test/SemaCXX/type-traits.cpp

// RUN: %clang_cc1 -triple x86_64-apple-darwin10 -fsyntax-only -verify -std=gnu++11 -fblocks -Wno-deprecated-builtins -Wno-defaulted-function-deleted %s
// RUN: %clang_cc1 -triple x86_64-apple-darwin10 -fsyntax-only -verify -std=gnu++14 -fblocks -Wno-deprecated-builtins -Wno-defaulted-function-deleted %s
// RUN: %clang_cc1 -triple x86_64-apple-darwin10 -fsyntax-only -verify -std=gnu++17 -fblocks -Wno-deprecated-builtins -Wno-defaulted-function-deleted %s
// RUN: %clang_cc1 -triple x86_64-apple-darwin10 -fsyntax-only -verify -std=gnu++20 -fblocks -Wno-deprecated-builtins -Wno-defaulted-function-deleted %s

#define T(b) (b) ? 1 : -1
#define F(b) (b) ? -1 : 1

struct NonPOD { NonPOD(int); };
typedef NonPOD NonPODAr[10];
typedef NonPOD NonPODArNB[];
typedef NonPOD NonPODArMB[10][2];

// PODs
enum Enum { EV };
enum SignedEnum : signed int { };
enum UnsignedEnum : unsigned int { };
enum class EnumClass { EV };
enum class SignedEnumClass : signed int {};
enum class UnsignedEnumClass : unsigned int {};
struct POD { Enum e; int i; float f; NonPOD* p; };
struct Empty {};
struct IncompleteStruct;
typedef Empty EmptyAr[10];
typedef Empty EmptyArNB[];
typedef Empty EmptyArMB[1][2];
typedef int Int;
typedef Int IntAr[10];
typedef Int IntArNB[];
class Statics { static int priv; static NonPOD np; };
union EmptyUnion {};
union IncompleteUnion; // expected-note {{forward declaration of 'IncompleteUnion'}}
union Union { int i; float f; };
struct HasFunc { void f (); };
struct HasOp { void operator *(); };
struct HasConv { operator int(); };
struct HasAssign { void operator =(int); };

struct HasAnonymousUnion {
  union {
    int i;
    float f;
  };
};

typedef int Vector __attribute__((vector_size(16)));
typedef int VectorExt __attribute__((ext_vector_type(4)));

using ComplexFloat = _Complex float;
using ComplexInt = _Complex int;

// Not PODs
typedef const void cvoid;
struct Derives : POD {};
typedef Derives DerivesAr[10];
typedef Derives DerivesArNB[];
struct DerivesEmpty : Empty {};
struct HasCons { HasCons(int); };
struct HasDefaultCons { HasDefaultCons() = default; };
struct HasExplicitDefaultCons { explicit HasExplicitDefaultCons() = default; };
struct HasInheritedCons : HasDefaultCons { using HasDefaultCons::HasDefaultCons; };
struct HasNoInheritedCons : HasCons {};
struct HasCopyAssign { HasCopyAssign operator =(const HasCopyAssign&); };
struct HasMoveAssign { HasMoveAssign operator =(const HasMoveAssign&&); };
struct HasNoThrowMoveAssign {
  HasNoThrowMoveAssign& operator=(
    const HasNoThrowMoveAssign&&) throw(); };
struct HasNoExceptNoThrowMoveAssign {
  HasNoExceptNoThrowMoveAssign& operator=(
    const HasNoExceptNoThrowMoveAssign&&) noexcept;
};
struct HasThrowMoveAssign {
  HasThrowMoveAssign& operator=(const HasThrowMoveAssign&&)
#if __cplusplus <= 201402L
  throw(POD);
#else
  noexcept(false);
#endif
};


struct HasNoExceptFalseMoveAssign {
  HasNoExceptFalseMoveAssign& operator=(
    const HasNoExceptFalseMoveAssign&&) noexcept(false); };
struct HasMoveCtor { HasMoveCtor(const HasMoveCtor&&); };
struct HasMemberMoveCtor { HasMoveCtor member; };
struct HasMemberMoveAssign { HasMoveAssign member; };
struct HasStaticMemberMoveCtor { static HasMoveCtor member; };
struct HasStaticMemberMoveAssign { static HasMoveAssign member; };
struct HasMemberThrowMoveAssign { HasThrowMoveAssign member; };
struct HasMemberNoExceptFalseMoveAssign {
  HasNoExceptFalseMoveAssign member; };
struct HasMemberNoThrowMoveAssign { HasNoThrowMoveAssign member; };
struct HasMemberNoExceptNoThrowMoveAssign {
  HasNoExceptNoThrowMoveAssign member; };

struct HasDefaultTrivialCopyAssign {
  HasDefaultTrivialCopyAssign &operator=(
    const HasDefaultTrivialCopyAssign&) = default;
};
struct TrivialMoveButNotCopy {
  TrivialMoveButNotCopy &operator=(TrivialMoveButNotCopy&&) = default;
  TrivialMoveButNotCopy &operator=(const TrivialMoveButNotCopy&);
};
struct NonTrivialDefault {
  NonTrivialDefault();
};

struct HasDest { ~HasDest(); };
class  HasPriv { int priv; };
class  HasProt { protected: int prot; };
struct HasRef { int i; int& ref; HasRef() : i(0), ref(i) {} };
struct HasRefAggregate { int i; int& ref; };
struct HasNonPOD { NonPOD np; };
struct HasVirt { virtual void Virt() {}; };
typedef NonPOD NonPODAr[10];
typedef HasVirt VirtAr[10];
typedef NonPOD NonPODArNB[];
union NonPODUnion { int i; Derives n; };
struct DerivesHasCons : HasCons {};
struct DerivesHasCopyAssign : HasCopyAssign {};
struct DerivesHasMoveAssign : HasMoveAssign {};
struct DerivesHasDest : HasDest {};
struct DerivesHasPriv : HasPriv {};
struct DerivesHasProt : HasProt {};
struct DerivesHasRef : HasRef {};
struct DerivesHasVirt : HasVirt {};
struct DerivesHasMoveCtor : HasMoveCtor {};

struct HasNoThrowCopyAssign {
  void operator =(const HasNoThrowCopyAssign&) throw();
};
struct HasMultipleCopyAssign {
  void operator =(const HasMultipleCopyAssign&) throw();
  void operator =(volatile HasMultipleCopyAssign&);
};
struct HasMultipleNoThrowCopyAssign {
  void operator =(const HasMultipleNoThrowCopyAssign&) throw();
  void operator =(volatile HasMultipleNoThrowCopyAssign&) throw();
};

struct HasNoThrowConstructor { HasNoThrowConstructor() throw(); };
struct HasNoThrowConstructorWithArgs {
  HasNoThrowConstructorWithArgs(HasCons i = HasCons(0)) throw();
};
struct HasMultipleDefaultConstructor1 {
  HasMultipleDefaultConstructor1() throw();
  HasMultipleDefaultConstructor1(int i = 0);
};
struct HasMultipleDefaultConstructor2 {
  HasMultipleDefaultConstructor2(int i = 0);
  HasMultipleDefaultConstructor2() throw();
};

struct HasNoThrowCopy { HasNoThrowCopy(const HasNoThrowCopy&) throw(); };
struct HasMultipleCopy {
  HasMultipleCopy(const HasMultipleCopy&) throw();
  HasMultipleCopy(volatile HasMultipleCopy&);
};
struct HasMultipleNoThrowCopy {
  HasMultipleNoThrowCopy(const HasMultipleNoThrowCopy&) throw();
  HasMultipleNoThrowCopy(volatile HasMultipleNoThrowCopy&) throw();
};

struct HasVirtDest { virtual ~HasVirtDest(); };
struct DerivedVirtDest : HasVirtDest {};
typedef HasVirtDest VirtDestAr[1];

class AllPrivate {
  AllPrivate() throw();
  AllPrivate(const AllPrivate&) throw();
  AllPrivate &operator=(const AllPrivate &) throw();
  ~AllPrivate() throw();
};

struct ThreeArgCtor {
  ThreeArgCtor(int*, char*, int);
};

struct VariadicCtor {
  template<typename...T> VariadicCtor(T...);
};

struct ThrowingDtor {
  ~ThrowingDtor()
#if __cplusplus <= 201402L
  throw(int);
#else
  noexcept(false);
#endif
};

struct NoExceptDtor {
  ~NoExceptDtor() noexcept(true);
};

struct NoThrowDtor {
  ~NoThrowDtor() throw();
};

struct ACompleteType {};
struct AnIncompleteType; // expected-note 1+ {{forward declaration of 'AnIncompleteType'}}
typedef AnIncompleteType AnIncompleteTypeAr[42];
typedef AnIncompleteType AnIncompleteTypeArNB[];
typedef AnIncompleteType AnIncompleteTypeArMB[1][10];

struct HasInClassInit {
  int x = 42;
};

struct HasPrivateBase : private ACompleteType {};
struct HasProtectedBase : protected ACompleteType {};
struct HasVirtBase : virtual ACompleteType {};

void is_pod()
{
  { int arr[T(__is_pod(int))]; }
  { int arr[T(__is_pod(Enum))]; }
  { int arr[T(__is_pod(POD))]; }
  { int arr[T(__is_pod(Int))]; }
  { int arr[T(__is_pod(IntAr))]; }
  { int arr[T(__is_pod(Statics))]; }
  { int arr[T(__is_pod(Empty))]; }
  { int arr[T(__is_pod(EmptyUnion))]; }
  { int arr[T(__is_pod(Union))]; }
  { int arr[T(__is_pod(HasFunc))]; }
  { int arr[T(__is_pod(HasOp))]; }
  { int arr[T(__is_pod(HasConv))]; }
  { int arr[T(__is_pod(HasAssign))]; }
  { int arr[T(__is_pod(IntArNB))]; }
  { int arr[T(__is_pod(HasAnonymousUnion))]; }
  { int arr[T(__is_pod(Vector))]; }
  { int arr[T(__is_pod(VectorExt))]; }
  { int arr[T(__is_pod(Derives))]; }
  { int arr[T(__is_pod(DerivesAr))]; }
  { int arr[T(__is_pod(DerivesArNB))]; }
  { int arr[T(__is_pod(DerivesEmpty))]; }
  { int arr[T(__is_pod(HasPriv))]; }
  { int arr[T(__is_pod(HasProt))]; }
  { int arr[T(__is_pod(DerivesHasPriv))]; }
  { int arr[T(__is_pod(DerivesHasProt))]; }

  { int arr[F(__is_pod(HasCons))]; }
  { int arr[F(__is_pod(HasCopyAssign))]; }
  { int arr[F(__is_pod(HasMoveAssign))]; }
  { int arr[F(__is_pod(HasDest))]; }
  { int arr[F(__is_pod(HasRef))]; }
  { int arr[F(__is_pod(HasVirt))]; }
  { int arr[F(__is_pod(DerivesHasCons))]; }
  { int arr[F(__is_pod(DerivesHasCopyAssign))]; }
  { int arr[F(__is_pod(DerivesHasMoveAssign))]; }
  { int arr[F(__is_pod(DerivesHasDest))]; }
  { int arr[F(__is_pod(DerivesHasRef))]; }
  { int arr[F(__is_pod(DerivesHasVirt))]; }
  { int arr[F(__is_pod(NonPOD))]; }
  { int arr[F(__is_pod(HasNonPOD))]; }
  { int arr[F(__is_pod(NonPODAr))]; }
  { int arr[F(__is_pod(NonPODArNB))]; }
  { int arr[F(__is_pod(void))]; }
  { int arr[F(__is_pod(cvoid))]; }
// { int arr[F(__is_pod(NonPODUnion))]; }

  { int arr[T(__is_pod(ACompleteType))]; }
  { int arr[F(__is_pod(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_pod(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_pod(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
}

typedef Empty EmptyAr[10];
struct Bit0 { int : 0; };
struct Bit0Cons { int : 0; Bit0Cons(); };
struct AnonBitOnly { int : 3; };
struct BitOnly { int x : 3; };
struct DerivesVirt : virtual POD {};

void is_empty()
{
  { int arr[T(__is_empty(Empty))]; }
  { int arr[T(__is_empty(DerivesEmpty))]; }
  { int arr[T(__is_empty(HasCons))]; }
  { int arr[T(__is_empty(HasCopyAssign))]; }
  { int arr[T(__is_empty(HasMoveAssign))]; }
  { int arr[T(__is_empty(HasDest))]; }
  { int arr[T(__is_empty(HasFunc))]; }
  { int arr[T(__is_empty(HasOp))]; }
  { int arr[T(__is_empty(HasConv))]; }
  { int arr[T(__is_empty(HasAssign))]; }
  { int arr[T(__is_empty(Bit0))]; }
  { int arr[T(__is_empty(Bit0Cons))]; }

  { int arr[F(__is_empty(Int))]; }
  { int arr[F(__is_empty(POD))]; }
  { int arr[F(__is_empty(EmptyUnion))]; }
  { int arr[F(__is_empty(IncompleteUnion))]; }
  { int arr[F(__is_empty(EmptyAr))]; }
  { int arr[F(__is_empty(HasRef))]; }
  { int arr[F(__is_empty(HasVirt))]; }
  { int arr[F(__is_empty(AnonBitOnly))]; }
  { int arr[F(__is_empty(BitOnly))]; }
  { int arr[F(__is_empty(void))]; }
  { int arr[F(__is_empty(IntArNB))]; }
  { int arr[F(__is_empty(HasAnonymousUnion))]; }
//  { int arr[F(__is_empty(DerivesVirt))]; }

  { int arr[T(__is_empty(ACompleteType))]; }
  { int arr[F(__is_empty(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_empty(AnIncompleteType[]))]; }
  { int arr[F(__is_empty(AnIncompleteType[1]))]; }
}

typedef Derives ClassType;

void is_class()
{
  { int arr[T(__is_class(Derives))]; }
  { int arr[T(__is_class(HasPriv))]; }
  { int arr[T(__is_class(ClassType))]; }
  { int arr[T(__is_class(HasAnonymousUnion))]; }

  { int arr[F(__is_class(int))]; }
  { int arr[F(__is_class(Enum))]; }
  { int arr[F(__is_class(Int))]; }
  { int arr[F(__is_class(IntAr))]; }
  { int arr[F(__is_class(DerivesAr))]; }
  { int arr[F(__is_class(Union))]; }
  { int arr[F(__is_class(cvoid))]; }
  { int arr[F(__is_class(IntArNB))]; }
}

typedef Union UnionAr[10];
typedef Union UnionType;

void is_union()
{
  { int arr[T(__is_union(Union))]; }
  { int arr[T(__is_union(UnionType))]; }

  { int arr[F(__is_union(int))]; }
  { int arr[F(__is_union(Enum))]; }
  { int arr[F(__is_union(Int))]; }
  { int arr[F(__is_union(IntAr))]; }
  { int arr[F(__is_union(UnionAr))]; }
  { int arr[F(__is_union(cvoid))]; }
  { int arr[F(__is_union(IntArNB))]; }
  { int arr[F(__is_union(HasAnonymousUnion))]; }
}

typedef Enum EnumType;
typedef EnumClass EnumClassType;

void is_enum()
{
  { int arr[T(__is_enum(Enum))]; }
  { int arr[T(__is_enum(EnumType))]; }
  { int arr[T(__is_enum(SignedEnum))]; }
  { int arr[T(__is_enum(UnsignedEnum))]; }

  { int arr[T(__is_enum(EnumClass))]; }
  { int arr[T(__is_enum(EnumClassType))]; }
  { int arr[T(__is_enum(SignedEnumClass))]; }
  { int arr[T(__is_enum(UnsignedEnumClass))]; }

  { int arr[F(__is_enum(int))]; }
  { int arr[F(__is_enum(Union))]; }
  { int arr[F(__is_enum(Int))]; }
  { int arr[F(__is_enum(IntAr))]; }
  { int arr[F(__is_enum(UnionAr))]; }
  { int arr[F(__is_enum(Derives))]; }
  { int arr[F(__is_enum(ClassType))]; }
  { int arr[F(__is_enum(cvoid))]; }
  { int arr[F(__is_enum(IntArNB))]; }
  { int arr[F(__is_enum(HasAnonymousUnion))]; }
  { int arr[F(__is_enum(AnIncompleteType))]; }
  { int arr[F(__is_enum(AnIncompleteTypeAr))]; }
  { int arr[F(__is_enum(AnIncompleteTypeArMB))]; }
  { int arr[F(__is_enum(AnIncompleteTypeArNB))]; }
}

void is_scoped_enum() {
  static_assert(!__is_scoped_enum(Enum), "");
  static_assert(!__is_scoped_enum(EnumType), "");
  static_assert(!__is_scoped_enum(SignedEnum), "");
  static_assert(!__is_scoped_enum(UnsignedEnum), "");

  static_assert(__is_scoped_enum(EnumClass), "");
  static_assert(__is_scoped_enum(EnumClassType), "");
  static_assert(__is_scoped_enum(SignedEnumClass), "");
  static_assert(__is_scoped_enum(UnsignedEnumClass), "");

  static_assert(!__is_scoped_enum(int), "");
  static_assert(!__is_scoped_enum(Union), "");
  static_assert(!__is_scoped_enum(Int), "");
  static_assert(!__is_scoped_enum(IntAr), "");
  static_assert(!__is_scoped_enum(UnionAr), "");
  static_assert(!__is_scoped_enum(Derives), "");
  static_assert(!__is_scoped_enum(ClassType), "");
  static_assert(!__is_scoped_enum(cvoid), "");
  static_assert(!__is_scoped_enum(IntArNB), "");
  static_assert(!__is_scoped_enum(HasAnonymousUnion), "");
  static_assert(!__is_scoped_enum(AnIncompleteType), "");
  static_assert(!__is_scoped_enum(AnIncompleteTypeAr), "");
  static_assert(!__is_scoped_enum(AnIncompleteTypeArMB), "");
  static_assert(!__is_scoped_enum(AnIncompleteTypeArNB), "");
}

struct FinalClass final {
};

template<typename T>
struct PotentiallyFinal { };

template<typename T>
struct PotentiallyFinal<T*> final { };

template<>
struct PotentiallyFinal<int> final { };





void is_final()
{
	{ int arr[T(__is_final(FinalClass))]; }
	{ int arr[T(__is_final(PotentiallyFinal<float*>))]; }
	{ int arr[T(__is_final(PotentiallyFinal<int>))]; }

	{ int arr[F(__is_final(int))]; }
	{ int arr[F(__is_final(Union))]; }
	{ int arr[F(__is_final(Int))]; }
	{ int arr[F(__is_final(IntAr))]; }
	{ int arr[F(__is_final(UnionAr))]; }
	{ int arr[F(__is_final(Derives))]; }
	{ int arr[F(__is_final(ClassType))]; }
	{ int arr[F(__is_final(cvoid))]; }
	{ int arr[F(__is_final(IntArNB))]; }
	{ int arr[F(__is_final(HasAnonymousUnion))]; }
}


typedef HasVirt Polymorph;
struct InheritPolymorph : Polymorph {};

void is_polymorphic()
{
  { int arr[T(__is_polymorphic(Polymorph))]; }
  { int arr[T(__is_polymorphic(InheritPolymorph))]; }

