</ignored-keys>
         </artifact>
         <artifact name="foo-1.0.pom">
            <ignored-keys>
               <ignored-key id="123"/>
               <ignored-key id="456" reason="bad things happen"/>
            </ignored-keys>
         </artifact>
      </component>
   </components>
</verification-metadata>"""

        then:
        def component = verifier.verificationMetadata[0]

	buf := append(out[:0], 4)
	buf = append(buf, x.Bytes()...)
	buf = append(buf, y.Bytes()...)
	return buf
}

// BytesX returns the encoding of the x-coordinate of p, as specified in SEC 1,
// Version 2.0, Section 2.3.5, or an error if p is the point at infinity.
func (p *{{.P}}Point) BytesX() ([]byte, error) {
	// This function is outlined to make the allocations inline in the caller
	// rather than happen on the heap.

	assertPodAnnotated(t, client, pod)

	// Assert expected calls actually made
	fs.AssertExpectations(t)

	// unlabelling the namespace should cause only one RemovePodFromMesh to happen
	fs.On("RemovePodFromMesh",
		ctx,
		mock.Anything,
	).Once().Return(nil)

	// unlabel the namespace
	labelsPatch := []byte(fmt.Sprintf(`{"metadata":{"labels":{"%s":null}}}`,

   * cached value, which will be recalculated when {@code get()} is called on the reserialized
   * instance. The actual memoization does not happen when the underlying delegate throws an
   * exception.
   *
   * <p>When the underlying delegate throws an exception then this memoizing supplier will keep
   * delegating calls until it returns valid data.
   *

	"k8s.io/klog/v2/ktesting"
	pvtesting "k8s.io/kubernetes/pkg/controller/volume/persistentvolume/testing"
	"k8s.io/kubernetes/pkg/features"
)

// Test single call to syncVolume, expecting recycling to happen.
// 1. Fill in the controller with initial data
// 2. Call the syncVolume *once*.
// 3. Compare resulting volumes with expected volumes.
func TestDeleteSync(t *testing.T) {
	const gceDriver = "pd.csi.storage.gke.io"

	if cache, ok := o.serializations.Load().(serializationsCache); ok && len(cache) == 0 {
		return
	}
	// We don't expect cache invalidation to happen - so we want
	// to log the stacktrace to allow debugging if that will happen.
	// OTOH, we don't want to spam logs with it.
	// So we try to log it at most once per second.
	if shouldLogCacheInvalidation(time.Now()) {

	// Instead of individual buffer entries, the race detector uses the
	// c.buf as the only buffer entry.  This simplification prevents us from
	// following the memory model's happens-before rules (rules that are
	// implemented in racereleaseacquire).  Instead, we accumulate happens-before
	// information in the synchronization object associated with c.buf.
	if c.elemsize == 0 {
		if sg == nil {
			raceacquire(qp)
			racerelease(qp)

	async := debug.asynctimerchan.Load() != 0
	if !async && t.isChan {
		// For a timer channel, we want to make sure that no stale sends
		// happen after a t.stop or t.modify, but we cannot hold t.mu
		// during the actual send (which f does) due to lock ordering.
		// It can happen that we are holding t's lock above, we decide
		// it's time to send a time value (by calling f), grab the parameters,

	// The protobuf message which contains LbEndpoint slice.
	llbEndpoints endpoint.LocalityLbEndpoints
}

func (e *LocalityEndpoints) append(ep *model.IstioEndpoint, le *endpoint.LbEndpoint) {
	e.istioEndpoints = append(e.istioEndpoints, ep)
	e.llbEndpoints.LbEndpoints = append(e.llbEndpoints.LbEndpoints, le)
}

func (e *LocalityEndpoints) refreshWeight() {
	var weight *wrapperspb.UInt32Value

		case ')':
			nparen--
			if nparen < 0 {
				// probably can't happen
				return nil
			}
		case ',':
			if nparen == 0 {
				if i < j {
					out = append(out, s[i:j])
				}
				i = j + 1
			}
		}
	}
	if nparen != 0 {
		// probably can't happen
		return nil
	}
	if i < len(s) {
		out = append(out, s[i:])
	}
	return out
}

// join is the inverse of split.