Time:           metav1.Now(),
							AvailableBytes: newUint64Pointer(5.663154176e+09),
							CapacityBytes:  newUint64Pointer(1.0434699264e+10),
							UsedBytes:      newUint64Pointer(4.21789696e+09),
							InodesFree:     newUint64Pointer(655344),
							Inodes:         newUint64Pointer(655360),
							InodesUsed:     newUint64Pointer(16),
						},
						Name:   "test",
						PVCRef: nil,
					},
					{

	inodes := uint64(seed + offsetFsInodes)
	inodesFree := uint64(seed + offsetFsInodesFree)
	inodesUsed := uint64(seed + offsetFsInodeUsage)
	fsStats := statsapi.FsStats{
		Time:           metav1.NewTime(time.Now()),
		AvailableBytes: &availableBytes,
		CapacityBytes:  &capacityBytes,
		UsedBytes:      &usedBytes,
		Inodes:         &inodes,
		InodesFree:     &inodesFree,
		InodesUsed:     &inodesUsed,
	}

	usage := (int64(statfs.Blocks) - int64(statfs.Bfree)) * int64(statfs.Bsize)

	inodes := int64(statfs.Files)
	inodesFree := int64(statfs.Ffree)
	inodesUsed := inodes - inodesFree

	return available, capacity, usage, inodes, inodesFree, inodesUsed, nil
}

// DiskUsage calculates the number of inodes and disk usage for a given directory
func DiskUsage(path string) (UsageInfo, error) {

	SignalNodeFsAvailable Signal = "nodefs.available"
	// SignalNodeFsInodesFree is amount of inodes available on filesystem that kubelet uses for volumes, daemon logs, etc.
	SignalNodeFsInodesFree Signal = "nodefs.inodesFree"
	// SignalImageFsAvailable is amount of storage available on filesystem that container runtime uses for storing images layers.
	// If the container filesystem and image filesystem are not separate,

	inodes := rand.Uint64()
	inodesFree := rand.Uint64()
	inodesUsed := rand.Uint64() / 100
	for i, name := range volumeNames {
		fsStats := statsapi.FsStats{
			Time:           metav1.NewTime(time.Now()),
			AvailableBytes: &availableBytes,
			CapacityBytes:  &capacityBytes,
			UsedBytes:      &usedBytes,
			Inodes:         &inodes,
			InodesFree:     &inodesFree,
			InodesUsed:     &inodesUsed,
		}

				inodes := resource.NewQuantity(usage.Total, resource.BinarySI)
				usedInodes := resource.NewQuantity(usage.Used, resource.BinarySI)
				if metrics.InodesFree.Cmp(*freeInodes) != 0 {
					t.Fatalf("for %s: error: expected :%v , got: %v", tc.name, *freeInodes, *(metrics.InodesFree))
				}
				if metrics.Inodes.Cmp(*inodes) != 0 {
					t.Fatalf("for %s: error: expected :%v , got: %v", tc.name, *inodes, *(metrics.Inodes))
				}

	return &statsapi.FsStats{
		Time:           metav1.NewTime(rootFsInfo.Timestamp),
		AvailableBytes: &rootFsInfo.Available,
		CapacityBytes:  &rootFsInfo.Capacity,
		InodesFree:     rootFsInfo.InodesFree,
		Inodes:         rootFsInfo.Inodes,
	}

	// and will not equal InodesUsed + InodesFree as the fs is shared.
	Inodes *resource.Quantity

	// InodesFree represent the inodes available for the volume.  For Volumes that share
	// a filesystem with the host (e.g. emptydir, hostpath), this is the free inodes
	// on the underlying storage, and is shared with host processes and other volumes
	InodesFree *resource.Quantity

			evictionHard:            map[string]string{"imagefs.inodesFree": "150Mi", "nodefs.inodesFree": "100Mi"},
			evictionSoft:            map[string]string{"imagefs.inodesFree": "300Mi", "nodefs.inodesFree": "200Mi"},
			evictionSoftGracePeriod: map[string]string{"imagefs.inodesFree": "30s", "nodefs.inodesFree": "30s"},
			evictionMinReclaim:      map[string]string{"imagefs.inodesFree": "2Gi", "nodefs.inodesFree": "1Gi"},
			expectErr:               false,

			err = errors.Join(fmt.Errorf("found containerfs.inodesFree for hard eviction. ignoring"))
			hardContainerFsINodes = idx
		}
		if threshold.Signal == evictionapi.SignalContainerFsInodesFree && !isHardEvictionThreshold(threshold) {
			err = errors.Join(fmt.Errorf("found containerfs.inodesFree for soft eviction. ignoring"))
			softContainerFsINodes = idx
		}
	}