baseKey:   baseKey,
		resource:  config.GroupResource,
		destroyFn: func() { once.Do(d) },
	}, nil
}

// Allocate attempts to allocate the item.
func (e *Etcd) Allocate(offset int) (bool, error) {
	e.lock.Lock()
	defer e.lock.Unlock()

	err := e.tryUpdate(func() error {
		ok, err := e.alloc.Allocate(offset)
		if err != nil {
			return err
		}
		if !ok {
			return errorUnableToAllocate
		}
		return nil
	})

	// Allocate is called to pre-allocate memory resources during Pod admission.
	// This must be called at some point prior to the AddContainer() call for a container, e.g. at pod admission time.
	Allocate(pod *v1.Pod, container *v1.Container) error

	// RemoveContainer is called after Kubelet decides to kill or delete a
	// container. After this call, any memory allocated to the container is freed.

			rand:   rand.New(rand.NewSource(time.Now().UnixNano())),
			offset: offset,
		},
		allocated: big.NewInt(0),
		count:     0,
		max:       max,
		rangeSpec: rangeSpec,
	}

	return &a
}

// Allocate attempts to reserve the provided item.
// Returns true if it was allocated, false if it was already in use
func (r *AllocationBitmap) Allocate(offset int) (bool, error) {
	r.lock.Lock()
	defer r.lock.Unlock()

				AllocationSize:       int32(size),
			},
		},
	})
}

// allocate issues Allocate gRPC call to the device plugin.
func (e *endpointImpl) allocate(devs []string) (*pluginapi.AllocateResponse, error) {
	if e.isStopped() {
		return nil, fmt.Errorf(errEndpointStopped, e)
	}
	return e.api.Allocate(context.Background(), &pluginapi.AllocateRequest{
		ContainerRequests: []*pluginapi.ContainerAllocateRequest{

		},
		{
			"allocate 24 full cores with 8 distributed across the last 3 NUMA nodes (even though all 8 could be allocated from the first NUMA node)",
			topoDualSocketMultiNumaPerSocketHT,
			mustParseCPUSet(t, "2-29,31-39,42-69,71-79"),
			48,
			1,
			"",
			mustParseCPUSet(t, "10-17,20-27,31-38,50-57,60-67,71-78"),
		},
		{
			"allocate 8 full cores with 2 distributed across each NUMA node",

    final List<Integer> allocated = []
    int current

    public ReservedPortRange(int startPort, int endPort) {
        this.startPort = startPort
        this.endPort = endPort
        current = startPort + new Random().nextInt(endPort - startPort)
    }

    /**
     * Allocate an available port
     *
     * @return the port that was allocated
     */
    public int allocate() {
        try {

		}
	}

	// Make sure that we can allocate exactly `numAllocatable24s` elements.
	for i := 0; i < numAllocatable24s; i++ {
		_, err := a.AllocateNext()
		if err != nil {
			t.Fatalf("Expected to be able to allocate %d CIDRS, failed after %d", numAllocatable24s, i)
		}
	}

	_, err = a.AllocateNext()
	if err == nil {
		t.Fatalf("Expected to be able to allocate exactly %d CIDRS, got one more", numAllocatable24s)
	}

	// Initialize x.
	for i := range x {
		x[i] = byte(i)
	}

	// Force x to be allocated on the heap.
	sink = &x
	sink = nil

	// Go to deferreturn after the panic below.
	defer func() {
		recover()
	}()

	// This call collects the heap-allocated version of x (oops!)
	runtime.GC()

	// Allocate that same object again and clobber it.
	y := new([20]byte)
	for i := 0; i < 20; i++ {
		y[i] = 99
	}

            for (int i = 0; i < reservations.size(); i++) {
                ReservedPortRange range = reservations.get(i)
                int port = range.allocate()
                if (port > 0) {
                    return port
                }
            }
            // if we couldn't allocate a port from the existing reserved port ranges, get another range
            reservePortRange()
        }
    }

// data but the input may be corrupt, or may be provided by an
// untrustworthy attacker.
package saferio

import (
	"io"
	"unsafe"
)

// chunk is an arbitrary limit on how much memory we are willing
// to allocate without concern.
const chunk = 10 << 20 // 10M

// ReadData reads n bytes from the input stream, but avoids allocating
// all n bytes if n is large. This avoids crashing the program by