// Redirect it to runtime.unreachableMethod, which will throw if called.
				rs = syms.unreachableMethod
			}
			if target.IsExternal() {
				nExtReloc++

				// set up addend for eventual relocation via outer symbol.
				rs := rs
				rs, off := FoldSubSymbolOffset(ldr, rs)
				xadd := r.Add() + off
				rst := ldr.SymType(rs)

				}
				base.ErrorfAt(pos, errors.InvalidSelectCase, "select case must be receive, send or assign recv")

			case ir.OAS:
				// convert x = <-c into x, _ = <-c
				// remove implicit conversions; the eventual assignment
				// will reintroduce them.
				n := n.(*ir.AssignStmt)
				if r := n.Y; r.Op() == ir.OCONVNOP || r.Op() == ir.OCONVIFACE {
					r := r.(*ir.ConvExpr)
					if r.Implicit() {
						n.Y = r.X
					}

type file struct {
	b       *binrep
	name    string
	buildID string

	baseOnce sync.Once // Ensures the base, baseErr and isData are computed once.
	base     uint64
	baseErr  error // Any eventual error while computing the base.
	isData   bool
	// Mapping information. Relevant only for ELF files, nil otherwise.
	m *elfMapping
}

// computeBase computes the relocation base for the given binary file only if

	firstPCSymbolizeResult symbolizeFlag
}

// newProfileBuilder returns a new profileBuilder.
// CPU profiling data obtained from the runtime can be added
// by calling b.addCPUData, and then the eventual profile
// can be obtained by calling b.finish.
func newProfileBuilder(w io.Writer) *profileBuilder {
	zw, _ := gzip.NewWriterLevel(w, gzip.BestSpeed)
	b := &profileBuilder{
		w:         w,
		zw:        zw,

// original build ID as a contiguous string.)
//
// During the build, when it's time to build main.a, the gofmt binary has the
// information needed to decide whether the eventual link would produce
// the same binary: if the action ID for main.a's inputs matches and then
// the action ID for the link step matches when assuming the given main.a

   * directly, use {@link MinMaxPriorityQueue#orderedBy(Comparator)}, {@link
   * MinMaxPriorityQueue#expectedSize(int)} or {@link MinMaxPriorityQueue#maximumSize(int)}.
   *
   * @param <B> the upper bound on the eventual type that can be produced by this builder (for
   *     example, a {@code Builder<Number>} can produce a {@code Queue<Number>} or {@code
   *     Queue<Integer>} but not a {@code Queue<Object>}).
   * @since 8.0
   */

	// Pre-build our metric types to avoid recompute them on each event
	adds := k8sEvents.With(typeTag.Value(otype), eventTag.Value("add"))
	updatesames := k8sEvents.With(typeTag.Value(otype), eventTag.Value("updatesame"))
	updates := k8sEvents.With(typeTag.Value(otype), eventTag.Value("update"))
	deletes := k8sEvents.With(typeTag.Value(otype), eventTag.Value("delete"))

	informer.AddEventHandler(
		controllers.EventHandler[T]{
			AddFunc: func(obj T) {

   * directly, use {@link MinMaxPriorityQueue#orderedBy(Comparator)}, {@link
   * MinMaxPriorityQueue#expectedSize(int)} or {@link MinMaxPriorityQueue#maximumSize(int)}.
   *
   * @param <B> the upper bound on the eventual type that can be produced by this builder (for
   *     example, a {@code Builder<Number>} can produce a {@code Queue<Number>} or {@code
   *     Queue<Integer>} but not a {@code Queue<Object>}).
   * @since 8.0
   */

	n.X = walkExpr(n.X, init)

	// cannot put side effects from n.Right on init,
	// because they cannot run before n.Left is checked.
	// save elsewhere and store on the eventual n.Right.
	var ll ir.Nodes

	n.Y = walkExpr(n.Y, &ll)
	n.Y = ir.InitExpr(ll, n.Y)
	return n
}

// walkSend walks an OSEND node.
func walkSend(n *ir.SendStmt, init *ir.Nodes) ir.Node {

   * some amount of padding, it's best if you choose your desired amount explicitly.
   *
   * @param estimatedSize an estimate of the eventual {@link List#size()} of the new list
   * @return a new, empty {@code ArrayList}, sized appropriately to hold the estimated number of
   *     elements
   * @throws IllegalArgumentException if {@code estimatedSize} is negative