when:
        def handle = registry.start("id", DeploymentRegistry.ChangeBehavior.NONE, ParametersDeploymentHandle, "parameter")
        then:
        assert handle == testHandle
        and:
        registry.get("id", ParametersDeploymentHandle) == testHandle
    }

    def "cannot register a duplicate deployment handle" () {
        def testHandle = new TestDeploymentHandle()

    }

    private void concurrentBuildSucceed(int projectCount, String... taskNames) {
        def handles = []
        (1..projectCount).each { count ->
            handles << executer.inDirectory(file(createProjectName(count))).withTasks(taskNames).start()
        }
        handles.each { handle ->
            handle.waitForFinish()
        }
    }

    private void parallelBuildSucceeds(String... taskNames) {

		if _, found := u.handles[x]; found {
			return x
		}
	}
	return nil
}

// setHandle sets the handle for type parameter x
// (and all its joined type parameters) to h.
func (u *unifier) setHandle(x *TypeParam, h *Type) {
	hx := u.handles[x]
	assert(hx != nil)
	for y, hy := range u.handles {
		if hy == hx {
			u.handles[y] = h
		}
	}
}

	self.sf = sf
}
func (self *WantExternalKubeInformerFactory) Admit(ctx context.Context, a admission.Attributes, o admission.ObjectInterfaces) error {
	return nil
}
func (self *WantExternalKubeInformerFactory) Handles(o admission.Operation) bool { return false }
func (self *WantExternalKubeInformerFactory) ValidateInitialization() error      { return nil }

var _ admission.Interface = &WantExternalKubeInformerFactory{}

		if _, found := u.handles[x]; found {
			return x
		}
	}
	return nil
}

// setHandle sets the handle for type parameter x
// (and all its joined type parameters) to h.
func (u *unifier) setHandle(x *TypeParam, h *Type) {
	hx := u.handles[x]
	assert(hx != nil)
	for y, hy := range u.handles {
		if hy == hx {
			u.handles[y] = h
		}
	}
}

		}
	})
}

func TestSync(t *testing.T) {
	handles := atomic.NewInt32(0)
	task := func() error {
		handles.Inc()
		return nil
	}
	q := NewQueue(0)
	q.Push(task)
	stop := make(chan struct{})
	go q.Run(stop)
	retry.UntilOrFail(t, q.HasSynced, retry.Delay(time.Microsecond))
	// Must always be 1 since we are synced
	assert.Equal(t, handles.Load(), 1)
	close(stop)

include "mlir/Dialect/Arith/IR/ArithOps.td"
include "tensorflow/compiler/mlir/quantization/common/attrs_and_constraints.td"
include "tensorflow/compiler/mlir/tensorflow/ir/tf_generated_ops.td"

// Only handles the case where precision config is default.
def IsPrecisionEmpty :
  Constraint<CPred<"IsPrecisionEmpty($0)">>;

// Creates Einsum Op from XlaDotV2 Op by generating equation.
def CreateEinsumOpFromXlaDotV2Op : NativeCodeCall<

// to its file system label for images.
type imageFsInfoProvider struct {
	runtimeEndpoint string
}

// ImageFsInfoLabel returns the image fs label for the configured runtime.
// For remote runtimes, it handles additional runtimes natively understood by cAdvisor.
func (i *imageFsInfoProvider) ImageFsInfoLabel() (string, error) {
	if detectCrioWorkaround(i) {
		return cadvisorfs.LabelCrioImages, nil
	}

                    @Override
                    public T call(BuildOperationContext context) {
                        T handle = objectFactory.newInstance(handleType, params);
                        RegisteredDeployment deployment = RegisteredDeployment.create(name, changeBehavior, continuousExecutionGate, handle);
                        handle.start(deployment.getDeployment());
                        if (pendingChanges.hasRemainingChanges()) {

    def "uniqueRecentDaemonStopEvents() handles stop events with null status and reason"() {
        expect:
        DaemonStopEvents.uniqueRecentDaemonStopEvents([gracefulStop2, nullStop1, gracefulStop1]) == [gracefulStop2, gracefulStop1]
        DaemonStopEvents.uniqueRecentDaemonStopEvents([nullStop1, nullStop1]) == [nullStop1]
    }

    def "uniqueRecentDaemonStopEvents() handles empty lists"() {
        expect: