pendingLines.set(vl, int32(b.ID))
				}
				f.freeValue(v)
				continue
			}
			if v.Pos.IsStmt() != src.PosNotStmt && !notStmtBoundary(v.Op) && pendingLines.get(vl) == int32(b.ID) {
				pendingLines.remove(vl)
				v.Pos = v.Pos.WithIsStmt()
			}
			if i != j {
				b.Values[j] = v
			}
			j++
		}
		if pendingLines.get(b.Pos) == int32(b.ID) {
			b.Pos = b.Pos.WithIsStmt()

		o1 &^= 0x3ffff
		o2 &^= 0x0ffff
		o1 |= computePrefix34HI(t)
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER_D34:
		o1 &^= 0x3ffff
		o2 &^= 0x0ffff
		o1 |= computePrefix34HI(t)
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER:
		o1 &^= 0xffff
		o2 &^= 0xffff
		o1 |= computeHA(int32(t))
		o2 |= computeLO(int32(t))
	case objabi.R_ADDRPOWER_DS:
		o1 &^= 0xffff
		o2 &^= 0xfffc

)

type WorkloadStatus int32

const (
	// Workload is healthy and ready to serve traffic.
	WorkloadStatus_HEALTHY WorkloadStatus = 0
	// Workload is unhealthy and NOT ready to serve traffic.
	WorkloadStatus_UNHEALTHY WorkloadStatus = 1
)

// Enum value maps for WorkloadStatus.
var (
	WorkloadStatus_name = map[int32]string{
		0: "HEALTHY",
		1: "UNHEALTHY",
	}

	elfSym      map[Sym]int32       // stores elf sym symbol property
	localElfSym map[Sym]int32       // stores "local" elf sym symbol property
	symPkg      map[Sym]string      // stores package for symbol, or library for shlib-derived syms
	plt         map[Sym]int32       // stores dynimport for pe objects
	got         map[Sym]int32       // stores got for pe objects
	dynid       map[Sym]int32       // stores Dynid for symbol

				WhenDeleted: apps.RetainPersistentVolumeClaimRetentionPolicyType,
			},
			RevisionHistoryLimit: func() *int32 {
				limit := int32(2)
				return &limit
			}(),
		},
	}
}

func newStatefulSet(replicas int32) *apps.StatefulSet {
	petMounts := []v1.VolumeMount{
		{Name: "datadir", MountPath: "/tmp/zookeeper"},
	}
	podMounts := []v1.VolumeMount{

	{CaseName: Name(""), in: `{"F1":1,"F2":2,"F3":3}`, ptr: new(V), out: V{F1: float64(1), F2: int32(2), F3: Number("3")}},
	{CaseName: Name(""), in: `{"F1":1,"F2":2,"F3":3}`, ptr: new(V), out: V{F1: Number("1"), F2: int32(2), F3: Number("3")}, useNumber: true},
	{CaseName: Name(""), in: `{"k1":1,"k2":"s","k3":[1,2.0,3e-3],"k4":{"kk1":"s","kk2":2}}`, ptr: new(any), out: ifaceNumAsFloat64},

	out.NominalConcurrencyShares = (*int32)(unsafe.Pointer(in.NominalConcurrencyShares))
	out.LendablePercent = (*int32)(unsafe.Pointer(in.LendablePercent))
	return nil
}

                format: int32
                maximum: 255
                minimum: 2
                type: integer
              echoInterval:
                description: Configures the minimal echo receive transmission interval
                  that this system is capable of handling in milliseconds. Defaults
                  to 50ms
                format: int32
                maximum: 60000

				Allocatable:  &storage.VolumeNodeResources{Count: utilpointer.Int32(20)},
			}, {
				Name:         "io.kubernetes.storage.csi.driver-3",
				NodeID:       nodeID,
				TopologyKeys: []string{"company.com/zone1", "company.com/zone2"},
				Allocatable:  &storage.VolumeNodeResources{Count: utilpointer.Int32(30)},
			}},
		},
	}, {
		// remove a driver and add a driver

	startPods := int32(10)
	// 150 mCPU per pod.
	totalUsedCPUOfAllPods := int64(startPods * 150)
	// Each pod starts out asking for 2X what is really needed.
	// This means we will have a 50% ratio of used/requested
	totalRequestedCPUOfAllPods := int32(2 * totalUsedCPUOfAllPods)
	requestedToUsed := float64(totalRequestedCPUOfAllPods / int32(totalUsedCPUOfAllPods))