Mode uint32
	_    uint16
	Seq  uint16
	_    uint64
	_    uint64
}
type SysvShmDesc struct {
	Perm   SysvIpcPerm
	Segsz  uint64
	Atime  int64
	Dtime  int64
	Ctime  int64
	Cpid   int32
	Lpid   int32
	Nattch uint64
	_      uint64
	_      uint64

	Mode uint32
	_    uint16
	Seq  uint16
	_    uint64
	_    uint64
}
type SysvShmDesc struct {
	Perm   SysvIpcPerm
	Atime  int64
	Dtime  int64
	Ctime  int64
	Segsz  uint64
	Cpid   int32
	Lpid   int32
	Nattch uint64
	_      uint64
	_      uint64

	_    [0]uint8
	Seq  uint16
	_    uint16
	_    uint64
	_    uint64
}
type SysvShmDesc struct {
	Perm   SysvIpcPerm
	Segsz  uint64
	Atime  int64
	Dtime  int64
	Ctime  int64
	Cpid   int32
	Lpid   int32
	Nattch uint64
	_      uint64
	_      uint64

func uninterlace(m *image.Paletted) {
	var nPix []uint8
	dx := m.Bounds().Dx()
	dy := m.Bounds().Dy()
	nPix = make([]uint8, dx*dy)
	offset := 0 // steps through the input by sequential scan lines.
	for _, pass := range interlacing {
		nOffset := pass.start * dx // steps through the output as defined by pass.
		for y := pass.start; y < dy; y += pass.skip {
			copy(nPix[nOffset:nOffset+dx], m.Pix[offset:offset+dx])

	})
}

// NewNamespace allocates a new testing namespace.
func newKube(ctx resource.Context, cfg Config) (Instance, error) {
	mu.Lock()
	idctr++
	nsid := idctr
	r := rnd.Intn(99999)
	mu.Unlock()

	name := fmt.Sprintf("%s-%d-%d", cfg.Prefix, nsid, r)
	n := &kubeNamespace{
		name:   name,
		prefix: cfg.Prefix,
		ctx:    ctx,
	}
	id := ctx.TrackResource(n)
	n.id = id

			break // mismatched profile records and tags
		}

		// Deserialize the data in the profile buffer.
		recordLen := data[0]
		timestamp := data[1]
		ppid := data[2] >> 1
		if hasP := (data[2] & 0b1) != 0; !hasP {
			ppid = ^uint64(0)
		}
		goid := data[3]
		mpid := data[4]
		stk := data[5:recordLen]

		// Overflow records always have their headers contain
		// all zeroes.

		ix.SetBounded(true)
		addr := typecheck.NodAddr(ix)

		sptr := ir.NewUnaryExpr(base.Pos, ir.OSPTR, l2)

		nwid := cheapExpr(typecheck.Conv(ir.NewUnaryExpr(base.Pos, ir.OLEN, l2), types.Types[types.TUINTPTR]), &nodes)
		nwid = ir.NewBinaryExpr(base.Pos, ir.OMUL, nwid, ir.NewInt(base.Pos, elemtype.Size()))

		// instantiate func memmove(to *any, frm *any, length uintptr)

func PtraceCont(pid int, signal int) (err error) {
	return ptrace(PTRACE_CONT, pid, 0, uintptr(signal))
}

func PtraceSyscall(pid int, signal int) (err error) {
	return ptrace(PTRACE_SYSCALL, pid, 0, uintptr(signal))
}

func PtraceSingleStep(pid int) (err error) { return ptrace(PTRACE_SINGLESTEP, pid, 0, 0) }

func PtraceAttach(pid int) (err error) { return ptrace(PTRACE_ATTACH, pid, 0, 0) }

	case 1:
		val |= uint32(src[si+0]) << 24
		dst[di+1] = enc.encode[val>>22&0x1F]
		dst[di+0] = enc.encode[val>>27&0x1F]
	}

	// Pad the final quantum
	if enc.padChar != NoPadding {
		nPad := (remain * 8 / 5) + 1
		for i := nPad; i < 8; i++ {
			dst[di+i] = byte(enc.padChar)
		}
	}
}

// AppendEncode appends the base32 encoded src to dst
// and returns the extended buffer.

}

func PtracePokeText(pid int, addr uintptr, data []byte) (count int, err error) {
	return ptracePoke(pid, addr, data)
}

func PtracePokeData(pid int, addr uintptr, data []byte) (count int, err error) {
	return ptracePoke(pid, addr, data)
}

func PtraceCont(pid int, signal int) (err error) {
	return ptrace64(PT_CONTINUE, int64(pid), 1, signal, 0)
}