actualCallCount := attacher.GetAttachCallCount()
		if actualCallCount != 0 {
			return fmt.Errorf(
				"At least one attacher has non-zero AttachCallCount: <%v>.",
				actualCallCount)
		}
	}

	return nil
}

// VerifyWaitForAttachCallCount ensures that at least one of the Mounters for
// this plugin has the expectedWaitForAttachCallCount number of calls. Otherwise
// it returns an error.

}

type DeploymentConditionType string

// These are valid conditions of a deployment.
const (
	// Available means the deployment is available, ie. at least the minimum available
	// replicas required are up and running for at least minReadySeconds.
	DeploymentAvailable DeploymentConditionType = "Available"
	// Progressing means the deployment is progressing. Progress for a deployment is

		allErrors = append(allErrors, field.Required(fldPath.Child("validations"), "validations or auditAnnotations must contain at least one item"))
		allErrors = append(allErrors, field.Required(fldPath.Child("auditAnnotations"), "validations or auditAnnotations must contain at least one item"))
	} else {
		for i, validation := range spec.Validations {

	// dsStoreSynced returns true if the daemonset store has been synced at least once.
	// Added as a member to the struct to allow injection for testing.
	dsStoreSynced cache.InformerSynced
	// historyLister get list/get history from the shared informers's store
	historyLister appslisters.ControllerRevisionLister
	// historyStoreSynced returns true if the history store has been synced at least once.

	// We used to always require at least ideal/4 samples,
	// but that is too hard to guarantee on a loaded system.
	// Now we accept 10 or more samples, which we take to be
	// enough to show that at least some profiling is occurring.
	if ideal := uintptr(duration * 100 / time.Second); samples == 0 || (samples < ideal/4 && samples < 10) {
		t.Logf("too few samples; got %d, want at least %d, ideally %d", samples, ideal/4, ideal)

		return c.in.setErrorLocked(errors.New("tls: too many ignored records"))
	}
	return c.readRecordOrCCS(expectChangeCipherSpec)
}

// atLeastReader reads from R, stopping with EOF once at least N bytes have been
// read. It is different from an io.LimitedReader in that it doesn't cut short
// the last Read call, and in that it considers an early EOF an error.
type atLeastReader struct {
	R io.Reader
	N int64

                         TF::StatefulPartitionedCallOp& caller) {
  const std::string name = "start_step_0";

  AddAssertion(builder, loc, cond_value,
               "[StartStep0] Auto-pipelining requires at least two steps.");
  auto insertion_point = builder.saveInsertionPoint();

  func::FuncOp orig_parent_func =
      callers.backward->getParentOfType<func::FuncOp>();

	// ensure that we scavenge at least minPages each time, aligned
	// to minPages*pageSize.
	minPages := physPageSize / pageSize
	if minPages < 1 {
		minPages = 1
	}

	lock(p.mheapLock)
	if p.summary[len(p.summary)-1][ci].max() >= uint(minPages) {
		// We only bother looking for a candidate if there at least
		// minPages free pages at all.

	// h->mapcache needs no init

	for i := range h.central {
		h.central[i].mcentral.init(spanClass(i))
	}

	h.pages.init(&h.lock, &memstats.gcMiscSys, false)
}

// reclaim sweeps and reclaims at least npage pages into the heap.
// It is called before allocating npage pages to keep growth in check.
//
// reclaim implements the page-reclaimer half of the sweeper.
//
// h.lock must NOT be held.

	if len(storedVersions) == 0 {
		return field.ErrorList{field.Invalid(fldPath, storedVersions, "must have at least one stored version")}
	}
	allErrs := field.ErrorList{}
	storedVersionsMap := map[string]int{}
	for i, v := range storedVersions {
		storedVersionsMap[v] = i
	}
	for _, v := range versions {