*/
  public void testEmptyServiceManager() {
    Logger logger = Logger.getLogger(ServiceManager.class.getName());
    logger.setLevel(Level.FINEST);
    TestLogHandler logHandler = new TestLogHandler();
    logger.addHandler(logHandler);
    ServiceManager manager = new ServiceManager(Arrays.<Service>asList());
    RecordingListener listener = new RecordingListener();

          return false;
        }
      }
    } break;
    default:
      return false;
  }
  return true;
}

// TODO(b/190203981): Move to a separate nest-like library.
void Flatten(const TaggedValue& value,
             std::vector<AbstractTensorHandle*>* flat_args) {
  if (value.type() == TaggedValue::Type::TENSOR) {
    flat_args->emplace_back(value.tensor().get());

        then:
        UnsupportedOperationException e3 = thrown()
        e3.message == 'Removing a task dependency from a task instance is not supported.'
    }

    def "can nest iterables and maps and closures and callables"() {
        Map nestedMap = [task: otherTask]
        Iterable nestedCollection = [nestedMap]
        Callable nestedCallable = { nestedCollection } as Callable

   */
  public void testEmptyServiceManager() {
    Logger logger = Logger.getLogger(ServiceManager.class.getName());
    logger.setLevel(Level.FINEST);
    TestLogHandler logHandler = new TestLogHandler();
    logger.addHandler(logHandler);
    ServiceManager manager = new ServiceManager(Arrays.<Service>asList());
    RecordingListener listener = new RecordingListener();

}

// Constructor of the decompose context.
TFRDecomposeContext::TFRDecomposeContext(mlir::ModuleOp tfr_module)
    : tfr_module_(tfr_module), pm_(tfr_module_.getContext()) {
  mlir::OpPassManager& func_pm = pm_.nest<mlir::func::FuncOp>();

  // Prepare the imported graph.
  func_pm.addPass(mlir::CreateExecutorDialectToFunctionalConversionPass());

  // Run TFR lowering, inlining and raising to tf.

			p.SampleType[i].Unit = sampleType[i].Unit
		}
		if err := p.ScaleN(ratios); err != nil {
			return fmt.Errorf("scale: %v", err)
		}
	}
	return nil
}

// CommonValueType returns the finest type from a set of compatible
// types.
func CommonValueType(ts []*profile.ValueType) (*profile.ValueType, error) {
	if len(ts) <= 1 {
		return nil, nil
	}
	minType := ts[0]
	for _, t := range ts[1:] {

// Remove redundant NEG from BEQZ/BNEZ.
(BEQZ (NEG x) yes no) => (BEQZ x yes no)
(BNEZ (NEG x) yes no) => (BNEZ x yes no)

// Negate comparison with FNES/FNED.
(BEQZ (FNES <t> x y) yes no) => (BNEZ (FEQS <t> x y) yes no)
(BNEZ (FNES <t> x y) yes no) => (BEQZ (FEQS <t> x y) yes no)
(BEQZ (FNED <t> x y) yes no) => (BNEZ (FEQD <t> x y) yes no)
(BNEZ (FNED <t> x y) yes no) => (BEQZ (FEQD <t> x y) yes no)

            lock1.lockedState = false
            blockingThread.interrupt()

            thread.blockUntil.executed2
        }

        then:
        lock1.lockedState
    }

    def "can nest multiple calls to withStateLock"() {
        def lock = [
            resourceLock("lock1"),
            resourceLock("lock2"),
            resourceLock("lock3"),
            resourceLock("lock4")
        ]

            element {
                prop = nested
            }
        }

        then:
        missingProp = thrown()
        missingProp.property == 'nested'
    }

    def "can nest containers"() {
        when:
        container.configure {
            someObj {
                children {
                    child1 {
                        prop = 'child1'
                    }

// s.Salary"). Analysis determines if such a scenario exists so an
// error can be returned.

var (
	// Fatal error for query processing.
	errNestedAggregation      = errors.New("Cannot nest aggregations")
	errFunctionNotImplemented = errors.New("Function is not yet implemented")
	errUnexpectedInvalidNode  = errors.New("Unexpected node value")
	errInvalidKeypath         = errors.New("A provided keypath is invalid")
)