EVOLUTION-MANAGER
Edit File: logicals.hpp
#pragma once #include <algorithm> // for min #include <array> // for array #include <initializer_list> // for initializer_list #include "cpp11/R.hpp" // for Rboolean, SEXP, SEXPREC, Rf_all... #include "cpp11/attribute_proxy.hpp" // for attribute_proxy #include "cpp11/named_arg.hpp" // for named_arg #include "cpp11/protect.hpp" // for protect_sexp, release_protect #include "cpp11/r_vector.hpp" // for r_vector, r_vector<>::proxy #include "cpp11/sexp.hpp" // for sexp // Specializations for logicals namespace cpp11 { template <> inline SEXP r_vector<Rboolean>::valid_type(SEXP data) { if (TYPEOF(data) != LGLSXP) { throw type_error(LGLSXP, TYPEOF(data)); } return data; } template <> inline Rboolean r_vector<Rboolean>::operator[](const R_xlen_t pos) const { return is_altrep_ ? static_cast<Rboolean>(LOGICAL_ELT(data_, pos)) : data_p_[pos]; } template <> inline Rboolean* r_vector<Rboolean>::get_p(bool is_altrep, SEXP data) { if (is_altrep) { return nullptr; } else { return reinterpret_cast<Rboolean*>(LOGICAL(data)); } } template <> inline void r_vector<Rboolean>::const_iterator::fill_buf(R_xlen_t pos) { length_ = std::min(64_xl, data_->size() - pos); LOGICAL_GET_REGION(data_->data_, pos, length_, reinterpret_cast<int*>(buf_.data())); block_start_ = pos; } typedef r_vector<Rboolean> logicals; namespace writable { template <> inline typename r_vector<Rboolean>::proxy& r_vector<Rboolean>::proxy::operator=( const Rboolean& rhs) { if (is_altrep_) { SET_LOGICAL_ELT(data_, index_, rhs); } else { *p_ = rhs; } return *this; } template <> inline r_vector<Rboolean>::proxy::operator Rboolean() const { if (p_ == nullptr) { return static_cast<Rboolean>(LOGICAL_ELT(data_, index_)); } else { return *p_; } } template <> inline r_vector<Rboolean>::r_vector(std::initializer_list<Rboolean> il) : cpp11::r_vector<Rboolean>(Rf_allocVector(LGLSXP, il.size())), capacity_(il.size()) { protect_ = protect_sexp(data_); auto it = il.begin(); for (R_xlen_t i = 0; i < capacity_; ++i, ++it) { SET_LOGICAL_ELT(data_, i, *it); } } template <> inline r_vector<Rboolean>::r_vector(std::initializer_list<named_arg> il) : cpp11::r_vector<Rboolean>(safe[Rf_allocVector](LGLSXP, il.size())), capacity_(il.size()) { protect_ = protect_sexp(data_); int n_protected = 0; try { unwind_protect([&] { Rf_setAttrib(data_, R_NamesSymbol, Rf_allocVector(STRSXP, capacity_)); SEXP names = PROTECT(Rf_getAttrib(data_, R_NamesSymbol)); ++n_protected; auto it = il.begin(); for (R_xlen_t i = 0; i < capacity_; ++i, ++it) { data_p_[i] = static_cast<Rboolean>(LOGICAL_ELT(it->value(), 0)); SET_STRING_ELT(names, i, Rf_mkCharCE(it->name(), CE_UTF8)); } UNPROTECT(n_protected); }); } catch (const unwind_exception& e) { release_protect(protect_); UNPROTECT(n_protected); throw e; } } template <> inline void r_vector<Rboolean>::reserve(R_xlen_t new_capacity) { data_ = data_ == R_NilValue ? safe[Rf_allocVector](LGLSXP, new_capacity) : safe[Rf_xlengthgets](data_, new_capacity); SEXP old_protect = protect_; protect_ = protect_sexp(data_); release_protect(old_protect); data_p_ = reinterpret_cast<Rboolean*>(LOGICAL(data_)); capacity_ = new_capacity; } template <> inline void r_vector<Rboolean>::push_back(Rboolean value) { while (length_ >= capacity_) { reserve(capacity_ == 0 ? 1 : capacity_ *= 2); } if (is_altrep_) { SET_LOGICAL_ELT(data_, length_, value); } else { data_p_[length_] = value; } ++length_; } typedef r_vector<Rboolean> logicals; } // namespace writable inline bool is_na(Rboolean x) { return x == NA_LOGICAL; } } // namespace cpp11