// back to a pessimistic analysis.  The optimistic analysis assigns the same
// symbolic predicate to all the merge nodes whose preceding enter nodes have
// the same frame name on the first iteration.  On the second iteration, if all
// the merge nodes are pattern matched into the same AndRecurrence predicate
// instance, the optimistic assignment of the same symbolic predicate is correct

			snapshot := cache.NewSnapshot(test.existingPods, test.nodes)
			fh, _ := runtime.NewFramework(ctx, nil, nil, runtime.WithSnapshotSharedLister(snapshot))
			args := test.nodeResourcesFitArgs
			p, err := NewFit(ctx, &args, fh, plfeature.Features{})
			if err != nil {
				t.Fatalf("unexpected error: %v", err)
			}

			var gotPriorities framework.NodeScoreList
			for _, n := range test.nodes {
				if test.runPreScore {

  // in the provided namespace.
  string trustedZtunnelNamespace = 59;
}

message PilotTaintControllerConfig {
  // Enable the untaint controller for new nodes. This aims to solve a race for CNI installation on 
  // new nodes. For this to work, the newly added nodes need to have the istio CNI taint as they are
  // added to the cluster. This is usually done by configuring the cluster infra provider.
  bool enabled = 1;

}

std::optional<string> MarkForCompilationPassImpl::GetXlaScope(Node* node) {
  // Look for either _XlaScope or _XlaInternalScope on both nodes to guide
  // clustering.  If both nodes have a scope and the scopes do not match, do
  // not cluster along this edge.  If even one of the nodes lacks a scope
  // attribute, then it is treated as a "bridge" and a cluster may be created
  // along it.
  //

		nodeLister := informerFactory.Core().V1().Nodes().Lister()
		nsu := statusupdater.NewFakeNodeStatusUpdater(false /* returnError */)
		rc := NewReconciler(
			reconcilerLoopPeriod, maxWaitForUnmountDuration, syncLoopPeriod, false, false, dsw, asw, ad, nsu, nodeLister, fakeRecorder)

		nodes := []k8stypes.NodeName{}
		for _, n := range test.nodes {
			dsw.AddNode(n.name)
			nodes = append(nodes, n.name)

  Log-Output ("kubelet kubeconfig from metadata (non-bootstrap):`n" +
              "$(Get-Content -Raw ${env:KUBECONFIG})")
}

# Creates the kubelet kubeconfig at $env:KUBECONFIG for nodes that use an
# authentication plugin, or at $env:BOOTSTRAP_KUBECONFIG for nodes that do not.
#
# Create-NodePki() must be called first.
#
# Required ${kube_env} keys:
#   KUBERNETES_MASTER_NAME: the apiserver IP address.

                                std::vector<FunctionDefHelper::Node> nodes) {
  for (auto& n : nodes) {
    if (n.attr.empty()) {
      n.attr = {{"T", DT_FLOAT}};
    }
  }
  *g = FunctionDefHelper::Define(
      // Arg defs
      {"x: float", "dy: float"},
      // Ret val defs
      {"dx: float"},
      // Attr defs
      {},
      // Nodes
      nodes);
  return absl::OkStatus();
}

        nodes=graphdef.node,
        op_name=op_name,
        attr_name=attr_name,
        attr_val=attr_val,
        node_name=node_name,
    ):
      return True

    # Check the graph genederated from user defined functions
    for func in graphdef.library.function:
      if self._contains_op_with_name_and_attribute(
          nodes=func.node_def,
          op_name=op_name,

			initPVCs:   []*v1.PersistentVolumeClaim{boundPVCNode1a},
			nodes:      []*v1.Node{node1NoLabels},
			shouldFail: true,
		},
		"node-affinity-fails-dynamic-provisioning": {
			initPVs:          []*v1.PersistentVolume{pvNode1a, pvNode2},
			initPVCs:         []*v1.PersistentVolumeClaim{selectedNodePVC},
			claimToProvision: selectedNodePVC,
			nodes:            []*v1.Node{node1, node2},

					"memory.available":  "1Mi",
					"nodefs.available":  "1%",
					"imagefs.available": "1%",
				},
				EvictionSoft: map[string]string{
					"memory.available":  "2Mi",
					"nodefs.available":  "2%",
					"imagefs.available": "2%",
				},
				EvictionSoftGracePeriod: map[string]string{
					"memory.available":  "60s",
					"nodefs.available":  "60s",
					"imagefs.available": "60s",
				},