  { int arr[F(__is_polymorphic(int))]; }
  { int arr[F(__is_polymorphic(Union))]; }
  { int arr[F(__is_polymorphic(IncompleteUnion))]; }
  { int arr[F(__is_polymorphic(Int))]; }
  { int arr[F(__is_polymorphic(IntAr))]; }
  { int arr[F(__is_polymorphic(UnionAr))]; }
  { int arr[F(__is_polymorphic(Derives))]; }
  { int arr[F(__is_polymorphic(ClassType))]; }
  { int arr[F(__is_polymorphic(Enum))]; }
  { int arr[F(__is_polymorphic(cvoid))]; }
  { int arr[F(__is_polymorphic(IntArNB))]; }
}

void is_integral()
{
  int t01[T(__is_integral(bool))];
  int t02[T(__is_integral(char))];
  int t03[T(__is_integral(signed char))];
  int t04[T(__is_integral(unsigned char))];
  //int t05[T(__is_integral(char16_t))];
  //int t06[T(__is_integral(char32_t))];
  int t07[T(__is_integral(wchar_t))];
  int t08[T(__is_integral(short))];
  int t09[T(__is_integral(unsigned short))];
  int t10[T(__is_integral(int))];
  int t11[T(__is_integral(unsigned int))];
  int t12[T(__is_integral(long))];
  int t13[T(__is_integral(unsigned long))];

  int t21[F(__is_integral(float))];
  int t22[F(__is_integral(double))];
  int t23[F(__is_integral(long double))];
  int t24[F(__is_integral(Union))];
  int t25[F(__is_integral(UnionAr))];
  int t26[F(__is_integral(Derives))];
  int t27[F(__is_integral(ClassType))];
  int t28[F(__is_integral(Enum))];
  int t29[F(__is_integral(void))];
  int t30[F(__is_integral(cvoid))];
  int t31[F(__is_integral(IntArNB))];
}

void is_floating_point()
{
  int t01[T(__is_floating_point(float))];
  int t02[T(__is_floating_point(double))];
  int t03[T(__is_floating_point(long double))];

  int t11[F(__is_floating_point(bool))];
  int t12[F(__is_floating_point(char))];
  int t13[F(__is_floating_point(signed char))];
  int t14[F(__is_floating_point(unsigned char))];
  //int t15[F(__is_floating_point(char16_t))];
  //int t16[F(__is_floating_point(char32_t))];
  int t17[F(__is_floating_point(wchar_t))];
  int t18[F(__is_floating_point(short))];
  int t19[F(__is_floating_point(unsigned short))];
  int t20[F(__is_floating_point(int))];
  int t21[F(__is_floating_point(unsigned int))];
  int t22[F(__is_floating_point(long))];
  int t23[F(__is_floating_point(unsigned long))];
  int t24[F(__is_floating_point(Union))];
  int t25[F(__is_floating_point(UnionAr))];
  int t26[F(__is_floating_point(Derives))];
  int t27[F(__is_floating_point(ClassType))];
  int t28[F(__is_floating_point(Enum))];
  int t29[F(__is_floating_point(void))];
  int t30[F(__is_floating_point(cvoid))];
  int t31[F(__is_floating_point(IntArNB))];
}

template <class T>
struct AggregateTemplate {
  T value;
};

template <class T>
struct NonAggregateTemplate {
  T value;
  NonAggregateTemplate();
};

void is_aggregate()
{
  constexpr bool TrueAfterCpp11 = __cplusplus > 201103L;
  constexpr bool TrueAfterCpp14 = __cplusplus > 201402L;

  __is_aggregate(AnIncompleteType); // expected-error {{incomplete type}}
  __is_aggregate(IncompleteUnion); // expected-error {{incomplete type}}

  // Valid since LWG3823
  static_assert(__is_aggregate(AnIncompleteType[]), "");
  static_assert(__is_aggregate(AnIncompleteType[1]), "");
  static_assert(__is_aggregate(AnIncompleteTypeAr), "");
  static_assert(__is_aggregate(AnIncompleteTypeArNB), "");
  static_assert(__is_aggregate(AnIncompleteTypeArMB), "");

  static_assert(!__is_aggregate(NonPOD), "");
  static_assert(__is_aggregate(NonPODAr), "");
  static_assert(__is_aggregate(NonPODArNB), "");
  static_assert(__is_aggregate(NonPODArMB), "");

  static_assert(!__is_aggregate(Enum), "");
  static_assert(__is_aggregate(POD), "");
  static_assert(__is_aggregate(Empty), "");
  static_assert(__is_aggregate(EmptyAr), "");
  static_assert(__is_aggregate(EmptyArNB), "");
  static_assert(__is_aggregate(EmptyArMB), "");
  static_assert(!__is_aggregate(void), "");
  static_assert(!__is_aggregate(const volatile void), "");
  static_assert(!__is_aggregate(int), "");
  static_assert(__is_aggregate(IntAr), "");
  static_assert(__is_aggregate(IntArNB), "");
  static_assert(__is_aggregate(EmptyUnion), "");
  static_assert(__is_aggregate(Union), "");
  static_assert(__is_aggregate(Statics), "");
  static_assert(__is_aggregate(HasFunc), "");
  static_assert(__is_aggregate(HasOp), "");
  static_assert(__is_aggregate(HasAssign), "");
  static_assert(__is_aggregate(HasAnonymousUnion), "");

  static_assert(__is_aggregate(Derives) == TrueAfterCpp14, "");
  static_assert(__is_aggregate(DerivesAr), "");
  static_assert(__is_aggregate(DerivesArNB), "");
  static_assert(!__is_aggregate(HasCons), "");
#if __cplusplus >= 202002L
  static_assert(!__is_aggregate(HasDefaultCons), "");
#else
  static_assert(__is_aggregate(HasDefaultCons), "");
#endif
  static_assert(!__is_aggregate(HasExplicitDefaultCons), "");
  static_assert(!__is_aggregate(HasInheritedCons), "");
  static_assert(__is_aggregate(HasNoInheritedCons) == TrueAfterCpp14, "");
  static_assert(__is_aggregate(HasCopyAssign), "");
  static_assert(!__is_aggregate(NonTrivialDefault), "");
  static_assert(__is_aggregate(HasDest), "");
  static_assert(!__is_aggregate(HasPriv), "");
  static_assert(!__is_aggregate(HasProt), "");
  static_assert(__is_aggregate(HasRefAggregate), "");
  static_assert(__is_aggregate(HasNonPOD), "");
  static_assert(!__is_aggregate(HasVirt), "");
  static_assert(__is_aggregate(VirtAr), "");
  static_assert(__is_aggregate(HasInClassInit) == TrueAfterCpp11, "");
  static_assert(!__is_aggregate(HasPrivateBase), "");
  static_assert(!__is_aggregate(HasProtectedBase), "");
  static_assert(!__is_aggregate(HasVirtBase), "");

  static_assert(__is_aggregate(AggregateTemplate<int>), "");
  static_assert(!__is_aggregate(NonAggregateTemplate<int>), "");

  static_assert(__is_aggregate(Vector), ""); // Extension supported by GCC and Clang
  static_assert(__is_aggregate(VectorExt), "");
  static_assert(__is_aggregate(ComplexInt), "");
  static_assert(__is_aggregate(ComplexFloat), "");
}

void is_arithmetic()
{
  int t01[T(__is_arithmetic(float))];
  int t02[T(__is_arithmetic(double))];
  int t03[T(__is_arithmetic(long double))];
  int t11[T(__is_arithmetic(bool))];
  int t12[T(__is_arithmetic(char))];
  int t13[T(__is_arithmetic(signed char))];
  int t14[T(__is_arithmetic(unsigned char))];
  //int t15[T(__is_arithmetic(char16_t))];
  //int t16[T(__is_arithmetic(char32_t))];
  int t17[T(__is_arithmetic(wchar_t))];
  int t18[T(__is_arithmetic(short))];
  int t19[T(__is_arithmetic(unsigned short))];
  int t20[T(__is_arithmetic(int))];
  int t21[T(__is_arithmetic(unsigned int))];
  int t22[T(__is_arithmetic(long))];
  int t23[T(__is_arithmetic(unsigned long))];

  int t24[F(__is_arithmetic(Union))];
  int t25[F(__is_arithmetic(UnionAr))];
  int t26[F(__is_arithmetic(Derives))];
  int t27[F(__is_arithmetic(ClassType))];
  int t28[F(__is_arithmetic(Enum))];
  int t29[F(__is_arithmetic(void))];
  int t30[F(__is_arithmetic(cvoid))];
  int t31[F(__is_arithmetic(IntArNB))];
}

void is_complete_type()
{
  int t01[T(__is_complete_type(float))];
  int t02[T(__is_complete_type(double))];
  int t03[T(__is_complete_type(long double))];
  int t11[T(__is_complete_type(bool))];
  int t12[T(__is_complete_type(char))];
  int t13[T(__is_complete_type(signed char))];
  int t14[T(__is_complete_type(unsigned char))];
  //int t15[T(__is_complete_type(char16_t))];
  //int t16[T(__is_complete_type(char32_t))];
  int t17[T(__is_complete_type(wchar_t))];
  int t18[T(__is_complete_type(short))];
  int t19[T(__is_complete_type(unsigned short))];
  int t20[T(__is_complete_type(int))];
  int t21[T(__is_complete_type(unsigned int))];
  int t22[T(__is_complete_type(long))];
  int t23[T(__is_complete_type(unsigned long))];
  int t24[T(__is_complete_type(ACompleteType))];

  int t30[F(__is_complete_type(AnIncompleteType))];
}

void is_void()
{
  int t01[T(__is_void(void))];
  int t02[T(__is_void(cvoid))];

  int t10[F(__is_void(float))];
  int t11[F(__is_void(double))];
  int t12[F(__is_void(long double))];
  int t13[F(__is_void(bool))];
  int t14[F(__is_void(char))];
  int t15[F(__is_void(signed char))];
  int t16[F(__is_void(unsigned char))];
  int t17[F(__is_void(wchar_t))];
  int t18[F(__is_void(short))];
  int t19[F(__is_void(unsigned short))];
  int t20[F(__is_void(int))];
  int t21[F(__is_void(unsigned int))];
  int t22[F(__is_void(long))];
  int t23[F(__is_void(unsigned long))];
  int t24[F(__is_void(Union))];
  int t25[F(__is_void(UnionAr))];
  int t26[F(__is_void(Derives))];
  int t27[F(__is_void(ClassType))];
  int t28[F(__is_void(Enum))];
  int t29[F(__is_void(IntArNB))];
  int t30[F(__is_void(void*))];
  int t31[F(__is_void(cvoid*))];
}

void is_array()
{
  int t01[T(__is_array(IntAr))];
  int t02[T(__is_array(IntArNB))];
  int t03[T(__is_array(UnionAr))];

  int t10[F(__is_array(void))];
  int t11[F(__is_array(cvoid))];
  int t12[F(__is_array(float))];
  int t13[F(__is_array(double))];
  int t14[F(__is_array(long double))];
  int t15[F(__is_array(bool))];
  int t16[F(__is_array(char))];
  int t17[F(__is_array(signed char))];
  int t18[F(__is_array(unsigned char))];
  int t19[F(__is_array(wchar_t))];
  int t20[F(__is_array(short))];
  int t21[F(__is_array(unsigned short))];
  int t22[F(__is_array(int))];
  int t23[F(__is_array(unsigned int))];
  int t24[F(__is_array(long))];
  int t25[F(__is_array(unsigned long))];
  int t26[F(__is_array(Union))];
  int t27[F(__is_array(Derives))];
  int t28[F(__is_array(ClassType))];
  int t29[F(__is_array(Enum))];
  int t30[F(__is_array(void*))];
  int t31[F(__is_array(cvoid*))];
}

void is_bounded_array(int n) {
  static_assert(__is_bounded_array(IntAr), "");
  static_assert(!__is_bounded_array(IntArNB), "");
  static_assert(__is_bounded_array(UnionAr), "");

  static_assert(!__is_bounded_array(void), "");
  static_assert(!__is_bounded_array(cvoid), "");
  static_assert(!__is_bounded_array(float), "");
  static_assert(!__is_bounded_array(double), "");
  static_assert(!__is_bounded_array(long double), "");
  static_assert(!__is_bounded_array(bool), "");
  static_assert(!__is_bounded_array(char), "");
  static_assert(!__is_bounded_array(signed char), "");
  static_assert(!__is_bounded_array(unsigned char), "");
  static_assert(!__is_bounded_array(wchar_t), "");
  static_assert(!__is_bounded_array(short), "");
  static_assert(!__is_bounded_array(unsigned short), "");
  static_assert(!__is_bounded_array(int), "");
  static_assert(!__is_bounded_array(unsigned int), "");
  static_assert(!__is_bounded_array(long), "");
  static_assert(!__is_bounded_array(unsigned long), "");
  static_assert(!__is_bounded_array(Union), "");
  static_assert(!__is_bounded_array(Derives), "");
  static_assert(!__is_bounded_array(ClassType), "");
  static_assert(!__is_bounded_array(Enum), "");
  static_assert(!__is_bounded_array(void *), "");
  static_assert(!__is_bounded_array(cvoid *), "");

  int t32[n];
  (void)__is_bounded_array(decltype(t32)); // expected-error{{variable length arrays are not supported for '__is_bounded_array'}}
}

void is_unbounded_array(int n) {
  static_assert(!__is_unbounded_array(IntAr), "");
  static_assert(__is_unbounded_array(IntArNB), "");
  static_assert(!__is_unbounded_array(UnionAr), "");

  static_assert(!__is_unbounded_array(void), "");
  static_assert(!__is_unbounded_array(cvoid), "");
  static_assert(!__is_unbounded_array(float), "");
  static_assert(!__is_unbounded_array(double), "");
  static_assert(!__is_unbounded_array(long double), "");
  static_assert(!__is_unbounded_array(bool), "");
  static_assert(!__is_unbounded_array(char), "");
  static_assert(!__is_unbounded_array(signed char), "");
  static_assert(!__is_unbounded_array(unsigned char), "");
  static_assert(!__is_unbounded_array(wchar_t), "");
  static_assert(!__is_unbounded_array(short), "");
  static_assert(!__is_unbounded_array(unsigned short), "");
  static_assert(!__is_unbounded_array(int), "");
  static_assert(!__is_unbounded_array(unsigned int), "");
  static_assert(!__is_unbounded_array(long), "");
  static_assert(!__is_unbounded_array(unsigned long), "");
  static_assert(!__is_unbounded_array(Union), "");
  static_assert(!__is_unbounded_array(Derives), "");
  static_assert(!__is_unbounded_array(ClassType), "");
  static_assert(!__is_unbounded_array(Enum), "");
  static_assert(!__is_unbounded_array(void *), "");
  static_assert(!__is_unbounded_array(cvoid *), "");

  int t32[n];
  (void)__is_unbounded_array(decltype(t32)); // expected-error{{variable length arrays are not supported for '__is_unbounded_array'}}
}

void is_referenceable() {
  static_assert(__is_referenceable(int), "");
  static_assert(__is_referenceable(const int), "");
  static_assert(__is_referenceable(volatile int), "");
  static_assert(__is_referenceable(const volatile int), "");
  static_assert(__is_referenceable(int *), "");
  static_assert(__is_referenceable(int &), "");
  static_assert(__is_referenceable(int &&), "");
  static_assert(__is_referenceable(int (*)()), "");
  static_assert(__is_referenceable(int (&)()), "");
  static_assert(__is_referenceable(int(&&)()), "");
  static_assert(__is_referenceable(IntAr), "");
  static_assert(__is_referenceable(IntArNB), "");
  static_assert(__is_referenceable(decltype(nullptr)), "");
  static_assert(__is_referenceable(Empty), "");
  static_assert(__is_referenceable(Union), "");
  static_assert(__is_referenceable(Derives), "");
  static_assert(__is_referenceable(Enum), "");
  static_assert(__is_referenceable(EnumClass), "");
  static_assert(__is_referenceable(int Empty::*), "");
  static_assert(__is_referenceable(int(Empty::*)()), "");
  static_assert(__is_referenceable(AnIncompleteType), "");
  static_assert(__is_referenceable(struct AnIncompleteType), "");

  using function_type = void(int);
  static_assert(__is_referenceable(function_type), "");

  static_assert(!__is_referenceable(void), "");
}

template <typename T> void tmpl_func(T&) {}

template <typename T> struct type_wrapper {
  typedef T type;
  typedef T* ptrtype;
  typedef T& reftype;
};

void is_function()
{
  int t01[T(__is_function(type_wrapper<void(void)>::type))];
  int t02[T(__is_function(typeof(tmpl_func<int>)))];

  typedef void (*ptr_to_func_type)(void);

  int t10[F(__is_function(void))];
  int t11[F(__is_function(cvoid))];
  int t12[F(__is_function(float))];
  int t13[F(__is_function(double))];
  int t14[F(__is_function(long double))];
  int t15[F(__is_function(bool))];
  int t16[F(__is_function(char))];
  int t17[F(__is_function(signed char))];
  int t18[F(__is_function(unsigned char))];
  int t19[F(__is_function(wchar_t))];
  int t20[F(__is_function(short))];
  int t21[F(__is_function(unsigned short))];
  int t22[F(__is_function(int))];
  int t23[F(__is_function(unsigned int))];
  int t24[F(__is_function(long))];
  int t25[F(__is_function(unsigned long))];
  int t26[F(__is_function(Union))];
  int t27[F(__is_function(Derives))];
  int t28[F(__is_function(ClassType))];
  int t29[F(__is_function(Enum))];
  int t30[F(__is_function(void*))];
  int t31[F(__is_function(cvoid*))];
  int t32[F(__is_function(void(*)()))];
  int t33[F(__is_function(ptr_to_func_type))];
  int t34[F(__is_function(type_wrapper<void(void)>::ptrtype))];
  int t35[F(__is_function(type_wrapper<void(void)>::reftype))];
}

void is_reference()
{
  int t01[T(__is_reference(int&))];
  int t02[T(__is_reference(const int&))];
  int t03[T(__is_reference(void *&))];

  int t10[F(__is_reference(int))];
  int t11[F(__is_reference(const int))];
  int t12[F(__is_reference(void *))];
}

void is_lvalue_reference()
{
  int t01[T(__is_lvalue_reference(int&))];
  int t02[T(__is_lvalue_reference(void *&))];
  int t03[T(__is_lvalue_reference(const int&))];
  int t04[T(__is_lvalue_reference(void * const &))];

  int t10[F(__is_lvalue_reference(int))];
  int t11[F(__is_lvalue_reference(const int))];
  int t12[F(__is_lvalue_reference(void *))];
}

#if __has_feature(cxx_rvalue_references)

void is_rvalue_reference()
{
  int t01[T(__is_rvalue_reference(const int&&))];
  int t02[T(__is_rvalue_reference(void * const &&))];

  int t10[F(__is_rvalue_reference(int&))];
  int t11[F(__is_rvalue_reference(void *&))];
  int t12[F(__is_rvalue_reference(const int&))];
  int t13[F(__is_rvalue_reference(void * const &))];
  int t14[F(__is_rvalue_reference(int))];
  int t15[F(__is_rvalue_reference(const int))];
  int t16[F(__is_rvalue_reference(void *))];
}

