// ResourceQuotaStatusApplyConfiguration represents an declarative configuration of the ResourceQuotaStatus type for use
// with apply.
type ResourceQuotaStatusApplyConfiguration struct {
	Hard *v1.ResourceList `json:"hard,omitempty"`
	Used *v1.ResourceList `json:"used,omitempty"`
}

// ResourceQuotaStatusApplyConfiguration constructs an declarative configuration of the ResourceQuotaStatus type for use with
// apply.

			v1.ResourceList{v1.ResourceMemory: *resource.NewQuantity(17, resource.DecimalSI)},
			machineInfo,
			[]kubeletconfig.MemoryReservation{
				{
					NumaNode: 0,
					Limits: v1.ResourceList{
						v1.ResourceMemory: *resource.NewQuantity(12, resource.DecimalSI),
					},
				},
				{
					NumaNode: 2,
					Limits: v1.ResourceList{

// Returns a ResourceList.
func (cm *containerManagerImpl) GetNodeAllocatableAbsolute() v1.ResourceList {
	return cm.getNodeAllocatableAbsoluteImpl(cm.capacity)
}

func (cm *containerManagerImpl) getNodeAllocatableAbsoluteImpl(capacity v1.ResourceList) v1.ResourceList {
	result := make(v1.ResourceList)
	for k, v := range capacity {
		value := v.DeepCopy()

)

// hardEvictionReservation returns a resourcelist that includes reservation of resources based on hard eviction thresholds.
func hardEvictionReservation(thresholds []evictionapi.Threshold, capacity v1.ResourceList) v1.ResourceList {
	if len(thresholds) == 0 {
		return nil
	}
	ret := v1.ResourceList{}
	for _, threshold := range thresholds {
		if threshold.Operator != evictionapi.OpLessThan {

// with apply.
type ResourceRequirementsApplyConfiguration struct {
	Limits   *v1.ResourceList                  `json:"limits,omitempty"`
	Requests *v1.ResourceList                  `json:"requests,omitempty"`
	Claims   []ResourceClaimApplyConfiguration `json:"claims,omitempty"`
}

	CrioSocketSuffix = "run/crio/crio.sock"
)

// CapacityFromMachineInfo returns the capacity of the resources from the machine info.
func CapacityFromMachineInfo(info *cadvisorapi.MachineInfo) v1.ResourceList {
	c := v1.ResourceList{
		v1.ResourceCPU: *resource.NewMilliQuantity(
			int64(info.NumCores*1000),
			resource.DecimalSI),
		v1.ResourceMemory: *resource.NewQuantity(
			int64(info.MemoryCapacity),
			resource.BinarySI),

	GetNodeAllocatableReservation() v1.ResourceList

	// GetCapacity returns the amount of compute resources tracked by container manager available on the node.
	GetCapacity(localStorageCapacityIsolation bool) v1.ResourceList

	// GetDevicePluginResourceCapacity returns the node capacity (amount of total device plugin resources),

			}
			capacityFunc := func(localStorageCapacityIsolation bool) v1.ResourceList {
				return tc.capacity
			}
			devicePluginResourceCapacityFunc := func() (v1.ResourceList, v1.ResourceList, []string) {
				c := tc.devicePluginResourceCapacity
				return c.capacity, c.allocatable, c.inactive
			}
			nodeAllocatableReservationFunc := func() v1.ResourceList {
				return tc.nodeAllocatableReservation
			}

				{
					NumaNode: 0,
					Limits: v1.ResourceList{
						v1.ResourceMemory: memory1Gi,
					},
				},
			},
		},
		{
			desc: "valid input with multiple memory types",
			argc: "blah --reserved-memory=0:memory=1Gi,hugepages-1Gi=1Gi",
			expectVal: []kubeletconfig.MemoryReservation{
				{
					NumaNode: 0,
					Limits: v1.ResourceList{
						v1.ResourceMemory:        memory1Gi,

		expectedAllocatable: nil,
	}}

	copyResourceList := func(rl v1.ResourceList) v1.ResourceList {
		if rl == nil {
			return nil
		}
		copy := make(v1.ResourceList, len(rl))
		for k, v := range rl {
			copy[k] = v.DeepCopy()
		}
		return copy
	}

	resourceListsEqual := func(a v1.ResourceList, b v1.ResourceList) bool {
		if len(a) != len(b) {
			return false
		}