istioctl.NewOrFail(t, t, istioctl.Config{}).InvokeOrFail(t, []string{
			"waypoint",
			"apply",
			"--namespace",
			apps.Namespace.Name(),
			"--name", "captured-waypoint",
			"--wait",
		})
		t.Cleanup(func() {
			istioctl.NewOrFail(t, t, istioctl.Config{}).InvokeOrFail(t, []string{
				"waypoint",
				"delete",
				"--namespace",
				apps.Namespace.Name(),
				"captured-waypoint",

	t.checkRaces()

	if t.chatty != nil {
		t.chatty.Updatef(t.name, "=== PAUSE %s\n", t.name)
	}
	running.Delete(t.name)

	t.signal <- true   // Release calling test.
	<-t.parent.barrier // Wait for the parent test to complete.
	t.context.waitParallel()

	if t.chatty != nil {
		t.chatty.Updatef(t.name, "=== CONT  %s\n", t.name)
	}
	running.Store(t.name, highPrecisionTimeNow())

	if !cache.WaitForNamedCacheSync("job", ctx.Done(), jm.podStoreSynced, jm.jobStoreSynced) {
		return
	}

	for i := 0; i < workers; i++ {
		go wait.UntilWithContext(ctx, jm.worker, time.Second)
	}

	go wait.UntilWithContext(ctx, jm.orphanWorker, time.Second)

	<-ctx.Done()
}

// getPodJobs returns a list of Jobs that potentially match a Pod.

			}
		}

		// Despite the volume being Failed, the controller will retry deleting
		// the volume in every syncVolume() call.
		return pluginName, err
	}
	if !deleted {
		// The volume waits for deletion by an external plugin. Do nothing.
		return pluginName, nil
	}

	logger.V(4).Info("DeleteVolumeOperation: success", "volumeName", volume.Name)
	// Delete the volume

				return "", err
			} else if !ok {
				// This main module could contain the directory but doesn't. Other main
				// modules might contain the directory, so wait till we finish the loop
				// to see if another main module contains directory. But if not,
				// return an error.
				if len(mainModulePrefix) > len(pkgNotFoundLongestPrefix) {

		c.quic.cancel = cancel
	} else if ctx.Done() != nil {
		// Start the "interrupter" goroutine, if this context might be canceled.
		// (The background context cannot).
		//
		// The interrupter goroutine waits for the input context to be done and
		// closes the connection if this happens before the function returns.
		done := make(chan struct{})
		interruptRes := make(chan error, 1)
		defer func() {
			close(done)

		}
		if len(data) > 0 {
			return fmt.Errorf("Read data = %q; want nothing", data)
		}

		if err := srv.CloseWrite(); err != nil {
			return fmt.Errorf("server CloseWrite: %v", err)
		}

		// Wait for clientCloseWrite to finish, so we know we
		// tested the CloseWrite before we defer the
		// sconn.Close above, which would also cause the
		// client to unblock like CloseWrite.
		<-clientDoneChan
		return nil

		// Try to keep work available on the global queue. We used to
		// check if there were waiting workers, but it's better to
		// just keep work available than to make workers wait. In the
		// worst case, we'll do O(log(_WorkbufSize)) unnecessary
		// balances.
		if work.full == 0 {
			gcw.balance()
		}

		b := gcw.tryGetFast()
		if b == 0 {
			b = gcw.tryGet()

				req.ContentLength = reqLen
				resp, _ := frontendClient.Transport.RoundTrip(req)
				if resp != nil {
					io.Copy(io.Discard, resp.Body)
					resp.Body.Close()
				}
			}
		}()
	}
	wg.Wait()
}

func TestSelectFlushInterval(t *testing.T) {
	tests := []struct {
		name string
		p    *ReverseProxy
		res  *http.Response
		want time.Duration
	}{
		{
			name: "default",

	// Spend at least 1 ms scavenging, otherwise the corresponding
	// sleep time to maintain our desired utilization is too low to
	// be reliable.
	minScavWorkTime = 1e6
)

// Sleep/wait state of the background scavenger.
var scavenger scavengerState

type scavengerState struct {
	// lock protects all fields below.
	lock mutex

	// g is the goroutine the scavenger is bound to.
	g *g