#include "bdmbase.h" //! Space of basic BDM structures namespace bdm { const int RV::BUFFER_STEP = 1; Array RV::NAMES ( RV::BUFFER_STEP ); ivec RV::SIZES ( RV::BUFFER_STEP ); RV::str2int_map RV::MAP; void RV::clear_all() { MAP.clear(); SIZES.clear(); NAMES = Array ( BUFFER_STEP ); } string RV::show_all(){ ostringstream os; for(str2int_map::const_iterator iter=MAP.begin(); iter!=MAP.end(); iter++){ os << "key: " << iter->first << " val: " << iter->second <first << " val: " << iter->second <= NAMES.length() ) { NAMES.set_length ( id + BUFFER_STEP, true ); SIZES.set_length ( id + BUFFER_STEP, true ); } NAMES ( id ) = name; SIZES ( id ) = size; bdm_assert(size>0, "RV "+ name +" does not exists. Default size (-1) can not be assigned "); } else { id = iter->second; if (size>0){ bdm_assert ( SIZES ( id ) == size, "RV " + name + " of different size already exists" ); } } return id; }; int RV::countsize() const { int tmp = 0; for ( int i = 0; i < len; i++ ) { tmp += SIZES ( ids ( i ) ); } return tmp; } ivec RV::cumsizes() const { ivec szs ( len ); int tmp = 0; for ( int i = 0; i < len; i++ ) { tmp += SIZES ( ids ( i ) ); szs ( i ) = tmp; } return szs; } void RV::init ( const Array &in_names, const ivec &in_sizes, const ivec &in_times ) { len = in_names.length(); bdm_assert ( in_names.length() == in_times.length(), "check \"times\" " ); bdm_assert ( in_names.length() == in_sizes.length(), "check \"sizes\" " ); times.set_length ( len ); ids.set_length ( len ); int id; for ( int i = 0; i < len; i++ ) { id = init ( in_names ( i ), in_sizes ( i ) ); ids ( i ) = id; } times = in_times; dsize = countsize(); } RV::RV ( string name, int sz, int tm ) { Array A ( 1 ); A ( 0 ) = name; init ( A, vec_1 ( sz ), vec_1 ( tm ) ); } bool RV::add ( const RV &rv2 ) { // TODO if ( rv2.len > 0 ) { //rv2 is nonempty ivec ind = rv2.findself ( *this ); //should be -1 all the time ivec index = itpp::find ( ind == -1 ); if ( index.length() < rv2.len ) { //conflict ids = concat ( ids, rv2.ids ( index ) ); times = concat ( times, rv2.times ( index ) ); } else { ids = concat ( ids, rv2.ids ); times = concat ( times, rv2.times ); } len = ids.length(); dsize = countsize(); return ( index.length() == rv2.len ); //conflict or not } else { //rv2 is empty return true; // no conflict } }; RV RV::subselect ( const ivec &ind ) const { RV ret; ret.ids = ids ( ind ); ret.times = times ( ind ); ret.len = ind.length(); ret.dsize = ret.countsize(); return ret; } RV RV::operator() ( int di1, int di2 ) const { ivec sz = cumsizes(); int i1 = 0; while ( sz ( i1 ) < di1 ) i1++; int i2 = i1; while ( sz ( i2 ) < di2 ) i2++; return subselect ( linspace ( i1, i2 ) ); } void RV::t_plus ( int delta ) { times += delta; } bool RV::equal ( const RV &rv2 ) const { return ( ids == rv2.ids ) && ( times == rv2.times ); } shared_ptr epdf::condition ( const RV &rv ) const { bdm_warning ( "Not implemented" ); return shared_ptr(); } shared_ptr epdf::marginal ( const RV &rv ) const { bdm_warning ( "Not implemented" ); return shared_ptr(); } mat epdf::sample_m ( int N ) const { mat X = zeros ( dim, N ); for ( int i = 0; i < N; i++ ) X.set_col ( i, this->sample() ); return X; } vec epdf::evallog_m ( const mat &Val ) const { vec x ( Val.cols() ); for ( int i = 0; i < Val.cols(); i++ ) { x ( i ) = evallog ( Val.get_col ( i ) ); } return x; } vec epdf::evallog_m ( const Array &Avec ) const { vec x ( Avec.size() ); for ( int i = 0; i < Avec.size(); i++ ) { x ( i ) = evallog ( Avec ( i ) ); } return x; } mat mpdf::samplecond_m ( const vec &cond, int N ) { mat M ( dimension(), N ); for ( int i = 0; i < N; i++ ) { M.set_col ( i, samplecond ( cond ) ); } return M; } void mpdf::from_setting ( const Setting &set ) { shared_ptr r = UI::build ( set, "rv", UI::optional ); if ( r ) { set_rv ( *r ); } r = UI::build ( set, "rvc", UI::optional ); if ( r ) { set_rvc ( *r ); } } void datalink::set_connection ( const RV &rv, const RV &rv_up ) { downsize = rv._dsize(); upsize = rv_up._dsize(); v2v_up = rv.dataind ( rv_up ); bdm_assert_debug ( v2v_up.length() == downsize, "rv is not fully in rv_up" ); } void datalink::set_connection ( int ds, int us, const ivec &upind ) { downsize = ds; upsize = us; v2v_up = upind; bdm_assert_debug ( v2v_up.length() == downsize, "rv is not fully in rv_up" ); } void