}

REGISTER_OP("AllocateOutputOp1").Output("output1: float");

TEST_F(DeviceKernelOpTest, TestAllocateOutputSizeOne) {
  auto my_compute_func = [](void* kernel, TF_OpKernelContext* ctx) {
    // Allocate output
    TF_Status* s = TF_NewStatus();
    int64_t dim = 1;
    size_t tensor_size_bytes = TF_DataTypeSize(TF_FLOAT);
    TF_Tensor* output = TF_AllocateOutput(

				"--client-ca-file=" + filepath.Join(testCertsDir, "ca.crt"),
				"--requestheader-client-ca-file=" + filepath.Join(testCertsDir, "front-proxy-ca.crt"),
				"--allocate-node-cidrs=true",
				"--cluster-cidr=10.0.1.15/16",
			},
		},
		{
			name: "custom service-cluster-ip-range for " + cpVersion,
			cfg: &kubeadmapi.ClusterConfiguration{
				Networking: kubeadmapi.Networking{

		if r.err != nil {
			return nil, r.err
		}
		// Move to next block
		item, ok := <-r.queue
		if !ok {
			r.err = io.EOF
			return nil, r.err
		}
		//nolint:staticcheck // SA6002 Using pointer would allocate more since we would have to copy slice header before taking a pointer.
		r.csvDstPool.Put(r.current)
		r.current = <-item.dst
		r.err = item.err
		r.recordsRead = 0
	}
	csvRecord := r.current[r.recordsRead]

		return err
	}
	return nil
}

// Allocate call is idempotent
func (p *staticPolicy) Allocate(s state.State, pod *v1.Pod, container *v1.Container) (rerr error) {
	// allocate the memory only for guaranteed pods
	if v1qos.GetPodQOS(pod) != v1.PodQOSGuaranteed {
		return nil
	}

	podUID := string(pod.UID)
	klog.InfoS("Allocate", "pod", klog.KObj(pod), "containerName", container.Name)

	sum.Add(sum, x)

to accumulate values x in a sum.

(By always passing in a result value via the receiver, memory use can be
much better controlled. Instead of having to allocate new memory for each
result, an operation can reuse the space allocated for the result value,
and overwrite that value with the new result in the process.)

Notational convention: Incoming method parameters (including the receiver)

    uint64 size =
        client->backend().transfer_manager()->GetByteSizeRequirement(subshape);
    TF_ASSIGN_OR_RETURN(se::OwningDeviceMemory buffer,
                        client->backend().memory_allocator()->Allocate(
                            device_ordinal, size, /*retry_on_failure=*/false,
                            subshape.layout().memory_space()));
    // Move our buffer into shaped_buffer, which takes ownership of it.

	stackSwitchCallback();

	// Next, verify that switching stacks doesn't break callbacks.

	char *stack1 = malloc(STACK_SIZE);
	if (stack1 == NULL) {
		perror("malloc");
		exit(1);
	}

	// Allocate the second stack before freeing the first to ensure we don't get
	// the same address from malloc.
	//
	// Will be freed in stackSwitchThread2.
	stack2 = malloc(STACK_SIZE);
	if (stack1 == NULL) {
		perror("malloc");

  // result without creating new entry in the state vector. Otherwise, allocate
  // a new entry in the state vector.
  void InitializeArgState(BlockArgument arg, Value arg_value);

  // Sets the state of the index-th operand of the op. If this operand is
  // cached, uses the cached result without creating new entry in the state
  // vector. Otherwise, allocate a new entry in the state vector.

// IPs allocated to a service entry may differ from istiod to istiod
// but it does not matter because these IPs only affect the listener
// IPs on a given proxy managed by a given istiod.
//
// NOTE: If DNS capture is not enabled by the proxy, the automatically
// allocated IP addresses do not take effect.
//
// The current algorithm to allocate IPs is deterministic across all istiods.

					driverName, allocation, err := controller.allocate(tCtx, nodeName, tc.resources)
					if err != nil {
						if expect.allocateErr == "" {
							tCtx.Fatalf("unexpected allocate error: %v", err)
						}
						require.Equal(tCtx, expect.allocateErr, err.Error())
						return
					}
					if expect.allocateErr != "" {
						tCtx.Fatalf("did not get expected allocate error: %v", expect.allocateErr)
					}