t.Error(err)
			}
			responses.Done()
		}()
	}

	// Check that sever is not saturated by not-accounted calls
	if err := expectHTTPGet(server.URL+"/dontwait", http.StatusOK); err != nil {
		t.Error(err)
	}

	// These should hang and be accounted, i.e. saturate the server
	for i := 0; i < AllowedNonMutatingInflightRequestsNo; i++ {
		// These should hang waiting on block...
		go func() {

	{VPKSDSS, 0xfc0007ff00000000, 0x100005ce00000000, 0x0, // Vector Pack Signed Doubleword Signed Saturate VX-form (vpksdss VRT,VRA,VRB)
		[6]*argField{ap_VecReg_6_10, ap_VecReg_11_15, ap_VecReg_16_20}},
	{VPKSDUS, 0xfc0007ff00000000, 0x1000054e00000000, 0x0, // Vector Pack Signed Doubleword Unsigned Saturate VX-form (vpksdus VRT,VRA,VRB)
		[6]*argField{ap_VecReg_6_10, ap_VecReg_11_15, ap_VecReg_16_20}},

    model = FloatModel()
    optimizer = tf.keras.optimizers.Adam(learning_rate=learning_rate)

  def train_step(features):
    inputs = tf.image.convert_image_dtype(
        features['image'], dtype=tf.float32, saturate=False)
    labels = tf.one_hot(features['label'], num_classes)

    with tf.GradientTape() as tape:
      logits = model(inputs)
      loss_value = tf.reduce_mean(

   * during which the {@code RateLimiter} smoothly ramps up its rate, until it reaches its maximum
   * rate at the end of the period (as long as there are enough requests to saturate it). Similarly,
   * if the {@code RateLimiter} is left <i>unused</i> for a duration of {@code warmupPeriod}, it
   * will gradually return to its "cold" state, i.e. it will go through the same warming up process
   * as when it was first created.
   *

Do *not* use the MinIO Grid for:

* Large payloads.

Only a single connection is ever made between two servers.
Likely this means that this connection will not be able to saturate network bandwidth.
Therefore, using this for large payloads will likely be slower than using a separate connection,
and other connections will be blocked while the large payload is being sent.

## Handlers & Routes

	r.buf = make([]byte, 128*humanize.KiByte)
	rand.Read(r.buf)

	connectionsPerPeer := 16

	if len(globalNotificationSys.peerClients) > 16 {
		// For a large cluster it's enough to have 1 connection per peer to saturate the network.
		connectionsPerPeer = 1
	}

	errStr := ""
	var wg sync.WaitGroup
	for index := range globalNotificationSys.peerClients {
		if globalNotificationSys.peerClients[index] == nil {
			continue

   * during which the {@code RateLimiter} smoothly ramps up its rate, until it reaches its maximum
   * rate at the end of the period (as long as there are enough requests to saturate it). Similarly,
   * if the {@code RateLimiter} is left <i>unused</i> for a duration of {@code warmupPeriod}, it
   * will gradually return to its "cold" state, i.e. it will go through the same warming up process
   * as when it was first created.
   *

  // request is put into one of the shortest queues in that hand.
  // `handSize` must be no larger than `queues`, and should be
  // significantly smaller (so that a few heavy flows do not
  // saturate most of the queues).  See the user-facing
  // documentation for more extensive guidance on setting this
  // field.  This field has a default value of 8.
  // +optional
  optional int32 handSize = 2;

  // request is put into one of the shortest queues in that hand.
  // `handSize` must be no larger than `queues`, and should be
  // significantly smaller (so that a few heavy flows do not
  // saturate most of the queues).  See the user-facing
  // documentation for more extensive guidance on setting this
  // field.  This field has a default value of 8.
  // +optional
  optional int32 handSize = 2;

	"queueLengthLimit": "`queueLengthLimit` is the maximum number of requests allowed to be waiting...