#ifndef FITTER_HPP #define FITTER_HPP #include "opt_exception.hpp" #include "optimizer.hpp" #include #include #include #include #include namespace opt_utilities { /////////////////////////////////// //////class data/////////////////// //////contain single data point//// /////////////////////////////////// template class statistic; template class param_modifier; template class data { private: Tx x,x_lower_err,x_upper_err; Ty y,y_lower_err,y_upper_err; public: data(const Tx& _x,const Ty& _y,const Ty& _y_lower_err,const Ty& _y_upper_err,const Tx& _x_lower_err,const Tx& _x_upper_err) { opt_eq(x,_x); opt_eq(x_lower_err,_x_lower_err); opt_eq(x_upper_err,_x_upper_err); opt_eq(y,_y); opt_eq(y_lower_err,_y_lower_err); opt_eq(y_upper_err,_y_upper_err); } data() :x(), x_lower_err(), x_upper_err(), y(), y_lower_err(), y_upper_err() {} data(const data& rhs) { opt_eq(x,rhs.x); opt_eq(x_lower_err,rhs.x_lower_err); opt_eq(x_upper_err,rhs.x_upper_err); opt_eq(y,rhs.y); opt_eq(y_lower_err,rhs.y_lower_err); opt_eq(y_upper_err,rhs.y_upper_err); } data& operator=(const data& rhs) { opt_eq(x,rhs.x); opt_eq(x_lower_err,rhs.x_lower_err); opt_eq(x_upper_err,rhs.x_upper_err); opt_eq(y,rhs.y); opt_eq(y_lower_err,rhs.y_lower_err); opt_eq(y_upper_err,rhs.y_upper_err); return *this; } public: const Tx& get_x()const { return x; } const Tx& get_x_lower_err()const { return x_lower_err; } const Tx& get_x_upper_err()const { return x_upper_err; } const Ty& get_y()const { return y; } const Ty& get_y_lower_err()const { return y_lower_err; } const Ty& get_y_upper_err()const { return y_upper_err; } void set_x(const Tx& _x) { opt_eq(x,_x); } void set_x_lower_err(const Tx& _x) { opt_eq(x_lower_err,_x); } void set_x_upper_err(const Tx& _x) { opt_eq(x_upper_err,_x); } void set_y(const Ty& _y) { opt_eq(y,_y); } void set_y_lower_err(const Ty& _y) { opt_eq(y_lower_err,_y); } void set_y_upper_err(const Ty& _y) { opt_eq(y_upper_err,_y); } }; //////////////////////////////////// ///class data_set/////////////////// ///contain a set of data//////////// //////////////////////////////////// template class data_set { private: virtual const data& do_get_data(int i)const=0; virtual int do_size()const=0; virtual void do_push_back(const data&)=0; virtual void do_clear()=0; virtual data_set* do_clone()const=0; virtual void do_destroy() { delete this; } public: const data& get_data(int i)const { return this->do_get_data(i); } int size()const { return do_size(); } void push_back(const data& d) { return do_push_back(d); } void clear() { do_clear(); } data_set* clone()const { return this->do_clone(); } void destroy() { do_destroy(); } virtual ~data_set(){} }; /////////////////////////////////////////////// /////class param_info////////////////////////// /////record the information of one parameter/// /////including the name, default value///////// /////////////////////////////////////////////// template class param_info { private: Tstr name; //bool frozen; typename element_type_trait::element_type default_value; public: param_info(const Tstr& _name, const typename element_type_trait::element_type& _v) :name(_name),default_value(_v){} param_info() :name() {} param_info(const param_info& rhs) :name(rhs.name) { opt_eq(default_value,rhs.default_value); } param_info& operator=(const param_info& rhs) { name=rhs.name; opt_eq(default_value,rhs.default_value); return *this; } const Tstr& get_name()const { return this->name; } const typename element_type_trait::element_type& get_default_value()const { return default_value; } void set_default_value(const typename element_type_trait::element_type& x) { opt_eq(default_value,x); } void set_name(const Tstr& _name) { name=_name; } }; template class model { private: std::vector > param_info_list; param_info null_param; // int num_free_params; param_modifier* p_param_modifier; private: virtual model* do_clone()const=0; virtual void do_destroy() { delete this; } public: model* clone()const { return do_clone(); } void destroy() { do_destroy(); } public: model() :p_param_modifier(0) {} model(const model& rhs) :p_param_modifier(0) { if(rhs.p_param_modifier!=0) { set_param_modifier(*(rhs.p_param_modifier)); } param_info_list=rhs.param_info_list; null_param=rhs.null_param; } model& operator=(const model& rhs) { if(this==&rhs) { return *this; } if(rhs.p_param_modifier!=0) { set_param_modifier(*(rhs.p_param_modifier)); } param_info_list=rhs.param_info_list; null_param=rhs.null_param; return *this; } virtual ~model() { if(p_param_modifier) { //delete p_param_modifier; p_param_modifier->destroy(); } } void set_param_modifier(const param_modifier& pm) { if(p_param_modifier!