// ABI wrapper usually wraps an assembly symbol, a linknamed symbol,
		// or an external symbol, or provide access of a Go symbol to assembly.
		// For now, allow ABI wrappers.
		// TODO: check the wrapped symbol?
		return
	}
	error()
}

// TopLevelSym tests a symbol (by name and kind) to determine whether
// the symbol first class sym (participating in the link) or is an

	Lsymoff  uint64 // Offset to start of symbol table
	Lrldoff  uint64 // Offset to start of relocation entries
}

// Loader Symbol
type XcoffLdSym64 struct {
	Lvalue  uint64 // Address field
	Loffset uint32 // Byte offset into string table of symbol name
	Lscnum  int16  // Section number containing symbol
	Lsmtype int8   // Symbol type, export, import flags
	Lsmclas int8   // Symbol storage class

/**
 * 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 {

            }
            this is FirResolvedQualifier && this.source?.kind is KtFakeSourceElementKind.ImplicitReceiver -> {
                val symbol = this.symbol ?: return null
                KaImplicitReceiverValue(symbol.toKtSymbol(), resolvedType.asKtType())
            }
            else -> {
                val psi = psi
                if (psi !is KtExpression) return null

	tmap map[string]loader.Sym

	// This maps loader symbol for the DWARF DIE symbol generated for
	// a type (e.g. "go:info.uintptr") to the type symbol itself
	// ("type:uintptr").
	// FIXME: try converting this map (and the next one) to a single
	// array indexed by loader.Sym -- this may perform better.
	rtmap map[loader.Sym]loader.Sym

	// This maps Go type symbol (e.g. "type:XXX") to loader symbol for

	//    of the caller.
	//
	// 4) We generate the "symbol resolver stub" x@plt (once per
	//    dynamic function).  This is solely a branch to the glink
	//    resolver stub.
	//
	// 5) We generate the glink resolver stub (only once).  This
	//    computes which symbol resolver stub we came through and
	//    invokes the dynamic resolver via a pointer provided by

	Dynamic loader.Sym
	DynSym  loader.Sym
	DynStr  loader.Sym

	unreachableMethod loader.Sym

	// Symbol containing a list of all the inittasks that need
	// to be run at startup.
	mainInittasks loader.Sym
}

// mkArchSym is a helper for setArchSyms, to set up a special symbol.
func (ctxt *Link) mkArchSym(name string, ver int, ls *loader.Sym) {
	*ls = ctxt.loader.LookupOrCreateSym(name, ver)

    # the returns of the scf for statements. The symbol table needs to be
    # updated to these new ssa values before it enters the scope of the loop.
    out_types = []
    init_values = []
    for symbol, ssa_value in zip(loop_carried, ret_ssa_values):
      init, ty = self.symbol_table.lookup(symbol)
      self.symbol_table.insert_symbol(symbol, ssa_value, ty)
      out_types.append(str(ty))

}

/* For accessing the fields of r_info. */

/* For constructing r_info from field values. */

/*
 * Relocation types.
 */
const (
	ARM_MAGIC_TRAMP_NUMBER = 0x5c000003
)

/*
 * Symbol table entries.
 */

/* For accessing the fields of st_info. */

/* For constructing st_info from field values. */

/* For accessing the fields of st_other. */

/*
 * ELF header.
 */

    int num_branches() { return getBranches().size(); }

    // Gets function corresponding branch # `index`.
    // Prefer passing in SymbolTableCollection to reduce lookup costs by
    // enabling reusing cached symbol table lookup.
    func::FuncOp ResolveBranchFunction(::mlir::SymbolTableCollection* table, int index) {
      auto flat_sym_ref = getBranches()[index].cast<FlatSymbolRefAttr>();
      if (table)