Layers& other){ materials.clear(); for(auto&e : other.get_materials()){ materials.push_back(e); } return *this; } void Layers::add(Material m){ materials.push_back(m); } Layers operator+(const Layers &a, const Layers&b){ Layers res; for(auto &e:a.materials){ res.add(e); } for(auto &e:b.materials){ res.add(e); } return res; } Layers operator+(const Layers &a, const Material &m){ Layers res; for(auto &e:a.materials){ res.add(e); } res.add(m); return res; } }