#endif

void is_fundamental()
{
  int t01[T(__is_fundamental(float))];
  int t02[T(__is_fundamental(double))];
  int t03[T(__is_fundamental(long double))];
  int t11[T(__is_fundamental(bool))];
  int t12[T(__is_fundamental(char))];
  int t13[T(__is_fundamental(signed char))];
  int t14[T(__is_fundamental(unsigned char))];
  //int t15[T(__is_fundamental(char16_t))];
  //int t16[T(__is_fundamental(char32_t))];
  int t17[T(__is_fundamental(wchar_t))];
  int t18[T(__is_fundamental(short))];
  int t19[T(__is_fundamental(unsigned short))];
  int t20[T(__is_fundamental(int))];
  int t21[T(__is_fundamental(unsigned int))];
  int t22[T(__is_fundamental(long))];
  int t23[T(__is_fundamental(unsigned long))];
  int t24[T(__is_fundamental(void))];
  int t25[T(__is_fundamental(cvoid))];
  int t26[T(__is_fundamental(decltype(nullptr)))];

  int t30[F(__is_fundamental(Union))];
  int t31[F(__is_fundamental(UnionAr))];
  int t32[F(__is_fundamental(Derives))];
  int t33[F(__is_fundamental(ClassType))];
  int t34[F(__is_fundamental(Enum))];
  int t35[F(__is_fundamental(IntArNB))];
}

void is_object()
{
  int t01[T(__is_object(int))];
  int t02[T(__is_object(int *))];
  int t03[T(__is_object(void *))];
  int t04[T(__is_object(Union))];
  int t05[T(__is_object(UnionAr))];
  int t06[T(__is_object(ClassType))];
  int t07[T(__is_object(Enum))];

  int t10[F(__is_object(type_wrapper<void(void)>::type))];
  int t11[F(__is_object(int&))];
  int t12[F(__is_object(void))];
}

void is_scalar()
{
  int t01[T(__is_scalar(float))];
  int t02[T(__is_scalar(double))];
  int t03[T(__is_scalar(long double))];
  int t04[T(__is_scalar(bool))];
  int t05[T(__is_scalar(char))];
  int t06[T(__is_scalar(signed char))];
  int t07[T(__is_scalar(unsigned char))];
  int t08[T(__is_scalar(wchar_t))];
  int t09[T(__is_scalar(short))];
  int t10[T(__is_scalar(unsigned short))];
  int t11[T(__is_scalar(int))];
  int t12[T(__is_scalar(unsigned int))];
  int t13[T(__is_scalar(long))];
  int t14[T(__is_scalar(unsigned long))];
  int t15[T(__is_scalar(Enum))];
  int t16[T(__is_scalar(void*))];
  int t17[T(__is_scalar(cvoid*))];

  int t20[F(__is_scalar(void))];
  int t21[F(__is_scalar(cvoid))];
  int t22[F(__is_scalar(Union))];
  int t23[F(__is_scalar(UnionAr))];
  int t24[F(__is_scalar(Derives))];
  int t25[F(__is_scalar(ClassType))];
  int t26[F(__is_scalar(IntArNB))];
}

struct StructWithMembers {
  int member;
  void method() {}
};

void is_compound()
{
  int t01[T(__is_compound(void*))];
  int t02[T(__is_compound(cvoid*))];
  int t03[T(__is_compound(void (*)()))];
  int t04[T(__is_compound(int StructWithMembers::*))];
  int t05[T(__is_compound(void (StructWithMembers::*)()))];
  int t06[T(__is_compound(int&))];
  int t07[T(__is_compound(Union))];
  int t08[T(__is_compound(UnionAr))];
  int t09[T(__is_compound(Derives))];
  int t10[T(__is_compound(ClassType))];
  int t11[T(__is_compound(IntArNB))];
  int t12[T(__is_compound(Enum))];

  int t20[F(__is_compound(float))];
  int t21[F(__is_compound(double))];
  int t22[F(__is_compound(long double))];
  int t23[F(__is_compound(bool))];
  int t24[F(__is_compound(char))];
  int t25[F(__is_compound(signed char))];
  int t26[F(__is_compound(unsigned char))];
  int t27[F(__is_compound(wchar_t))];
  int t28[F(__is_compound(short))];
  int t29[F(__is_compound(unsigned short))];
  int t30[F(__is_compound(int))];
  int t31[F(__is_compound(unsigned int))];
  int t32[F(__is_compound(long))];
  int t33[F(__is_compound(unsigned long))];
  int t34[F(__is_compound(void))];
  int t35[F(__is_compound(cvoid))];
}

void is_pointer()
{
  StructWithMembers x;

  int t01[T(__is_pointer(void*))];
  int t02[T(__is_pointer(cvoid*))];
  int t03[T(__is_pointer(cvoid*))];
  int t04[T(__is_pointer(char*))];
  int t05[T(__is_pointer(int*))];
  int t06[T(__is_pointer(int**))];
  int t07[T(__is_pointer(ClassType*))];
  int t08[T(__is_pointer(Derives*))];
  int t09[T(__is_pointer(Enum*))];
  int t10[T(__is_pointer(IntArNB*))];
  int t11[T(__is_pointer(Union*))];
  int t12[T(__is_pointer(UnionAr*))];
  int t13[T(__is_pointer(StructWithMembers*))];
  int t14[T(__is_pointer(void (*)()))];

  int t20[F(__is_pointer(void))];
  int t21[F(__is_pointer(cvoid))];
  int t22[F(__is_pointer(cvoid))];
  int t23[F(__is_pointer(char))];
  int t24[F(__is_pointer(int))];
  int t25[F(__is_pointer(int))];
  int t26[F(__is_pointer(ClassType))];
  int t27[F(__is_pointer(Derives))];
  int t28[F(__is_pointer(Enum))];
  int t29[F(__is_pointer(IntArNB))];
  int t30[F(__is_pointer(Union))];
  int t31[F(__is_pointer(UnionAr))];
  int t32[F(__is_pointer(StructWithMembers))];
  int t33[F(__is_pointer(int StructWithMembers::*))];
  int t34[F(__is_pointer(void (StructWithMembers::*) ()))];
}

void is_null_pointer() {
  StructWithMembers x;

  static_assert(__is_nullptr(decltype(nullptr)), "");
  static_assert(!__is_nullptr(void *), "");
  static_assert(!__is_nullptr(cvoid *), "");
  static_assert(!__is_nullptr(cvoid *), "");
  static_assert(!__is_nullptr(char *), "");
  static_assert(!__is_nullptr(int *), "");
  static_assert(!__is_nullptr(int **), "");
  static_assert(!__is_nullptr(ClassType *), "");
  static_assert(!__is_nullptr(Derives *), "");
  static_assert(!__is_nullptr(Enum *), "");
  static_assert(!__is_nullptr(IntArNB *), "");
  static_assert(!__is_nullptr(Union *), "");
  static_assert(!__is_nullptr(UnionAr *), "");
  static_assert(!__is_nullptr(StructWithMembers *), "");
  static_assert(!__is_nullptr(void (*)()), "");

  static_assert(!__is_nullptr(void), "");
  static_assert(!__is_nullptr(cvoid), "");
  static_assert(!__is_nullptr(cvoid), "");
  static_assert(!__is_nullptr(char), "");
  static_assert(!__is_nullptr(int), "");
  static_assert(!__is_nullptr(int), "");
  static_assert(!__is_nullptr(ClassType), "");
  static_assert(!__is_nullptr(Derives), "");
  static_assert(!__is_nullptr(Enum), "");
  static_assert(!__is_nullptr(IntArNB), "");
  static_assert(!__is_nullptr(Union), "");
  static_assert(!__is_nullptr(UnionAr), "");
  static_assert(!__is_nullptr(StructWithMembers), "");
  static_assert(!__is_nullptr(int StructWithMembers::*), "");
  static_assert(!__is_nullptr(void(StructWithMembers::*)()), "");
}

void is_member_object_pointer()
{
  StructWithMembers x;

  int t01[T(__is_member_object_pointer(int StructWithMembers::*))];

  int t10[F(__is_member_object_pointer(void (StructWithMembers::*) ()))];
  int t11[F(__is_member_object_pointer(void*))];
  int t12[F(__is_member_object_pointer(cvoid*))];
  int t13[F(__is_member_object_pointer(cvoid*))];
  int t14[F(__is_member_object_pointer(char*))];
  int t15[F(__is_member_object_pointer(int*))];
  int t16[F(__is_member_object_pointer(int**))];
  int t17[F(__is_member_object_pointer(ClassType*))];
  int t18[F(__is_member_object_pointer(Derives*))];
  int t19[F(__is_member_object_pointer(Enum*))];
  int t20[F(__is_member_object_pointer(IntArNB*))];
  int t21[F(__is_member_object_pointer(Union*))];
  int t22[F(__is_member_object_pointer(UnionAr*))];
  int t23[F(__is_member_object_pointer(StructWithMembers*))];
  int t24[F(__is_member_object_pointer(void))];
  int t25[F(__is_member_object_pointer(cvoid))];
  int t26[F(__is_member_object_pointer(cvoid))];
  int t27[F(__is_member_object_pointer(char))];
  int t28[F(__is_member_object_pointer(int))];
  int t29[F(__is_member_object_pointer(int))];
  int t30[F(__is_member_object_pointer(ClassType))];
  int t31[F(__is_member_object_pointer(Derives))];
  int t32[F(__is_member_object_pointer(Enum))];
  int t33[F(__is_member_object_pointer(IntArNB))];
  int t34[F(__is_member_object_pointer(Union))];
  int t35[F(__is_member_object_pointer(UnionAr))];
  int t36[F(__is_member_object_pointer(StructWithMembers))];
  int t37[F(__is_member_object_pointer(void (*)()))];
}

void is_member_function_pointer()
{
  StructWithMembers x;

  int t01[T(__is_member_function_pointer(void (StructWithMembers::*) ()))];

  int t10[F(__is_member_function_pointer(int StructWithMembers::*))];
  int t11[F(__is_member_function_pointer(void*))];
  int t12[F(__is_member_function_pointer(cvoid*))];
  int t13[F(__is_member_function_pointer(cvoid*))];
  int t14[F(__is_member_function_pointer(char*))];
  int t15[F(__is_member_function_pointer(int*))];
  int t16[F(__is_member_function_pointer(int**))];
  int t17[F(__is_member_function_pointer(ClassType*))];
  int t18[F(__is_member_function_pointer(Derives*))];
  int t19[F(__is_member_function_pointer(Enum*))];
  int t20[F(__is_member_function_pointer(IntArNB*))];
  int t21[F(__is_member_function_pointer(Union*))];
  int t22[F(__is_member_function_pointer(UnionAr*))];
  int t23[F(__is_member_function_pointer(StructWithMembers*))];
  int t24[F(__is_member_function_pointer(void))];
  int t25[F(__is_member_function_pointer(cvoid))];
  int t26[F(__is_member_function_pointer(cvoid))];
  int t27[F(__is_member_function_pointer(char))];
  int t28[F(__is_member_function_pointer(int))];
  int t29[F(__is_member_function_pointer(int))];
  int t30[F(__is_member_function_pointer(ClassType))];
  int t31[F(__is_member_function_pointer(Derives))];
  int t32[F(__is_member_function_pointer(Enum))];
  int t33[F(__is_member_function_pointer(IntArNB))];
  int t34[F(__is_member_function_pointer(Union))];
  int t35[F(__is_member_function_pointer(UnionAr))];
  int t36[F(__is_member_function_pointer(StructWithMembers))];
  int t37[F(__is_member_function_pointer(void (*)()))];
}

void is_member_pointer()
{
  StructWithMembers x;

  int t01[T(__is_member_pointer(int StructWithMembers::*))];
  int t02[T(__is_member_pointer(void (StructWithMembers::*) ()))];

  int t10[F(__is_member_pointer(void*))];
  int t11[F(__is_member_pointer(cvoid*))];
  int t12[F(__is_member_pointer(cvoid*))];
  int t13[F(__is_member_pointer(char*))];
  int t14[F(__is_member_pointer(int*))];
  int t15[F(__is_member_pointer(int**))];
  int t16[F(__is_member_pointer(ClassType*))];
  int t17[F(__is_member_pointer(Derives*))];
  int t18[F(__is_member_pointer(Enum*))];
  int t19[F(__is_member_pointer(IntArNB*))];
  int t20[F(__is_member_pointer(Union*))];
  int t21[F(__is_member_pointer(UnionAr*))];
  int t22[F(__is_member_pointer(StructWithMembers*))];
  int t23[F(__is_member_pointer(void))];
  int t24[F(__is_member_pointer(cvoid))];
  int t25[F(__is_member_pointer(cvoid))];
  int t26[F(__is_member_pointer(char))];
  int t27[F(__is_member_pointer(int))];
  int t28[F(__is_member_pointer(int))];
  int t29[F(__is_member_pointer(ClassType))];
  int t30[F(__is_member_pointer(Derives))];
  int t31[F(__is_member_pointer(Enum))];
  int t32[F(__is_member_pointer(IntArNB))];
  int t33[F(__is_member_pointer(Union))];
  int t34[F(__is_member_pointer(UnionAr))];
  int t35[F(__is_member_pointer(StructWithMembers))];
  int t36[F(__is_member_pointer(void (*)()))];
}

void is_const()
{
  int t01[T(__is_const(cvoid))];
  int t02[T(__is_const(const char))];
  int t03[T(__is_const(const int))];
  int t04[T(__is_const(const long))];
  int t05[T(__is_const(const short))];
  int t06[T(__is_const(const signed char))];
  int t07[T(__is_const(const wchar_t))];
  int t08[T(__is_const(const bool))];
  int t09[T(__is_const(const float))];
  int t10[T(__is_const(const double))];
  int t11[T(__is_const(const long double))];
  int t12[T(__is_const(const unsigned char))];
  int t13[T(__is_const(const unsigned int))];
  int t14[T(__is_const(const unsigned long long))];
  int t15[T(__is_const(const unsigned long))];
  int t16[T(__is_const(const unsigned short))];
  int t17[T(__is_const(const void))];
  int t18[T(__is_const(const ClassType))];
  int t19[T(__is_const(const Derives))];
  int t20[T(__is_const(const Enum))];
  int t21[T(__is_const(const IntArNB))];
  int t22[T(__is_const(const Union))];
  int t23[T(__is_const(const UnionAr))];

  int t30[F(__is_const(char))];
  int t31[F(__is_const(int))];
  int t32[F(__is_const(long))];
  int t33[F(__is_const(short))];
  int t34[F(__is_const(signed char))];
  int t35[F(__is_const(wchar_t))];
  int t36[F(__is_const(bool))];
  int t37[F(__is_const(float))];
  int t38[F(__is_const(double))];
  int t39[F(__is_const(long double))];
  int t40[F(__is_const(unsigned char))];
  int t41[F(__is_const(unsigned int))];
  int t42[F(__is_const(unsigned long long))];
  int t43[F(__is_const(unsigned long))];
  int t44[F(__is_const(unsigned short))];
  int t45[F(__is_const(void))];
  int t46[F(__is_const(ClassType))];
  int t47[F(__is_const(Derives))];
  int t48[F(__is_const(Enum))];
  int t49[F(__is_const(IntArNB))];
  int t50[F(__is_const(Union))];
  int t51[F(__is_const(UnionAr))];
}

void is_volatile()
{
  int t02[T(__is_volatile(volatile char))];
  int t03[T(__is_volatile(volatile int))];
  int t04[T(__is_volatile(volatile long))];
  int t05[T(__is_volatile(volatile short))];
  int t06[T(__is_volatile(volatile signed char))];
  int t07[T(__is_volatile(volatile wchar_t))];
  int t08[T(__is_volatile(volatile bool))];
  int t09[T(__is_volatile(volatile float))];
  int t10[T(__is_volatile(volatile double))];
  int t11[T(__is_volatile(volatile long double))];
  int t12[T(__is_volatile(volatile unsigned char))];
  int t13[T(__is_volatile(volatile unsigned int))];
  int t14[T(__is_volatile(volatile unsigned long long))];
  int t15[T(__is_volatile(volatile unsigned long))];
  int t16[T(__is_volatile(volatile unsigned short))];
  int t17[T(__is_volatile(volatile void))];
  int t18[T(__is_volatile(volatile ClassType))];
  int t19[T(__is_volatile(volatile Derives))];
  int t20[T(__is_volatile(volatile Enum))];
  int t21[T(__is_volatile(volatile IntArNB))];
  int t22[T(__is_volatile(volatile Union))];
  int t23[T(__is_volatile(volatile UnionAr))];

  int t30[F(__is_volatile(char))];
  int t31[F(__is_volatile(int))];
  int t32[F(__is_volatile(long))];
  int t33[F(__is_volatile(short))];
  int t34[F(__is_volatile(signed char))];
  int t35[F(__is_volatile(wchar_t))];
  int t36[F(__is_volatile(bool))];
  int t37[F(__is_volatile(float))];
  int t38[F(__is_volatile(double))];
  int t39[F(__is_volatile(long double))];
  int t40[F(__is_volatile(unsigned char))];
  int t41[F(__is_volatile(unsigned int))];
  int t42[F(__is_volatile(unsigned long long))];
  int t43[F(__is_volatile(unsigned long))];
  int t44[F(__is_volatile(unsigned short))];
  int t45[F(__is_volatile(void))];
  int t46[F(__is_volatile(ClassType))];
  int t47[F(__is_volatile(Derives))];
  int t48[F(__is_volatile(Enum))];
  int t49[F(__is_volatile(IntArNB))];
  int t50[F(__is_volatile(Union))];
  int t51[F(__is_volatile(UnionAr))];
}

struct TrivialStruct {
  int member;
};

struct NonTrivialStruct {
  int member;
  NonTrivialStruct() {
    member = 0;
  }
};

struct SuperNonTrivialStruct {
  SuperNonTrivialStruct() { }
  ~SuperNonTrivialStruct() { }
};

struct NonTCStruct {
  NonTCStruct(const NonTCStruct&) {}
};

struct AllDefaulted {
  AllDefaulted() = default;
  AllDefaulted(const AllDefaulted &) = default;
  AllDefaulted(AllDefaulted &&) = default;
  AllDefaulted &operator=(const AllDefaulted &) = default;
  AllDefaulted &operator=(AllDefaulted &&) = default;
  ~AllDefaulted() = default;
};

struct NoDefaultMoveAssignDueToUDCopyCtor {
  NoDefaultMoveAssignDueToUDCopyCtor(const NoDefaultMoveAssignDueToUDCopyCtor&);
};

struct NoDefaultMoveAssignDueToUDCopyAssign {
  NoDefaultMoveAssignDueToUDCopyAssign& operator=(
    const NoDefaultMoveAssignDueToUDCopyAssign&);
};

struct NoDefaultMoveAssignDueToDtor {
  ~NoDefaultMoveAssignDueToDtor();
};

struct AllDeleted {
  AllDeleted() = delete;
  AllDeleted(const AllDeleted &) = delete;
  AllDeleted(AllDeleted &&) = delete;
  AllDeleted &operator=(const AllDeleted &) = delete;
  AllDeleted &operator=(AllDeleted &&) = delete;
  ~AllDeleted() = delete;
};

struct ExtDefaulted {
  ExtDefaulted();
  ExtDefaulted(const ExtDefaulted &);
  ExtDefaulted(ExtDefaulted &&);
  ExtDefaulted &operator=(const ExtDefaulted &);
  ExtDefaulted &operator=(ExtDefaulted &&);
  ~ExtDefaulted();
};

