_       [4]byte
}

const (
	BLKPG = 0x1269
)

type CryptoUserAlg struct {
	Name        [64]uint8
	Driver_name [64]uint8
	Module_name [64]uint8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]uint8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64

	_       [4]byte
}

const (
	BLKPG = 0x1269
)

type CryptoUserAlg struct {
	Name        [64]uint8
	Driver_name [64]uint8
	Module_name [64]uint8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]uint8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64

	Volname [64]uint8
	_       [4]byte
}

const (
	BLKPG = 0x1269
)

type CryptoUserAlg struct {
	Name        [64]int8
	Driver_name [64]int8
	Module_name [64]int8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]int8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64

	_       [4]byte
}

const (
	BLKPG = 0x20001269
)

type CryptoUserAlg struct {
	Name        [64]int8
	Driver_name [64]int8
	Module_name [64]int8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]int8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64

	Volname [64]uint8
	_       [4]byte
}

const (
	BLKPG = 0x1269
)

type CryptoUserAlg struct {
	Name        [64]int8
	Driver_name [64]int8
	Module_name [64]int8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]int8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64

		},

		Extra: Extra{
			ServiceNodePortRange:   kubeoptions.DefaultServiceNodePortRange,
			ServiceClusterIPRanges: (&net.IPNet{IP: netutils.ParseIPSloppy("192.168.128.0"), Mask: net.CIDRMask(17, 32)}).String(),
			EndpointReconcilerType: string(reconcilers.LeaseEndpointReconcilerType),
			AllowPrivileged:        false,
			KubeletConfig: kubeletclient.KubeletClientConfig{
				Port:         10250,

			break
		}
	}
}

func (a *Attribute) ABI() ABI { return ABI(a.load() / attrABIBase) }
func (a *Attribute) SetABI(abi ABI) {
	const mask = 1 // Only one ABI bit for now.
	for {
		v0 := a.load()
		v := (v0 &^ (mask * attrABIBase)) | Attribute(abi)*attrABIBase
		if atomic.CompareAndSwapUint32((*uint32)(a), uint32(v0), uint32(v)) {
			break
		}
	}
}

		if caps.data[0].effective&(1<<uint(CAP_SYS_TIME)) == 0 {
			fmt.Fprintln(os.Stderr, "CAP_SYS_TIME unexpectedly not in the effective capability mask")
			os.Exit(2)
		}
		if caps.data[1].effective&(1<<uint(CAP_SYSLOG&31)) == 0 {
			fmt.Fprintln(os.Stderr, "CAP_SYSLOG unexpectedly not in the effective capability mask")
			os.Exit(2)
		}
		os.Exit(0)
	}

	// skip on android, due to lack of lookup support

// It panics if n <= 0.
func (r *Rand) Int63n(n int64) int64 {
	if n <= 0 {
		panic("invalid argument to Int63n")
	}
	if n&(n-1) == 0 { // n is power of two, can mask
		return r.Int63() & (n - 1)
	}
	max := int64((1 << 63) - 1 - (1<<63)%uint64(n))
	v := r.Int63()
	for v > max {
		v = r.Int63()
	}
	return v % n
}

	Devname [64]uint8
	Volname [64]uint8
}

const (
	BLKPG = 0x1269
)

type CryptoUserAlg struct {
	Name        [64]int8
	Driver_name [64]int8
	Module_name [64]int8
	Type        uint32
	Mask        uint32
	Refcnt      uint32
	Flags       uint32
}

type CryptoStatAEAD struct {
	Type         [64]int8
	Encrypt_cnt  uint64
	Encrypt_tlen uint64
	Decrypt_cnt  uint64
	Decrypt_tlen uint64