port: {{.Port}}
      `

			t.ConfigKube().
				New().
				Eval(
					apps.Namespace.Name(),
					map[string]any{
						"Service":   Captured,
						"Namespace": apps.Namespace.Name(),
						"Port":      apps.Captured.PortForName("http").ServicePort,
					},
					config).
				ApplyOrFail(t, apply.CleanupConditionally)

			retry.UntilSuccessOrFail(t, func() error {

						reportCaptured(pass, vars, stmt)
					}

				}
			}
		}
		return true
	})
	return nil, nil
}

// reportCaptured reports a diagnostic stating a loop variable
// has been captured by a func literal if checkStmt has escaping
// references to vars. vars is expected to be variables updated by a loop statement,
// and checkStmt is expected to be a statements from the body of a func literal in the loop.

  RevivedObjects revived_objects;
  TF_RETURN_IF_ERROR(partially_revived_objects.Build(
      context, bundle.saved_object_graph(), &revived_objects));

  // Revive function library functions as concrete functions without captures.
  // This is necessary because object graph functions may refer to functions
  // _not_ in the object graph: A while loop, for example, will create two

	// its doing something unique to that specific test.
	apps = &EchoDeployments{}
)

type EchoDeployments struct {
	// Namespace echo apps will be deployed
	Namespace namespace.Instance
	// Captured echo service
	Captured echo.Instances
	// Uncaptured echo Service
	Uncaptured echo.Instances
	// Sidecar echo services with sidecar
	Sidecar echo.Instances

	// All echo services
	All echo.Instances
}

        BeforeExecutionState thisExecution,
        IncrementalInputProperties incrementalInputProperties
    ) {
        // Capture changes in execution outcome
        ChangeContainer previousSuccessState = new PreviousSuccessChanges(
            lastExecution.isSuccessful());

        // Capture changes to implementation

        // After validation, the current implementations and previous implementations can't be unknown.

}

// This test is designed to ensure that write errors are properly
// handled by the code that writes out coverage data. It repeatedly
// invokes the 'emit to writer' apis using a specially crafted writer
// that captures the total number of expected writes, then replays the
// execution N times with a manufactured write error at the
// appropriate spot.
func emitToFailingWriter() {
	log.SetPrefix("emitToFailingWriter: ")

apiVersion: release-notes/v2
kind: feature
area: traffic-management
issue:
  - 50736
releaseNotes:
- |
  **Added** Allow pods to be opted out of ambient capture using the `istio.io/dataplane-mode=none` label.

                      TF_Message(tf_status));
  TF_ForEachPayload(
      tf_status,
      [](const char* key, const char* value, void* capture) {
        absl::Status* status = static_cast<absl::Status*>(capture);
        status->SetPayload(key, absl::Cord(absl::string_view(value)));
      },
      &status);
  return status;
}

     */
    LoggingManagerInternal captureSystemSources();

    /**
     * Sets the log level to capture stdout at. Does not enable capture.
     */
    @Override
    LoggingManagerInternal captureStandardOutput(LogLevel level);

    /**
     * Sets the log level to capture stderr at. Does not enable capture.
     */
    @Override
    LoggingManagerInternal captureStandardError(LogLevel level);

    ParameterizedType ourType =
        Types.newParameterizedTypeWithOwner(Map.class, Entry.class, String.class, int[][].class);

    new EqualsTester()
        .addEqualityGroup(jvmType, ourType)
        .addEqualityGroup(new TypeCapture<Entry<String, String>>() {}.capture())
        .addEqualityGroup(new TypeCapture<Map<String, Integer>>() {}.capture())
        .testEquals();