captureResults << executer.withTasks('capture1').run()
        captureResults << executer.withTasks('capture2').run()

        then:
        captureResults[0].assertTaskExecuted(':capture1')
        captureResults[1].assertTaskExecuted(':capture2')

        cleanup:
        daemon?.abort()
    }

    def "a daemon expiration listener receives expiration reasons continuous:#continuous"() {
        given:

    std::vector<ImmediateExecutionTensorHandle*> captures,
    ImmediateExecutionContext* ctx, std::unique_ptr<FlatTensorFunction>* out) {
  TF_RETURN_IF_ERROR(ctx->AddFunctionDef(*function_def));
  std::vector<ImmediateTensorHandlePtr> owned_captures;
  owned_captures.reserve(captures.size());
  for (ImmediateExecutionTensorHandle* capture : captures) {
    capture->Ref();
    owned_captures.push_back(ImmediateTensorHandlePtr(capture));

// taking + returning flat lists of tensors, including any captures.
// Effectively, it is a thin wrapper around a FunctionDef owned by the
// EagerContext, and any TensorHandle captures associated with the function. The
// MakeCallOp method handles the logic of marshaling captures after the user
// provided inputs automatically.
// Note(bmzhao): This class is mainly intended to house low-level reusable

import java.lang.reflect.ParameterizedType;
import java.lang.reflect.Type;

/**
 * Captures the actual type of {@code T}.
 *
 * @author Ben Yu
 */
@ElementTypesAreNonnullByDefault
abstract class TypeCapture<T> {

  /** Returns the captured type. */
  final Type capture() {
    Type superclass = getClass().getGenericSuperclass();

import java.lang.reflect.ParameterizedType;
import java.lang.reflect.Type;

/**
 * Captures the actual type of {@code T}.
 *
 * @author Ben Yu
 */
@ElementTypesAreNonnullByDefault
abstract class TypeCapture<T> {

  /** Returns the captured type. */
  final Type capture() {
    Type superclass = getClass().getGenericSuperclass();

  // Capture is at index "10"
  saved.add_bound_inputs(10);

  // `func` has 4 inputs
  FunctionDef func = FuncDefWithNumInputsOutputs(4, 0);

  // `captures` only has a capture for index 5
  std::unordered_map<int, std::unique_ptr<TensorHandleConvertible>> captures;
  captures[5] = std::make_unique<DummyCapture>(context(), 10);

  std::unique_ptr<TFConcreteFunction> result;

	// StartTime is the start time the log capture time range.
	// If set, Since must be unset.
	StartTime time.Time `json:"startTime,omitempty"`
	// EndTime is the end time the log capture time range.
	// Default is now.
	EndTime time.Time `json:"endTime,omitempty"`
	// Since defines the start time the log capture time range.
	// StartTime is set to EndTime - Since.

	// VirtualInboundListenerName is the name for traffic capture listener
	VirtualInboundListenerName = "virtualInbound"

	// VirtualInboundCatchAllHTTPFilterChainName is the name of the catch all http filter chain
	VirtualInboundCatchAllHTTPFilterChainName = "virtualInbound-catchall-http"
)

const (

	// HBoneInboundListenPort is the port on which incoming HBone traffic will be captured.
	HBoneInboundListenPort = 15008

    assertAssignable(
        TypeToken.of(new TypeCapture<L>() {}.capture()),
        TypeToken.of(new TypeCapture<L>() {}.capture()));
    assertNotAssignable(
        TypeToken.of(new TypeCapture<R>() {}.capture()),
        TypeToken.of(new TypeCapture<L>() {}.capture()));
    assertAssignable(TypeToken.of(new TypeCapture<L>() {}.capture()), new TypeToken<List<R>>() {});
  }

  public void testisSupertypeOf_resolved() {

	option1: value1
	option2: value2

	# another comment line
	option3: value3
`)

	// Regex pattern captures "key: value" pair from the content.
	pattern := regexp.MustCompile(`(?m)(?P<key>\w+):\s+(?P<value>\w+)$`)

	// Template to convert "key: value" to "key=value" by
	// referencing the values captured by the regex pattern.
	template := []byte("$key=$value\n")

	result := []byte{}