// Deallocate old stack. We kept it in gfput because it was the
		// right size when the goroutine was put on the free list, but
		// the right size has changed since then.
		systemstack(func() {
			stackfree(gp.stack)
			gp.stack.lo = 0
			gp.stack.hi = 0
			gp.stackguard0 = 0
		})
	}
	if gp.stack.lo == 0 {
		// Stack was deallocated in gfput or just above. Allocate a new one.

			for i := range testCase.pod.Spec.InitContainers {
				err = p.Allocate(s, testCase.pod, &testCase.pod.Spec.InitContainers[i])
				if !reflect.DeepEqual(err, testCase.expectedError) {
					t.Fatalf("The actual error %v is different from the expected one %v", err, testCase.expectedError)
				}
			}

			for i := range testCase.pod.Spec.Containers {
				err = p.Allocate(s, testCase.pod, &testCase.pod.Spec.Containers[i])

    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}")

        },
        "stdin": {
          "description": "Whether this container should allocate a buffer for stdin in the container runtime. If this is not set, reads from stdin in the container will always result in EOF. Default is false.",
          "type": "boolean"
        },
        "stdinOnce": {

	}
	nout := t.NumOut()

	// Register argument space.
	var regArgs abi.RegArgs

	// Compute frame type.
	frametype, framePool, abid := funcLayout(t, rcvrtype)

	// Allocate a chunk of memory for frame if needed.
	var stackArgs unsafe.Pointer
	if frametype.Size() != 0 {
		if nout == 0 {
			stackArgs = framePool.Get().(unsafe.Pointer)
		} else {

}

// 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
	// to generate garbage collection information.

	}

	got := int(testing.AllocsPerRun(10, func() {
		iter := v.MapRange()
		for iter.Next() {
			k.SetIterKey(iter)
			e.SetIterValue(iter)
		}
	}))
	// Calling MapRange should not allocate even though it returns a *MapIter.
	// The function is inlineable, so if the local usage does not escape
	// the *MapIter, it can remain stack allocated.
	want := 0
	if got != want {

    a single value from first replica.

    The benefit of this optimization is reduced memory requirement on host. For
    multiple writes (one from each replica) to such variables, the host would
    allocate buffer space to receive the device output from all replicas, which is
    not required. We can use the output of first replica in such cases.
  }];

	}

	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 {

  // Hold current ND index in input tensor when computing
  // permutation.
  llvm::OwningArrayRef<uint64_t> current_input_index(
      input_tensor.getType().getRank());

  // Allocate raw data and retrieve address of the first char in its raw
  // buffer.
  llvm::OwningArrayRef<char> raw_output_arr(input_tensor.getRawData());
  char* raw_output = (char*)raw_output_arr.data();