// Despite being defaulted, these functions are not trivial.
ExtDefaulted::ExtDefaulted() = default;
ExtDefaulted::ExtDefaulted(const ExtDefaulted &) = default;
ExtDefaulted::ExtDefaulted(ExtDefaulted &&) = default;
ExtDefaulted &ExtDefaulted::operator=(const ExtDefaulted &) = default;
ExtDefaulted &ExtDefaulted::operator=(ExtDefaulted &&) = default;
ExtDefaulted::~ExtDefaulted() = default;

void is_trivial2()
{
  int t01[T(__is_trivial(char))];
  int t02[T(__is_trivial(int))];
  int t03[T(__is_trivial(long))];
  int t04[T(__is_trivial(short))];
  int t05[T(__is_trivial(signed char))];
  int t06[T(__is_trivial(wchar_t))];
  int t07[T(__is_trivial(bool))];
  int t08[T(__is_trivial(float))];
  int t09[T(__is_trivial(double))];
  int t10[T(__is_trivial(long double))];
  int t11[T(__is_trivial(unsigned char))];
  int t12[T(__is_trivial(unsigned int))];
  int t13[T(__is_trivial(unsigned long long))];
  int t14[T(__is_trivial(unsigned long))];
  int t15[T(__is_trivial(unsigned short))];
  int t16[T(__is_trivial(ClassType))];
  int t17[T(__is_trivial(Derives))];
  int t18[T(__is_trivial(Enum))];
  int t19[T(__is_trivial(IntAr))];
  int t20[T(__is_trivial(Union))];
  int t21[T(__is_trivial(UnionAr))];
  int t22[T(__is_trivial(TrivialStruct))];
  int t23[T(__is_trivial(AllDefaulted))];
  int t24[T(__is_trivial(AllDeleted))];

  int t30[F(__is_trivial(void))];
  int t31[F(__is_trivial(NonTrivialStruct))];
  int t32[F(__is_trivial(SuperNonTrivialStruct))];
  int t33[F(__is_trivial(NonTCStruct))];
  int t34[F(__is_trivial(ExtDefaulted))];

  int t40[T(__is_trivial(ACompleteType))];
  int t41[F(__is_trivial(AnIncompleteType))]; // expected-error {{incomplete type}}
  int t42[F(__is_trivial(AnIncompleteType[]))]; // expected-error {{incomplete type}}
  int t43[F(__is_trivial(AnIncompleteType[1]))]; // expected-error {{incomplete type}}
  int t44[F(__is_trivial(void))];
  int t45[F(__is_trivial(const volatile void))];
}

void is_trivially_copyable2()
{
  int t01[T(__is_trivially_copyable(char))];
  int t02[T(__is_trivially_copyable(int))];
  int t03[T(__is_trivially_copyable(long))];
  int t04[T(__is_trivially_copyable(short))];
  int t05[T(__is_trivially_copyable(signed char))];
  int t06[T(__is_trivially_copyable(wchar_t))];
  int t07[T(__is_trivially_copyable(bool))];
  int t08[T(__is_trivially_copyable(float))];
  int t09[T(__is_trivially_copyable(double))];
  int t10[T(__is_trivially_copyable(long double))];
  int t11[T(__is_trivially_copyable(unsigned char))];
  int t12[T(__is_trivially_copyable(unsigned int))];
  int t13[T(__is_trivially_copyable(unsigned long long))];
  int t14[T(__is_trivially_copyable(unsigned long))];
  int t15[T(__is_trivially_copyable(unsigned short))];
  int t16[T(__is_trivially_copyable(ClassType))];
  int t17[T(__is_trivially_copyable(Derives))];
  int t18[T(__is_trivially_copyable(Enum))];
  int t19[T(__is_trivially_copyable(IntAr))];
  int t20[T(__is_trivially_copyable(Union))];
  int t21[T(__is_trivially_copyable(UnionAr))];
  int t22[T(__is_trivially_copyable(TrivialStruct))];
  int t23[T(__is_trivially_copyable(NonTrivialStruct))];
  int t24[T(__is_trivially_copyable(AllDefaulted))];
  int t25[T(__is_trivially_copyable(AllDeleted))];

  int t30[F(__is_trivially_copyable(void))];
  int t31[F(__is_trivially_copyable(SuperNonTrivialStruct))];
  int t32[F(__is_trivially_copyable(NonTCStruct))];
  int t33[F(__is_trivially_copyable(ExtDefaulted))];

  int t34[T(__is_trivially_copyable(const int))];
  int t35[T(__is_trivially_copyable(volatile int))];

  int t40[T(__is_trivially_copyable(ACompleteType))];
  int t41[F(__is_trivially_copyable(AnIncompleteType))]; // expected-error {{incomplete type}}
  int t42[F(__is_trivially_copyable(AnIncompleteType[]))]; // expected-error {{incomplete type}}
  int t43[F(__is_trivially_copyable(AnIncompleteType[1]))]; // expected-error {{incomplete type}}
  int t44[F(__is_trivially_copyable(void))];
  int t45[F(__is_trivially_copyable(const volatile void))];
}

struct CStruct {
  int one;
  int two;
};

struct CEmptyStruct {};

struct CppEmptyStruct : CStruct {};
struct CppStructStandard : CEmptyStruct {
  int three;
  int four;
};
struct CppStructNonStandardByBase : CStruct {
  int three;
  int four;
};
struct CppStructNonStandardByVirt : CStruct {
  virtual void method() {}
};
struct CppStructNonStandardByMemb : CStruct {
  CppStructNonStandardByVirt member;
};
struct CppStructNonStandardByProt : CStruct {
  int five;
protected:
  int six;
};
struct CppStructNonStandardByVirtBase : virtual CStruct {
};
struct CppStructNonStandardBySameBase : CEmptyStruct {
  CEmptyStruct member;
};
struct CppStructNonStandardBy2ndVirtBase : CEmptyStruct {
  CEmptyStruct member;
};

void is_standard_layout()
{
  typedef const int ConstInt;
  typedef ConstInt ConstIntAr[4];
  typedef CppStructStandard CppStructStandardAr[4];

  int t01[T(__is_standard_layout(int))];
  int t02[T(__is_standard_layout(ConstInt))];
  int t03[T(__is_standard_layout(ConstIntAr))];
  int t04[T(__is_standard_layout(CStruct))];
  int t05[T(__is_standard_layout(CppStructStandard))];
  int t06[T(__is_standard_layout(CppStructStandardAr))];
  int t07[T(__is_standard_layout(Vector))];
  int t08[T(__is_standard_layout(VectorExt))];

  typedef CppStructNonStandardByBase CppStructNonStandardByBaseAr[4];

  int t10[F(__is_standard_layout(CppStructNonStandardByVirt))];
  int t11[F(__is_standard_layout(CppStructNonStandardByMemb))];
  int t12[F(__is_standard_layout(CppStructNonStandardByProt))];
  int t13[F(__is_standard_layout(CppStructNonStandardByVirtBase))];
  int t14[F(__is_standard_layout(CppStructNonStandardByBase))];
  int t15[F(__is_standard_layout(CppStructNonStandardByBaseAr))];
  int t16[F(__is_standard_layout(CppStructNonStandardBySameBase))];
  int t17[F(__is_standard_layout(CppStructNonStandardBy2ndVirtBase))];

  int t40[T(__is_standard_layout(ACompleteType))];
  int t41[F(__is_standard_layout(AnIncompleteType))]; // expected-error {{incomplete type}}
  int t42[F(__is_standard_layout(AnIncompleteType[]))]; // expected-error {{incomplete type}}
  int t43[F(__is_standard_layout(AnIncompleteType[1]))]; // expected-error {{incomplete type}}
  int t44[F(__is_standard_layout(void))];
  int t45[F(__is_standard_layout(const volatile void))];

  struct HasAnonEmptyBitfield { int : 0; };
  struct HasAnonBitfield { int : 4; };
  struct DerivesFromBitfield : HasAnonBitfield {};
  struct DerivesFromBitfieldWithBitfield : HasAnonBitfield { int : 5; };
  struct DerivesFromBitfieldTwice : DerivesFromBitfield, HasAnonEmptyBitfield {};

  int t50[T(__is_standard_layout(HasAnonEmptyBitfield))];
  int t51[T(__is_standard_layout(HasAnonBitfield))];
  int t52[T(__is_standard_layout(DerivesFromBitfield))];
  int t53[F(__is_standard_layout(DerivesFromBitfieldWithBitfield))];
  int t54[F(__is_standard_layout(DerivesFromBitfieldTwice))];

  struct Empty {};
  struct HasEmptyBase : Empty {};
  struct HoldsEmptyBase { Empty e; };
  struct HasRepeatedEmptyBase : Empty, HasEmptyBase {}; // expected-warning {{inaccessible}}
  struct HasEmptyBaseAsMember : Empty { Empty e; };
  struct HasEmptyBaseAsSubobjectOfMember1 : Empty { HoldsEmptyBase e; };
  struct HasEmptyBaseAsSubobjectOfMember2 : Empty { HasEmptyBase e; };
  struct HasEmptyBaseAsSubobjectOfMember3 : Empty { HoldsEmptyBase e[2]; };
  struct HasEmptyIndirectBaseAsMember : HasEmptyBase { Empty e; };
  struct HasEmptyIndirectBaseAsSecondMember : HasEmptyBase { int n; Empty e; };
  struct HasEmptyIndirectBaseAfterBitfield : HasEmptyBase { int : 4; Empty e; };

  int t60[T(__is_standard_layout(Empty))];
  int t61[T(__is_standard_layout(HasEmptyBase))];
  int t62[F(__is_standard_layout(HasRepeatedEmptyBase))];
  int t63[F(__is_standard_layout(HasEmptyBaseAsMember))];
  int t64[F(__is_standard_layout(HasEmptyBaseAsSubobjectOfMember1))];
  int t65[T(__is_standard_layout(HasEmptyBaseAsSubobjectOfMember2))]; // FIXME: standard bug?
  int t66[F(__is_standard_layout(HasEmptyBaseAsSubobjectOfMember3))];
  int t67[F(__is_standard_layout(HasEmptyIndirectBaseAsMember))];
  int t68[T(__is_standard_layout(HasEmptyIndirectBaseAsSecondMember))];
  int t69[F(__is_standard_layout(HasEmptyIndirectBaseAfterBitfield))]; // FIXME: standard bug?

  struct StructWithEmptyFields {
    int n;
    HoldsEmptyBase e[3];
  };
  union UnionWithEmptyFields {
    int n;
    HoldsEmptyBase e[3];
  };
  struct HasEmptyIndirectBaseAsSecondStructMember : HasEmptyBase {
    StructWithEmptyFields u;
  };
  struct HasEmptyIndirectBaseAsSecondUnionMember : HasEmptyBase {
    UnionWithEmptyFields u;
  };

  int t70[T(__is_standard_layout(HasEmptyIndirectBaseAsSecondStructMember))];
  int t71[F(__is_standard_layout(HasEmptyIndirectBaseAsSecondUnionMember))];
}

void is_signed()
{
  //int t01[T(__is_signed(char))];
  int t02[T(__is_signed(int))];
  int t03[T(__is_signed(long))];
  int t04[T(__is_signed(short))];
  int t05[T(__is_signed(signed char))];
  int t06[T(__is_signed(wchar_t))];
  int t07[T(__is_signed(float))];
  int t08[T(__is_signed(double))];
  int t09[T(__is_signed(long double))];

  int t13[F(__is_signed(bool))];
  int t14[F(__is_signed(cvoid))];
  int t15[F(__is_signed(unsigned char))];
  int t16[F(__is_signed(unsigned int))];
  int t17[F(__is_signed(unsigned long long))];
  int t18[F(__is_signed(unsigned long))];
  int t19[F(__is_signed(unsigned short))];
  int t20[F(__is_signed(void))];
  int t21[F(__is_signed(ClassType))];
  int t22[F(__is_signed(Derives))];
  int t23[F(__is_signed(Enum))];
  int t24[F(__is_signed(SignedEnum))];
  int t25[F(__is_signed(IntArNB))];
  int t26[F(__is_signed(Union))];
  int t27[F(__is_signed(UnionAr))];
  int t28[F(__is_signed(UnsignedEnum))];
}

void is_unsigned()
{
  int t01[T(__is_unsigned(bool))];
  int t02[T(__is_unsigned(unsigned char))];
  int t03[T(__is_unsigned(unsigned short))];
  int t04[T(__is_unsigned(unsigned int))];
  int t05[T(__is_unsigned(unsigned long))];
  int t06[T(__is_unsigned(unsigned long long))];

  int t10[F(__is_unsigned(void))];
  int t11[F(__is_unsigned(cvoid))];
  int t12[F(__is_unsigned(float))];
  int t13[F(__is_unsigned(double))];
  int t14[F(__is_unsigned(long double))];
  int t16[F(__is_unsigned(char))];
  int t17[F(__is_unsigned(signed char))];
  int t18[F(__is_unsigned(wchar_t))];
  int t19[F(__is_unsigned(short))];
  int t20[F(__is_unsigned(int))];
  int t21[F(__is_unsigned(long))];
  int t22[F(__is_unsigned(Union))];
  int t23[F(__is_unsigned(UnionAr))];
  int t24[F(__is_unsigned(Derives))];
  int t25[F(__is_unsigned(ClassType))];
  int t26[F(__is_unsigned(IntArNB))];
  int t27[F(__is_unsigned(Enum))];
  int t28[F(__is_unsigned(UnsignedEnum))];
  int t29[F(__is_unsigned(SignedEnum))];
}

typedef Int& IntRef;
typedef const IntAr ConstIntAr;
typedef ConstIntAr ConstIntArAr[4];

struct HasCopy {
  HasCopy(HasCopy& cp);
};

struct HasMove {
  HasMove(HasMove&& cp);
};

struct HasTemplateCons {
  HasVirt Annoying;

  template <typename T>
  HasTemplateCons(const T&);
};

void has_trivial_default_constructor() {
  { int arr[T(__has_trivial_constructor(Int))]; }
  { int arr[T(__has_trivial_constructor(IntAr))]; }
  { int arr[T(__has_trivial_constructor(Union))]; }
  { int arr[T(__has_trivial_constructor(UnionAr))]; }
  { int arr[T(__has_trivial_constructor(POD))]; }
  { int arr[T(__has_trivial_constructor(Derives))]; }
  { int arr[T(__has_trivial_constructor(DerivesAr))]; }
  { int arr[T(__has_trivial_constructor(ConstIntAr))]; }
  { int arr[T(__has_trivial_constructor(ConstIntArAr))]; }
  { int arr[T(__has_trivial_constructor(HasDest))]; }
  { int arr[T(__has_trivial_constructor(HasPriv))]; }
  { int arr[T(__has_trivial_constructor(HasCopyAssign))]; }
  { int arr[T(__has_trivial_constructor(HasMoveAssign))]; }
  { int arr[T(__has_trivial_constructor(const Int))]; }
  { int arr[T(__has_trivial_constructor(AllDefaulted))]; }
  { int arr[T(__has_trivial_constructor(AllDeleted))]; }
  { int arr[T(__has_trivial_constructor(ACompleteType[]))]; }

  { int arr[F(__has_trivial_constructor(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_constructor(HasCons))]; }
  { int arr[F(__has_trivial_constructor(HasRef))]; }
  { int arr[F(__has_trivial_constructor(HasCopy))]; }
  { int arr[F(__has_trivial_constructor(IntRef))]; }
  { int arr[F(__has_trivial_constructor(VirtAr))]; }
  { int arr[F(__has_trivial_constructor(void))]; }
  { int arr[F(__has_trivial_constructor(cvoid))]; }
  { int arr[F(__has_trivial_constructor(HasTemplateCons))]; }
  { int arr[F(__has_trivial_constructor(AllPrivate))]; }
  { int arr[F(__has_trivial_constructor(ExtDefaulted))]; }
}

void has_trivial_move_constructor() {
  // n3376 12.8 [class.copy]/12
  // A copy/move constructor for class X is trivial if it is not
  // user-provided, its declared parameter type is the same as
  // if it had been implicitly declared, and if
  //   - class X has no virtual functions (10.3) and no virtual
  //     base classes (10.1), and
  //   - the constructor selected to copy/move each direct base
  //     class subobject is trivial, and
  //   - for each non-static data member of X that is of class
  //     type (or array thereof), the constructor selected
  //     to copy/move that member is trivial;
  // otherwise the copy/move constructor is non-trivial.
  { int arr[T(__has_trivial_move_constructor(POD))]; }
  { int arr[T(__has_trivial_move_constructor(Union))]; }
  { int arr[T(__has_trivial_move_constructor(HasCons))]; }
  { int arr[T(__has_trivial_move_constructor(HasStaticMemberMoveCtor))]; }
  { int arr[T(__has_trivial_move_constructor(AllDeleted))]; }
  { int arr[T(__has_trivial_move_constructor(ACompleteType[]))]; }

  { int arr[F(__has_trivial_move_constructor(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_move_constructor(HasVirt))]; }
  { int arr[F(__has_trivial_move_constructor(DerivesVirt))]; }
  { int arr[F(__has_trivial_move_constructor(HasMoveCtor))]; }
  { int arr[F(__has_trivial_move_constructor(DerivesHasMoveCtor))]; }
  { int arr[F(__has_trivial_move_constructor(HasMemberMoveCtor))]; }
}

void has_trivial_copy_constructor() {
  { int arr[T(__has_trivial_copy(Int))]; }
  { int arr[T(__has_trivial_copy(IntAr))]; }
  { int arr[T(__has_trivial_copy(Union))]; }
  { int arr[T(__has_trivial_copy(UnionAr))]; }
  { int arr[T(__has_trivial_copy(POD))]; }
  { int arr[T(__has_trivial_copy(Derives))]; }
  { int arr[T(__has_trivial_copy(ConstIntAr))]; }
  { int arr[T(__has_trivial_copy(ConstIntArAr))]; }
  { int arr[T(__has_trivial_copy(HasDest))]; }
  { int arr[T(__has_trivial_copy(HasPriv))]; }
  { int arr[T(__has_trivial_copy(HasCons))]; }
  { int arr[T(__has_trivial_copy(HasRef))]; }
  { int arr[T(__has_trivial_copy(HasMove))]; }
  { int arr[T(__has_trivial_copy(IntRef))]; }
  { int arr[T(__has_trivial_copy(HasCopyAssign))]; }
  { int arr[T(__has_trivial_copy(HasMoveAssign))]; }
  { int arr[T(__has_trivial_copy(const Int))]; }
  { int arr[T(__has_trivial_copy(AllDefaulted))]; }
  { int arr[T(__has_trivial_copy(AllDeleted))]; }
  { int arr[T(__has_trivial_copy(DerivesAr))]; }
  { int arr[T(__has_trivial_copy(DerivesHasRef))]; }
  { int arr[T(__has_trivial_copy(ACompleteType[]))]; }

  { int arr[F(__has_trivial_copy(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_copy(HasCopy))]; }
  { int arr[F(__has_trivial_copy(HasTemplateCons))]; }
  { int arr[F(__has_trivial_copy(VirtAr))]; }
  { int arr[F(__has_trivial_copy(void))]; }
  { int arr[F(__has_trivial_copy(cvoid))]; }
  { int arr[F(__has_trivial_copy(AllPrivate))]; }
  { int arr[F(__has_trivial_copy(ExtDefaulted))]; }
}

void has_trivial_copy_assignment() {
  { int arr[T(__has_trivial_assign(Int))]; }
  { int arr[T(__has_trivial_assign(IntAr))]; }
  { int arr[T(__has_trivial_assign(Union))]; }
  { int arr[T(__has_trivial_assign(UnionAr))]; }
  { int arr[T(__has_trivial_assign(POD))]; }
  { int arr[T(__has_trivial_assign(Derives))]; }
  { int arr[T(__has_trivial_assign(HasDest))]; }
  { int arr[T(__has_trivial_assign(HasPriv))]; }
  { int arr[T(__has_trivial_assign(HasCons))]; }
  { int arr[T(__has_trivial_assign(HasRef))]; }
  { int arr[T(__has_trivial_assign(HasCopy))]; }
  { int arr[T(__has_trivial_assign(HasMove))]; }
  { int arr[T(__has_trivial_assign(HasMoveAssign))]; }
  { int arr[T(__has_trivial_assign(AllDefaulted))]; }
  { int arr[T(__has_trivial_assign(AllDeleted))]; }
  { int arr[T(__has_trivial_assign(DerivesAr))]; }
  { int arr[T(__has_trivial_assign(DerivesHasRef))]; }
  { int arr[T(__has_trivial_assign(ACompleteType[]))]; }

