err = svcAllocator.AllocateService(service, parsedIP)
				} else {
					err = allocator.Allocate(parsedIP)
				}
			} else {
				err = allocator.Allocate(parsedIP)
			}
			if err != nil {
				el := field.ErrorList{field.Invalid(field.NewPath("spec", "clusterIPs"), service.Spec.ClusterIPs, fmt.Sprintf("failed to allocate IP %v: %v", ip, err))}
				return allocated, errors.NewInvalid(api.Kind("Service"), service.Name, el)
			}

	if maxAttachLimit == 0 {
		return driverInfoSpec.Allocatable == nil || driverInfoSpec.Allocatable.Count == nil
	}

	return driverInfoSpec.Allocatable != nil && driverInfoSpec.Allocatable.Count != nil && int64(*driverInfoSpec.Allocatable.Count) == maxAttachLimit
}

func (nim *nodeInfoManager) installDriverToCSINode(
	nodeInfo *storagev1.CSINode,

// license that can be found in the LICENSE file.

package main

import (
	"math"
	"reflect"
)

func main() {
	for i := 0; i < 100; i++ {
		f()
		g()
	}
}

func f() {
	// Allocate map.
	m := map[float64]int{}
	// Fill to just before a growth trigger.
	const N = 13 << 4 // 6.5 * 2 * 2^k
	for i := 0; i < N; i++ {
		m[math.NaN()] = i
	}
	// Trigger growth.
	m[math.NaN()] = N

    CharBuffer buf2 = CharBuffer.allocate(expected.length());
    assertEquals(expected.length() == 0 ? -1 : expected.length(), reader.read(buf2));
    Java8Compatibility.flip(buf2);
    assertEquals(expected, buf2.toString());
    assertFullyRead(reader);

    // read in chunks to fixed CharBuffer
    reader = new CharSequenceReader(charSequence);
    buf2 = CharBuffer.allocate(5);
    builder = new StringBuilder();

					},
					Allocatable: v1.ResourceList{
						v1.ResourceCPU:    *resource.NewMilliQuantity(2000, resource.DecimalSI),
						v1.ResourceMemory: *resource.NewQuantity(1024, resource.BinarySI),
						v1.ResourcePods:   *resource.NewQuantity(10, resource.DecimalSI),
					},
				},
			},
		},
		{
			desc:    "allocatable should equal capacity minus reservations",
			node:    &v1.Node{},

	GetCPUs(podUID, containerName string) []int64
	// GetAllocatableCPUs returns the allocatable (not allocated) CPUs
	GetAllocatableCPUs() []int64
}

type MemoryProvider interface {
	// GetMemory returns information about the memory assigned to containers
	GetMemory(podUID, containerName string) []*podresourcesapi.ContainerMemory
	// GetAllocatableMemory returns the allocatable memory from the node
	GetAllocatableMemory() []*podresourcesapi.ContainerMemory

 * callee-save, so they must be saved explicitly.
 */
.globl crosscall_s390x
crosscall_s390x:
	/* save r6-r15 in the register save area of the calling function */
	stmg    %r6, %r15, 48(%r15)

	/* allocate 64 bytes of stack space to save f8-f15 */
	lay     %r15, -64(%r15)

	/* save callee-saved floating point registers */
	std     %f8, 0(%r15)
	std     %f9, 8(%r15)
	std     %f10, 16(%r15)
	std     %f11, 24(%r15)

		}

		// Add the existing block to the full list.
		block.next = a.full
		a.full = block
	}

	// Allocate a new block.
	block = (*traceRegionAllocBlock)(sysAlloc(unsafe.Sizeof(traceRegionAllocBlock{}), &memstats.other_sys))
	if block == nil {
		throw("traceRegion: out of memory")
	}

	// Allocate space for our current request, so we always make
	// progress.
	block.off.Store(n)

func (r *PortAllocator) Used() int {
	return r.portRange.Size - r.alloc.Free()
}

// Allocate attempts to reserve the provided port. ErrNotInRange or
// ErrAllocated will be returned if the port is not valid for this range
// or has already been reserved.  ErrFull will be returned if there
// are no ports left.
func (r *PortAllocator) Allocate(port int) error {
	ok, offset := r.contains(port)
	if !ok {
		// update metrics

		},
		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()

	// max is the maximum size of the usable items in the range