*
     * If the server does not respond to each ping with a pong within `interval`, this client will
     * assume that connectivity has been lost. When this happens on a web socket the connection is
     * canceled and its listener is [notified][WebSocketListener.onFailure]. When it happens on an
     * HTTP/2 connection the connection is closed and any calls it is carrying
     * [will fail with an IOException][java.io.IOException].
     *

//
// Scavenging in Go happens on two fronts: there's the background
// (asynchronous) scavenger and the allocation-time (synchronous) scavenger.
//
// The former happens on a goroutine much like the background sweeper which is
// soft-capped at using scavengePercent of the mutator's time, based on
// order-of-magnitude estimates of the costs of scavenging. The latter happens
// when allocating pages from the heap.
//

  // operation in the constructor.
  //
  // 1. In the listener that performs the callback. In this case it is fine since inputFuture is
  //    assigned prior to calling addListener, and addListener happens-before any invocation of the
  //    listener. Notably, this means that 'volatile' is unnecessary to make 'inputFuture' visible
  //    to the listener.
  //

		if t.Failed() {
			numFailed.Add(1)
		}

		// Check if the test panicked or Goexited inappropriately.
		//
		// If this happens in a normal test, print output but continue panicking.
		// tRunner is called in its own goroutine, so this terminates the process.
		//
		// If this happens while fuzzing, recover from the panic and treat it like a
		// normal failure. It's important that the process keeps running in order to

  // operation in the constructor.
  //
  // 1. In the listener that performs the callback. In this case it is fine since inputFuture is
  //    assigned prior to calling addListener, and addListener happens-before any invocation of the
  //    listener. Notably, this means that 'volatile' is unnecessary to make 'inputFuture' visible
  //    to the listener.
  //

	} else {
		switch listenerProtocol {
		case istionetworking.ListenerProtocolHTTP:
			// Check if conflict happens
			if currentListenerEntry != nil {
				// Build HTTP listener. If current listener entry is using HTTP or protocol sniffing,
				// append the service. Otherwise (TCP), change current listener to use protocol sniffing.
				if currentListenerEntry.protocol.IsTCP() {

Such a failure indicates that a **dependency may have been compromised**.
At this stage, you **must** perform manual verification and check what happens.
Several things can happen:

* a dependency was tampered in the local dependency cache of Gradle.
This is usually harmless: erase the file from the cache and Gradle would redownload the dependency.

	// trying different nodes. This should not happen when it has
	// full knowledge about resource availability (=
	// PodSchedulingContext.*.UnsuitableNodes is complete) but may happen
	// when it doesn't (= PodSchedulingContext.*.UnsuitableNodes had to be
	// truncated).
	//
	// Truncation only happens for very large clusters and then may slow

    (BinaryOp (TFL_ReshapeOp:$lhs $input, (Arith_ConstantOp:$shape $s)),
      (Arith_ConstantOp:$rhs $a), $act_fn),
    (TFL_ReshapeOp (BinaryOp $input, $rhs, $act_fn), $shape),
    // The broadcasting of "BinaryOp" only happens in the lower
    // dimensions, and the higher dimensions are same, so we know the
    // result and input of the "BinaryOp" in the source pattern have
    // the same shape, which is defined by `shape`.

				if !queued[dep] {
					queue = append(queue, dep)
					queued[dep] = true
				}
			}
			if pkg.test != nil && !queued[pkg.test] {
				queue = append(queue, pkg.test)
				queued[pkg.test] = true
			}

			if !pathIsRoot[m.Path] {
				if s := mg.Selected(m.Path); gover.ModCompare(m.Path, s, m.Version) < 0 {
					roots = append(roots, m)
					pathIsRoot[m.Path] = true
				}
			}