  { int arr[F(__has_trivial_assign(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_assign(IntRef))]; }
  { int arr[F(__has_trivial_assign(HasCopyAssign))]; }
  { int arr[F(__has_trivial_assign(const Int))]; }
  { int arr[F(__has_trivial_assign(ConstIntAr))]; }
  { int arr[F(__has_trivial_assign(ConstIntArAr))]; }
  { int arr[F(__has_trivial_assign(VirtAr))]; }
  { int arr[F(__has_trivial_assign(void))]; }
  { int arr[F(__has_trivial_assign(cvoid))]; }
  { int arr[F(__has_trivial_assign(AllPrivate))]; }
  { int arr[F(__has_trivial_assign(ExtDefaulted))]; }
}

void has_trivial_destructor() {
  { int arr[T(__has_trivial_destructor(Int))]; }
  { int arr[T(__has_trivial_destructor(IntAr))]; }
  { int arr[T(__has_trivial_destructor(Union))]; }
  { int arr[T(__has_trivial_destructor(UnionAr))]; }
  { int arr[T(__has_trivial_destructor(POD))]; }
  { int arr[T(__has_trivial_destructor(Derives))]; }
  { int arr[T(__has_trivial_destructor(ConstIntAr))]; }
  { int arr[T(__has_trivial_destructor(ConstIntArAr))]; }
  { int arr[T(__has_trivial_destructor(HasPriv))]; }
  { int arr[T(__has_trivial_destructor(HasCons))]; }
  { int arr[T(__has_trivial_destructor(HasRef))]; }
  { int arr[T(__has_trivial_destructor(HasCopy))]; }
  { int arr[T(__has_trivial_destructor(HasMove))]; }
  { int arr[T(__has_trivial_destructor(IntRef))]; }
  { int arr[T(__has_trivial_destructor(HasCopyAssign))]; }
  { int arr[T(__has_trivial_destructor(HasMoveAssign))]; }
  { int arr[T(__has_trivial_destructor(const Int))]; }
  { int arr[T(__has_trivial_destructor(DerivesAr))]; }
  { int arr[T(__has_trivial_destructor(VirtAr))]; }
  { int arr[T(__has_trivial_destructor(AllDefaulted))]; }
  { int arr[T(__has_trivial_destructor(AllDeleted))]; }
  { int arr[T(__has_trivial_destructor(DerivesHasRef))]; }
  { int arr[T(__has_trivial_destructor(ACompleteType[]))]; }

  { int arr[F(__has_trivial_destructor(HasDest))]; }
  { int arr[F(__has_trivial_destructor(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_destructor(void))]; }
  { int arr[F(__has_trivial_destructor(cvoid))]; }
  { int arr[F(__has_trivial_destructor(AllPrivate))]; }
  { int arr[F(__has_trivial_destructor(ExtDefaulted))]; }
}

struct A { ~A() {} };
template<typename> struct B : A { };

void f() {
  { int arr[F(__has_trivial_destructor(A))]; }
  { int arr[F(__has_trivial_destructor(B<int>))]; }
}

class PR11110 {
  template <int> int operator=( int );
  int operator=(PR11110);
};

class UsingAssign;

class UsingAssignBase {
protected:
  UsingAssign &operator=(const UsingAssign&) throw();
};

class UsingAssign : public UsingAssignBase {
public:
  using UsingAssignBase::operator=;
};

void has_nothrow_assign() {
  { int arr[T(__has_nothrow_assign(Int))]; }
  { int arr[T(__has_nothrow_assign(IntAr))]; }
  { int arr[T(__has_nothrow_assign(Union))]; }
  { int arr[T(__has_nothrow_assign(UnionAr))]; }
  { int arr[T(__has_nothrow_assign(POD))]; }
  { int arr[T(__has_nothrow_assign(Derives))]; }
  { int arr[T(__has_nothrow_assign(HasDest))]; }
  { int arr[T(__has_nothrow_assign(HasPriv))]; }
  { int arr[T(__has_nothrow_assign(HasCons))]; }
  { int arr[T(__has_nothrow_assign(HasRef))]; }
  { int arr[T(__has_nothrow_assign(HasCopy))]; }
  { int arr[T(__has_nothrow_assign(HasMove))]; }
  { int arr[T(__has_nothrow_assign(HasMoveAssign))]; }
  { int arr[T(__has_nothrow_assign(HasNoThrowCopyAssign))]; }
  { int arr[T(__has_nothrow_assign(HasMultipleNoThrowCopyAssign))]; }
  { int arr[T(__has_nothrow_assign(HasVirtDest))]; }
  { int arr[T(__has_nothrow_assign(AllPrivate))]; }
  { int arr[T(__has_nothrow_assign(UsingAssign))]; }
  { int arr[T(__has_nothrow_assign(DerivesAr))]; }
  { int arr[T(__has_nothrow_assign(ACompleteType[]))]; }

  { int arr[F(__has_nothrow_assign(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_nothrow_assign(IntRef))]; }
  { int arr[F(__has_nothrow_assign(HasCopyAssign))]; }
  { int arr[F(__has_nothrow_assign(HasMultipleCopyAssign))]; }
  { int arr[F(__has_nothrow_assign(const Int))]; }
  { int arr[F(__has_nothrow_assign(ConstIntAr))]; }
  { int arr[F(__has_nothrow_assign(ConstIntArAr))]; }
  { int arr[F(__has_nothrow_assign(VirtAr))]; }
  { int arr[F(__has_nothrow_assign(void))]; }
  { int arr[F(__has_nothrow_assign(cvoid))]; }
  { int arr[F(__has_nothrow_assign(PR11110))]; }
}

void has_nothrow_move_assign() {
  { int arr[T(__has_nothrow_move_assign(Int))]; }
  { int arr[T(__has_nothrow_move_assign(Enum))]; }
  { int arr[T(__has_nothrow_move_assign(Int*))]; }
  { int arr[T(__has_nothrow_move_assign(Enum POD::*))]; }
  { int arr[T(__has_nothrow_move_assign(POD))]; }
  { int arr[T(__has_nothrow_move_assign(HasPriv))]; }
  { int arr[T(__has_nothrow_move_assign(HasNoThrowMoveAssign))]; }
  { int arr[T(__has_nothrow_move_assign(HasNoExceptNoThrowMoveAssign))]; }
  { int arr[T(__has_nothrow_move_assign(HasMemberNoThrowMoveAssign))]; }
  { int arr[T(__has_nothrow_move_assign(HasMemberNoExceptNoThrowMoveAssign))]; }
  { int arr[T(__has_nothrow_move_assign(AllDeleted))]; }
  { int arr[T(__has_nothrow_move_assign(ACompleteType[]))]; }

  { int arr[F(__has_nothrow_move_assign(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_nothrow_move_assign(HasThrowMoveAssign))]; }
  { int arr[F(__has_nothrow_move_assign(HasNoExceptFalseMoveAssign))]; }
  { int arr[F(__has_nothrow_move_assign(HasMemberThrowMoveAssign))]; }
  { int arr[F(__has_nothrow_move_assign(HasMemberNoExceptFalseMoveAssign))]; }
  { int arr[F(__has_nothrow_move_assign(NoDefaultMoveAssignDueToUDCopyCtor))]; }
  { int arr[F(__has_nothrow_move_assign(NoDefaultMoveAssignDueToUDCopyAssign))]; }
  { int arr[F(__has_nothrow_move_assign(NoDefaultMoveAssignDueToDtor))]; }


  { int arr[T(__is_nothrow_assignable(HasNoThrowMoveAssign, HasNoThrowMoveAssign))]; }
  { int arr[F(__is_nothrow_assignable(HasThrowMoveAssign, HasThrowMoveAssign))]; }

  { int arr[T(__is_assignable(HasNoThrowMoveAssign, HasNoThrowMoveAssign))]; }
  { int arr[T(__is_assignable(HasThrowMoveAssign, HasThrowMoveAssign))]; }
}

void has_trivial_move_assign() {
  // n3376 12.8 [class.copy]/25
  // A copy/move assignment operator for class X is trivial if it
  // is not user-provided, its declared parameter type is the same
  // as if it had been implicitly declared, and if:
  //  - class X has no virtual functions (10.3) and no virtual base
  //    classes (10.1), and
  //  - the assignment operator selected to copy/move each direct
  //    base class subobject is trivial, and
  //  - for each non-static data member of X that is of class type
  //    (or array thereof), the assignment operator
  //    selected to copy/move that member is trivial;
  { int arr[T(__has_trivial_move_assign(Int))]; }
  { int arr[T(__has_trivial_move_assign(HasStaticMemberMoveAssign))]; }
  { int arr[T(__has_trivial_move_assign(AllDeleted))]; }
  { int arr[T(__has_trivial_move_assign(ACompleteType[]))]; }

  { int arr[F(__has_trivial_move_assign(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_trivial_move_assign(HasVirt))]; }
  { int arr[F(__has_trivial_move_assign(DerivesVirt))]; }
  { int arr[F(__has_trivial_move_assign(HasMoveAssign))]; }
  { int arr[F(__has_trivial_move_assign(DerivesHasMoveAssign))]; }
  { int arr[F(__has_trivial_move_assign(HasMemberMoveAssign))]; }
  { int arr[F(__has_nothrow_move_assign(NoDefaultMoveAssignDueToUDCopyCtor))]; }
  { int arr[F(__has_nothrow_move_assign(NoDefaultMoveAssignDueToUDCopyAssign))]; }
}

void has_nothrow_copy() {
  { int arr[T(__has_nothrow_copy(Int))]; }
  { int arr[T(__has_nothrow_copy(IntAr))]; }
  { int arr[T(__has_nothrow_copy(Union))]; }
  { int arr[T(__has_nothrow_copy(UnionAr))]; }
  { int arr[T(__has_nothrow_copy(POD))]; }
  { int arr[T(__has_nothrow_copy(const Int))]; }
  { int arr[T(__has_nothrow_copy(ConstIntAr))]; }
  { int arr[T(__has_nothrow_copy(ConstIntArAr))]; }
  { int arr[T(__has_nothrow_copy(Derives))]; }
  { int arr[T(__has_nothrow_copy(IntRef))]; }
  { int arr[T(__has_nothrow_copy(HasDest))]; }
  { int arr[T(__has_nothrow_copy(HasPriv))]; }
  { int arr[T(__has_nothrow_copy(HasCons))]; }
  { int arr[T(__has_nothrow_copy(HasRef))]; }
  { int arr[T(__has_nothrow_copy(HasMove))]; }
  { int arr[T(__has_nothrow_copy(HasCopyAssign))]; }
  { int arr[T(__has_nothrow_copy(HasMoveAssign))]; }
  { int arr[T(__has_nothrow_copy(HasNoThrowCopy))]; }
  { int arr[T(__has_nothrow_copy(HasMultipleNoThrowCopy))]; }
  { int arr[T(__has_nothrow_copy(HasVirtDest))]; }
  { int arr[T(__has_nothrow_copy(HasTemplateCons))]; }
  { int arr[T(__has_nothrow_copy(AllPrivate))]; }
  { int arr[T(__has_nothrow_copy(DerivesAr))]; }
  { int arr[T(__has_nothrow_copy(ACompleteType[]))]; }

  { int arr[F(__has_nothrow_copy(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_nothrow_copy(HasCopy))]; }
  { int arr[F(__has_nothrow_copy(HasMultipleCopy))]; }
  { int arr[F(__has_nothrow_copy(VirtAr))]; }
  { int arr[F(__has_nothrow_copy(void))]; }
  { int arr[F(__has_nothrow_copy(cvoid))]; }
}

void has_nothrow_constructor() {
  { int arr[T(__has_nothrow_constructor(Int))]; }
  { int arr[T(__has_nothrow_constructor(IntAr))]; }
  { int arr[T(__has_nothrow_constructor(Union))]; }
  { int arr[T(__has_nothrow_constructor(UnionAr))]; }
  { int arr[T(__has_nothrow_constructor(POD))]; }
  { int arr[T(__has_nothrow_constructor(Derives))]; }
  { int arr[T(__has_nothrow_constructor(DerivesAr))]; }
  { int arr[T(__has_nothrow_constructor(ConstIntAr))]; }
  { int arr[T(__has_nothrow_constructor(ConstIntArAr))]; }
  { int arr[T(__has_nothrow_constructor(HasDest))]; }
  { int arr[T(__has_nothrow_constructor(HasPriv))]; }
  { int arr[T(__has_nothrow_constructor(HasCopyAssign))]; }
  { int arr[T(__has_nothrow_constructor(const Int))]; }
  { int arr[T(__has_nothrow_constructor(HasNoThrowConstructor))]; }
  { int arr[T(__has_nothrow_constructor(HasVirtDest))]; }
  // { int arr[T(__has_nothrow_constructor(VirtAr))]; } // not implemented
  { int arr[T(__has_nothrow_constructor(AllPrivate))]; }
  { int arr[T(__has_nothrow_constructor(ACompleteType[]))]; }

  { int arr[F(__has_nothrow_constructor(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[F(__has_nothrow_constructor(HasCons))]; }
  { int arr[F(__has_nothrow_constructor(HasRef))]; }
  { int arr[F(__has_nothrow_constructor(HasCopy))]; }
  { int arr[F(__has_nothrow_constructor(HasMove))]; }
  { int arr[F(__has_nothrow_constructor(HasNoThrowConstructorWithArgs))]; }
  { int arr[F(__has_nothrow_constructor(IntRef))]; }
  { int arr[F(__has_nothrow_constructor(void))]; }
  { int arr[F(__has_nothrow_constructor(cvoid))]; }
  { int arr[F(__has_nothrow_constructor(HasTemplateCons))]; }

  { int arr[F(__has_nothrow_constructor(HasMultipleDefaultConstructor1))]; }
  { int arr[F(__has_nothrow_constructor(HasMultipleDefaultConstructor2))]; }
}

void has_virtual_destructor() {
  { int arr[F(__has_virtual_destructor(Int))]; }
  { int arr[F(__has_virtual_destructor(IntAr))]; }
  { int arr[F(__has_virtual_destructor(Union))]; }
  { int arr[F(__has_virtual_destructor(UnionAr))]; }
  { int arr[F(__has_virtual_destructor(POD))]; }
  { int arr[F(__has_virtual_destructor(Derives))]; }
  { int arr[F(__has_virtual_destructor(DerivesAr))]; }
  { int arr[F(__has_virtual_destructor(const Int))]; }
  { int arr[F(__has_virtual_destructor(ConstIntAr))]; }
  { int arr[F(__has_virtual_destructor(ConstIntArAr))]; }
  { int arr[F(__has_virtual_destructor(HasDest))]; }
  { int arr[F(__has_virtual_destructor(HasPriv))]; }
  { int arr[F(__has_virtual_destructor(HasCons))]; }
  { int arr[F(__has_virtual_destructor(HasRef))]; }
  { int arr[F(__has_virtual_destructor(HasCopy))]; }
  { int arr[F(__has_virtual_destructor(HasMove))]; }
  { int arr[F(__has_virtual_destructor(HasCopyAssign))]; }
  { int arr[F(__has_virtual_destructor(HasMoveAssign))]; }
  { int arr[F(__has_virtual_destructor(IntRef))]; }
  { int arr[F(__has_virtual_destructor(VirtAr))]; }
  { int arr[F(__has_virtual_destructor(ACompleteType[]))]; }

  { int arr[F(__has_virtual_destructor(AnIncompleteType[]))]; } // expected-error {{incomplete type}}
  { int arr[T(__has_virtual_destructor(HasVirtDest))]; }
  { int arr[T(__has_virtual_destructor(DerivedVirtDest))]; }
  { int arr[F(__has_virtual_destructor(VirtDestAr))]; }
  { int arr[F(__has_virtual_destructor(void))]; }
  { int arr[F(__has_virtual_destructor(cvoid))]; }
  { int arr[F(__has_virtual_destructor(AllPrivate))]; }
}


class Base {};
class Derived : Base {};
class Derived2a : Derived {};
class Derived2b : Derived {};
class Derived3 : virtual Derived2a, virtual Derived2b {};
template<typename T> struct BaseA { T a;  };
template<typename T> struct DerivedB : BaseA<T> { };
template<typename T> struct CrazyDerived : T { };


class class_forward; // expected-note 2 {{forward declaration of 'class_forward'}}

template <typename Base, typename Derived>
void isBaseOfT() {
  int t[T(__is_base_of(Base, Derived))];
};
template <typename Base, typename Derived>
void isBaseOfF() {
  int t[F(__is_base_of(Base, Derived))];
};

template <class T> class DerivedTemp : Base {};
template <class T> class NonderivedTemp {};
template <class T> class UndefinedTemp; // expected-note {{declared here}}

void is_base_of() {
  { int arr[T(__is_base_of(Base, Derived))]; }
  { int arr[T(__is_base_of(const Base, Derived))]; }
  { int arr[F(__is_base_of(Derived, Base))]; }
  { int arr[F(__is_base_of(Derived, int))]; }
  { int arr[T(__is_base_of(Base, Base))]; }
  { int arr[T(__is_base_of(Base, Derived3))]; }
  { int arr[T(__is_base_of(Derived, Derived3))]; }
  { int arr[T(__is_base_of(Derived2b, Derived3))]; }
  { int arr[T(__is_base_of(Derived2a, Derived3))]; }
  { int arr[T(__is_base_of(BaseA<int>, DerivedB<int>))]; }
  { int arr[F(__is_base_of(DerivedB<int>, BaseA<int>))]; }
  { int arr[T(__is_base_of(Base, CrazyDerived<Base>))]; }
  { int arr[F(__is_base_of(Union, Union))]; }
  { int arr[T(__is_base_of(Empty, Empty))]; }
  { int arr[T(__is_base_of(class_forward, class_forward))]; }
  { int arr[F(__is_base_of(Empty, class_forward))]; } // expected-error {{incomplete type 'class_forward' used in type trait expression}}
  { int arr[F(__is_base_of(Base&, Derived&))]; }
  int t18[F(__is_base_of(Base[10], Derived[10]))];
  { int arr[F(__is_base_of(int, int))]; }
  { int arr[F(__is_base_of(long, int))]; }
  { int arr[T(__is_base_of(Base, DerivedTemp<int>))]; }
  { int arr[F(__is_base_of(Base, NonderivedTemp<int>))]; }
  { int arr[F(__is_base_of(Base, UndefinedTemp<int>))]; } // expected-error {{implicit instantiation of undefined template 'UndefinedTemp<int>'}}

