// and all options returned by contextOptions are known.
		return "", err
	}
	// InitLabels() may allocate a new unique SELinux label in kubelet memory. The label is *not* allocated
	// in the container runtime. Clear it to avoid memory problems.
	// ReleaseLabel on non-allocated label is NOOP.
	selinux.ReleaseLabel(processLabel)

	return fileLabel, nil
}

// memory alignment preferences.
TF_CAPI_EXPORT extern size_t TF_TensorDefaultAlignment();

// Allocate and return a new Tensor.
//
// This function is an alternative to TF_NewTensor and should be used when
// memory is allocated to pass the Tensor to the C API. The allocated memory
// satisfies TensorFlow's memory alignment preferences and should be preferred
// over calling malloc and free.
//

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

			// 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 {

	}
	c2.Close()

	// 1 GB of data should be enough to notice the connection is gone.
	// Just a few bytes is not enough.
	// Arrange to reuse the same 1 MB buffer so that we don't allocate much.
	buf := make([]byte, 1<<20)
	buffers := make(Buffers, 1<<10)
	for i := range buffers {
		buffers[i] = buf
	}
	if _, err := buffers.WriteTo(c1); err == nil {

	cidrUpdateRetries = 3
)

// nodePollInterval is used in listing node
var nodePollInterval = 10 * time.Second

// CIDRAllocator is an interface implemented by things that know how
// to allocate/occupy/recycle CIDR for nodes.
type CIDRAllocator interface {
	// AllocateOrOccupyCIDR looks at the given node, assigns it a valid
	// CIDR if it doesn't currently have one or mark the CIDR as used if

	return map_ParentReference
}

var map_ServiceCIDR = map[string]string{
	"":         "ServiceCIDR defines a range of IP addresses using CIDR format (e.g. 192.168.0.0/24 or 2001:db2::/64). This range is used to allocate ClusterIPs to Service objects.",
	"metadata": "Standard object's metadata. More info: https://git.k8s.io/community/contributors/devel/sig-architecture/api-conventions.md#metadata",

	m := json.RawMessage(data[:0])
	if err := r.decoder.Decode(&m); err != nil {
		return 0, err
	}

	// If capacity of data is less than length of the message, decoder will allocate a new slice
	// and set m to it, which means we need to copy the partial result back into data and preserve
	// the remaining result for subsequent reads.
	if len(m) > cap(data) {
		copy(data, m)

)

func netpollinit() {
	// Create the pipe we use to wakeup poll.
	r, w, errno := nonblockingPipe()
	if errno != 0 {
		throw("netpollinit: failed to create pipe")
	}
	rdwake = r
	wrwake = w

	// Pre-allocate array of pollfd structures for poll.
	pfds = make([]pollfd, 1, 128)

	// Poll the read side of the pipe.
	pfds[0].fd = rdwake
	pfds[0].events = _POLLIN

	pds = make([]*pollDesc, 1, 128)
	pds[0] = nil
}