// Byte slices
	{"%s", "bytes-%s\n", &bytesVal, []byte("bytes-%s")},
	{"%x", "62797465732d2578\n", &bytesVal, []byte("bytes-%x")},
	{"%X", "62797465732D2558\n", &bytesVal, []byte("bytes-%X")},
	{"%q", `"bytes\rwith\vdo\u0075bl\x65s"` + "\n", &bytesVal, []byte("bytes\rwith\vdoubles")},
	{"%q", "`bytes with backs`\n", &bytesVal, []byte("bytes with backs")},

	// Renamed types

	// hash length is fixed at 64 bits until generic support is added
	const hashLen = 64
	byteVal := []byte(val)
	if len(byteVal) < hashLen/8 {
		// zero fill the left side of the slice
		zerofill := make([]byte, hashLen/8)
		byteVal = append(zerofill[:hashLen/8-len(byteVal)], byteVal...)
	}
	return byteVal[:hashLen/8]

	CMP	R3,R5,CR7
	ISEL	CR0LT,R4,R6,R9
	MOVD	R5,R6
	MOVD	R3,R5
	SETB_CR0(R3)
	BC	$12,30,LR	// beqlr cr7
	BR	cmpbody<>(SB)

#ifdef GOARCH_ppc64le
DATA byteswap<>+0(SB)/8, $0x0706050403020100
DATA byteswap<>+8(SB)/8, $0x0f0e0d0c0b0a0908
GLOBL byteswap<>+0(SB), RODATA, $16
#define SWAP V21
#endif

TEXT cmpbody<>(SB),NOSPLIT|NOFRAME,$0-0
start:
	CMP	R9,$16,CR0
	CMP	R9,$32,CR1
	CMP	R9,$64,CR2
	MOVD	$16,R10

	return true
}

type pinState struct {
	bytep   *uint8
	byteVal uint8
	mask    uint8
}

// nosplit, because it's called by isPinned, which is nosplit
//
//go:nosplit
func (v *pinState) isPinned() bool {
	return (v.byteVal & v.mask) != 0
}

func (v *pinState) isMultiPinned() bool {
	return (v.byteVal & (v.mask << 1)) != 0
}

func (v *pinState) setPinned(val bool) {

    }

    def "can encode and decode a small long"() {
        expect:
        def bytesA = encode { Encoder encoder ->
            encoder.writeSmallLong(a as long)
        }
        def bytesB = encode { Encoder encoder ->
            encoder.writeSmallLong(b as long)
        }
        decode(bytesA) { Decoder decoder ->
            assert decoder.readSmallLong() == a
        }

func (r *Reader) uint32At(off uint32) uint32 {
	b := r.BytesAt(off, 4)
	return binary.LittleEndian.Uint32(b)
}

func (r *Reader) int32At(off uint32) int32 {
	return int32(r.uint32At(off))
}

func (r *Reader) uint16At(off uint32) uint16 {
	b := r.BytesAt(off, 2)
	return binary.LittleEndian.Uint16(b)
}

func (r *Reader) uint8At(off uint32) uint8 {
	b := r.BytesAt(off, 1)
	return b[0]
}

    // These will have the same first 4 bytes (all 0).
    byte[] bytesA = new byte[5];
    byte[] bytesB = new byte[5];

    // Change only the last (5th) byte
    bytesA[4] = (byte) 0xbe;
    bytesB[4] = (byte) 0xef;

    HashCode hashCodeA = HashCode.fromBytes(bytesA);
    HashCode hashCodeB = HashCode.fromBytes(bytesB);

    // They aren't equal...

func findAncestor(a, b netip.Prefix) netip.Prefix {
	bytesA := a.Addr().AsSlice()
	bytesB := b.Addr().AsSlice()
	bytes := make([]byte, len(bytesA))

	max := a.Bits()
	if l := b.Bits(); l < max {
		max = l
	}

	mask := 0
	for i := range bytesA {
		xor := bytesA[i] ^ bytesB[i]
		if xor == 0 {
			bytes[i] = bytesA[i]
			mask += 8

		} else {
			pos := bits.LeadingZeros8(xor)

func (rb *reorderBuffer) runeAt(n int) rune {
	inf := rb.rune[n]
	r, _ := utf8.DecodeRune(rb.byte[inf.pos : inf.pos+inf.size])
	return r
}

// bytesAt returns the UTF-8 encoding of the rune at position n.
// It is used for Hangul and recomposition.
func (rb *reorderBuffer) bytesAt(n int) []byte {
	inf := rb.rune[n]
	return rb.byte[inf.pos : int(inf.pos)+int(inf.size)]
}

#include "textflag.h"

// Needed to swap LXVD2X loads to the correct
// byte order to work on POWER8.

#ifdef GOARCH_ppc64
DATA byteswap<>+0(SB)/8, $0x0001020304050607
DATA byteswap<>+8(SB)/8, $0x08090a0b0c0d0e0f
#else
DATA byteswap<>+0(SB)/8, $0x0706050403020100
DATA byteswap<>+8(SB)/8, $0x0f0e0d0c0b0a0908
#endif

// Load bytes in big endian order. Address
// alignment does not need checking.