ConvertedTemplateArgs.size(),
0);
ClassTemplate->getSpecializations().InsertNode(Decl, InsertPos);
+ Decl->setLexicalDeclContext(CurContext);
}
-
+
// Build the fully-sugared type for this class template
// specialization, which refers back to the class template
// specialization we created or found.
// Check the validity of the template headers that introduce this
// template.
+ // FIXME: Once we have member templates, we'll need to check
+ // C++ [temp.expl.spec]p17-18, where we could have multiple levels of
+ // template<> headers.
if (TemplateParameterLists.size() == 0) {
// FIXME: It would be very nifty if we could introduce some kind
// of "code insertion hint" that could show the code that needs to
// arguments was referenced but not declared, reuse that
// declaration node as our own, updating its source location to
// reflect our new declaration.
- // FIXME: update source locations
Specialization = PrevDecl;
+ Specialization->setLocation(TemplateNameLoc);
PrevDecl = 0;
} else {
// Create a new class template specialization declaration node for
}
}
- // FIXME: Do we want to create a nicely sugared type to use as the
- // type for this explicit specialization?
+ // FIXME: We want to create a nicely sugared type to use as the
+ // type of this explicit specialization.
- // Set the lexical context. If the tag has a C++ scope specifier,
- // the lexical context will be different from the semantic context.
+ // C++ [temp.expl.spec]p9:
+ // A template explicit specialization is in the scope of the
+ // namespace in which the template was defined.
+ //
+ // We actually implement this paragraph where we set the semantic
+ // context (in the creation of the ClassTemplateSpecializationDecl),
+ // but we also maintain the lexical context where the actual
+ // definition occurs.
Specialization->setLexicalDeclContext(CurContext);
// We may be starting the definition of this specialization.
namespace N {
template<typename T> struct B; // expected-note 2{{template is declared here}}
+ template<> struct ::N::B<char>; // okay
template<> struct ::N::B<short>; // okay
template<> struct ::N::B<int>; // okay
+
+ int f(int);
}
template<> struct N::B<int> { }; // okay
template<> struct ::A<long double>; // expected-error{{class template specialization of 'A' must occur in the global scope}}
}
+
+template<> struct N::B<char> {
+ int testf(int x) { return f(x); }
+};