  { int arr[F(__is_base_of(IncompleteUnion, IncompleteUnion))]; }
  { int arr[F(__is_base_of(Union, IncompleteUnion))]; }
  { int arr[F(__is_base_of(IncompleteUnion, Union))]; }
  { int arr[F(__is_base_of(IncompleteStruct, IncompleteUnion))]; }
  { int arr[F(__is_base_of(IncompleteUnion, IncompleteStruct))]; }
  { int arr[F(__is_base_of(Empty, IncompleteUnion))]; }
  { int arr[F(__is_base_of(IncompleteUnion, Empty))]; }
  { int arr[F(__is_base_of(int, IncompleteUnion))]; }
  { int arr[F(__is_base_of(IncompleteUnion, int))]; }
  { int arr[F(__is_base_of(Empty, Union))]; }
  { int arr[F(__is_base_of(Union, Empty))]; }
  { int arr[F(__is_base_of(int, Empty))]; }
  { int arr[F(__is_base_of(Union, int))]; }

  isBaseOfT<Base, Derived>();
  isBaseOfF<Derived, Base>();

  isBaseOfT<Base, CrazyDerived<Base> >();
  isBaseOfF<CrazyDerived<Base>, Base>();

  isBaseOfT<BaseA<int>, DerivedB<int> >();
  isBaseOfF<DerivedB<int>, BaseA<int> >();
}

template<class T, class U>
class TemplateClass {};

template<class T>
using TemplateAlias = TemplateClass<T, int>;

typedef class Base BaseTypedef;

void is_same()
{
  int t01[T(__is_same(Base, Base))];
  int t02[T(__is_same(Base, BaseTypedef))];
  int t03[T(__is_same(TemplateClass<int, int>, TemplateAlias<int>))];

  int t10[F(__is_same(Base, const Base))];
  int t11[F(__is_same(Base, Base&))];
  int t12[F(__is_same(Base, Derived))];

  // __is_same_as is a GCC compatibility synonym for __is_same.
  int t20[T(__is_same_as(int, int))];
  int t21[F(__is_same_as(int, float))];
}

struct IntWrapper
{
  int value;
  IntWrapper(int _value) : value(_value) {}
  operator int() const {
    return value;
  }
};

struct FloatWrapper
{
  float value;
  FloatWrapper(float _value) : value(_value) {}
  FloatWrapper(const IntWrapper& obj)
    : value(static_cast<float>(obj.value)) {}
  operator float() const {
    return value;
  }
  operator IntWrapper() const {
    return IntWrapper(static_cast<int>(value));
  }
};

void is_convertible()
{
  int t01[T(__is_convertible(IntWrapper, IntWrapper))];
  int t02[T(__is_convertible(IntWrapper, const IntWrapper))];
  int t03[T(__is_convertible(IntWrapper, int))];
  int t04[T(__is_convertible(int, IntWrapper))];
  int t05[T(__is_convertible(IntWrapper, FloatWrapper))];
  int t06[T(__is_convertible(FloatWrapper, IntWrapper))];
  int t07[T(__is_convertible(FloatWrapper, float))];
  int t08[T(__is_convertible(float, FloatWrapper))];
}

struct FromInt { FromInt(int); };
struct ToInt { operator int(); };
typedef void Function();

void is_convertible_to();
class PrivateCopy {
  PrivateCopy(const PrivateCopy&);
  friend void is_convertible_to();
};

template<typename T>
struct X0 {
  template<typename U> X0(const X0<U>&);
};

struct Abstract { virtual void f() = 0; };

void is_convertible_to() {
  { int arr[T(__is_convertible_to(Int, Int))]; }
  { int arr[F(__is_convertible_to(Int, IntAr))]; }
  { int arr[F(__is_convertible_to(IntAr, IntAr))]; }
  { int arr[T(__is_convertible_to(void, void))]; }
  { int arr[T(__is_convertible_to(cvoid, void))]; }
  { int arr[T(__is_convertible_to(void, cvoid))]; }
  { int arr[T(__is_convertible_to(cvoid, cvoid))]; }
  { int arr[T(__is_convertible_to(int, FromInt))]; }
  { int arr[T(__is_convertible_to(long, FromInt))]; }
  { int arr[T(__is_convertible_to(double, FromInt))]; }
  { int arr[T(__is_convertible_to(const int, FromInt))]; }
  { int arr[T(__is_convertible_to(const int&, FromInt))]; }
  { int arr[T(__is_convertible_to(ToInt, int))]; }
  { int arr[T(__is_convertible_to(ToInt, const int&))]; }
  { int arr[T(__is_convertible_to(ToInt, long))]; }
  { int arr[F(__is_convertible_to(ToInt, int&))]; }
  { int arr[F(__is_convertible_to(ToInt, FromInt))]; }
  { int arr[T(__is_convertible_to(IntAr&, IntAr&))]; }
  { int arr[T(__is_convertible_to(IntAr&, const IntAr&))]; }
  { int arr[F(__is_convertible_to(const IntAr&, IntAr&))]; }
  { int arr[F(__is_convertible_to(Function, Function))]; }
  { int arr[F(__is_convertible_to(PrivateCopy, PrivateCopy))]; }
  { int arr[T(__is_convertible_to(X0<int>, X0<float>))]; }
  { int arr[F(__is_convertible_to(Abstract, Abstract))]; }
}

namespace is_convertible_to_instantiate {
  // Make sure we don't try to instantiate the constructor.
  template<int x> class A { A(int) { int a[x]; } };
  int x = __is_convertible_to(int, A<-1>);
}

void is_trivial()
{
  { int arr[T(__is_trivial(int))]; }
  { int arr[T(__is_trivial(Enum))]; }
  { int arr[T(__is_trivial(POD))]; }
  { int arr[T(__is_trivial(Int))]; }
  { int arr[T(__is_trivial(IntAr))]; }
  { int arr[T(__is_trivial(IntArNB))]; }
  { int arr[T(__is_trivial(Statics))]; }
  { int arr[T(__is_trivial(Empty))]; }
  { int arr[T(__is_trivial(EmptyUnion))]; }
  { int arr[T(__is_trivial(Union))]; }
  { int arr[T(__is_trivial(Derives))]; }
  { int arr[T(__is_trivial(DerivesAr))]; }
  { int arr[T(__is_trivial(DerivesArNB))]; }
  { int arr[T(__is_trivial(DerivesEmpty))]; }
  { int arr[T(__is_trivial(HasFunc))]; }
  { int arr[T(__is_trivial(HasOp))]; }
  { int arr[T(__is_trivial(HasConv))]; }
  { int arr[T(__is_trivial(HasAssign))]; }
  { int arr[T(__is_trivial(HasAnonymousUnion))]; }
  { int arr[T(__is_trivial(HasPriv))]; }
  { int arr[T(__is_trivial(HasProt))]; }
  { int arr[T(__is_trivial(DerivesHasPriv))]; }
  { int arr[T(__is_trivial(DerivesHasProt))]; }
  { int arr[T(__is_trivial(Vector))]; }
  { int arr[T(__is_trivial(VectorExt))]; }

  { int arr[F(__is_trivial(HasCons))]; }
  { int arr[F(__is_trivial(HasCopyAssign))]; }
  { int arr[F(__is_trivial(HasMoveAssign))]; }
  { int arr[F(__is_trivial(HasDest))]; }
  { int arr[F(__is_trivial(HasRef))]; }
  { int arr[F(__is_trivial(HasNonPOD))]; }
  { int arr[F(__is_trivial(HasVirt))]; }
  { int arr[F(__is_trivial(DerivesHasCons))]; }
  { int arr[F(__is_trivial(DerivesHasCopyAssign))]; }
  { int arr[F(__is_trivial(DerivesHasMoveAssign))]; }
  { int arr[F(__is_trivial(DerivesHasDest))]; }
  { int arr[F(__is_trivial(DerivesHasRef))]; }
  { int arr[F(__is_trivial(DerivesHasVirt))]; }
  { int arr[F(__is_trivial(void))]; }
  { int arr[F(__is_trivial(cvoid))]; }
}

template<typename T> struct TriviallyConstructibleTemplate {};

void trivial_checks()
{
  { int arr[T(__is_trivially_copyable(int))]; }
  { int arr[T(__is_trivially_copyable(Enum))]; }
  { int arr[T(__is_trivially_copyable(POD))]; }
  { int arr[T(__is_trivially_copyable(Int))]; }
  { int arr[T(__is_trivially_copyable(IntAr))]; }
  { int arr[T(__is_trivially_copyable(IntArNB))]; }
  { int arr[T(__is_trivially_copyable(Statics))]; }
  { int arr[T(__is_trivially_copyable(Empty))]; }
  { int arr[T(__is_trivially_copyable(EmptyUnion))]; }
  { int arr[T(__is_trivially_copyable(Union))]; }
  { int arr[T(__is_trivially_copyable(Derives))]; }
  { int arr[T(__is_trivially_copyable(DerivesAr))]; }
  { int arr[T(__is_trivially_copyable(DerivesArNB))]; }
  { int arr[T(__is_trivially_copyable(DerivesEmpty))]; }
  { int arr[T(__is_trivially_copyable(HasFunc))]; }
  { int arr[T(__is_trivially_copyable(HasOp))]; }
  { int arr[T(__is_trivially_copyable(HasConv))]; }
  { int arr[T(__is_trivially_copyable(HasAssign))]; }
  { int arr[T(__is_trivially_copyable(HasAnonymousUnion))]; }
  { int arr[T(__is_trivially_copyable(HasPriv))]; }
  { int arr[T(__is_trivially_copyable(HasProt))]; }
  { int arr[T(__is_trivially_copyable(DerivesHasPriv))]; }
  { int arr[T(__is_trivially_copyable(DerivesHasProt))]; }
  { int arr[T(__is_trivially_copyable(Vector))]; }
  { int arr[T(__is_trivially_copyable(VectorExt))]; }
  { int arr[T(__is_trivially_copyable(HasCons))]; }
  { int arr[T(__is_trivially_copyable(HasRef))]; }
  { int arr[T(__is_trivially_copyable(HasNonPOD))]; }
  { int arr[T(__is_trivially_copyable(DerivesHasCons))]; }
  { int arr[T(__is_trivially_copyable(DerivesHasRef))]; }
  { int arr[T(__is_trivially_copyable(NonTrivialDefault))]; }
  { int arr[T(__is_trivially_copyable(NonTrivialDefault[]))]; }
  { int arr[T(__is_trivially_copyable(NonTrivialDefault[3]))]; }

  { int arr[F(__is_trivially_copyable(HasCopyAssign))]; }
  { int arr[F(__is_trivially_copyable(HasMoveAssign))]; }
  { int arr[F(__is_trivially_copyable(HasDest))]; }
  { int arr[F(__is_trivially_copyable(HasVirt))]; }
  { int arr[F(__is_trivially_copyable(DerivesHasCopyAssign))]; }
  { int arr[F(__is_trivially_copyable(DerivesHasMoveAssign))]; }
  { int arr[F(__is_trivially_copyable(DerivesHasDest))]; }
  { int arr[F(__is_trivially_copyable(DerivesHasVirt))]; }
  { int arr[F(__is_trivially_copyable(void))]; }
  { int arr[F(__is_trivially_copyable(cvoid))]; }

  { int arr[T((__is_trivially_constructible(int)))]; }
  { int arr[T((__is_trivially_constructible(int, int)))]; }
  { int arr[T((__is_trivially_constructible(int, float)))]; }
  { int arr[T((__is_trivially_constructible(int, int&)))]; }
  { int arr[T((__is_trivially_constructible(int, const int&)))]; }
  { int arr[T((__is_trivially_constructible(int, int)))]; }
  { int arr[T((__is_trivially_constructible(HasCopyAssign, HasCopyAssign)))]; }
  { int arr[T((__is_trivially_constructible(HasCopyAssign, const HasCopyAssign&)))]; }
  { int arr[T((__is_trivially_constructible(HasCopyAssign, HasCopyAssign&&)))]; }
  { int arr[T((__is_trivially_constructible(HasCopyAssign)))]; }
  { int arr[T((__is_trivially_constructible(NonTrivialDefault,
                                            const NonTrivialDefault&)))]; }
  { int arr[T((__is_trivially_constructible(NonTrivialDefault,
                                            NonTrivialDefault&&)))]; }
  { int arr[T((__is_trivially_constructible(AllDefaulted)))]; }
  { int arr[T((__is_trivially_constructible(AllDefaulted,
                                            const AllDefaulted &)))]; }
  { int arr[T((__is_trivially_constructible(AllDefaulted,
                                            AllDefaulted &&)))]; }

  { int arr[F((__is_trivially_constructible(int, int*)))]; }
  { int arr[F((__is_trivially_constructible(NonTrivialDefault)))]; }
  { int arr[F((__is_trivially_constructible(ThreeArgCtor, int*, char*, int&)))]; }
  { int arr[F((__is_trivially_constructible(AllDeleted)))]; }
  { int arr[F((__is_trivially_constructible(AllDeleted,
                                            const AllDeleted &)))]; }
  { int arr[F((__is_trivially_constructible(AllDeleted,
                                            AllDeleted &&)))]; }
  { int arr[F((__is_trivially_constructible(ExtDefaulted)))]; }
  { int arr[F((__is_trivially_constructible(ExtDefaulted,
                                            const ExtDefaulted &)))]; }
  { int arr[F((__is_trivially_constructible(ExtDefaulted,
                                            ExtDefaulted &&)))]; }

  { int arr[T((__is_trivially_constructible(TriviallyConstructibleTemplate<int>)))]; }
  { int arr[F((__is_trivially_constructible(class_forward)))]; } // expected-error {{incomplete type 'class_forward' used in type trait expression}}
  { int arr[F((__is_trivially_constructible(class_forward[])))]; }
  { int arr[F((__is_trivially_constructible(void)))]; }

  { int arr[T((__is_trivially_assignable(int&, int)))]; }
  { int arr[T((__is_trivially_assignable(int&, int&)))]; }
  { int arr[T((__is_trivially_assignable(int&, int&&)))]; }
  { int arr[T((__is_trivially_assignable(int&, const int&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD&&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, const POD&)))]; }
  { int arr[T((__is_trivially_assignable(int*&, int*)))]; }
  { int arr[T((__is_trivially_assignable(AllDefaulted,
                                         const AllDefaulted &)))]; }
  { int arr[T((__is_trivially_assignable(AllDefaulted,
                                         AllDefaulted &&)))]; }

  { int arr[F((__is_trivially_assignable(int*&, float*)))]; }
  { int arr[F((__is_trivially_assignable(HasCopyAssign&, HasCopyAssign)))]; }
  { int arr[F((__is_trivially_assignable(HasCopyAssign&, HasCopyAssign&)))]; }
  { int arr[F((__is_trivially_assignable(HasCopyAssign&, const HasCopyAssign&)))]; }
  { int arr[F((__is_trivially_assignable(HasCopyAssign&, HasCopyAssign&&)))]; }
  { int arr[F((__is_trivially_assignable(TrivialMoveButNotCopy&,
                                        TrivialMoveButNotCopy&)))]; }
  { int arr[F((__is_trivially_assignable(TrivialMoveButNotCopy&,
                                        const TrivialMoveButNotCopy&)))]; }
  { int arr[F((__is_trivially_assignable(AllDeleted,
                                         const AllDeleted &)))]; }
  { int arr[F((__is_trivially_assignable(AllDeleted,
                                         AllDeleted &&)))]; }
  { int arr[F((__is_trivially_assignable(ExtDefaulted,
                                         const ExtDefaulted &)))]; }
  { int arr[F((__is_trivially_assignable(ExtDefaulted,
                                         ExtDefaulted &&)))]; }

  { int arr[T((__is_trivially_assignable(HasDefaultTrivialCopyAssign&,
                                         HasDefaultTrivialCopyAssign&)))]; }
  { int arr[T((__is_trivially_assignable(HasDefaultTrivialCopyAssign&,
                                       const HasDefaultTrivialCopyAssign&)))]; }
  { int arr[T((__is_trivially_assignable(TrivialMoveButNotCopy&,
                                         TrivialMoveButNotCopy)))]; }
  { int arr[T((__is_trivially_assignable(TrivialMoveButNotCopy&,
                                         TrivialMoveButNotCopy&&)))]; }
  { int arr[T((__is_trivially_assignable(int&, int)))]; }
  { int arr[T((__is_trivially_assignable(int&, int&)))]; }
  { int arr[T((__is_trivially_assignable(int&, int&&)))]; }
  { int arr[T((__is_trivially_assignable(int&, const int&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, POD&&)))]; }
  { int arr[T((__is_trivially_assignable(POD&, const POD&)))]; }
  { int arr[T((__is_trivially_assignable(int*&, int*)))]; }
  { int arr[T((__is_trivially_assignable(AllDefaulted,
                                         const AllDefaulted &)))]; }
  { int arr[T((__is_trivially_assignable(AllDefaulted,
                                         AllDefaulted &&)))]; }

  { int arr[F((__is_assignable(int *&, float *)))]; }
  { int arr[T((__is_assignable(HasCopyAssign &, HasCopyAssign)))]; }
  { int arr[T((__is_assignable(HasCopyAssign &, HasCopyAssign &)))]; }
  { int arr[T((__is_assignable(HasCopyAssign &, const HasCopyAssign &)))]; }
  { int arr[T((__is_assignable(HasCopyAssign &, HasCopyAssign &&)))]; }
  { int arr[T((__is_assignable(TrivialMoveButNotCopy &,
                               TrivialMoveButNotCopy &)))]; }
  { int arr[T((__is_assignable(TrivialMoveButNotCopy &,
                               const TrivialMoveButNotCopy &)))]; }
  { int arr[F((__is_assignable(AllDeleted,
                               const AllDeleted &)))]; }
  { int arr[F((__is_assignable(AllDeleted,
                               AllDeleted &&)))]; }
  { int arr[T((__is_assignable(ExtDefaulted,
                               const ExtDefaulted &)))]; }
  { int arr[T((__is_assignable(ExtDefaulted,
                               ExtDefaulted &&)))]; }

  { int arr[T((__is_assignable(HasDefaultTrivialCopyAssign &,
                               HasDefaultTrivialCopyAssign &)))]; }
  { int arr[T((__is_assignable(HasDefaultTrivialCopyAssign &,
                               const HasDefaultTrivialCopyAssign &)))]; }
  { int arr[T((__is_assignable(TrivialMoveButNotCopy &,
                               TrivialMoveButNotCopy)))]; }
  { int arr[T((__is_assignable(TrivialMoveButNotCopy &,
                               TrivialMoveButNotCopy &&)))]; }

  { int arr[T(__is_assignable(ACompleteType, ACompleteType))]; }
  { int arr[F(__is_assignable(AnIncompleteType, AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_assignable(AnIncompleteType[], AnIncompleteType[]))]; }
  { int arr[F(__is_assignable(AnIncompleteType[1], AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_assignable(void, void))]; }
  { int arr[F(__is_assignable(const volatile void, const volatile void))]; }
}

void constructible_checks() {
  { int arr[T(__is_constructible(HasNoThrowConstructorWithArgs))]; }
  { int arr[F(__is_nothrow_constructible(HasNoThrowConstructorWithArgs))]; } // MSVC doesn't look into default args and gets this wrong.

  { int arr[T(__is_constructible(HasNoThrowConstructorWithArgs, HasCons))]; }
  { int arr[T(__is_nothrow_constructible(HasNoThrowConstructorWithArgs, HasCons))]; }

  { int arr[T(__is_constructible(NonTrivialDefault))]; }
  { int arr[F(__is_nothrow_constructible(NonTrivialDefault))]; }

  { int arr[T(__is_constructible(int))]; }
  { int arr[T(__is_nothrow_constructible(int))]; }

  { int arr[F(__is_constructible(NonPOD))]; }
  { int arr[F(__is_nothrow_constructible(NonPOD))]; }

  { int arr[T(__is_constructible(NonPOD, int))]; }
  { int arr[F(__is_nothrow_constructible(NonPOD, int))]; }

  // PR19178
  { int arr[F(__is_constructible(Abstract))]; }
  { int arr[F(__is_nothrow_constructible(Abstract))]; }

  // PR20228
  { int arr[T(__is_constructible(VariadicCtor,
                                 int, int, int, int, int, int, int, int, int))]; }

  // PR25513
  { int arr[F(__is_constructible(int(int)))]; }
  { int arr[T(__is_constructible(int const &, long))]; }

  { int arr[T(__is_constructible(ACompleteType))]; }
  { int arr[T(__is_nothrow_constructible(ACompleteType))]; }
  { int arr[F(__is_constructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_nothrow_constructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_constructible(AnIncompleteType[]))]; }
  { int arr[F(__is_nothrow_constructible(AnIncompleteType[]))]; }
  { int arr[F(__is_constructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_nothrow_constructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_constructible(void))]; }
  { int arr[F(__is_nothrow_constructible(void))]; }
  { int arr[F(__is_constructible(const volatile void))]; }
  { int arr[F(__is_nothrow_constructible(const volatile void))]; }
}

// Instantiation of __is_trivially_constructible
template<typename T, typename ...Args>
struct is_trivially_constructible {
  static const bool value = __is_trivially_constructible(T, Args...);
};

void is_trivially_constructible_test() {
  { int arr[T((is_trivially_constructible<int>::value))]; }
  { int arr[T((is_trivially_constructible<int, int>::value))]; }
  { int arr[T((is_trivially_constructible<int, float>::value))]; }
  { int arr[T((is_trivially_constructible<int, int&>::value))]; }
  { int arr[T((is_trivially_constructible<int, const int&>::value))]; }
  { int arr[T((is_trivially_constructible<int, int>::value))]; }
  { int arr[T((is_trivially_constructible<HasCopyAssign, HasCopyAssign>::value))]; }
  { int arr[T((is_trivially_constructible<HasCopyAssign, const HasCopyAssign&>::value))]; }
  { int arr[T((is_trivially_constructible<HasCopyAssign, HasCopyAssign&&>::value))]; }
  { int arr[T((is_trivially_constructible<HasCopyAssign>::value))]; }
  { int arr[T((is_trivially_constructible<NonTrivialDefault,
                                            const NonTrivialDefault&>::value))]; }
  { int arr[T((is_trivially_constructible<NonTrivialDefault,
                                            NonTrivialDefault&&>::value))]; }

  { int arr[F((is_trivially_constructible<int, int*>::value))]; }
  { int arr[F((is_trivially_constructible<NonTrivialDefault>::value))]; }
  { int arr[F((is_trivially_constructible<ThreeArgCtor, int*, char*, int&>::value))]; }
  { int arr[F((is_trivially_constructible<Abstract>::value))]; } // PR19178

  { int arr[T(__is_trivially_constructible(ACompleteType))]; }
  { int arr[F(__is_trivially_constructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_trivially_constructible(AnIncompleteType[]))]; }
  { int arr[F(__is_trivially_constructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_trivially_constructible(void))]; }
  { int arr[F(__is_trivially_constructible(const volatile void))]; }
}

template <class T, class RefType = T &>
struct ConvertsToRef {
  operator RefType() const { return static_cast<RefType>(obj); }
  mutable T obj = 42;
};

void reference_binds_to_temporary_checks() {
  { int arr[F((__reference_binds_to_temporary(int &, int &)))]; }
  { int arr[F((__reference_binds_to_temporary(int &, int &&)))]; }

  { int arr[F((__reference_binds_to_temporary(int const &, int &)))]; }
  { int arr[F((__reference_binds_to_temporary(int const &, int const &)))]; }
  { int arr[F((__reference_binds_to_temporary(int const &, int &&)))]; }

  { int arr[F((__reference_binds_to_temporary(int &, long &)))]; } // doesn't construct
  { int arr[T((__reference_binds_to_temporary(int const &, long &)))]; }
  { int arr[T((__reference_binds_to_temporary(int const &, long &&)))]; }
  { int arr[T((__reference_binds_to_temporary(int &&, long &)))]; }

  using LRef = ConvertsToRef<int, int &>;
  using RRef = ConvertsToRef<int, int &&>;
  using CLRef = ConvertsToRef<int, const int &>;
  using LongRef = ConvertsToRef<long, long &>;
  { int arr[T((__is_constructible(int &, LRef)))]; }
  { int arr[F((__reference_binds_to_temporary(int &, LRef)))]; }

  { int arr[T((__is_constructible(int &&, RRef)))]; }
  { int arr[F((__reference_binds_to_temporary(int &&, RRef)))]; }

  { int arr[T((__is_constructible(int const &, CLRef)))]; }
  { int arr[F((__reference_binds_to_temporary(int &&, CLRef)))]; }

  { int arr[T((__is_constructible(int const &, LongRef)))]; }
  { int arr[T((__reference_binds_to_temporary(int const &, LongRef)))]; }

  // Test that it doesn't accept non-reference types as input.
  { int arr[F((__reference_binds_to_temporary(int, long)))]; }

  { int arr[T((__reference_binds_to_temporary(const int &, long)))]; }
}

void array_rank() {
  int t01[T(__array_rank(IntAr) == 1)];
  int t02[T(__array_rank(ConstIntArAr) == 2)];
}

void array_extent() {
  int t01[T(__array_extent(IntAr, 0) == 10)];
  int t02[T(__array_extent(ConstIntArAr, 0) == 4)];
  int t03[T(__array_extent(ConstIntArAr, 1) == 10)];
}

void is_destructible_test() {
  { int arr[T(__is_destructible(int))]; }
  { int arr[T(__is_destructible(int[2]))]; }
  { int arr[F(__is_destructible(int[]))]; }
  { int arr[F(__is_destructible(void))]; }
  { int arr[T(__is_destructible(int &))]; }
  { int arr[T(__is_destructible(HasDest))]; }
  { int arr[F(__is_destructible(AllPrivate))]; }
  { int arr[T(__is_destructible(SuperNonTrivialStruct))]; }
  { int arr[T(__is_destructible(AllDefaulted))]; }
  { int arr[F(__is_destructible(AllDeleted))]; }
  { int arr[T(__is_destructible(ThrowingDtor))]; }
  { int arr[T(__is_destructible(NoThrowDtor))]; }

  { int arr[T(__is_destructible(ACompleteType))]; }
  { int arr[F(__is_destructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_destructible(AnIncompleteType[]))]; }
  { int arr[F(__is_destructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_destructible(void))]; }
  { int arr[F(__is_destructible(const volatile void))]; }
}

void is_nothrow_destructible_test() {
  { int arr[T(__is_nothrow_destructible(int))]; }
  { int arr[T(__is_nothrow_destructible(int[2]))]; }
  { int arr[F(__is_nothrow_destructible(int[]))]; }
  { int arr[F(__is_nothrow_destructible(void))]; }
  { int arr[T(__is_nothrow_destructible(int &))]; }
  { int arr[T(__is_nothrow_destructible(HasDest))]; }
  { int arr[F(__is_nothrow_destructible(AllPrivate))]; }
  { int arr[T(__is_nothrow_destructible(SuperNonTrivialStruct))]; }
  { int arr[T(__is_nothrow_destructible(AllDefaulted))]; }
  { int arr[F(__is_nothrow_destructible(AllDeleted))]; }
  { int arr[F(__is_nothrow_destructible(ThrowingDtor))]; }
  { int arr[T(__is_nothrow_destructible(NoExceptDtor))]; }
  { int arr[T(__is_nothrow_destructible(NoThrowDtor))]; }

  { int arr[T(__is_nothrow_destructible(ACompleteType))]; }
  { int arr[F(__is_nothrow_destructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_nothrow_destructible(AnIncompleteType[]))]; }
  { int arr[F(__is_nothrow_destructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_nothrow_destructible(void))]; }
  { int arr[F(__is_nothrow_destructible(const volatile void))]; }
}

void is_trivially_destructible_test() {
  { int arr[T(__is_trivially_destructible(int))]; }
  { int arr[T(__is_trivially_destructible(int[2]))]; }
  { int arr[F(__is_trivially_destructible(int[]))]; }
  { int arr[F(__is_trivially_destructible(void))]; }
  { int arr[T(__is_trivially_destructible(int &))]; }
  { int arr[F(__is_trivially_destructible(HasDest))]; }
  { int arr[F(__is_trivially_destructible(AllPrivate))]; }
  { int arr[F(__is_trivially_destructible(SuperNonTrivialStruct))]; }
  { int arr[T(__is_trivially_destructible(AllDefaulted))]; }
  { int arr[F(__is_trivially_destructible(AllDeleted))]; }
  { int arr[F(__is_trivially_destructible(ThrowingDtor))]; }
  { int arr[F(__is_trivially_destructible(NoThrowDtor))]; }

  { int arr[T(__is_trivially_destructible(ACompleteType))]; }
  { int arr[F(__is_trivially_destructible(AnIncompleteType))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_trivially_destructible(AnIncompleteType[]))]; }
  { int arr[F(__is_trivially_destructible(AnIncompleteType[1]))]; } // expected-error {{incomplete type}}
  { int arr[F(__is_trivially_destructible(void))]; }
  { int arr[F(__is_trivially_destructible(const volatile void))]; }
}

// Instantiation of __has_unique_object_representations
template <typename T>
struct has_unique_object_representations {
  static const bool value = __has_unique_object_representations(T);
};

static_assert(!has_unique_object_representations<void>::value, "void is never unique");
static_assert(!has_unique_object_representations<const void>::value, "void is never unique");
static_assert(!has_unique_object_representations<volatile void>::value, "void is never unique");
static_assert(!has_unique_object_representations<const volatile void>::value, "void is never unique");

static_assert(has_unique_object_representations<int>::value, "integrals are");
static_assert(has_unique_object_representations<const int>::value, "integrals are");
static_assert(has_unique_object_representations<volatile int>::value, "integrals are");
static_assert(has_unique_object_representations<const volatile int>::value, "integrals are");

static_assert(has_unique_object_representations<void *>::value, "as are pointers");
static_assert(has_unique_object_representations<const void *>::value, "as are pointers");
static_assert(has_unique_object_representations<volatile void *>::value, "are pointers");
static_assert(has_unique_object_representations<const volatile void *>::value, "as are pointers");

static_assert(has_unique_object_representations<int *>::value, "as are pointers");
static_assert(has_unique_object_representations<const int *>::value, "as are pointers");
static_assert(has_unique_object_representations<volatile int *>::value, "as are pointers");
static_assert(has_unique_object_representations<const volatile int *>::value, "as are pointers");

class C {};
using FP = int (*)(int);
using PMF = int (C::*)(int);
using PMD = int C::*;

static_assert(has_unique_object_representations<FP>::value, "even function pointers");
static_assert(has_unique_object_representations<const FP>::value, "even function pointers");
static_assert(has_unique_object_representations<volatile FP>::value, "even function pointers");
static_assert(has_unique_object_representations<const volatile FP>::value, "even function pointers");

static_assert(has_unique_object_representations<PMF>::value, "and pointer to members");
static_assert(has_unique_object_representations<const PMF>::value, "and pointer to members");
static_assert(has_unique_object_representations<volatile PMF>::value, "and pointer to members");
static_assert(has_unique_object_representations<const volatile PMF>::value, "and pointer to members");

static_assert(has_unique_object_representations<PMD>::value, "and pointer to members");
static_assert(has_unique_object_representations<const PMD>::value, "and pointer to members");
static_assert(has_unique_object_representations<volatile PMD>::value, "and pointer to members");
static_assert(has_unique_object_representations<const volatile PMD>::value, "and pointer to members");

static_assert(has_unique_object_representations<bool>::value, "yes, all integral types");
static_assert(has_unique_object_representations<char>::value, "yes, all integral types");
static_assert(has_unique_object_representations<signed char>::value, "yes, all integral types");
static_assert(has_unique_object_representations<unsigned char>::value, "yes, all integral types");
static_assert(has_unique_object_representations<short>::value, "yes, all integral types");
static_assert(has_unique_object_representations<unsigned short>::value, "yes, all integral types");
static_assert(has_unique_object_representations<int>::value, "yes, all integral types");
static_assert(has_unique_object_representations<unsigned int>::value, "yes, all integral types");
static_assert(has_unique_object_representations<long>::value, "yes, all integral types");
static_assert(has_unique_object_representations<unsigned long>::value, "yes, all integral types");
static_assert(has_unique_object_representations<long long>::value, "yes, all integral types");
static_assert(has_unique_object_representations<unsigned long long>::value, "yes, all integral types");
static_assert(has_unique_object_representations<wchar_t>::value, "yes, all integral types");
static_assert(has_unique_object_representations<char16_t>::value, "yes, all integral types");
static_assert(has_unique_object_representations<char32_t>::value, "yes, all integral types");

static_assert(!has_unique_object_representations<void>::value, "but not void!");
static_assert(!has_unique_object_representations<decltype(nullptr)>::value, "or nullptr_t");
static_assert(!has_unique_object_representations<float>::value, "definitely not Floating Point");
static_assert(!has_unique_object_representations<double>::value, "definitely not Floating Point");
static_assert(!has_unique_object_representations<long double>::value, "definitely not Floating Point");

struct NoPadding {
  int a;
  int b;
};

static_assert(has_unique_object_representations<NoPadding>::value, "types without padding are");

struct InheritsFromNoPadding : NoPadding {
  int c;
  int d;
};

static_assert(has_unique_object_representations<InheritsFromNoPadding>::value, "types without padding are");

struct VirtuallyInheritsFromNoPadding : virtual NoPadding {
  int c;
  int d;
};

static_assert(!has_unique_object_representations<VirtuallyInheritsFromNoPadding>::value, "No virtual inheritance");

struct Padding {
  char a;
  int b;
};

//static_assert(!has_unique_object_representations<Padding>::value, "but not with padding");

struct InheritsFromPadding : Padding {
  int c;
  int d;
};

static_assert(!has_unique_object_representations<InheritsFromPadding>::value, "or its subclasses");

struct TailPadding {
  int a;
  char b;
};

static_assert(!has_unique_object_representations<TailPadding>::value, "even at the end");

struct TinyStruct {
  char a;
};

static_assert(has_unique_object_representations<TinyStruct>::value, "Should be no padding");

struct InheritsFromTinyStruct : TinyStruct {
  int b;
};

static_assert(!has_unique_object_representations<InheritsFromTinyStruct>::value, "Inherit causes padding");

union NoPaddingUnion {
  int a;
  unsigned int b;
};

static_assert(has_unique_object_representations<NoPaddingUnion>::value, "unions follow the same rules as structs");

union PaddingUnion {
  int a;
  long long b;
};

static_assert(!has_unique_object_representations<PaddingUnion>::value, "unions follow the same rules as structs");

struct NotTriviallyCopyable {
  int x;
  NotTriviallyCopyable(const NotTriviallyCopyable &) {}
};

static_assert(!has_unique_object_representations<NotTriviallyCopyable>::value, "must be trivially copyable");

struct HasNonUniqueMember {
  float x;
};

static_assert(!has_unique_object_representations<HasNonUniqueMember>::value, "all members must be unique");

enum ExampleEnum { xExample,
                   yExample };
enum LLEnum : long long { xLongExample,
                          yLongExample };

static_assert(has_unique_object_representations<ExampleEnum>::value, "Enums are integrals, so unique!");
static_assert(has_unique_object_representations<LLEnum>::value, "Enums are integrals, so unique!");

enum class ExampleEnumClass { xExample,
                              yExample };
enum class LLEnumClass : long long { xLongExample,
                                     yLongExample };

static_assert(has_unique_object_representations<ExampleEnumClass>::value, "Enums are integrals, so unique!");
static_assert(has_unique_object_representations<LLEnumClass>::value, "Enums are integrals, so unique!");

// because references aren't trivially copyable.
static_assert(!has_unique_object_representations<int &>::value, "No references!");
static_assert(!has_unique_object_representations<const int &>::value, "No references!");
static_assert(!has_unique_object_representations<volatile int &>::value, "No references!");
static_assert(!has_unique_object_representations<const volatile int &>::value, "No references!");
static_assert(!has_unique_object_representations<Empty>::value, "No empty types!");
static_assert(!has_unique_object_representations<EmptyUnion>::value, "No empty types!");

class Compressed : Empty {
  int x;
};

static_assert(has_unique_object_representations<Compressed>::value, "But inheriting from one is ok");

class EmptyInheritor : Compressed {};

static_assert(has_unique_object_representations<EmptyInheritor>::value, "As long as the base has items, empty is ok");

class Dynamic {
  virtual void A();
  int i;
};

static_assert(!has_unique_object_representations<Dynamic>::value, "Dynamic types are not valid");

class InheritsDynamic : Dynamic {
  int j;
};

static_assert(!has_unique_object_representations<InheritsDynamic>::value, "Dynamic types are not valid");

static_assert(has_unique_object_representations<int[42]>::value, "Arrays are fine, as long as their value type is");
static_assert(has_unique_object_representations<int[]>::value, "Arrays are fine, as long as their value type is");
static_assert(has_unique_object_representations<int[][42]>::value, "Arrays are fine, as long as their value type is");
static_assert(!has_unique_object_representations<double[42]>::value, "So no array of doubles!");
static_assert(!has_unique_object_representations<double[]>::value, "So no array of doubles!");
static_assert(!has_unique_object_representations<double[][42]>::value, "So no array of doubles!");

struct __attribute__((aligned(16))) WeirdAlignment {
  int i;
};
union __attribute__((aligned(16))) WeirdAlignmentUnion {
  int i;
};
static_assert(!has_unique_object_representations<WeirdAlignment>::value, "Alignment causes padding");
static_assert(!has_unique_object_representations<WeirdAlignmentUnion>::value, "Alignment causes padding");
static_assert(!has_unique_object_representations<WeirdAlignment[42]>::value, "Also no arrays that have padding");

struct __attribute__((packed)) PackedNoPadding1 {
  short i;
  int j;
};
struct __attribute__((packed)) PackedNoPadding2 {
  int j;
  short i;
};
static_assert(has_unique_object_representations<PackedNoPadding1>::value, "Packed structs have no padding");
static_assert(has_unique_object_representations<PackedNoPadding2>::value, "Packed structs have no padding");

static_assert(!has_unique_object_representations<int(int)>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) volatile>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const volatile>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) volatile &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const volatile &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) volatile &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int) const volatile &&>::value, "Functions are not unique");

static_assert(!has_unique_object_representations<int(int, ...)>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) volatile>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const volatile>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) volatile &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const volatile &>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) volatile &&>::value, "Functions are not unique");
static_assert(!has_unique_object_representations<int(int, ...) const volatile &&>::value, "Functions are not unique");

void foo(){
  static auto lambda = []() {};
  static_assert(!has_unique_object_representations<decltype(lambda)>::value, "Lambdas follow struct rules");
  int i;
  static auto lambda2 = [i]() {};
  static_assert(has_unique_object_representations<decltype(lambda2)>::value, "Lambdas follow struct rules");
}

struct PaddedBitfield {
  char c : 6;
  char d : 1;
};

struct UnPaddedBitfield {
  char c : 6;
  char d : 2;
};

struct AlignedPaddedBitfield {
  char c : 6;
  __attribute__((aligned(1)))
  char d : 2;
};