=0) { //delete p_param_modifier; p_param_modifier->destroy(); } p_param_modifier=pm.clone(); p_param_modifier->set_model(*this); } void set_param_modifier() { if(p_param_modifier!=0) { //delete p_param_modifier; p_param_modifier->destroy(); } p_param_modifier=0; } param_modifier& get_param_modifier() { if(p_param_modifier==0) { throw param_modifier_undefined(); } return *p_param_modifier; } Tstr report_param_status(const Tstr& s)const { if(p_param_modifier==0) { return Tstr(); } return p_param_modifier->report_param_status(s); } const param_info& get_param_info(const Tstr& pname) { for(typename std::vector >::iterator i=param_info_list.begin(); i!=param_info_list.end();++i) { if(i->get_name()==pname) { return *i; } } std::cerr<<"Param unfound!"<& get_param_info(int n)const { return param_info_list[n%get_num_params()]; } Tp get_all_params()const { Tp result; resize(result,param_info_list.size()); for(size_t i=0;iget_num_free_params(); } return get_num_params(); } void set_param_value(const Tstr& pname, const typename element_type_trait::element_type& v) { //int porder=0; for(typename std::vector >::iterator i=param_info_list.begin(); i!=param_info_list.end();++i) { if(i->get_name()==pname) { i->set_default_value(v); return; } } std::cerr<<"param "<& pinfo) { param_info_list.push_back(pinfo); // this->num_free_params++; } void clear_param_info() { // this->num_free_params=0; param_info_list.clear(); } public: Tstr to_string()const { return do_to_string(); } Tp reform_param(const Tp& p)const { if(p_param_modifier==0) { return p; } return p_param_modifier->reform(p); } Tp deform_param(const Tp& p)const { if(p_param_modifier==0) { return p; } return p_param_modifier->deform(p); } Ty eval(const Tx& x,const Tp& p) { return do_eval(x,reform_param(p)); } virtual Ty do_eval(const Tx& x,const Tp& p)=0; private: virtual Tstr do_to_string()const { return Tstr(); } }; template class fitter { public: model* p_model; statistic* p_statistic; data_set* p_data_set; optimizer optengine; public: fitter() :p_model(0),p_statistic(0),p_data_set(0),optengine() {} fitter(const fitter& rhs) :p_model(0),p_statistic(0),p_data_set(0),optengine() { if(rhs.p_model!=0) { set_model(*(rhs.p_model)); } if(rhs.p_statistic!=0) { set_statistic(*(rhs.p_statistic)); assert(p_statistic->p_fitter!=0); } if(rhs.p_data_set!=0) { load_data(*(rhs.p_data_set)); } optengine=rhs.optengine; } fitter& operator=(const fitter& rhs) { if(this==&rhs) { return *this; } if(rhs.p_model!=0) { set_model(*(rhs.p_model)); } if(rhs.p_statistic!=0) { set_statistic(*(rhs.p_statistic)); } if(rhs.p_data_set!=0) { load_data(*(rhs.p_data_set)); } optengine=rhs.optengine; return *this; } virtual ~fitter() { if(p_model!=0) { //delete p_model; p_model->destroy(); } if(p_statistic!=0) { //delete p_statistic; p_statistic->destroy(); } if(p_data_set!=0) { //delete p_data_set; p_data_set->destroy(); } } Ty eval_model(const Tx& x,const Tp& p) { if(p_model==0) { throw model_undefined(); } return p_model->eval(x,p); } public: void set_model(const model& m) { if(p_model!=0) { //delete p_model; p_model->destroy(); } p_model=m.clone(); //p_model=&m; // current_param.resize(m.get_num_params()); } /* void set(const model& m) { set_model(m); } */ void set_statistic(const statistic& s) { if(p_statistic!=0) { //delete p_statistic; p_statistic->destroy(); } p_statistic=s.clone(); //p_statistic=&s; p_statistic->set_fitter(*this); } /* void set(const statistic& s) { set_statistic(s); } */ void set_param_modifier(const param_modifier& pm) { if(p_model==0) { throw model_undefined(); } p_model->set_param_modifier(pm); } void set_param_modifier() { if(p_model==0) { throw model_undefined(); } p_model->set_param_modifier(); } param_modifier& get_param_modifier() { if(p_model==0) { throw model_undefined(); } return p_model->get_param_modifier(); } Tstr report_param_status(const Tstr& s)const { if(p_model==0) { throw model_undefined(); } return p_model->report_param_status(s); } /* void set(const param_modifier& pm) { set_param_modifier(pm); } */ void load_data(const data_set& da) { if(p_data_set!=0) { //delete p_data_set; p_data_set->destroy(); } p_data_set=da.clone(); if(p_statistic!