err := cluster.Kube().CoreV1().Services(echos.Namespace.Name()).Delete(
									context.TODO(), common.ServiceB, metav1.DeleteOptions{})
								if err != nil {
									ctx.Fatalf("failed deleting service %s/%s in cluster %s: %v",
										echos.Namespace, common.ServiceB, cluster.Name(), err)
								}
								retry.UntilSuccessOrFail(t, func() error {

	}
	defer c.policyQueue.Done(key)

	err := func() error {
		policy, err := c.policyInformer.Lister().Get(key)
		if err != nil {
			if kerrors.IsNotFound(err) {
				// If not found, the policy is being deleting, do nothing.
				return nil
			}
			return err
		}
		return c.reconcile(ctx, policy)
	}()

	if err == nil {
		c.policyQueue.Forget(key)
		return true
	}

	// If the request itself is creating or updating a namespace, then get the
	// labels from attr.Object, because namespaceLister doesn't have the latest
	// namespace yet.
	//
	// However, if the request is deleting a namespace, then get the label from
	// the namespace in the namespaceLister, because a delete request is not
	// going to change the object, and attr.Object will be a DeleteOptions
	// rather than a namespace object.

	AddPod(pod *v1.Pod)
	// UpdatePod updates the given pod in the manager.
	UpdatePod(pod *v1.Pod)
	// RemovePod deletes the given pod from the manager.  For mirror pods,
	// this means deleting the mappings related to mirror pods.  For non-
	// mirror pods, this means deleting from indexes for all non-mirror pods.
	RemovePod(pod *v1.Pod)

	// TranslatePodUID returns the actual UID of a pod. If the UID belongs to

		if obj == nil {
			t.Errorf("%s: Uses[%s] == nil", id.Pos(), id.Value)
		}
	}

	// Check that each identifier in the source is found in uses or defs or both.
	// We need the foundUses/Defs maps (rather than just deleting the found objects
	// from the uses and defs maps) because syntax.Walk traverses shared nodes multiple
	// times (e.g. types in field lists such as "a, b, c int").
	foundUses := make(map[*syntax.Name]bool)

kube::golang::setup_env
kube::util::ensure-temp-dir

ARTIFACTS="${ARTIFACTS:-${PWD}/_artifacts}"
mkdir -p "$ARTIFACTS/logs/"

# Creating a new repository tree 
# Deleting vendor directory to make go-licenses fetch license URLs from go-packages source repository
git worktree add -f "${KUBE_TEMP}"/tmp_test_licenses/kubernetes HEAD >/dev/null 2>&1 || true

      # labelPods will label all pods with <brokenPodLabelKey>=<brokenPodLabelValue>.
      # This is only capable of identifying broken pods; the user is responsible for fixing them (generally, by deleting them).
      # Note this gives the DaemonSet a relatively high privilege, as modifying pod metadata/status can have wider impacts.
      labelPods: false

		// This includes things like leader election locks (allowing next test to start without 30s delay),
		// custom cacerts, custom kubeconfigs, etc.
		// We avoid deleting the whole namespace since its extremely slow in Kubernetes (30-60s+)
		if e := c.Kube().CoreV1().Secrets(i.cfg.SystemNamespace).DeleteCollection(
			context.Background(), metav1.DeleteOptions{}, metav1.ListOptions{}); e != nil {

    routes+=( "${route}" )
  done < <(gcloud compute routes list \
    --project="${PROJECT}" --filter='description=k8s-node-route' \
    --format='value(name)')
  while (( "${#routes[@]}" > 0 )); do
      echo Deleting k8s node routes "${routes[*]::${batch}}"
      gcloud compute routes delete --project "${PROJECT}" --quiet "${routes[@]::${batch}}"
      routes=( "${routes[@]:${batch}}" )
  done
}

detect-project

		if err := c.addSecret(key, scrt); err != nil {
			return fmt.Errorf("error adding secret %s: %v", key, err)
		}
	} else {
		log.Debugf("secret %s does not exist in informer cache, deleting it", key)
		c.deleteSecret(key.String())
	}
	remoteClusters.Record(float64(c.cs.Len()))

	return nil
}