datalink_part::set_connection ( const RV &rv, const RV &rv_up ) { rv.dataind ( rv_up, v2v_down, v2v_up ); downsize = v2v_down.length(); upsize = v2v_up.length(); } void datalink_m2e::set_connection ( const RV &rv, const RV &rvc, const RV &rv_up ) { datalink::set_connection ( rv, rv_up ); condsize = rvc._dsize(); //establish v2c connection rvc.dataind ( rv_up, v2c_lo, v2c_up ); } vec datalink_m2e::get_cond ( const vec &val_up ) { vec tmp ( condsize ); set_subvector ( tmp, v2c_lo, val_up ( v2c_up ) ); return tmp; } void datalink_m2e::pushup_cond ( vec &val_up, const vec &val, const vec &cond ) { bdm_assert_debug ( downsize == val.length(), "Wrong val" ); bdm_assert_debug ( upsize == val_up.length(), "Wrong val_up" ); set_subvector ( val_up, v2v_up, val ); set_subvector ( val_up, v2c_up, cond ); } std::ostream &operator<< ( std::ostream &os, const RV &rv ) { int id; for ( int i = 0; i < rv.len ; i++ ) { id = rv.ids ( i ); os << id << "(" << RV::SIZES ( id ) << ")" << // id(size)= "=" << RV::NAMES ( id ) << "_{" << rv.times ( i ) << "}; "; //name_{time} } return os; } str RV::tostr() const { ivec idlist ( dsize ); ivec tmlist ( dsize ); int i; int pos = 0; for ( i = 0; i < len; i++ ) { idlist.set_subvector ( pos, pos + size ( i ) - 1, ids ( i ) ); tmlist.set_subvector ( pos, pos + size ( i ) - 1, times ( i ) ); pos += size ( i ); } return str ( idlist, tmlist ); } ivec RV::dataind ( const RV &rv2 ) const { ivec res ( 0 ); if ( rv2._dsize() > 0 ) { str str2 = rv2.tostr(); ivec part; int i; for ( i = 0; i < len; i++ ) { part = itpp::find ( ( str2.ids == ids ( i ) ) & ( str2.times == times ( i ) ) ); res = concat ( res, part ); } } bdm_assert_debug ( res.length() == dsize, "this rv is not fully present in crv!" ); return res; } void RV::dataind ( const RV &rv2, ivec &selfi, ivec &rv2i ) const { //clean results selfi.set_size ( 0 ); rv2i.set_size ( 0 ); // just in case any rv is empty if ( ( len == 0 ) || ( rv2.length() == 0 ) ) { return; } //find comon rv ivec cids = itpp::find ( this->findself ( rv2 ) >= 0 ); // index of if ( cids.length() > 0 ) { str str1 = tostr(); str str2 = rv2.tostr(); ivec part1; ivec part2; int i, j; // find common rv in strs for ( j = 0; j < cids.length(); j++ ) { i = cids ( j ); part1 = itpp::find ( ( str1.ids == ids ( i ) ) & ( str1.times == times ( i ) ) ); part2 = itpp::find ( ( str2.ids == ids ( i ) ) & ( str2.times == times ( i ) ) ); selfi = concat ( selfi, part1 ); rv2i = concat ( rv2i, part2 ); } } bdm_assert_debug ( selfi.length() == rv2i.length(), "this should not happen!" ); } RV RV::subt ( const RV &rv2 ) const { ivec res = this->findself ( rv2 ); // nonzeros ivec valid; if ( dsize > 0 ) { valid = itpp::find ( res == -1 ); //-1 => value not found => it remains } return ( *this ) ( valid ); //keep those that were not found in rv2 } ivec RV::findself ( const RV &rv2 ) const { int i, j; ivec tmp = -ones_i ( len ); for ( i = 0; i < len; i++ ) { for ( j = 0; j < rv2.length(); j++ ) { if ( ( ids ( i ) == rv2.ids ( j ) ) & ( times ( i ) == rv2.times ( j ) ) ) { tmp ( i ) = j; break; } } } return tmp; } ivec RV::findself_ids ( const RV &rv2 ) const { int i, j; ivec tmp = -ones_i ( len ); for ( i = 0; i < len; i++ ) { for ( j = 0; j < rv2.length(); j++ ) { if ( ( ids ( i ) == rv2.ids ( j ) ) ) { tmp ( i ) = j; break; } } } return tmp; } void RV::from_setting ( const Setting &set ) { Array A; UI::get ( A, set, "names" ); ivec szs; if ( !UI::get ( szs, set, "sizes" ) ) szs = ones_i ( A.length() ); ivec tms; if ( !UI::get ( tms, set, "times" ) ) tms = zeros_i ( A.length() ); // TODO tady se bude plnit primo do jeho promennych, a pak se zavola validacnni metoda, takze cele prepsat, ano? init ( A, szs, tms ); } RV concat ( const RV &rv1, const RV &rv2 ) { RV pom = rv1; pom.add ( rv2 ); return pom; } RV get_composite_rv ( const Array > &mpdfs, bool checkoverlap ) { RV rv; //empty rv bool rvaddok; for ( int i = 0; i < mpdfs.length(); i++ ) { rvaddok = rv.add ( mpdfs ( i )->_rv() ); //add rv to common rvs. // If rvaddok==false, mpdfs overlap => assert error. bdm_assert_debug ( rvaddok || !checkoverlap, "mprod::mprod() input mpdfs overlap in rv!" ); } return rv; } void BM::bayesB ( const mat &Data ) { for ( int t = 0; t < Data.cols(); t++ ) { bayes ( Data.get_col ( t ) ); } } }