Unit      uint32
	X_f       [0]int8
	Pad_cgo_1 [4]byte
}

type Utsname struct {
	Sysname    [65]int8
	Nodename   [65]int8
	Release    [65]int8
	Version    [65]int8
	Machine    [65]int8
	Domainname [65]int8
}

type Ustat_t struct {
	Tfree     int32
	Pad_cgo_0 [4]byte
	Tinode    uint64
	Fname     [6]int8
	Fpack     [6]int8
	Pad_cgo_1 [4]byte
}

	F_asyncwrites uint64
	F_asyncreads  uint64
	F_fsid        Fsid
	F_namemax     uint32
	F_owner       uint32
	F_ctime       uint64
	F_fstypename  [16]int8
	F_mntonname   [90]int8
	F_mntfromname [90]int8
	F_mntfromspec [90]int8
	Pad_cgo_0     [2]byte
	Mount_info    [160]byte
}

type Flock_t struct {
	Start  int64
	Len    int64
	Pid    int32
	Type   int16
	Whence int16
}

	int64(2661732831099943416),          // Int()
	int64(8325060299420976708),          // Int()
	int64(7837839688282259259),          // Int()
	int64(2518412263346885298),          // Int()
	int64(5617773211005988520),          // Int()
	int64(2339563716805116249),          // Int()
	int64(7144924247938981575),          // Int()
	int64(161231572858529631),           // Int()

	}
	return net.IP(bytes), nil
}

func isInterfaceUp(intf *net.Interface) bool {
	if intf == nil {
		return false
	}
	if intf.Flags&net.FlagUp != 0 {
		klog.V(4).Infof("Interface %v is up", intf.Name)
		return true
	}
	return false
}

func isLoopbackOrPointToPoint(intf *net.Interface) bool {
	return intf.Flags&(net.FlagLoopback|net.FlagPointToPoint) != 0
}

	// The Int method (not shown) is like either Int31 or Int63
	// depending on the size of 'int'.
	show("Int31", r.Int31(), r.Int31(), r.Int31())
	show("Int63", r.Int63(), r.Int63(), r.Int63())
	show("Uint32", r.Uint32(), r.Uint32(), r.Uint32())

	// Intn, Int31n, and Int63n limit their output to be < n.
	// They do so more carefully than using r.Int()%n.
	show("Intn(10)", r.Intn(10), r.Intn(10), r.Intn(10))

func main() {
	chki8(int8(i8), ci8&0xff-1<<8)
	chki8(int8(i16), ci16&0xff)
	chki8(int8(i32), ci32&0xff-1<<8)
	chki8(int8(i64), ci64&0xff)
	chki8(int8(u8), cu8&0xff-1<<8)
	chki8(int8(u16), cu16&0xff)
	chki8(int8(u32), cu32&0xff)
	chki8(int8(u64), cu64&0xff)
	//	chki8(int8(f32), 0)
	//	chki8(int8(f64), 0)

	chki16(int16(i8), ci8&0xffff-1<<16)

	if (int64(int16(sx)) == sx || int64(int16(^sx)) == ^sx) && (int64(int16(sy)) == sy || int64(int16(^sy)) == ^sy) {
		checkint16(int16(sx), int16(sy))
	}
	if (int64(int8(sx)) == sx || int64(int8(^sx)) == ^sx) && (int64(int8(sy)) == sy || int64(int8(^sy)) == ^sy) {
		checkint8(int8(sx), int8(sy))
	}
}

// Check result of x/y, x%y for various types.

func checkuint(x, y uint) {
	if y == 0 {
		divzerouint(x, y)

	Unit      uint32
	X_f       [0]int8
	Pad_cgo_1 [4]byte
}

type Utsname struct {
	Sysname    [65]int8
	Nodename   [65]int8
	Release    [65]int8
	Version    [65]int8
	Machine    [65]int8
	Domainname [65]int8
}

type Ustat_t struct {
	Tfree     int32
	Pad_cgo_0 [4]byte
	Tinode    uint64
	Fname     [6]int8
	Fpack     [6]int8
	Pad_cgo_1 [4]byte
}

		failed = true
	}
	if failed {
		panic("bad")
	}
}

func f1(a1 uint, a2 int8, a3 int8, a4 int8, a5 uint8, a6 int, a7 bool) uint8 {
	a5--
	a4 += (a2 << a1 << 2) | (a4 ^ a4<<(a1&a1)) - a3                              // int8
	a6 -= a6 >> (2 + uint32(a2)>>3)                                              // int
	a1 += a1                                                                     // uint

	// The Int method (not shown) is like either Int32 or Int64
	// depending on the size of 'int'.
	show("Int32", r.Int32(), r.Int32(), r.Int32())
	show("Int64", r.Int64(), r.Int64(), r.Int64())
	show("Uint32", r.Uint32(), r.Uint32(), r.Uint32())

	// IntN, Int32N, and Int64N limit their output to be < n.
	// They do so more carefully than using r.Int()%n.
	show("IntN(10)", r.IntN(10), r.IntN(10), r.IntN(10))