// to distinguish traffic we want to capture vs traffic we do not.
	// Equivalent to `ip -6 addr add "::6/128" dev lo`
	address := &net.IPNet{IP: net.ParseIP("::6"), Mask: net.CIDRMask(128, 128)}
	addr := &netlink.Addr{IPNet: address}

	err = netlink.AddrAdd(link, addr)
	if ignoreExists(err) != nil {
		return fmt.Errorf("failed to add IPv6 inbound address: %v", err)
	}

func ReadDirectoryChanges(handle Handle, buf *byte, buflen uint32, watchSubTree bool, mask uint32, retlen *uint32, overlapped *Overlapped, completionRoutine uintptr) (err error) {
	var _p0 uint32
	if watchSubTree {
		_p0 = 1
	}

	}

	sval := ldr.SymValue(s)
	if !decodetypeUsegcprog(p.ctxt.Arch, typData) {
		// Copy pointers from mask into program.
		mask := decodetypeGcmask(p.ctxt, typ)
		for i := int64(0); i < nptr; i++ {
			if (mask[i/8]>>uint(i%8))&1 != 0 {
				p.w.Ptr(sval/ptrsize + i)
			}
		}
		return
	}

	// Copy program.
	prog := decodetypeGcprog(p.ctxt, typ)

		n = 10

	default:
		return ws.ErrHeaderLengthUnexpected
	}

	if f.Header.Masked {
		bts[1] |= bit0
		n += copy(bts[n:], f.Header.Mask[:])
	}

	if _, err := w.Write(bts[:n]); err != nil {
		return err
	}

	_, err := w.Write(f.Payload)
	return err

					bits: 20,
					p:    mustPrefix("255.255.240.0/20"),
					ok:   true,
				},
				{
					// Partially masking one byte that contains both
					// 1s and 0s on either side of the mask limit.
					ip:   mustIP("100.98.156.66"),
					bits: 10,
					p:    mustPrefix("100.64.0.0/10"),
					ok:   true,
				},
			},
		},
		{
			family:   "IPv6",
			subtests: makeIPv6(""),

	stdSeparatorShift = 28                 // extra argument in high 4 bits for fractional second separators
	stdMask           = 1<<stdArgShift - 1 // mask out argument
)

// std0x records the std values for "01", "02", ..., "06".
var std0x = [...]int{stdZeroMonth, stdZeroDay, stdZeroHour12, stdZeroMinute, stdZeroSecond, stdYear}

	if m > n {
		copy(z.mant, z.mant[m-n:]) // move n last words to front
		z.mant = z.mant[:n]
	}

	// determine number of trailing zero bits (ntz) and compute lsb mask of mantissa's least-significant word
	ntz := n*_W - z.prec // 0 <= ntz < _W
	lsb := Word(1) << ntz

	// round if result is inexact
	if rbit|sbit != 0 {

(RotateLeft(32|64) ...) => ((ROTLW|ROTL) ...)

// Constant rotate generation
(ROTLW  x (MOVDconst [c])) => (ROTLWconst  x [c&31])
(ROTL   x (MOVDconst [c])) => (ROTLconst   x [c&63])

// Combine rotate and mask operations
(ANDconst [m] (ROTLWconst [r] x)) && isPPC64WordRotateMask(m) => (RLWINM [encodePPC64RotateMask(r,m,32)] x)
(AND (MOVDconst [m]) (ROTLWconst [r] x)) && isPPC64WordRotateMask(m) => (RLWINM [encodePPC64RotateMask(r,m,32)] x)

    Value n_plus_y = rewriter.create<AddOp>(loc, iotaN, y);

    // GatherOp is happy about letting us index out of bounds values, but those
    // values will be undefined. So we mask them later. Set up the boolean
    // expression that tells us which entries, in the output shape, are out of
    // bounds and thus become the padding_value.
    Value x_in_bounds = rewriter.create<AndOp>(
        loc,

 * If you use masked losses with Keras the loss values may be different in TensorFlow `2.12` compared to previous versions.
 * In cases where the mask was previously ignored, you will now get an error if you pass a mask with an incompatible shape.

### Major Features and Improvements

`tf.keras`: