wantObjects := update(t, initialObjects, expected.changes)
	wantObjects = append(wantObjects, expected.added...)
	for _, remove := range expected.removed {
		for i, obj := range wantObjects {
			// This is a bit relaxed (no GVR comparison, no UID
			// comparison) to simplify writing the test cases.
			if obj.GetName() == remove.GetName() && obj.GetNamespace() == remove.GetNamespace() {

	"red_haired_woman":                     "\U0001f469\u200d\U0001f9b0",
	"red_square":                           "\U0001f7e5",
	"registered":                           "\u00ae\ufe0f",
	"relaxed":                              "\u263a\ufe0f",
	"relieved":                             "\U0001f60c",
	"reminder_ribbon":                      "\U0001f397\ufe0f",
	"repeat":                               "\U0001f501",

		go func() {
			defer wg.Done()
			if mode != http2Mode {
				// our HTTP/1 implementation intentionally
				// doesn't permit writes during read (mostly
				// due to it being undefined); if that is ever
				// relaxed, change this.
				<-didRead
			}
			io.WriteString(w, resBody)
		}()
		wg.Wait()
	}))
	req, _ := NewRequest("POST", cst.ts.URL, strings.NewReader(reqBody))

	if c := s.inf.Load(); c != nil {
		return (*c).HasSynced()
	}
	// If we haven't loaded the informer yet, we want to check if the delayed filter is synced.
	// This ensures that at startup, we only return HasSynced=true if we are sure the CRD is not ready.
	hs := s.delayed.HasSynced()
	return hs
}

func (s *delayedClient[T]) ShutdownHandlers() {
	if c := s.inf.Load(); c != nil {
		(*c).ShutdownHandlers()
	} else {

		track := pp.limiterEvent.start(limiterEventScavengeAssist, start)

		// Scavenge, but back out if the limiter turns on.
		released := h.pages.scavenge(bytesToScavenge, func() bool {
			return gcCPULimiter.limiting()
		}, forceScavenge)

		mheap_.pages.scav.releasedEager.Add(released)

		// Finish up accounting.
		now = nanotime()
		if track {
			pp.limiterEvent.stop(limiterEventScavengeAssist, now)

	// last.
	related2(1.2, []float64{})
	related2(1.0, []int{})
	related2 /* ERROR "Slice (type []int) does not satisfy interface{[]Elem}" */ (float64(1.0), []int{}) // TODO(gri) better error message
}

type List[P any] []P

func related3[Elem any, Slice []Elem | List[Elem]]() Slice { return nil }

func _() {
	// related3 can be instantiated explicitly
	related3[int, []int]()
	related3[byte, List[byte]]()

In this context, the terms _whitebox testing_ (module boundaries are deactivated or relaxed) and _blackbox testing_ (module boundaries are in place) are often used.
Whitebox testing is used/needed for unit testing and blackbox testing fits functional or integration test requirements.

	R_RISCV_TPREL_I       R_RISCV = 49 /* TP-relative TLS LE load */
	R_RISCV_TPREL_S       R_RISCV = 50 /* TP-relative TLS LE store */
	R_RISCV_RELAX         R_RISCV = 51 /* Instruction pair can be relaxed */
	R_RISCV_SUB6          R_RISCV = 52 /* Local label subtraction */
	R_RISCV_SET6          R_RISCV = 53 /* Local label subtraction */
	R_RISCV_SET8          R_RISCV = 54 /* Local label subtraction */

- Updated distroless iptables to use released image `registry.k8s.io/build-image/distroless-iptables:v0.2.2`
  - Updated setcap to use released image `registry.k8s.io/build-image/setcap:bullseye-v1.4.2` ([#116509](https://github.com/kubernetes/kubernetes/pull/116509), [@cpanato](https://github.com/cpanato)) [SIG Testing]

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