// We should now see the waypoint service IP
	assert.Equal(t,
		s.lookup(s.addrXdsName("127.0.0.3"))[0].Address.GetWorkload().Waypoint.GetAddress().Address,
		netip.MustParseAddr("10.0.0.2").AsSlice())

	assert.Equal(t,
		s.lookup(s.addrXdsName("127.0.0.4"))[0].Address.GetWorkload().Waypoint.GetAddress().Address,
		netip.MustParseAddr("10.0.0.3").AsSlice())

	// Lookup for service VIP should return Workload and Service AddressInfo objects

        "lookup" and "output".
    """
    with session.Session(graph=ops.Graph()) as sess:
      input_vocabs_placeholder, lookup_tensor, output_tensor = (
          self._create_vocab_table_lookup_model_tf1(sess)
      )

      inputs = {'input_vocabs': input_vocabs_placeholder}
      outputs = {
          'lookup': lookup_tensor,
          'output': output_tensor,
      }

		{"concreteMethod", lookup("t").(*Named).Method(0)},
		{"recv", lookup("t").(*Named).Method(0).Signature().Recv()},
		{"mParam", lookup("t").(*Named).Method(0).Signature().Params().At(0)},
		{"mResult", lookup("t").(*Named).Method(0).Signature().Results().At(0)},

		// Interface methods
		{"interfaceMethod", lookup("i").Underlying().(*Interface).Method(0)},

		// Function type fields

	lookup := func(tname string) Type { return pkg.Scope().Lookup(tname).Type() }
	var (
		EmptyIface   = lookup("EmptyIface").Underlying().(*Interface)
		I            = lookup("I").(*Named)
		II           = I.Underlying().(*Interface)
		C            = lookup("C").(*Named)
		CI           = C.Underlying().(*Interface)
		Integer      = lookup("Integer").Underlying().(*Interface)

				Questions: []dnsmessage.Question{q.Questions[0]},
				Answers:   answers,
			}, nil
		},
	}

	r := Resolver{PreferGo: true, Dial: fake.DialContext}
	ins := []string{lookup, absDomainName(lookup), strings.ToLower(lookup), strings.ToUpper(lookup)}
	for _, in := range ins {
		_, res, err := r.goLookupIPCNAMEOrder(context.Background(), "ip", in, mode, nil)
		if err != nil {

  def visit_FunctionDef(self, node):
    op_def, derived_attrs = self._op_defs.lookup(node.name, node, True)
    if op_def is None:
      # Nested function. Insert it to symbol table for looking up later.
      self.symbol_table.insert_symbol(node.name, node, None)
      return
    op_name = op_def.name
    if self.symbol_table.lookup(op_name):
      raise LookupError('Composition has not been registered for op: ' +

    int num_branches() { return getBranches().size(); }

    // Gets function corresponding branch # `index`.
    // Prefer passing in SymbolTableCollection to reduce lookup costs by
    // enabling reusing cached symbol table lookup.
    func::FuncOp ResolveBranchFunction(::mlir::SymbolTableCollection* table, int index) {
      auto flat_sym_ref = getBranches()[index].cast<FlatSymbolRefAttr>();
      if (table)

		sh.Flags = uint64(elf.SHF_ALLOC)
		sh.Addralign = 1
		shsym(sh, ldr, ldr.Lookup(".dynstr", 0))

		if elfverneed != 0 {
			sh := elfshname(".gnu.version")
			sh.Type = uint32(elf.SHT_GNU_VERSYM)
			sh.Flags = uint64(elf.SHF_ALLOC)
			sh.Addralign = 2
			sh.Link = uint32(elfshname(".dynsym").shnum)
			sh.Entsize = 2
			shsym(sh, ldr, ldr.Lookup(".gnu.version", 0))

			sh = elfshname(".gnu.version_r")

        maven = container.lookup(Maven.class);

        executionRequestPopulator = container.lookup(MavenExecutionRequestPopulator.class);

        modelProcessor = createModelProcessor(container);

        configurationProcessors = container.lookupMap(ConfigurationProcessor.class);

        toolchainsBuilder = container.lookup(ToolchainsBuilder.class);

			// runtime.types size must be removed, as it's a real symbol.
			tsize := ldr.SymSize(ldr.Lookup("runtime.types", 0))
			outerSymSize["typerel.*"] = size - tsize
			return
		}
		fallthrough
	case sym.STYPE:
		if !ctxt.DynlinkingGo() {
			// runtime.types size must be removed, as it's a real symbol.
			tsize := ldr.SymSize(ldr.Lookup("runtime.types", 0))
			outerSymSize["type:*"] = size - tsize
		}
	case sym.SGOSTRING: