// Allocate configures and assigns devices to a container in a pod. From
	// the requested device resources, Allocate will communicate with the
	// owning device plugin to allow setup procedures to take place, and for
	// the device plugin to provide runtime settings to use the device
	// (environment variables, mount points and device files).
	Allocate(pod *v1.Pod, container *v1.Container) error

				continue TestCase
			}
			cidrs = append(cidrs, cidr)
		}
		// No allocated CIDR range should intersect with serviceCIDR.
		for _, c := range cidrs {
			if c.Contains(serviceCIDR.IP) || serviceCIDR.Contains(c.IP) {
				t.Errorf("test case %+v: allocated CIDR %v from service range", tc, c)
			}
		}
	}

  }

  fun assertRequests(vararg expectedHosts: String?) {
    assertThat(requestedHosts).containsExactly(*expectedHosts)
    requestedHosts.clear()
  }

  /** Allocates and returns `count` fake IPv4 addresses like [255.0.0.100, 255.0.0.101].  */
  fun allocate(count: Int): List<InetAddress> {
    val from = nextAddress
    nextAddress += count
    return (from until nextAddress)
      .map {

	for i := 10; i < 200; i++ {
		// The objects we're allocating here are pointer-ful. Some will
		// max out their size class, which are the ones we want.
		// We also allocate from small to large, so that the object which
		// maxes out its size class is the last one allocated in that class.
		// This allocation pattern leaves the next object in the class
		// unallocated, which we need to reproduce the bug.
		objs = append(objs, make([]*byte, i))

	// 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.

// persistentChunkSize is the number of bytes we allocate when we grow
// a persistentAlloc.
const persistentChunkSize = 256 << 10

// persistentChunks is a list of all the persistent chunks we have
// allocated. The list is maintained through the first word in the
// persistent chunk. This is updated atomically.
var persistentChunks *notInHeap

// Wrapper around sysAlloc that can allocate small chunks.

	klog.InfoS("Start()")
	return nil
}

func (m *fakeManager) Policy() Policy {
	klog.InfoS("Policy()")
	return NewPolicyNone()
}

func (m *fakeManager) Allocate(pod *v1.Pod, container *v1.Container) error {
	klog.InfoS("Allocate", "pod", klog.KObj(pod), "containerName", container.Name)
	return nil
}

func (m *fakeManager) AddContainer(pod *v1.Pod, container *v1.Container, containerID string) {

// 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

	// NodeController restart will return all falsely allocated CIDRs to the pool.
	if !apierrors.IsServerTimeout(err) {
		logger.Error(err, "CIDR assignment for node failed. Releasing allocated CIDR", "node", klog.KObj(node))
		for idx, cidr := range allocatedCIDRs {
			if releaseErr := r.cidrSets[idx].Release(cidr); releaseErr != nil {
				logger.Error(releaseErr, "Error releasing allocated CIDR for node", "node", klog.KObj(node))
			}
		}

				t.Errorf("expected zero-sized type to be allocated as zerobase: got %x, want %x", v, ZeroBase)
			}
			arena.Free()
		})
		t.Run("[]struct{}", func(t *testing.T) {
			arena := NewUserArena()
			var sl []struct{}
			arena.Slice(&sl, 10)
			if v := unsafe.Pointer(&sl[0]); v != ZeroBase {
				t.Errorf("expected zero-sized type to be allocated as zerobase: got %x, want %x", v, ZeroBase)
			}
			arena.Free()