binary.LittleEndian.PutUint32(s[4:], w.stringOff(x))
}

func (s *Sym) SetABI(x uint16)   { binary.LittleEndian.PutUint16(s[8:], x) }
func (s *Sym) SetType(x uint8)   { s[10] = x }
func (s *Sym) SetFlag(x uint8)   { s[11] = x }
func (s *Sym) SetFlag2(x uint8)  { s[12] = x }
func (s *Sym) SetSiz(x uint32)   { binary.LittleEndian.PutUint32(s[13:], x) }
func (s *Sym) SetAlign(x uint32) { binary.LittleEndian.PutUint32(s[17:], x) }

        reconnect();
        if (message == null) {
            message = new Type1Message();
            if (LM_COMPATIBILITY > 2) {
                message.setFlag(NtlmFlags.NTLMSSP_REQUEST_TARGET, true);
            }
        } else {
            String domain = DEFAULT_DOMAIN;
            String user = Type3Message.getDefaultUser();

            passwordHash = NtlmUtil.getNTHash(password);
        }

        switch ( tc.getConfig().getLanManCompatibility() ) {
        case 0:
        case 1:
            if ( !getFlag(NTLMSSP_NEGOTIATE_EXTENDED_SESSIONSECURITY) ) {
                setLMResponse(getLMResponse(tc, type2, password));
                setNTResponse(getNTResponse(tc, type2, passwordHash));
            }
            else {

            if ( message == null ) {
                message = new Type1Message(this.transportContext);
                if ( this.transportContext.getConfig().getLanManCompatibility() > 2 ) {
                    message.setFlag(NtlmFlags.NTLMSSP_REQUEST_TARGET, true);
                }
            }
            else if ( this.transportContext.getCredentials() instanceof NtlmPasswordAuthentication ) {

        String getName()

        void setName(String name)
    }

    @Managed
    static interface WithInheritedPropertiesFromGrandparent extends WithInheritedProperties {
        Boolean getFlag()

        void setFlag(Boolean flag)
    }

    def "extracts properties from multiple levels of inheritance"() {
        when:
        def properties = extract(WithInheritedPropertiesFromGrandparent).properties

	}
	if s.Size > cutoff {
		w.ctxt.Diag("%s: symbol too large (%d bytes > %d bytes)", s.Name, s.Size, cutoff)
	}
	o := &w.tmpSym
	o.SetName(name, w.Writer)
	o.SetABI(abi)
	o.SetType(uint8(s.Type))
	o.SetFlag(flag)
	o.SetFlag2(flag2)
	o.SetSiz(uint32(s.Size))
	o.SetAlign(align)
	o.Write(w.Writer)
}

func (w *writer) Hash64(s *LSym) {
	if !s.ContentAddressable() || len(s.R) != 0 {

				// used to reach the service). This may be changed in the
				// future.
				tx.Add(&knftables.Set{
					Name: epInfo.affinitySetName,
					Type: ipvX_addr,
					Flags: []knftables.SetFlag{
						// The nft docs say "dynamic" is only
						// needed for sets containing stateful
						// objects (eg counters), but (at least on
						// RHEL8) if we create the set without

Russ Cox <******@****.***> 1702995705 -0500

Russ Cox <******@****.***> 1643307048 -0500

	}
	return f.abs
}

// vetFlag implements the special parsing logic for the -vet flag:
// a comma-separated list, with distinguished values "all" and
// "off", plus a boolean tracking whether it was set explicitly.
//
// "all" is encoded as vetFlag{true, false, nil}, since it will
// pass no flags to the vet binary, and by default, it runs all
// analyzers.
type vetFlag struct {
	explicit bool
	off      bool