defer wg.Done()
		defer pw.Close()
		pw.Write([]byte("one"))
		select {
		case <-readc:
		case <-donec:
			select {
			case <-readc:
			default:
				t.Errorf("server handler unexpectedly exited without closing readc")
				return
			}
		}
		pw.Write([]byte("two"))
	}()
	defer wg.Wait()
	res, err := cst.c.Post(cst.ts.URL, "text/foo", pr)
	if err == nil {
		defer res.Body.Close()
	}
}

	// of unexpected delay in Wait: a child process that fails to exit after the
	// associated Context is canceled, and a child process that exits but leaves
	// its I/O pipes unclosed.
	//
	// The WaitDelay timer starts when either the associated Context is done or a
	// call to Wait observes that the child process has exited, whichever occurs
	// first. When the delay has elapsed, the command shuts down the child process

  /// Update the status on this scope.
  /// Note: The status object is shared between all children of this scope.
  /// If the resulting status is not OkStatus() and exit_on_error_ is set on
  /// this scope, this function exits by calling LOG(FATAL).
  void UpdateStatus(const Status& s) const;

  // START_SKIP_DOXYGEN

  /// Update the builder with properties accumulated in this scope. Does not set
  /// status().

    public static final String DEFAULT_JOB_TARGET = "all";

    public static final String DEFAULT_JOB_SCRIPT_TYPE = "groovy";

    public static final int EXIT_OK = 0;

    public static final int EXIT_FAIL = 1;

    public static final String DCF = "dcf";

    public static final String ALL_LANGUAGES = "all";

func (gs *gState[R]) blockedSyscallEnd(ts trace.Time, stack trace.Stack, ctx *traceContext) {
	name := "exit blocked syscall"
	gs.setStartCause(ts, name, trace.SyscallP, stack)

	// Emit an syscall exit instant event for the "Syscall" lane.
	ctx.Instant(traceviewer.InstantEvent{
		Name:     name,
		Ts:       ctx.elapsed(ts),
		Resource: trace.SyscallP,

				return fmt.Errorf("fuzzing process exited unexpectedly due to an internal failure: %w", err)
			}
			// Worker exited non-zero or was terminated by a non-interrupt
			// signal (for example, SIGSEGV) while fuzzing.
			return fmt.Errorf("fuzzing process hung or terminated unexpectedly: %w", err)
			// TODO(jayconrod,katiehockman): if -keepfuzzing, restart worker.

		case input := <-w.coordinator.inputC:

	defaultTimeouts.KubernetesAPICall = &metav1.Duration{Duration: apiCallRetryInterval}

	exitVal := m.Run()

	// Restore the default interval and timeouts
	apiCallRetryInterval = defaultRetryInterval
	defaultTimeouts.KubernetesAPICall = defaultAPICallTimeout

	os.Exit(exitVal)
}

func TestCreateOrUpdateConfigMap(t *testing.T) {
	tests := []struct {
		name          string

		if sandboxStatus.State == runtimeapi.PodSandboxState_SANDBOX_READY {
			return status.IPs
		}
	}

	// For pods with no ready containers or sandboxes (like exited pods)
	// use the old status' pod IP
	return oldStatus.IPs
}

func (e *EventedPLEG) sendPodLifecycleEvent(event *PodLifecycleEvent) {
	select {
	case e.eventChannel <- event:
	default:

	Status(ctx context.Context) (*RuntimeStatus, error)
	// GetPods returns a list of containers grouped by pods. The boolean parameter
	// specifies whether the runtime returns all containers including those already
	// exited and dead containers (used for garbage collection).
	GetPods(ctx context.Context, all bool) ([]*Pod, error)
	// GarbageCollect removes dead containers using the specified container gc policy

	}
	if err == nil {
		return true, nil
	}
	if ee, ok := err.(utilexec.ExitError); ok {
		// iptables uses exit(1) to indicate a failure of the operation,
		// as compared to a malformed commandline, for example.
		if ee.Exited() && ee.ExitStatus() == 1 {
			return false, nil
		}
	}
	return false, fmt.Errorf("error checking rule: %v: %s", err, out)
}

const (