// RUN: %clang_cc1 %s -triple i686-pc-win32 -fsyntax-only -Wmicrosoft -Wc++11-extensions -Wno-long-long -verify -fms-extensions -fexceptions -fcxx-exceptions -DTEST1 // RUN: %clang_cc1 -std=c++98 %s -triple i686-pc-win32 -fsyntax-only -Wmicrosoft -Wc++11-extensions -Wno-long-long -verify -fms-extensions -fexceptions -fcxx-exceptions -DTEST1 // RUN: %clang_cc1 -std=c++11 %s -triple i686-pc-win32 -fsyntax-only -Wmicrosoft -Wc++11-extensions -Wno-long-long -verify -fms-extensions -fexceptions -fcxx-exceptions -DTEST1 // RUN: %clang_cc1 %s -triple i686-pc-win32 -fsyntax-only -Wmicrosoft -Wc++11-extensions -Wno-long-long -verify -fexceptions -fcxx-exceptions -DTEST2 // RUN: %clang_cc1 %s -triple i686-pc-win32 -fsyntax-only -std=c++11 -fms-compatibility -verify -DTEST3 #if TEST1 // MSVC allows type definition in anonymous union and struct struct A { union { int a; struct B // expected-warning {{types declared in an anonymous union are a Microsoft extension}} { int c; } d; union C // expected-warning {{types declared in an anonymous union are a Microsoft extension}} { int e; int ee; } f; typedef int D; // expected-warning {{types declared in an anonymous union are a Microsoft extension}} struct F; // expected-warning {{types declared in an anonymous union are a Microsoft extension}} }; struct { int a2; struct B2 // expected-warning {{types declared in an anonymous struct are a Microsoft extension}} { int c2; } d2; union C2 // expected-warning {{types declared in an anonymous struct are a Microsoft extension}} { int e2; int ee2; } f2; typedef int D2; // expected-warning {{types declared in an anonymous struct are a Microsoft extension}} struct F2; // expected-warning {{types declared in an anonymous struct are a Microsoft extension}} }; }; // __stdcall handling struct M { int __stdcall addP(); float __stdcall subtractP(); }; // __unaligned handling typedef char __unaligned *aligned_type; typedef struct UnalignedTag { int f; } __unaligned *aligned_type2; typedef char __unaligned aligned_type3; struct aligned_type4 { int i; }; __unaligned int aligned_type4::*p1_aligned_type4 = &aligned_type4::i; int aligned_type4::* __unaligned p2_aligned_type4 = &aligned_type4::i; __unaligned int aligned_type4::* __unaligned p3_aligned_type4 = &aligned_type4::i; void (aligned_type4::*__unaligned p4_aligned_type4)(); // Check that __unaligned qualifier can be used for overloading void foo_unaligned(int *arg) {} void foo_unaligned(__unaligned int *arg) {} void foo_unaligned(int arg) {} // expected-note {{previous definition is here}} void foo_unaligned(__unaligned int arg) {} // expected-error {{redefinition of 'foo_unaligned'}} class A_unaligned {}; class B_unaligned : public A_unaligned {}; int foo_unaligned(__unaligned A_unaligned *arg) { return 0; } void *foo_unaligned(B_unaligned *arg) { return 0; } void test_unaligned() { int *p1 = 0; foo_unaligned(p1); __unaligned int *p2 = 0; foo_unaligned(p2); __unaligned B_unaligned *p3 = 0; int p4 = foo_unaligned(p3); B_unaligned *p5 = p3; // expected-error {{cannot initialize a variable of type 'B_unaligned *' with an lvalue of type '__unaligned B_unaligned *'}} __unaligned B_unaligned *p6 = p3; p1_aligned_type4 = p2_aligned_type4; p2_aligned_type4 = p1_aligned_type4; // expected-error {{assigning to 'int aligned_type4::*' from incompatible type '__unaligned int aligned_type4::*'}} p3_aligned_type4 = p1_aligned_type4; __unaligned int a[10]; int *b = a; // expected-error {{cannot initialize a variable of type 'int *' with an lvalue of type '__unaligned int [10]'}} } // Test from PR27367 // We should accept assignment of an __unaligned pointer to a non-__unaligned // pointer to void typedef struct _ITEMIDLIST { int i; } ITEMIDLIST; typedef ITEMIDLIST __unaligned *LPITEMIDLIST; extern "C" __declspec(dllimport) void __stdcall CoTaskMemFree(void* pv); __inline void FreeIDListArray(LPITEMIDLIST *ppidls) { CoTaskMemFree(*ppidls); __unaligned int *x = 0; void *y = x; } // Test from PR27666 // We should accept type conversion of __unaligned to non-__unaligned references typedef struct in_addr { public: in_addr(in_addr &a) {} // expected-note {{candidate constructor not viable: no known conversion from '__unaligned IN_ADDR *' (aka '__unaligned in_addr *') to 'in_addr &' for 1st argument; dereference the argument with *}} in_addr(in_addr *a) {} // expected-note {{candidate constructor not viable: 1st argument ('__unaligned IN_ADDR *' (aka '__unaligned in_addr *')) would lose __unaligned qualifier}} } IN_ADDR; void f(IN_ADDR __unaligned *a) { IN_ADDR local_addr = *a; IN_ADDR local_addr2 = a; // expected-error {{no viable conversion from '__unaligned IN_ADDR *' (aka '__unaligned in_addr *') to 'IN_ADDR' (aka 'in_addr')}} } template void h1(T (__stdcall M::* const )()) { } void m1() { h1(&M::addP); h1(&M::subtractP); } namespace signed_hex_i64 { void f(long long); // expected-note {{candidate function}} void f(int); // expected-note {{candidate function}} void g() { // This used to be controlled by -fms-extensions, but it is now under // -fms-compatibility. f(0xffffffffffffffffLL); // expected-error {{call to 'f' is ambiguous}} f(0xffffffffffffffffi64); } } // Enumeration types with a fixed underlying type. const int seventeen = 17; typedef int Int; struct X0 { enum E1 : Int { SomeOtherValue } field; #if __cplusplus <= 199711L // expected-warning@-2 {{enumeration types with a fixed underlying type are a C++11 extension}} #endif enum E1 : seventeen; }; #if __cplusplus <= 199711L // expected-warning@+2 {{enumeration types with a fixed underlying type are a C++11 extension}} #endif enum : long long { SomeValue = 0x100000000 }; class AAA { __declspec(dllimport) void f(void) { } void f2(void); // expected-note{{previous declaration is here}} }; __declspec(dllimport) void AAA::f2(void) { // expected-error{{dllimport cannot be applied to non-inline function definition}} // expected-error@-1{{redeclaration of 'AAA::f2' cannot add 'dllimport' attribute}} } template class BB { public: void f(int g = 10 ); // expected-note {{previous definition is here}} }; template void BB::f(int g = 0) { } // expected-warning {{redefinition of default argument}} extern void static_func(); void static_func(); // expected-note {{previous declaration is here}} static void static_func() // expected-warning {{redeclaring non-static 'static_func' as static is a Microsoft extension}} { } extern const int static_var; // expected-note {{previous declaration is here}} static const int static_var = 3; // expected-warning {{redeclaring non-static 'static_var' as static is a Microsoft extension}} void pointer_to_integral_type_conv(char* ptr) { char ch = (char)ptr; short sh = (short)ptr; ch = (char)ptr; sh = (short)ptr; // These are valid C++. bool b = (bool)ptr; b = static_cast(ptr); // This is bad. b = reinterpret_cast(ptr); // expected-error {{cast from pointer to smaller type 'bool' loses information}} } struct PR11150 { class X { virtual void f() = 0; }; int array[__is_abstract(X)? 1 : -1]; }; void f() { int __except = 0; } void ::f(); // expected-warning{{extra qualification on member 'f'}} class C { C::C(); // expected-warning{{extra qualification on member 'C'}} }; struct StructWithProperty { __declspec(property(get=GetV)) int V1; __declspec(property(put=SetV)) int V2; __declspec(property(get=GetV, put=SetV_NotExist)) int V3; __declspec(property(get=GetV_NotExist, put=SetV)) int V4; __declspec(property(get=GetV, put=SetV)) int V5; int GetV() { return 123; } void SetV(int i) {} }; void TestProperty() { StructWithProperty sp; int i = sp.V2; // expected-error{{no getter defined for property 'V2'}} sp.V1 = 12; // expected-error{{no setter defined for property 'V1'}} int j = sp.V4; // expected-error{{no member named 'GetV_NotExist' in 'StructWithProperty'}} expected-error{{cannot find suitable getter for property 'V4'}} sp.V3 = 14; // expected-error{{no member named 'SetV_NotExist' in 'StructWithProperty'}} expected-error{{cannot find suitable setter for property 'V3'}} int k = sp.V5; sp.V5 = k++; } /* 4 tests for PseudoObject, begin */ struct SP1 { bool operator()() { return true; } }; struct SP2 { __declspec(property(get=GetV)) SP1 V; SP1 GetV() { return SP1(); } }; void TestSP2() { SP2 sp2; bool b = sp2.V(); } struct SP3 { template void f(T t) {} }; template struct SP4 { __declspec(property(get=GetV)) int V; int GetV() { return 123; } void f() { SP3 s2; s2.f(V); } }; void TestSP4() { SP4 s; s.f(); } template struct SP5 { __declspec(property(get=GetV)) T V; int GetV() { return 123; } void f() { int *p = new int[V]; } }; template struct SP6 { public: __declspec(property(get=GetV)) T V; T GetV() { return 123; } void f() { int t = V; } }; void TestSP6() { SP6 c; c.f(); } /* 4 tests for PseudoObject, end */ // Property access: explicit, implicit, with Qualifier struct SP7 { __declspec(property(get=GetV, put=SetV)) int V; int GetV() { return 123; } void SetV(int v) {} void ImplicitAccess() { int i = V; V = i; } void ExplicitAccess() { int i = this->V; this->V = i; } }; struct SP8: public SP7 { void AccessWithQualifier() { int i = SP7::V; SP7::V = i; } }; // Property usage template struct SP9 { __declspec(property(get=GetV, put=SetV)) T V; T GetV() { return 0; } void SetV(T v) {} bool f() { V = this->V; return V < this->V; } void g() { V++; } void h() { V*=2; } }; struct SP10 { SP10(int v) {} bool operator<(const SP10& v) { return true; } SP10 operator*(int v) { return *this; } SP10 operator+(int v) { return *this; } SP10& operator=(const SP10& v) { return *this; } }; void TestSP9() { SP9 c; int i = c.V; // Decl initializer i = c.V; // Binary op operand c.SetV(c.V); // CallExpr arg int *p = new int[c.V + 1]; // Array size p[c.V] = 1; // Array index c.V = 123; // Setter c.V++; // Unary op operand c.V *= 2; // Unary op operand SP9 c2; c2.V[0] = 123; // Array SP9 c3; c3.f(); // Overloaded binary op operand c3.g(); // Overloaded incdec op operand c3.h(); // Overloaded unary op operand } union u { int *i1; int &i2; // expected-warning {{union member 'i2' has reference type 'int &', which is a Microsoft extension}} }; // Property getter using reference. struct SP11 { __declspec(property(get=GetV)) int V; int _v; int& GetV() { return _v; } void UseV(); void TakePtr(int *) {} void TakeRef(int &) {} void TakeVal(int) {} }; void SP11::UseV() { TakePtr(&V); TakeRef(V); TakeVal(V); } struct StructWithUnnamedMember { __declspec(property(get=GetV)) int : 10; // expected-error {{anonymous property is not supported}} }; struct MSPropertyClass { int get() { return 42; } int __declspec(property(get = get)) n; }; int *f(MSPropertyClass &x) { return &x.n; // expected-error {{address of property expression requested}} } int MSPropertyClass::*g() { return &MSPropertyClass::n; // expected-error {{address of property expression requested}} } namespace rdar14250378 { class Bar {}; namespace NyNamespace { class Foo { public: Bar* EnsureBar(); }; class Baz : public Foo { public: friend class Bar; }; Bar* Foo::EnsureBar() { return 0; } } } // expected-error@+1 {{'sealed' keyword not permitted with interface types}} __interface InterfaceWithSealed sealed { }; struct SomeBase { virtual void OverrideMe(); // expected-note@+2 {{overridden virtual function is here}} // expected-warning@+1 {{'sealed' keyword is a Microsoft extension}} virtual void SealedFunction() sealed; // expected-note {{overridden virtual function is here}} }; // expected-note@+2 {{'SealedType' declared here}} // expected-warning@+1 {{'sealed' keyword is a Microsoft extension}} struct SealedType sealed : SomeBase { // expected-error@+2 {{declaration of 'SealedFunction' overrides a 'sealed' function}} // FIXME. warning can be suppressed if we're also issuing error for overriding a 'final' function. virtual void SealedFunction(); // expected-warning {{'SealedFunction' overrides a member function but is not marked 'override'}} #if __cplusplus <= 199711L // expected-warning@+2 {{'override' keyword is a C++11 extension}} #endif virtual void OverrideMe() override; }; // expected-error@+1 {{base 'SealedType' is marked 'sealed'}} struct InheritFromSealed : SealedType {}; class SealedDestructor { // expected-note {{mark 'SealedDestructor' as 'sealed' to silence this warning}} // expected-warning@+1 {{'sealed' keyword is a Microsoft extension}} virtual ~SealedDestructor() sealed; // expected-warning {{class with destructor marked 'sealed' cannot be inherited from}} }; void AfterClassBody() { // expected-warning@+1 {{attribute 'deprecated' is ignored, place it after "struct" to apply attribute to type declaration}} struct D {} __declspec(deprecated); struct __declspec(align(4)) S {} __declspec(align(8)) s1; S s2; _Static_assert(__alignof(S) == 4, ""); _Static_assert(__alignof(s1) == 8, ""); _Static_assert(__alignof(s2) == 4, ""); } namespace PR24246 { template struct A { template struct largest_type_select; template <> struct largest_type_select { blah x; // expected-error {{unknown type name 'blah'}} }; }; } class PR34109_class { PR34109_class() {} virtual ~PR34109_class() {} }; void operator delete(void *) throw(); // expected-note@-1 {{previous declaration is here}} __declspec(dllexport) void operator delete(void *) throw(); // expected-error@-1 {{redeclaration of 'operator delete' cannot add 'dllexport' attribute}} void PR34109(int* a) { delete a; } namespace PR42089 { struct S { __attribute__((nothrow)) void Foo(); // expected-note {{previous declaration is here}} __attribute__((nothrow)) void Bar(); }; void S::Foo(){} // expected-warning {{is missing exception specification}} __attribute__((nothrow)) void S::Bar(){} } #elif TEST2 // Check that __unaligned is not recognized if MS extensions are not enabled typedef char __unaligned *aligned_type; // expected-error {{expected ';' after top level declarator}} #elif TEST3 namespace PR32750 { template struct A {}; template struct B : A> { A::C::D d; }; // expected-error {{missing 'typename' prior to dependent type name 'A::C::D'}} } #else #error Unknown test mode #endif