}

def AllocateFuturesOp: TensorflowMlrt_Op<"allocate_futures", [AttrSizedResultSegments]> {
  let summary = "Allocate futures and promsies for tensorflow tensors";

  let description = [{
    Allocate futures and promsies for tensorflow tensors.

    $num_futures: The number of futures to be allocated.

    $promises: There are $num_futures promises. promises[i] shares the state with futures[i].

func dumpStacksRec(node *traceMapNode, w traceWriter, stackBuf []uintptr) traceWriter {
	stack := unsafe.Slice((*uintptr)(unsafe.Pointer(&node.data[0])), uintptr(len(node.data))/unsafe.Sizeof(uintptr(0)))

	// N.B. This might allocate, but that's OK because we're not writing to the M's buffer,
	// but one we're about to create (with ensure).
	n := fpunwindExpand(stackBuf, stack)
	frames := makeTraceFrames(w.gen, stackBuf[:n])

	r.defaultOnReadService(oldSvc)

	// Fix up allocated values that the client may have not specified (for
	// idempotence).
	patchAllocatedValues(After{newSvc}, Before{oldSvc})

	// Make sure ClusterIP and ClusterIPs are in sync.  This has to happen
	// early, before anyone looks at them.
	normalizeClusterIPs(After{newSvc}, Before{oldSvc})

	// Allocate and initialize fields.

	allCDIDevices := sets.New[string]()
	// Loops through AllocationResponses of all cached device resources.
	for _, devices := range resources {
		resp := devices.allocResp
		// Each Allocate response has the following artifacts.
		// Environment variables
		// Mount points
		// Device files
		// Container annotations
		// CDI device IDs
		// These artifacts are per resource per container.

                        } catch (IOException e) {
                            return
                        }
                        try {
                            connection.read(ByteBuffer.allocate(4096))
                            connection.write(ByteBuffer.wrap("hello".bytes))
                        } finally {
                            connection.close()
                        }
                    }

			}
		})
	}
}

func TestAppProbe(t *testing.T) {
	// Starts the application first.
	listener, err := net.Listen("tcp", ":0")
	if err != nil {
		t.Errorf("failed to allocate unused port %v", err)
	}
	go http.Serve(listener, &handler{lastAlpn: atomic.NewString("")})
	appPort := listener.Addr().(*net.TCPAddr).Port

	simpleHTTPConfig := KubeAppProbers{

				l = l1
				break
			}
		}
	}

	// If that failed, allocate a new logger.
	if l == nil {
		// Use sysAllocOS instead of sysAlloc because we want to interfere
		// with the runtime as little as possible, and sysAlloc updates accounting.
		l = (*dlogger)(sysAllocOS(unsafe.Sizeof(dlogger{})))
		if l == nil {
			throw("failed to allocate debug log")
		}
		l.w.r.data = &l.w.data
		l.owned.Store(1)

			// Already extended with \\?\ or any combination of directory separators.
			return path
		}
	}

	// Do nothing (and don't allocate) if the path is "short".
	// Empirically (at least on the Windows Server 2013 builder),
	// the kernel is arbitrarily okay with < 248 bytes. That
	// matches what the docs above say:

	}
	if int64(int(n64)) != n64 || int(n64) < 0 {
		return errTooBig
	}
	n := int(n64)

	// allocate space
	if 2*n < cap(x.data) || cap(x.data) < n || x.sa.int32 != nil && n > maxData32 || x.sa.int64 != nil && n <= maxData32 {
		// new data is significantly smaller or larger than
		// existing buffers - allocate new ones
		x.data = make([]byte, n)
		x.sa.int32 = nil
		x.sa.int64 = nil
		if n <= maxData32 {

}

func BenchmarkMarshalBytes(b *testing.B) {
	b.ReportAllocs()
	// 32 fits within encodeState.scratch.
	b.Run("32", benchMarshalBytes(32))
	// 256 doesn't fit in encodeState.scratch, but is small enough to
	// allocate and avoid the slower base64.NewEncoder.
	b.Run("256", benchMarshalBytes(256))
	// 4096 is large enough that we want to avoid allocating for it.
	b.Run("4096", benchMarshalBytes(4096))
}