}

		relabelVolume := false
		// If the volume supports SELinux and it has not been
		// relabeled already and it is not a read-only volume,
		// relabel it and mark it as labeled
		if vol.Mounter.GetAttributes().Managed && vol.Mounter.GetAttributes().SELinuxRelabel && !vol.SELinuxLabeled {
			vol.SELinuxLabeled = true
			relabelVolume = true
		}

					gr = reader
				}
			}
		}
		if reader == nil || !proxy.Proxy {
			// validate if the request indeed was authorized, if it wasn't we need to return "ErrAccessDenied"
			// instead of any namespace related error.
			if s3Error := authorizeRequest(ctx, r, policy.GetObjectAction); s3Error != ErrNone {
				writeErrorResponse(ctx, w, errorCodes.ToAPIErr(s3Error), r.URL)
				return
			}
			if isErrPreconditionFailed(err) {

				// the start of the thread-local data block, so add 8
				// to the actual TLS offset (r->sym->value).
				// This 8 seems to be a fundamental constant of
				// ELF on ARM (or maybe Glibc on ARM); it is not
				// related to the fact that our own TLS storage happens
				// to take up 8 bytes.
				o = 8 + ldr.SymValue(rs)
			} else if target.IsElf() || target.IsPlan9() || target.IsDarwin() {
				o = int64(syms.Tlsoffset) + r.Add()

				VariableLabels: labels,
				Value:          float64(b.GetCumulativeCount()),
			}
			metrics = append(metrics, metric)
		}
		// add metrics with +Inf label
		labels1 := make(map[string]string)
		for _, lp := range dtoMetric.GetLabel() {
			labels1[*lp.Name] = *lp.Value
		}
		labels1["le"] = fmt.Sprintf("%.3f", math.Inf(+1))
		metrics = append(metrics, MetricV2{
			Description:    desc,

			}
		}
	}

	return h.Sum()
}

// printLinkerConfig prints the linker config into the hash h,
// as part of the computation of a linker-related action ID.
func (b *Builder) printLinkerConfig(h io.Writer, p *load.Package) {
	switch cfg.BuildToolchainName {
	default:
		base.Fatalf("linkActionID: unknown toolchain %q", cfg.BuildToolchainName)

	nodeIPValidator func(net.IP) error

	// If non-nil, this is a unique identifier for the node in an external database, eg. cloudprovider
	providerID string

	// clock is an interface that provides time related functionality in a way that makes it
	// easy to test the code.
	clock clock.WithTicker

	// handlers called during the tryUpdateNodeStatus cycle
	setNodeStatusFuncs []func(context.Context, *v1.Node) error

	}
}

func makeQueuedPodInfos(num int, namePrefix, label string, timestamp time.Time) []*framework.QueuedPodInfo {
	var pInfos = make([]*framework.QueuedPodInfo, 0, num)
	for i := 1; i <= num; i++ {
		p := &framework.QueuedPodInfo{
			PodInfo: mustNewPodInfo(
				st.MakePod().Name(fmt.Sprintf("%v-%d", namePrefix, i)).Namespace(fmt.Sprintf("ns%d", i)).Label(label, "").UID(fmt.Sprintf("tp-%d", i)).Obj()),

// tutorial on workspaces.
//
// A workspace is specified by a go.work file that specifies a set of
// module directories with the "use" directive. These modules are used as
// root modules by the go command for builds and related operations.  A
// workspace that does not specify modules to be used cannot be used to do
// builds from local modules.
//
// go.work files are line-oriented. Each line holds a single directive,

    unable to identify the Shape of these args and thus the input TensorList
    shape is unidentifiable.
    All of these args are supposed to be independent and not related to original
    creation of TensorList.

    This pass will create multiple instances of TensorList for each arg of the
    while op and each use and thus there will be not a conflict in resolving the

    exit 1
  fi
}

# Reads kube-env metadata from master
#
# Assumed vars:
#   KUBE_MASTER
#   PROJECT
#   ZONE
function get-master-env() {
  # TODO(zmerlynn): Make this more reliable with retries.
  gcloud compute --project "${PROJECT}" ssh --zone "${ZONE}" "${KUBE_MASTER}" --command \
    "curl --fail --silent -H 'Metadata-Flavor: Google' \