$lhs_dilation, $rhs_dilation, $window_reversal, $dimension_numbers,
      $feature_group_count, $batch_group_count, $precision_config),
  (LiftAsTFXlaCallModule<"composite_conv_fn">
    (ArgumentList $lhs, $rhs),
    (ResultList $res),
    (NamedAttributeList
      (NamedAttr<"window_strides"> (DefaultOrNullAttr $window_strides)),
      (NamedAttr<"padding"> (DefaultOrNullAttr $padding)),

    (StableHLO_DotGeneralOp
        $lhs, $rhs, $dot_dimension_numbers, $precision_config),
    $bias),
  (LiftAsTFXlaCallModule<"composite_dot_general_with_bias_same_shape_fn">
    (ArgumentList $lhs, $rhs, $bias),
    (ResultList $res),
    (NamedAttributeList
      (NamedAttr<"dot_dimension_numbers"> $dot_dimension_numbers),
      (NamedAttr<"precision_config"> (DefaultOrNullAttr $precision_config)))),

        }
        final List<Future<SearchResult>> resultList = new ArrayList<>();
        for (int i = 0; i < searchers.length; i++) {
            final SearchRequestParams reqParams = new SearchRequestParamsWrapper(params, 0, i == 0 ? windowSize : size);
            final RankFusionSearcher searcher = searchers[i];
            resultList.add(executorService.submit(() -> {
                try {

// The list of arguments of the composite function.
def ArgumentList : NativeCodeCall<"llvm::SmallVector<Value>{$0...}">;

// The list of results of the composite function.
def ResultList : NativeCodeCall<"llvm::SmallVector<Value>{$0...}">;

// Creates a list of NamedAttributes. An example usage would be:
// (NamedAttributeList (NamedAttr<"transpose_a"> $transpose_a))

				continue
			}
			m = n.Name
		case *InterfaceType:
			if l := lastField(n.MethodList); l != nil {
				m = l
				continue
			}
			return n.Pos()
		case *FuncType:
			if l := lastField(n.ResultList); l != nil {
				m = l
				continue
			}
			if l := lastField(n.ParamList); l != nil {
				m = l
				continue
			}
			return n.Pos()
		case *MapType:
			m = n.Value
		case *ChanType:

		default:
			p.errorf("internal error: %T on nlist", n)
		}
	}
}

// NamedType = TypeName [ "=" ] Type { Method } .
// TypeName  = ExportedName .
// Method    = "func" "(" Param ")" Name ParamList ResultList [InlineBody] ";" .
func (p *parser) parseNamedType(nlist []any) types.Type {
	pkg, name := p.parseExportedName()
	scope := pkg.Scope()
	obj := scope.Lookup(name)
	if obj != nil && obj.Type() == nil {

		if len(r.outer.ResultList) > 0 {
			// Make sure that result parameters all have names
			for i, a := range r.outer.ResultList {
				if a.Name == nil || a.Name.Value == "_" {
					r.generateParamName(r.outer.ResultList, i) // updates a.Name
				}
			}
		}
		// Assign to named results
		results := []types2.Object{}
		for _, a := range r.outer.ResultList {

	}
	params, variadic := check.collectParams(scope, ftyp.ParamList, true, scopePos)
	results, _ := check.collectParams(scope, ftyp.ResultList, false, scopePos)
	scope.Squash(func(obj, alt Object) {
		err := check.newError(DuplicateDecl)
		err.addf(obj, "%s redeclared in this block", obj.Name())
		err.addAltDecl(alt)
		err.report()
	})

						if len(s.TParamList) != 0 {
							check.softErrorf(s.TParamList[0], code, "func %s must have no type parameters", name)
							hasTParamError = true
						}
						if t := s.Type; len(t.ParamList) != 0 || len(t.ResultList) != 0 {
							check.softErrorf(s.Name, code, "func %s must have no arguments and no return values", name)
						}
					}
					// don't declare init functions in the package scope - they are invisible

	if err != nil {
		t.Fatal(err)
	}

	m := f.DeclList[0].(*syntax.FuncDecl)
	res1 := defs[m.Name].(*Func).Type().(*Signature).Results().At(0)
	res2 := defs[m.Type.ResultList[0].Name].(*Var)

	if res1 != res2 {
		t.Errorf("got %s (%p) != %s (%p)", res1, res2, res1, res2)
	}
}

// This tests that uses of existing vars on the LHS of an assignment