pod := NewPod(ds, node.Name)

	// If the daemon set specifies a node name, check that it matches with node.Name.
	if !(ds.Spec.Template.Spec.NodeName == "" || ds.Spec.Template.Spec.NodeName == node.Name) {
		return false, false
	}

	taints := node.Spec.Taints
	fitsNodeName, fitsNodeAffinity, fitsTaints := predicates(pod, node, taints)

            }
        }
        return true;
    }

    /*
     * When a node exits the graph, its constraints need to be cleaned up.
     * This means:
     * * Rescheduling any deferred selection impacted by a constraint coming from this node
     * * Making sure we no longer are registered as pending interest on nodes pointed by constraints
     */
    private void cleanupConstraints() {

     * be read without locking. Next fields of nodes are immutable (final). All list additions are
     * performed at the front of each bin. This makes it easy to check changes, and also fast to
     * traverse. When nodes would otherwise be changed, new nodes are created to replace them. This

// The cluster will be wrapped in a `tf_device.cluster` first and then by a
// replicate.
// TPUPartitionedInputV2 nodes would be inside the replicate but outside the
// cluster.
// TPUReplicatedInput and TPUReplicatedOutput nodes will be replaced by the
// replicate operands and results.
// CHECK-LABEL: func @replication_with_model_parallelism

  }
  func->setAttr(
      kTfSavedModelExportedNamesAttr,
      mlir::ArrayAttr::get(
          context, {mlir::StringAttr::get(context, signature->signature_key)}));
}

// There are control nodes at each end of each control edge. For each of them,
// we store the source vertices of the incoming edges (if any) and the control
// node's output token. To improve testability, we use an ordered set for the
// source vertices.

	if obj == nil || !ok || version.Spec.Replicas != nil {
		t.Errorf("unexpected versioned object: %#v", obj)
	}
}

func TestNodeBuilder(t *testing.T) {
	node := &v1.Node{
		ObjectMeta: metav1.ObjectMeta{Name: "node1", Namespace: "should-not-have", ResourceVersion: "10"},
		Spec:       v1.NodeSpec{},
		Status: v1.NodeStatus{
			Capacity: v1.ResourceList{
				v1.ResourceCPU:    resource.MustParse("1000m"),

			// the range operator is only allowed at the top of a for statement
			p.errorExpected(x.Pos(), "expression")
			x = &ast.BadExpr{x.Pos(), x.End()}
		}
	case *ast.BinaryExpr:
	default:
		// all other nodes are not proper expressions
		p.errorExpected(x.Pos(), "expression")
		x = &ast.BadExpr{x.Pos(), x.End()}
	}
	return x
}

// isTypeName reports whether x is a (qualified) TypeName.

			initialClaims: claimWithAnnotation(volume.AnnSelectedNode, "node1",
				newClaimArray("claim1-18", "uid1-18", "1Gi", "", v1.ClaimPending, &classWait)),
			expectedClaims: claimWithAnnotation(volume.AnnSelectedNode, "node1",
				newClaimArray("claim1-18", "uid1-18", "1Gi", "volume1-18", v1.ClaimBound, &classWait, volume.AnnBoundByController, volume.AnnBindCompleted)),

			}
		}
		return true
	}

	for i, testcase := range tests {
		node := v1.Node{
			Status: v1.NodeStatus{
				Capacity:    copyResourceList(testcase.capacity),
				Allocatable: copyResourceList(testcase.allocatable),
			},
		}
		node2 := roundTrip(t, runtime.Object(&node)).(*v1.Node)
		actual := node2.Status.Allocatable
		expected := testcase.expectedAllocatable

							Addresses:         [][]byte{netip.MustParseAddr("127.0.0.3").AsSlice()},
							Network:           testNW,
							ServiceAccount:    "sa1",
							Uid:               s.podXdsName("pod3"),
							Node:              "node1",
							CanonicalName:     "other",
							CanonicalRevision: "latest",
							WorkloadType:      workloadapi.WorkloadType_POD,
							WorkloadName:      "pod3",
							ClusterId:         testC,