=0) { p_statistic->set_fitter(*this); } } const data_set& datas()const { if(p_data_set==0) { throw data_unloaded(); } return *(this->p_data_set); } model& model() { if(p_model==0) { throw model_undefined(); } return *(this->p_model); } statistic& statistic() { if(p_statistic==0) { throw statistic_undefined(); } return *(this->p_statistic); } opt_method& method() { return optengine.method(); } public: void set_param_value(const Tstr& pname, const typename element_type_trait::element_type& v) { if(p_model==0) { throw model_undefined(); } p_model->set_param_value(pname,v); } void set_param_value(const Tp& param) { if(p_model==0) { throw model_undefined(); } p_model->set_param_value(param); } typename element_type_trait::element_type get_param_value(const Tstr& pname)const { if(p_model==0) { throw model_undefined(); } return p_model->get_param_info(pname).get_default_value(); } const param_info& get_param_info(const Tstr& pname)const { if(p_model==0) { throw model_undefined(); } return p_model->get_param_info(pname); } const param_info& get_param_info(int n)const { if(p_model==0) { throw model_undefined(); } return p_model->get_param_info(n); } const int get_param_order(const Tstr& pname)const { if(p_model==0) { throw model_undefined(); } return p_model->get_param_order(pname); } int get_num_params()const { if(p_model==0) { throw model_undefined(); } return p_model->get_num_params(); } Tp get_all_params()const { if(p_model==0) { throw model_undefined(); } //return current_param; return p_model->get_all_params(); } void set_method(const opt_method& pm) { //assert(p_optimizer!=0); optengine.set_opt_method(pm); } /* void set(const opt_method& pm) { set_method(pm); } */ void set_precision(typename element_type_trait::element_type y) { optengine.set_precision(y); } Tp fit() { // assert(p_model!=0); if(p_model==0) { throw model_undefined(); } if(p_data_set==0) { throw data_unloaded(); } //assert(p_optimizer!=0); //assert(p_data_set!=0); //assert(p_statistic!=0); if(p_statistic==0) { throw statistic_undefined(); } optengine.set_func_obj(*p_statistic); Tp current_param; opt_eq(current_param,p_model->get_all_params()); Tp start_point; opt_eq(start_point,p_model->deform_param(current_param)); // std::cout<get_all_params(); } optengine.set_start_point(start_point); Tp result; opt_eq(result,optengine.optimize()); Tp decurrent_param; opt_eq(decurrent_param,p_model->reform_param(result)); //current_param.resize(decurrent_param.size()); resize(current_param,get_size(decurrent_param)); opt_eq(current_param,decurrent_param); p_model->set_param_value(current_param); // return current_param; return p_model->get_all_params(); } }; template class statistic :public func_obj { public: fitter* p_fitter; private: virtual statistic* do_clone()const=0; virtual void do_destroy() { delete this; } public: statistic* clone()const { return this->do_clone(); } void destroy() { return do_destroy(); } statistic() :p_fitter(0) {} statistic(const statistic& rhs) :p_fitter(rhs.p_fitter) {} statistic& operator=(const statistic& rhs) { if(this==&rhs) { return *this; } p_fitter=rhs.p_fitter; return *this; } virtual ~statistic() {} virtual void set_fitter(fitter& pfitter) { p_fitter=&pfitter; } virtual const fitter& get_fitter()const { if(p_fitter==0) { throw fitter_unset(); } return *p_fitter; } Ty eval_model(const Tx& x,const Tp& p) { if(p_fitter==0) { throw fitter_unset(); } return p_fitter->eval_model(x,p); } const data_set& datas()const { if(p_fitter==0) { throw fitter_unset(); } return p_fitter->datas(); } }; template class param_modifier { private: model* p_model; public: Tp reform(const Tp& p)const { return do_reform(p); } Tp deform(const Tp& p)const { return do_deform(p); } param_modifier* clone()const { return do_clone(); } void destroy() { do_destroy(); } public: param_modifier() :p_model(0) {} param_modifier(const param_modifier& rhs) :p_model(rhs.p_model) {} param_modifier& operator=(const param_modifier& rhs) { if(this==&rhs) { return *this; } p_model=rhs.p_model; return *this; } public: void set_model(model& pf) { p_model=&pf; update(); } const model& get_model()const { if(p_model==0) { std::cout<<"dajf;asdjfk;"; throw model_undefined(); } return *(this->p_model); } int get_num_free_params()const { return do_get_num_free_params(); } Tstr report_param_status(const Tstr& name)const { return do_report_param_status(name); } virtual ~param_modifier(){} private: virtual Tp do_reform(const Tp& p)const=0; virtual Tp do_deform(const Tp& p)const=0; virtual int do_get_num_free_params()const=0; virtual Tstr do_report_param_status(const Tstr&)const=0; virtual void update(){} virtual param_modifier* do_clone()const=0; virtual void do_destroy() { delete this; } }; }; #endif //EOF