#ifndef PMSM_CTR_H #define PMSM_CTR_H #include #include "pmsm.h" /*! \defgroup PMSM @{ */ using namespace bdm; /*! PI Controller*/ class PI_ctrl: public Controller{ public: //!integral state double S; double Pd; double Pi; double minOut; double maxOut; PI_ctrl(double Pd0, double Pi0, double minOut0, double maxOut0): S(0.0), Pd(Pd0), Pi(Pi0),minOut(minOut0),maxOut(maxOut0){} virtual vec ctrlaction ( const vec &cond ) { double tmp; tmp = Pd*cond(0)+S; S += Pi*cond(0); if (tmp>maxOut) tmp=maxOut; if (tmp Est; //! switch to use or not to use the internal estimator bool estim; // internal quantities filled by PMSMCtrl::ctrlaction() double isa; double isb; double ome; double the; double Ww; public: PMSMCtrl():Controller() { rv = RV("{ua ub }"); rvc = RV("{o_ia o_ib o_ua o_ub o_om o_th Ww }"); } void adapt(const itpp::vec& data){ if (estim){ vec y=data.get(0,1); vec u=data.get(2,3); Est->bayes(y,u); } } virtual vec ctrlaction(const itpp::vec& cond) { if (estim){ vec x_est=Est->posterior().mean(); isa=x_est(0); isb=x_est(1); ome=x_est(2); the=x_est(3); } else { isa=cond(0);//x_est(0); isb=cond(1);//x_est(1); ome=cond(4);//x[2];//x_est(2); the=cond(5);//x_est(3); } Ww=cond(6); return empty_vec; // dummy return }; void from_setting(const libconfig::Setting& set){ Controller::from_setting(set); Est=UI::build(set,"estim",UI::optional); estim = Est; } void log_register ( logger &L, const string &prefix ) { Controller::log_register(L,prefix); if (estim) Est->log_register(L,prefix); } void log_write() const{ if (estim) Est->log_write(); } }; //UIREGISTER(PMSMCtrl); -- abstract class PMSM_PICtrl: public PMSMCtrl{ public: PI_ctrl Cwq; PI_ctrl Cuq; PI_ctrl Cud; PMSM_PICtrl():PMSMCtrl(), Cwq(3.0, 3.0*0.000125/0.1, -1200, 1200), Cuq(20.0, 20.0*0.000125/0.005, -1200, 1200), Cud(20.0, 20.0*0.000125/0.005, -1200, 1200) {} virtual vec ctrlaction(const itpp::vec& cond) { PMSMCtrl::ctrlaction(cond); // fills isa,isb,om,the double Isd = isa*cos(the)+isb*sin(the); double Isq = isb*cos(the)-isa*sin(the); double Iqw=(Cwq.ctrlaction(vec_1(Ww-ome)))(0); // conversion from vec double ud = (Cud.ctrlaction(vec_1(-Isd)))(0); double uq = (Cuq.ctrlaction(vec_1(Iqw-Isq)))(0); const double Ls0=0.003465; // inductance const double Fmag0= 0.1989; // Magnetic?? ud-=Ls0*ome*Iqw; // har uq+=Fmag0*ome; double Um = sqrt(ud*ud+uq*uq); double beta = atan(uq/ud); if (ud<0) beta += M_PI; beta +=the; vec uab(2); uab(0)=Um*cos(beta); // usx = usa uab(1)=Um*sin(beta); // usy return uab; }; }; UIREGISTER(PMSM_PICtrl); /*!@}*/ #endif //PMSM_CTR_H