name: "sentinel-resource",
				patch: map[string]interface{}{
					sentinelName: fmt.Sprintf("invalid-%d", counter),
				}}.Do(ctx)

			if err == nil {
				return false, errors.New("expected error when creating sentinel resource")
			}

			// Check to see if the returned error message contains our
			// unique string. UUID should be unique enough to just check
			// simple existence in the error.

		newPod, err = c.CoreV1().Pods(pod.Namespace).Update(context.Background(), pod, metav1.UpdateOptions{})
	}
	if err != nil {
		t.Fatal(err)
	}
	// Apiserver doesn't allow Create/Update to modify the pod status. Creating doesn't result in
	// events - since PodIP will be "".
	newPod.Status.PodIP = pod.Status.PodIP
	newPod.Status.PodIPs = []v1.PodIP{
		{
			IP: pod.Status.PodIP,
		},
	}

	}

	other.first, other.last = nil, nil
}

const (
	// _KindSpecialFinalizer is for tracking finalizers.
	_KindSpecialFinalizer = 1
	// _KindSpecialWeakHandle is used for creating weak pointers.
	_KindSpecialWeakHandle = 2
	// _KindSpecialProfile is for memory profiling.
	_KindSpecialProfile = 3
	// _KindSpecialReachable is a special used for tracking
	// reachability during testing.

		if modAddedBy[mod] == nil {
			modAddedBy[mod] = pkg
		}
	}

	return modAddedBy, nil
}

// pkg locates the *loadPkg for path, creating and queuing it for loading if
// needed, and updates its state to reflect the given flags.
//
// The imports of the returned *loadPkg will be loaded asynchronously in the

	// libmingwex.a and libmingw32.a:
	/*
		for:
		#cgo windows LDFLAGS: -lmsvcrt -lm
		import:
		libmsvcrt.a libm.a
	*/
}

// loadcgodirectives reads the previously discovered cgo directives, creating
// symbols in preparation for host object loading or use later in the link.
func (ctxt *Link) loadcgodirectives() {
	l := ctxt.loader
	hostObjSyms := make(map[loader.Sym]struct{})
	for _, d := range ctxt.cgodata {

			status:                   &node.Status,
			probeTimestamp:           nc.now(),
			readyTransitionTimestamp: nc.now(),
		}
	} else if savedCondition == nil && currentReadyCondition != nil {
		logger.V(1).Info("Creating timestamp entry for newly observed Node", "node", klog.KObj(node))
		nodeHealth = &nodeHealthData{
			status:                   &node.Status,
			probeTimestamp:           nc.now(),
			readyTransitionTimestamp: nc.now(),

				continue
			}

			if asDec {
				got.AsDec()
			}

			for _, format := range []Format{DecimalSI, BinarySI, DecimalExponent} {
				// ensure we are not simply checking pointer equality by creating a new inf.Dec
				var copied inf.Dec
				copied.Add(inf.NewDec(0, inf.Scale(0)), got.AsDec())
				q := NewDecimalQuantity(copied, format)
				if c := q.Cmp(got); c != 0 {

// `pred` implies that `n` is live whenever `pred` is true.  Then we can deduce
// mismatching liveness in the inputs to node by comparing the predicate those
// inputs are mapped to.  The core logic of this pass resides in creating the
// map from TensorFlow nodes to predicates.
//
//
// MAPPING NODES TO PREDICATES, MODULO CYCLES
// ------------------------------------------
//
// If we ignore cycles for a moment, computing predicates is fairly

                                          builder));
  }
  if (op_name == "tfl.while") {
    // Adds two empty regions for "tfl.while". We will fill the regions after
    // creating the callee functions because the "tfl.while" input/output types
    // may be different with the callee functions, and the call ops need to sync
    // with callee function types.
    op_state.addRegion();

   * decade that assumes that they can use checkNotNull for non-precondition checks. I had hoped to
   * take a principled stand on this, but the amount of such code is simply overwhelming. To avoid
   * creating a lot of compile errors that users would not find to be informative, we're giving in
   * and allowing callers to pass arguments that a nullness checker believes could be null.
   *