{Type: registry.DWORD, Name: "Dword1", Value: uint64(0)},
	{Type: registry.DWORD, Name: "Dword2", Value: uint64(1)},
	{Type: registry.DWORD, Name: "Dword3", Value: uint64(0xff)},
	{Type: registry.DWORD, Name: "Dword4", Value: uint64(0xffff)},
	{Type: registry.QWORD, Name: "Qword1", Value: uint64(0)},
	{Type: registry.QWORD, Name: "Qword2", Value: uint64(1)},
	{Type: registry.QWORD, Name: "Qword3", Value: uint64(0xff)},

					q, r := aWord/bWord, aWord%bWord
					aWord, bWord = bWord, r
					ua, ub = ub, ua+q*ub
					va, vb = vb, va+q*vb
					even = !even
				}

				t.abs = t.abs.setWord(ua)
				s.abs = s.abs.setWord(va)
				t.neg = !even
				s.neg = even

				t.Mul(Ua, t)
				s.Mul(Ub, s)

				Ua.Add(t, s)
			} else {
				for bWord != 0 {
					aWord, bWord = bWord, aWord%bWord
				}
			}

	"SLBIE",
	"SLBMFEE",
	"SLBMFEV",
	"SLBMTE",
	"SLD",
	"SLDCC",
	"SRD",
	"SRAD",
	"SRADCC",
	"SRDCC",
	"EXTSWSLI",
	"EXTSWSLICC",
	"STDCCC",
	"TD",
	"SETB",
	"DWORD",
	"REMD",
	"REMDU",
	"HRFID",
	"POPCNTD",
	"POPCNTW",
	"POPCNTB",
	"CNTTZW",
	"CNTTZWCC",
	"CNTTZD",
	"CNTTZDCC",
	"COPY",
	"PASTECC",
	"DARN",
	"MADDHD",
	"MADDHDU",

}

// Decode decodes an RFC 2047 encoded-word.
func (d *WordDecoder) Decode(word string) (string, error) {
	// See https://tools.ietf.org/html/rfc2047#section-2 for details.
	// Our decoder is permissive, we accept empty encoded-text.
	if len(word) < 8 || !strings.HasPrefix(word, "=?") || !strings.HasSuffix(word, "?=") || strings.Count(word, "?") != 4 {
		return "", errInvalidWord
	}
	word = word[2 : len(word)-2]

TEXT ·getisar0(SB),NOSPLIT,$0-8
	// get Instruction Set Attributes 0 into x0
	// mrs x0, ID_AA64ISAR0_EL1 = d5380600
	WORD	$0xd5380600
	MOVD	R0, ret+0(FP)
	RET

// func getisar1() uint64
TEXT ·getisar1(SB),NOSPLIT,$0-8
	// get Instruction Set Attributes 1 into x0
	// mrs x0, ID_AA64ISAR1_EL1 = d5380620
	WORD	$0xd5380620
	MOVD	R0, ret+0(FP)
	RET

// func getpfr0() uint64
TEXT ·getpfr0(SB),NOSPLIT,$0-8

         word_index++) {
      uint64 word = storage_[word_index];
      while (word != 0) {
        uint64 only_lowest_bit_set = word & -word;
        // The number of trailing zeros in a non-zero word is the index of the
        // least significant 1.
        int bit_index = absl::countr_zero(word);
        if (!func(DeviceId(word_index * kWordSize + bit_index))) {
          return;

			// quoted-string
			word, err = p.consumeQuotedString()
		} else {
			// atom
			// We actually parse dot-atom here to be more permissive
			// than what RFC 5322 specifies.
			word, err = p.consumeAtom(true, true)
			if err == nil {
				word, isEncoded, err = p.decodeRFC2047Word(word)
			}
		}

		if err != nil {
			break
		}
		debug.Printf("consumePhrase: consumed %q", word)

labels.suggest_word_configuration=Suggest Word
labels.suggest_word_title_details=Suggest Word
labels.suggest_word_type=Word Type
labels.suggest_word_number=Word Count
labels.suggest_word_type_all=All
labels.suggest_word_type_document=Document
labels.suggest_word_type_query=Query
labels.elevate_word_configuration=Additional Word
labels.elevate_word_title_details=Additional Word
labels.elevate_word_link_list=List

	MOVD  8(R8), R11
	MOVD  8(R9), R16
	SUBE  R16, R11, R20
	MOVD  R20, 8(R10)

final:
	ADDZE R4
	XOR   $1, R4

done:
	MOVD  R4, c+72(FP)
	RET

// func addVW(z, x []Word, y Word) (c Word)
TEXT ·addVW(SB), NOSPLIT, $0
	MOVD z+0(FP), R10	// R10 = z[]
	MOVD x+24(FP), R8	// R8 = x[]
	MOVD y+48(FP), R4	// R4 = y = c
	MOVD z_len+8(FP), R11	// R11 = z_len

	word := uint32(v) << ((uaddr & 3) * 8) // little endian
	for {
		old := *addr32
		if Cas(addr32, old, old|word) {
			return
		}
	}
}

//go:nosplit
func And8(addr *uint8, v uint8) {
	// Align down to 4 bytes and use 32-bit CAS.
	uaddr := uintptr(unsafe.Pointer(addr))
	addr32 := (*uint32)(unsafe.Pointer(uaddr &^ 3))
	word := uint32(v) << ((uaddr & 3) * 8)    // little endian