}
	naddrs := addrs[:0]
	for _, addr := range addrs {
		if addr.Network() != hint.Network() {
			return nil, &AddrError{Err: "mismatched local address type", Addr: hint.String()}
		}
		switch addr := addr.(type) {
		case *TCPAddr:
			if !wildcard && !addr.isWildcard() && !addr.IP.matchAddrFamily(tcp.IP) {
				continue
			}
			naddrs = append(naddrs, addr)
		case *UDPAddr:

		add rule ip kube-proxy services ip daddr . meta l4proto . th dport vmap @service-ips
		add rule ip kube-proxy services fib daddr type local ip daddr != 127.0.0.0/8 meta l4proto . th dport vmap @service-nodeports

		# svc1
		add rule ip kube-proxy service-ULMVA6XW-ns1/svc1/tcp/p80 ip daddr 172.30.0.41 tcp dport 80 ip saddr != 10.0.0.0/8 jump mark-for-masquerade

			if cs[0], err = ListenMulticastUDP(tt.net, ifi, tt.gaddr); err != nil {
				t.Fatal(err)
			}
			if err := checkMulticastListener(cs[0], tt.gaddr.IP); err != nil {
				closer(cs)
				t.Fatal(err)
			}
			if cs[1], err = ListenMulticastUDP(tt.net, ifi, tt.gaddr); err != nil {
				closer(cs)
				t.Fatal(err)
			}
			if err := checkMulticastListener(cs[1], tt.gaddr.IP); err != nil {
				closer(cs)
				t.Fatal(err)

    private int[] resolveOrder;

    InetAddress laddr, baddr;

    NameServiceClient() {
        this( LPORT, LADDR );
    }
    NameServiceClient( int lport, InetAddress laddr ) {
        this.lport = lport;
        this.laddr = laddr;

        try {
            baddr = Config.getInetAddress( "jcifs.smb1.netbios.baddr",
                        InetAddress.getByName( "255.255.255.255" ));

		add rule ip kube-proxy services ip daddr . meta l4proto . th dport vmap @service-ips
		add rule ip kube-proxy services ip daddr @nodeport-ips meta l4proto . th dport vmap @service-nodeports
		add element ip kube-proxy nodeport-ips { 192.168.0.2 }

		# svc1
		add chain ip kube-proxy service-ULMVA6XW-ns1/svc1/tcp/p80

	addr := (*int64)(unsafe.Pointer(uaddr))
	for i := 0; i < count; i++ {
		for {
			v := LoadInt64(addr)
			if CompareAndSwapInt64(addr, v, v+1) {
				break
			}
		}
	}
}

func hammerCompareAndSwapInt64Method(uaddr *uint64, count int) {
	addr := (*Int64)(unsafe.Pointer(uaddr))
	for i := 0; i < count; i++ {
		for {
			v := addr.Load()

		if iPort != jPort {
			return iPort < jPort
		}
		iAddr := retrieveListenerAddress(listeners[i])
		jAddr := retrieveListenerAddress(listeners[j])
		if iAddr != jAddr {
			return iAddr < jAddr
		}
		iType := retrieveListenerType(listeners[i])
		jType := retrieveListenerType(listeners[j])
		return iType < jType
	})

	fmt.Fprintln(w, "LISTENER\tCHAIN\tMATCH\tDESTINATION")
	for _, l := range listeners {

        request.isBroadcast = request.addr == null || isBroadcastAddress(request.addr);

        if ( request.isBroadcast ) {
            if ( request.addr == null ) {
                request.addr = this.baddr;
            }
            n = config.getNetbiosRetryCount();
        }
        else {
            n = 1;
        }

        do {
            try {

}

// FROM: http://golang.org/src/net/http/transport.go
// canonicalAddr returns url.Host but always with a ":port" suffix
func CanonicalAddr(url *url.URL) string {
	addr := url.Host
	if !hasPort(addr) {
		return addr + ":" + portMap[url.Scheme]
	}
	return addr

			// for all typical R_ADDR relocations. The exception
			// are those R_ADDR that are created as part of generating
			// the dynamic relocations and must be resolved statically.
			//
			// There are three phases relevant to understanding this:
			//
			//	dodata()  // we are here
			//	address() // symbol address assignment
			//	reloc()   // resolution of static R_ADDR relocs
			//