params+=("--concurrent-service-syncs=${CONCURRENT_SERVICE_SYNCS}")
  fi
  if [[ "${NETWORK_PROVIDER:-}" == "kubenet" ]]; then
    params+=("--allocate-node-cidrs=true")
  elif [[ -n "${ALLOCATE_NODE_CIDRS:-}" ]]; then
    params+=("--allocate-node-cidrs=${ALLOCATE_NODE_CIDRS}")
  fi
  if [[ -n "${TERMINATED_POD_GC_THRESHOLD:-}" ]]; then
    params+=("--terminated-pod-gc-threshold=${TERMINATED_POD_GC_THRESHOLD}")

	state.assignDsymsToSection(sect, state.data[symn], forceType, aligndatsize)
	return sect
}

// allocateDataSections allocates sym.Section objects for data/rodata
// (and related) symbols, and then assigns symbols to those sections.
func (state *dodataState) allocateDataSections(ctxt *Link) {
	// Allocate sections.
	// Data is processed before segtext, because we need
	// to see all symbols in the .data and .bss sections in order

  let constructor = "TF::CreateGuaranteeAllFuncsOneUsePass()";
}

def TPUColocateCompositeResourceOpsPass : Pass<"tf-tpu-colocate-composite-resource-ops", "mlir::func::FuncOp"> {
  let summary = "Colocate resource with composite device assignment to TPU device.";
  let constructor = "TFTPU::CreateTPUColocateCompositeResourceOps()";
  let description = [{

	}

	resyncStatus := ResyncFailed
	defer func() {
		s.markStatus(resyncStatus, opts, objectAPI)
		globalSiteResyncMetrics.incBucket(opts, resyncStatus)
		s.workerCh <- struct{}{}
	}()
	// Allocate new results channel to receive ObjectInfo.
	objInfoCh := make(chan itemOrErr[ObjectInfo])
	cfg, err := getReplicationConfig(ctx, opts.bucket)
	if err != nil {

}

func (w *response) Header() Header {
	if w.cw.header == nil && w.wroteHeader && !w.cw.wroteHeader {
		// Accessing the header between logically writing it
		// and physically writing it means we need to allocate
		// a clone to snapshot the logically written state.
		w.cw.header = w.handlerHeader.Clone()
	}
	w.calledHeader = true
	return w.handlerHeader
}

      --project "$NETWORK_PROJECT" \
      --router-region "$REGION" \
      --router "$NETWORK-nat-router" \
      --nat-primary-subnet-ip-ranges \
      --auto-allocate-nat-external-ips \
      ${GCE_PRIVATE_CLUSTER_PORTS_PER_VM:+--min-ports-per-vm ${GCE_PRIVATE_CLUSTER_PORTS_PER_VM}}
  fi
}

function delete-all-firewall-rules() {
  local -a fws

				t.Fatalf("expected to have at least one TableRow, but got: %d", len(rows))
			}

			func() {
				defer func() {
					if err := recover(); err != nil {
						// Same as stdlib http server code. Manually allocate stack
						// trace buffer size to prevent excessively large logs
						const size = 64 << 10
						buf := make([]byte, size)
						buf = buf[:runtime.Stack(buf, false)]

		Namespace: "",
	}
	testClusterDNSDomain := "TEST"
	kl.dnsConfigurer = dns.NewConfigurer(recorder, nodeRef, nil, nil, testClusterDNSDomain, "")

	// pod requiring adjustedResource can be successfully allocated because updatePluginResourcesFunc
	// adjusts node.allocatableResource for this resource to a sufficient value.
	fittingPodSpec := v1.PodSpec{NodeName: string(kl.nodeName),

		{Name: "AllocationMode", Type: "string", Description: resourcev1alpha2.ResourceClaimSpec{}.SwaggerDoc()["allocationMode"]},
		{Name: "State", Type: "string", Description: "A summary of the current state (allocated, pending, reserved, etc.)."},
		{Name: "Age", Type: "string", Description: metav1.ObjectMeta{}.SwaggerDoc()["creationTimestamp"]},
	}
	_ = h.TableHandler(resourceClaimColumnDefinitions, printResourceClaim)

	attrs := &lifecycle.PodAdmitAttributes{Pod: pod, OtherPods: pods}
	if utilfeature.DefaultFeatureGate.Enabled(features.InPlacePodVerticalScaling) {
		// Use allocated resources values from checkpoint store (source of truth) to determine fit
		otherPods := make([]*v1.Pod, 0, len(pods))
		for _, p := range pods {
			op := p.DeepCopy()
			kl.updateContainerResourceAllocation(op)