*s.groups = append(*s.groups, h.groups[:h.nOpenGroups]...)
	}
	return s
}

func (s *handleState) free() {
	if s.freeBuf {
		s.buf.Free()
	}
	if gs := s.groups; gs != nil {
		*gs = (*gs)[:0]
		groupPool.Put(gs)
	}
	s.prefix.Free()
}

func (s *handleState) openGroups() {
	for _, n := range s.h.groups[s.h.nOpenGroups:] {
		s.openGroup(n)
	}
}

			}
			if f := r.Free(); f != 1 {
				t.Errorf("[%s] wrong free: expected %d, got %d", tc.name, 1, f)
			}
			if f := r.Used(); f != (tc.free - 1) {
				t.Errorf("[%s] wrong free: expected %d, got %d", tc.name, tc.free-1, f)
			}
			if err := r.Allocate(released); err != nil {
				t.Fatal(err)
			}
			if f := r.Free(); f != 0 {
				t.Errorf("[%s] wrong free: expected %d, got %d", tc.name, 0, f)
			}

  UniquePtrTo_TF_Status plugin_status(TF_NewStatus(), TF_DeleteStatus);
  std::string translated_name = TranslateName(dir);
  // Note that `children` is allocated by the plugin and freed by core
  // TensorFlow, so we need to use `plugin_memory_free_` here.
  char** children = nullptr;
  const int num_children =
      ops_->get_children(filesystem_.get(), translated_name.c_str(), &children,

// [Pinner.Pin] method pins one object, while [Pinner.Unpin] unpins all pinned
// objects. See their comments for more information.
type Pinner struct {
	*pinner
}

// Pin pins a Go object, preventing it from being moved or freed by the garbage
// collector until the [Pinner.Unpin] method has been called.
//
// A pointer to a pinned object can be directly stored in C memory or can be

        }

        where:
        type         | freeValue                      | paidValue
        'SomeEnum'   | 'SomeEnum.free'                | 'SomeEnum.paid'
        'Thing'      | 'objects.named(Thing, "free")' | 'objects.named(Thing, "paid")'
        'OtherThing' | 'new OtherThing(name: "free")' | 'new OtherThing(name: "paid")'
    }

    def "compatibility and disambiguation rules can be defined by consuming build"() {

		f.Fatalf("unCached value %s not found in cache, auxInt=0x%x, adjusted aux=0x%x", v.LongString(), v.AuxInt, aux)
	}
}

// freeValue frees a value. It must no longer be referenced or have any args.
func (f *Func) freeValue(v *Value) {
	if v.Block == nil {
		f.Fatalf("trying to free an already freed value")
	}
	if v.Uses != 0 {
		f.Fatalf("value %s still has %d uses", v, v.Uses)
	}
	if len(v.Args) != 0 {

	// flush their own buffers in traceThreadDestroy.
	//
	// Snapshotting freem is necessary because Ms can continue to emit events
	// while they're still on that list. Removal from sched.freem is serialized with
	// this snapshot, so either we'll capture an m on sched.freem and race with
	// the removal to flush its buffers (resolved by traceThreadDestroy acquiring

		},
		{
			"Restore valid checkpoint",
			`{
				"policyName":"static",
				"machineState":{"0":{"numberOfAssignments":0,"memoryMap":{"memory":{"total":2048,"systemReserved":512,"allocatable":1536,"reserved":512,"free":1024}},"cells":[]}},
				"entries":{"pod":{"container1":[{"numaAffinity":[0],"type":"memory","size":512}]}},
				"checksum": 4215593881
			}`,
			"",
			&stateMemory{
				assignments: ContainerMemoryAssignments{

		t.Errorf("unexpected ipallocator state: %#v", after)
	}
	if free := after.Free(); free != 251 {
		t.Errorf("unexpected ipallocator state: %d free (number of free ips is not 251)", free)
	}

	secondaryAfter, err := ipallocator.NewFromSnapshot(secondaryIPRegistry.updated)
	if err != nil {
		t.Fatal(err)
	}

		Mode: runtimeapi.NamespaceMode_POD,
		Uids: uids,
		Gids: gids,
	}, nil
}

// CleanupOrphanedPodUsernsAllocations reconciliates the state of user namespace
// allocations with the pods actually running. It frees any user namespace
// allocation for orphaned pods.
func (m *UsernsManager) CleanupOrphanedPodUsernsAllocations(pods []*v1.Pod, runningPods []*kubecontainer.Pod) error {