}

// Total number of defined symbols (package symbols, hashed symbols, and
// non-package symbols).
func (r *oReader) NAlldef() int { return r.ndef + r.nhashed64def + r.nhasheddef + r.NNonpkgdef() }

// objSym represents a symbol in an object file. It is a tuple of
// the object and the symbol's local index.
// For external symbols, objidx is the index of l.extReader (extObj),

	symbolCount     uint32               // number of symbol table records written
	symtabSym       []xcoffSym           // XCOFF symbols for the symbol table
	dynLibraries    map[string]int       // Dynamic libraries in .loader section. The integer represents its import file number (- 1)
	loaderSymbols   []*xcoffLoaderSymbol // symbols inside .loader symbol table

		}
		if !combineDwarf {
			argv = append(argv, "-Wl,-S") // suppress STAB (symbolic debugging) symbols
			if debug_s {
				// We are generating a binary with symbol table suppressed.
				// Suppress local symbols. We need to keep dynamically exported
				// and referenced symbols so the dynamic linker can resolve them.
				argv = append(argv, "-Wl,-x")
			}
		}
	case objabi.Hopenbsd:

//
// where Predicate(S') = S and Predicate(X') = X.
//
// `X` may contain symbolic predicates and the operations corresponding to these
// symbolic predicates are either in frame `loop` or outside it.  The symbols
// that are inside frame `loop` are loop variant (i.e. can have different
// liveness in each loop iteration) and the symbols that are outside frame
// `loop` are loop invariant (i.e. have the same liveness across all

// dwarfSecInfo holds information about a DWARF output section,
// specifically a section symbol and a list of symbols contained in
// that section. On the syms list, the first symbol will always be the
// section symbol, then any remaining symbols (if any) will be
// sub-symbols in that section. Note that for some sections (eg:
// .debug_abbrev), the section symbol is all there is (all content is

import org.jetbrains.kotlin.analysis.api.fir.symbols.KaFirArrayOfSymbolProvider.arrayOf
import org.jetbrains.kotlin.analysis.api.fir.symbols.KaFirArrayOfSymbolProvider.arrayOfSymbol
import org.jetbrains.kotlin.analysis.api.fir.symbols.KaFirArrayOfSymbolProvider.arrayTypeToArrayOfCall
import org.jetbrains.kotlin.analysis.api.fir.symbols.KaFirFunctionSymbol

    if self.scf_scope > 0:
      self.scf_scope -= 1

  def in_scf_scope(self):
    return self.scf_scope > 0

  def lookup(self, name):
    curr_idx = len(self.symbols) - 1
    while curr_idx >= 0 and (name not in self.symbols[curr_idx]['symbols']):
      curr_idx -= 1
    if curr_idx < 0:
      return None
    return self.symbols[curr_idx]['symbols'][name]

/**
 * How a symbol is imported. The order of the enum entry represents the priority of imports. If a symbol is available from multiple kinds of
 * imports, the symbol from "smaller" kind is used. For example, an explicitly imported symbol can overwrite a star-imported symbol.
 */
private enum class ImportKind {

		}
		symbols, err := f.Symbols()
		if tt.symbols == nil {
			if !errors.Is(err, ErrNoSymbols) {
				t.Errorf("open %s: Symbols() expected ErrNoSymbols, have nil", tt.file)
			}
			if symbols != nil {
				t.Errorf("open %s: Symbols() expected no symbols, have %v", tt.file, symbols)
			}
		} else {
			if err != nil {
				t.Errorf("open %s: Symbols() unexpected error %v", tt.file, err)
			}

		} else {
			ldr.Errorf(s, "unexpected PLT relocation target symbol type %s", targType.String())
		}
		return true
	}

	// Handle references to ELF symbols from our own object files.
	relocs := ldr.Relocs(s)
	r = relocs.At(rIdx)

	switch r.Type() {
	case objabi.R_ADDR:
		if ldr.SymType(s) == sym.STEXT {
			log.Fatalf("R_ADDR relocation in text symbol %s is unsupported\n", ldr.SymName(s))
		}