result.Memory.AvailableBytes = uint64Ptr(0)
		result.Memory.PageFaults = uint64Ptr(0)
	}
	if stats.WritableLayer != nil {
		result.Rootfs.Time = metav1.NewTime(time.Unix(0, stats.WritableLayer.Timestamp))
		if stats.WritableLayer.UsedBytes != nil {
			result.Rootfs.UsedBytes = &stats.WritableLayer.UsedBytes.Value
		}
	}
	var err error
	fsID := stats.GetWritableLayer().GetFsId()
	if fsID != nil {

    }

    @Override
    public void start(RootGraphNode root) {
        this.rootId = root.getOwner().getComponentId();
    }

    @Override
    public void visitNode(DependencyGraphNode node) {
        ComponentIdentifier componentId = node.getOwner().getComponentId();
        if (!rootId.equals(componentId) && componentId instanceof ProjectComponentIdentifierInternal) {

	assert.Equal(cs.WritableLayer.Timestamp, actual.Rootfs.Time.UnixNano())
	if imageFsInfo != nil {
		assert.Equal(imageFsInfo.Available, *actual.Rootfs.AvailableBytes)
		assert.Equal(imageFsInfo.Capacity, *actual.Rootfs.CapacityBytes)
		assert.Equal(*imageFsInfo.InodesFree, *actual.Rootfs.InodesFree)
		assert.Equal(*imageFsInfo.Inodes, *actual.Rootfs.Inodes)
	} else {
		assert.Nil(actual.Rootfs.AvailableBytes)

            }
            if (rootId != null && candidatesForConflict.size() > 1) {
                // This is a special case for backwards compatibility: it is possible to have
                // a cycle where the root component depends on a library which transitively
                // depends on a different version of the root module. In this case, we effectively
                // allow 2 modules to have the same capability, so we filter the nodes coming

	}

	return false
}

// DeletePrefix delete the exact prefix and return true if it existed.
func (t *Tree[T]) DeletePrefix(prefix netip.Prefix) bool {
	root := t.rootV4
	if prefix.Addr().Is6() {
		root = t.rootV6
	}
	var parent *node[T]
	n := root
	// bit position is given by the mask bits
	bitPosition := 0
	// mask the address
	address := prefix.Masked().Addr()
	mask := prefix.Bits()

	mockCadvisor := cadvisortest.NewMockInterface(mockCtrl)
	rootfs := cadvisorapiv2.FsInfo{
		Capacity: 8000,
	}
	mockCadvisor.EXPECT().RootFsInfo().Return(rootfs, nil)
	mockCadvisorError := cadvisortest.NewMockInterface(mockCtrlError)
	mockCadvisorError.EXPECT().RootFsInfo().Return(cadvisorapiv2.FsInfo{}, errors.New("Unable to get rootfs data from cAdvisor interface"))
	cases := []struct {

        buildFile << """
task verify {
    doLast {
        def rootId = configurations.${config}.incoming.resolutionResult.root.id
        assert rootId instanceof ProjectComponentIdentifier

        def result = dependencies.createArtifactResolutionQuery()
            .forComponents(rootId)
            .withArtifacts($requestedComponent, $requestedArtifact)
            .execute()

Laura Kassovic <******@****.***> 1701107622 -0800

const (
	FlagCharts = "charts"
)

// ConfigAndEnvProcessing uses spf13/viper for overriding CLI parameters
func ConfigAndEnvProcessing() error {
	configPath := filepath.Dir(root.IstioConfig)
	baseName := filepath.Base(root.IstioConfig)
	configType := filepath.Ext(root.IstioConfig)
	configName := baseName[0 : len(baseName)-len(configType)]
	if configType != "" {
		configType = configType[1:]
	}

// limitations under the License.

package main

import (
	"flag"

	"github.com/spf13/cobra"

	"istio.io/istio/pkg/collateral"
	"istio.io/istio/pkg/version"
)

// getRootCmd returns the root of the cobra command-tree.
func getRootCmd(args []string) *cobra.Command {
	rootCmd := &cobra.Command{
		Use:   "operator",
		Short: "The Istio operator.",
		Args:  cobra.ExactArgs(0),