remotePilotAddress: ""

    ##############################################################################################
    # The following values are found in other charts. To effectively modify these values, make   #
    # make sure they are consistent across your Istio helm charts                                #
    ##############################################################################################

		nodeAllocatable = cm.getNodeAllocatableInternalAbsolute()
	}

	cgroupConfig := &CgroupConfig{
		Name: cm.cgroupRoot,
		// The default limits for cpu shares can be very low which can lead to CPU starvation for pods.
		ResourceParameters: getCgroupConfig(nodeAllocatable),
	}
	if cm.cgroupManager.Exists(cgroupConfig.Name) {
		return nil
	}

    server.enqueue(MockResponse())
    server.enqueue(MockResponse())
    val request = Request(server.url("/"))
    val response = client.newCall(request).execute()
    response.body.close()

    // This client shares a connection pool but has a different SSL socket factory.
    val handshakeCertificates2 = HandshakeCertificates.Builder().build()
    val anotherClient =
      client.newBuilder()
        .sslSocketFactory(

	}

	if s.CustomGRPCEchoImage == "" {
		s.CustomGRPCEchoImage = env.GRPC_ECHO_IMAGE.ValueOrDefault("")
	}

	if s.HelmRepo == "" {
		s.HelmRepo = "https://istio-release.storage.googleapis.com/charts"
	}

	if err = validate(s); err != nil {
		return nil, err
	}

	return s, nil
}

// validate checks that user has not passed invalid flag combinations to test framework.

   *
   * Imagine a monitor with multiple guards. A thread enters the monitor, satisfies all the guards,
   * and leaves, calling signalNextWaiter. With traditional locks and conditions, all the conditions
   * need to be signalled because it is not known which if any of them have waiters (and hasWaiters
   * can't be used reliably because of a check-then-act race). With our Monitor guards, we only

    Allocate futures and promsies for tensorflow tensors.

    $num_futures: The number of futures to be allocated.

    $promises: There are $num_futures promises. promises[i] shares the state with futures[i].
    $futures: There are $num_futures futures. futures[i] shares the state with promises[i].
  }];

  let arguments = (ins
    I32Attr:$num_futures
  );

  let results = (outs
    Variadic<MlrtPromiseType>:$promises,

	interval time.Duration
	cancel   context.CancelFunc
	client   *clientv3.Client
	refs     int
}

var (
	// compactorsMu guards access to compactors map
	compactorsMu sync.Mutex
	compactors   = map[string]*runningCompactor{}
	// dbMetricsMonitorsMu guards access to dbMetricsMonitors map
	dbMetricsMonitorsMu sync.Mutex
	dbMetricsMonitors   map[string]struct{}
)

		}

	}
	tmpl, err := inject.ParseTemplates(map[string]string{
		"kube-gateway": file.AsStringOrFail(t, filepath.Join(env.IstioSrc, "manifests/charts/istio-control/istio-discovery/files/kube-gateway.yaml")),
		"waypoint":     file.AsStringOrFail(t, filepath.Join(env.IstioSrc, "manifests/charts/istio-control/istio-discovery/files/waypoint.yaml")),
	})
	if err != nil {
		t.Fatal(err)
	}
	injConfig := func() inject.WebhookConfig {

type tunnelingResponseWriter struct {
	// w is used to delegate Header(), WriteHeader(), and Write() calls
	w http.ResponseWriter
	// conn is returned from Hijack()
	conn net.Conn
	// mu guards writes
	mu sync.Mutex
	// wrote tracks whether WriteHeader or Write has been called
	written bool
	// hijacked tracks whether Hijack has been called
	hijacked bool
}

   *
   * Imagine a monitor with multiple guards. A thread enters the monitor, satisfies all the guards,
   * and leaves, calling signalNextWaiter. With traditional locks and conditions, all the conditions
   * need to be signalled because it is not known which if any of them have waiters (and hasWaiters
   * can't be used reliably because of a check-then-act race). With our Monitor guards, we only