struct UnnamedBitfield {
  int named : 8;
  int : 24;
};

struct __attribute__((packed)) UnnamedBitfieldPacked {
  int named : 8;
  int : 24;
};

struct UnnamedEmptyBitfield {
  int named;
  int : 0;
};

struct UnnamedEmptyBitfieldSplit {
  short named;
  int : 0;
  short also_named;
};

static_assert(!has_unique_object_representations<PaddedBitfield>::value, "Bitfield padding");
static_assert(has_unique_object_representations<UnPaddedBitfield>::value, "Bitfield padding");
static_assert(!has_unique_object_representations<AlignedPaddedBitfield>::value, "Bitfield padding");
static_assert(!has_unique_object_representations<UnnamedBitfield>::value, "Bitfield padding");
static_assert(!has_unique_object_representations<UnnamedBitfieldPacked>::value, "Bitfield padding");
static_assert(has_unique_object_representations<UnnamedEmptyBitfield>::value, "Bitfield padding");
static_assert(sizeof(UnnamedEmptyBitfieldSplit) != (sizeof(short) * 2), "Wrong size");
static_assert(!has_unique_object_representations<UnnamedEmptyBitfieldSplit>::value, "Bitfield padding");

struct BoolBitfield {
  bool b : 8;
};

static_assert(has_unique_object_representations<BoolBitfield>::value, "Bitfield bool");

struct BoolBitfield2 {
  bool b : 16;
};

static_assert(!has_unique_object_representations<BoolBitfield2>::value, "Bitfield bool");

struct GreaterSizeBitfield {
  //expected-warning@+1 {{width of bit-field 'n'}}
  int n : 1024;
};

static_assert(sizeof(GreaterSizeBitfield) == 128, "Bitfield Size");
static_assert(!has_unique_object_representations<GreaterSizeBitfield>::value, "Bitfield padding");

struct StructWithRef {
  int &I;
};

static_assert(has_unique_object_representations<StructWithRef>::value, "References are still unique");

struct NotUniqueBecauseTailPadding {
  int &r;
  char a;
};
struct CanBeUniqueIfNoPadding : NotUniqueBecauseTailPadding {
  char b[7];
};

static_assert(!has_unique_object_representations<NotUniqueBecauseTailPadding>::value,
              "non trivial");
// Can be unique on Itanium, since the is child class' data is 'folded' into the
// parent's tail padding.
static_assert(sizeof(CanBeUniqueIfNoPadding) != 16 ||
              has_unique_object_representations<CanBeUniqueIfNoPadding>::value,
              "inherit from std layout");

namespace ErrorType {
  struct S; //expected-note{{forward declaration of 'ErrorType::S'}}

  struct T {
        S t; //expected-error{{field has incomplete type 'S'}}
  };
  bool b = __has_unique_object_representations(T);
};

static_assert(!has_unique_object_representations<_BitInt(7)>::value, "BitInt:");
static_assert(has_unique_object_representations<_BitInt(8)>::value, "BitInt:");
static_assert(!has_unique_object_representations<_BitInt(127)>::value, "BitInt:");
static_assert(has_unique_object_representations<_BitInt(128)>::value, "BitInt:");


namespace PR46209 {
  // Foo has both a trivial assignment operator and a non-trivial one.
  struct Foo {
    Foo &operator=(const Foo &) & { return *this; }
    Foo &operator=(const Foo &) && = default;
  };

  // Bar's copy assignment calls Foo's non-trivial assignment.
  struct Bar {
    Foo foo;
  };

  static_assert(!__is_trivially_assignable(Foo &, const Foo &), "");
  static_assert(!__is_trivially_assignable(Bar &, const Bar &), "");

  // Foo2 has both a trivial assignment operator and a non-trivial one.
  struct Foo2 {
    Foo2 &operator=(const Foo2 &) & = default;
    Foo2 &operator=(const Foo2 &) && { return *this; }
  };

  // Bar2's copy assignment calls Foo2's trivial assignment.
  struct Bar2 {
    Foo2 foo;
  };

  static_assert(__is_trivially_assignable(Foo2 &, const Foo2 &), "");
  static_assert(__is_trivially_assignable(Bar2 &, const Bar2 &), "");
}

namespace ConstClass {
  struct A {
    A &operator=(const A&) = default;
  };
  struct B {
    const A a;
  };
  static_assert(!__is_trivially_assignable(B&, const B&), "");
}

namespace type_trait_expr_numargs_overflow {
// Make sure that TypeTraitExpr can store 16 bits worth of arguments.
#define T4(X) X,X,X,X
#define T16(X) T4(X),T4(X),T4(X),T4(X)
#define T64(X) T16(X),T16(X),T16(X),T16(X)
#define T256(X) T64(X),T64(X),T64(X),T64(X)
#define T1024(X) T256(X),T256(X),T256(X),T256(X)
#define T4096(X) T1024(X),T1024(X),T1024(X),T1024(X)
#define T16384(X) T4096(X),T4096(X),T4096(X),T4096(X)
#define T32768(X) T16384(X),T16384(X)
void test() { (void) __is_constructible(int, T32768(int)); }
#undef T4
#undef T16
#undef T64
#undef T256
#undef T1024
#undef T4096
#undef T16384
#undef T32768
} // namespace type_trait_expr_numargs_overflow

namespace is_trivially_relocatable {

static_assert(!__is_trivially_relocatable(void), "");
static_assert(__is_trivially_relocatable(int), "");
static_assert(__is_trivially_relocatable(int[]), "");

enum Enum {};
static_assert(__is_trivially_relocatable(Enum), "");
static_assert(__is_trivially_relocatable(Enum[]), "");

union Union {int x;};
static_assert(__is_trivially_relocatable(Union), "");
static_assert(__is_trivially_relocatable(Union[]), "");

struct Trivial {};
static_assert(__is_trivially_relocatable(Trivial), "");
static_assert(__is_trivially_relocatable(Trivial[]), "");

struct Incomplete; // expected-note {{forward declaration of 'is_trivially_relocatable::Incomplete'}}
bool unused = __is_trivially_relocatable(Incomplete); // expected-error {{incomplete type}}

struct NontrivialDtor {
  ~NontrivialDtor() {}
};
static_assert(!__is_trivially_relocatable(NontrivialDtor), "");
static_assert(!__is_trivially_relocatable(NontrivialDtor[]), "");

struct NontrivialCopyCtor {
  NontrivialCopyCtor(const NontrivialCopyCtor&) {}
};
static_assert(!__is_trivially_relocatable(NontrivialCopyCtor), "");
static_assert(!__is_trivially_relocatable(NontrivialCopyCtor[]), "");

struct NontrivialMoveCtor {
  NontrivialMoveCtor(NontrivialMoveCtor&&) {}
};
static_assert(!__is_trivially_relocatable(NontrivialMoveCtor), "");
static_assert(!__is_trivially_relocatable(NontrivialMoveCtor[]), "");

struct [[clang::trivial_abi]] TrivialAbiNontrivialDtor {
  ~TrivialAbiNontrivialDtor() {}
};
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialDtor), "");
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialDtor[]), "");

struct [[clang::trivial_abi]] TrivialAbiNontrivialCopyCtor {
  TrivialAbiNontrivialCopyCtor(const TrivialAbiNontrivialCopyCtor&) {}
};
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialCopyCtor), "");
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialCopyCtor[]), "");

// A more complete set of tests for the behavior of trivial_abi can be found in
// clang/test/SemaCXX/attr-trivial-abi.cpp
struct [[clang::trivial_abi]] TrivialAbiNontrivialMoveCtor {
  TrivialAbiNontrivialMoveCtor(TrivialAbiNontrivialMoveCtor&&) {}
};
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialMoveCtor), "");
static_assert(__is_trivially_relocatable(TrivialAbiNontrivialMoveCtor[]), "");

} // namespace is_trivially_relocatable

namespace is_trivially_equality_comparable {
struct ForwardDeclared; // expected-note {{forward declaration of 'is_trivially_equality_comparable::ForwardDeclared'}}
static_assert(!__is_trivially_equality_comparable(ForwardDeclared), ""); // expected-error {{incomplete type 'ForwardDeclared' used in type trait expression}}

static_assert(!__is_trivially_equality_comparable(void), "");
static_assert(__is_trivially_equality_comparable(int), "");
static_assert(!__is_trivially_equality_comparable(int[]), "");
static_assert(__is_trivially_equality_comparable(int[3]), "");
static_assert(!__is_trivially_equality_comparable(float), "");
static_assert(!__is_trivially_equality_comparable(double), "");
static_assert(!__is_trivially_equality_comparable(long double), "");

struct TriviallyEqualityComparableNoDefaultedComparator {
  int i;
  int j;
};
static_assert(!__is_trivially_equality_comparable(TriviallyEqualityComparableNoDefaultedComparator), "");

#if __cplusplus >= 202002L

struct TriviallyEqualityComparable {
  int i;
  int j;

  void func();
  bool operator==(int) const { return false; }

  bool operator==(const TriviallyEqualityComparable&) const = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable), "");

struct TriviallyEqualityComparableNonTriviallyCopyable {
  TriviallyEqualityComparableNonTriviallyCopyable(const TriviallyEqualityComparableNonTriviallyCopyable&);
  ~TriviallyEqualityComparableNonTriviallyCopyable();
  bool operator==(const TriviallyEqualityComparableNonTriviallyCopyable&) const = default;
  int i;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparableNonTriviallyCopyable));

struct NotTriviallyEqualityComparableHasPadding {
  short i;
  int j;

  bool operator==(const NotTriviallyEqualityComparableHasPadding&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasPadding), "");

struct NotTriviallyEqualityComparableHasFloat {
  float i;
  int j;

  bool operator==(const NotTriviallyEqualityComparableHasFloat&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasFloat), "");

struct NotTriviallyEqualityComparableHasTailPadding {
  int i;
  char j;

  bool operator==(const NotTriviallyEqualityComparableHasTailPadding&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasTailPadding), "");

struct NotTriviallyEqualityComparableBase : NotTriviallyEqualityComparableHasTailPadding {
  char j;

  bool operator==(const NotTriviallyEqualityComparableBase&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBase), "");

class TriviallyEqualityComparablePaddedOutBase {
  int i;
  char c;

public:
  bool operator==(const TriviallyEqualityComparablePaddedOutBase&) const = default;
};
static_assert(!__is_trivially_equality_comparable(TriviallyEqualityComparablePaddedOutBase), "");

struct TriviallyEqualityComparablePaddedOut : TriviallyEqualityComparablePaddedOutBase {
  char j[3];

  bool operator==(const TriviallyEqualityComparablePaddedOut&) const = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparablePaddedOut), "");

struct TriviallyEqualityComparable1 {
  char i;

  bool operator==(const TriviallyEqualityComparable1&) const = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable1));

struct TriviallyEqualityComparable2 {
  int i;

  bool operator==(const TriviallyEqualityComparable2&) const = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable2));

struct NotTriviallyEqualityComparableTriviallyEqualityComparableBases
    : TriviallyEqualityComparable1, TriviallyEqualityComparable2 {
  bool operator==(const NotTriviallyEqualityComparableTriviallyEqualityComparableBases&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableTriviallyEqualityComparableBases));

struct NotTriviallyEqualityComparableBitfield {
  int i : 1;

  bool operator==(const NotTriviallyEqualityComparableBitfield&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBitfield));

// TODO: This is trivially equality comparable
struct NotTriviallyEqualityComparableBitfieldFilled {
  char i : __CHAR_BIT__;

  bool operator==(const NotTriviallyEqualityComparableBitfieldFilled&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBitfield));

union U {
  int i;

  bool operator==(const U&) const = default;
};

struct NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion {
  U u;

  bool operator==(const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion));

struct NotTriviallyEqualityComparableExplicitlyDeleted {
  int i;

  bool operator==(const NotTriviallyEqualityComparableExplicitlyDeleted&) const = delete;
};

struct NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct {
  NotTriviallyEqualityComparableExplicitlyDeleted u;

  bool operator==(const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct));

struct NotTriviallyEqualityComparableHasReferenceMember {
  int& i;

  bool operator==(const NotTriviallyEqualityComparableHasReferenceMember&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasReferenceMember));

enum E {
  a,
  b
};
bool operator==(E, E) { return false; }
static_assert(!__is_trivially_equality_comparable(E));

struct NotTriviallyEqualityComparableHasEnum {
  E e;
  bool operator==(const NotTriviallyEqualityComparableHasEnum&) const = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasEnum));

namespace hidden_friend {

struct TriviallyEqualityComparable {
  int i;
  int j;

  void func();
  bool operator==(int) const { return false; }

  friend bool operator==(const TriviallyEqualityComparable&, const TriviallyEqualityComparable&) = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable), "");

struct TriviallyEqualityComparableNonTriviallyCopyable {
  TriviallyEqualityComparableNonTriviallyCopyable(const TriviallyEqualityComparableNonTriviallyCopyable&);
  ~TriviallyEqualityComparableNonTriviallyCopyable();
  friend bool operator==(const TriviallyEqualityComparableNonTriviallyCopyable&, const TriviallyEqualityComparableNonTriviallyCopyable&) = default;
  int i;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparableNonTriviallyCopyable));

struct NotTriviallyEqualityComparableHasPadding {
  short i;
  int j;

  friend bool operator==(const NotTriviallyEqualityComparableHasPadding&, const NotTriviallyEqualityComparableHasPadding&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasPadding), "");

struct NotTriviallyEqualityComparableHasFloat {
  float i;
  int j;

  friend bool operator==(const NotTriviallyEqualityComparableHasFloat&, const NotTriviallyEqualityComparableHasFloat&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasFloat), "");

struct NotTriviallyEqualityComparableHasTailPadding {
  int i;
  char j;

  friend bool operator==(const NotTriviallyEqualityComparableHasTailPadding&, const NotTriviallyEqualityComparableHasTailPadding&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasTailPadding), "");

struct NotTriviallyEqualityComparableBase : NotTriviallyEqualityComparableHasTailPadding {
  char j;

  friend bool operator==(const NotTriviallyEqualityComparableBase&, const NotTriviallyEqualityComparableBase&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBase), "");

class TriviallyEqualityComparablePaddedOutBase {
  int i;
  char c;

public:
  friend bool operator==(const TriviallyEqualityComparablePaddedOutBase&, const TriviallyEqualityComparablePaddedOutBase&) = default;
};
static_assert(!__is_trivially_equality_comparable(TriviallyEqualityComparablePaddedOutBase), "");

struct TriviallyEqualityComparablePaddedOut : TriviallyEqualityComparablePaddedOutBase {
  char j[3];

  friend bool operator==(const TriviallyEqualityComparablePaddedOut&, const TriviallyEqualityComparablePaddedOut&) = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparablePaddedOut), "");

struct TriviallyEqualityComparable1 {
  char i;

  friend bool operator==(const TriviallyEqualityComparable1&, const TriviallyEqualityComparable1&) = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable1));

struct TriviallyEqualityComparable2 {
  int i;

  friend bool operator==(const TriviallyEqualityComparable2&, const TriviallyEqualityComparable2&) = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparable2));

struct NotTriviallyEqualityComparableTriviallyEqualityComparableBases
    : TriviallyEqualityComparable1, TriviallyEqualityComparable2 {
  friend bool operator==(const NotTriviallyEqualityComparableTriviallyEqualityComparableBases&, const NotTriviallyEqualityComparableTriviallyEqualityComparableBases&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableTriviallyEqualityComparableBases));

struct NotTriviallyEqualityComparableBitfield {
  int i : 1;

  friend bool operator==(const NotTriviallyEqualityComparableBitfield&, const NotTriviallyEqualityComparableBitfield&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBitfield));

// TODO: This is trivially equality comparable
struct NotTriviallyEqualityComparableBitfieldFilled {
  char i : __CHAR_BIT__;

  friend bool operator==(const NotTriviallyEqualityComparableBitfieldFilled&, const NotTriviallyEqualityComparableBitfieldFilled&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableBitfield));

union U {
  int i;

  friend bool operator==(const U&, const U&) = default;
};

struct NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion {
  U u;

  friend bool operator==(const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion&, const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableImplicitlyDeletedOperatorByUnion));

struct NotTriviallyEqualityComparableExplicitlyDeleted {
  int i;

  friend bool operator==(const NotTriviallyEqualityComparableExplicitlyDeleted&, const NotTriviallyEqualityComparableExplicitlyDeleted&) = delete;
};

struct NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct {
  NotTriviallyEqualityComparableExplicitlyDeleted u;

  friend bool operator==(const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct&, const NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableImplicitlyDeletedOperatorByStruct));

struct NotTriviallyEqualityComparableHasReferenceMember {
  int& i;

  friend bool operator==(const NotTriviallyEqualityComparableHasReferenceMember&, const NotTriviallyEqualityComparableHasReferenceMember&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasReferenceMember));

enum E {
  a,
  b
};
bool operator==(E, E) { return false; }
static_assert(!__is_trivially_equality_comparable(E));

struct NotTriviallyEqualityComparableHasEnum {
  E e;
  friend bool operator==(const NotTriviallyEqualityComparableHasEnum&, const NotTriviallyEqualityComparableHasEnum&) = default;
};
static_assert(!__is_trivially_equality_comparable(NotTriviallyEqualityComparableHasEnum));

struct NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable {
  int i;
  NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable(const NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable&);

  friend bool operator==(NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable, NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable) = default;
};
static_assert(!__is_trivially_equality_comparable(NonTriviallyEqualityComparableValueComparisonNonTriviallyCopyable));

struct TriviallyEqualityComparableRefComparisonNonTriviallyCopyable {
  int i;
  TriviallyEqualityComparableRefComparisonNonTriviallyCopyable(const TriviallyEqualityComparableRefComparisonNonTriviallyCopyable&);

  friend bool operator==(const TriviallyEqualityComparableRefComparisonNonTriviallyCopyable&, const TriviallyEqualityComparableRefComparisonNonTriviallyCopyable&) = default;
};
static_assert(__is_trivially_equality_comparable(TriviallyEqualityComparableRefComparisonNonTriviallyCopyable));
}

#endif // __cplusplus >= 202002L
};

namespace can_pass_in_regs {

struct A { };

struct B {
  ~B();
};

struct C; // expected-note {{forward declaration}}

union D {
  int x;
};

static_assert(__can_pass_in_regs(A), "");
static_assert(__can_pass_in_regs(A), "");
static_assert(!__can_pass_in_regs(B), "");
static_assert(__can_pass_in_regs(D), "");

void test_errors() {
  (void)__can_pass_in_regs(const A); // expected-error {{not an unqualified class type}}
  (void)__can_pass_in_regs(A&); // expected-error {{not an unqualified class type}}
  (void)__can_pass_in_regs(A&&); // expected-error {{not an unqualified class type}}
  (void)__can_pass_in_regs(const A&); // expected-error {{not an unqualified class type}}
  (void)__can_pass_in_regs(C); // expected-error {{incomplete type}}
  (void)__can_pass_in_regs(int); // expected-error {{not an unqualified class type}}
  (void)__can_pass_in_regs(int&); // expected-error {{not an unqualified class type}}
}
}

struct S {};
template <class T> using remove_const_t = __remove_const(T);

void check_remove_const() {
  static_assert(__is_same(remove_const_t<void>, void), "");
  static_assert(__is_same(remove_const_t<const void>, void), "");
  static_assert(__is_same(remove_const_t<int>, int), "");
  static_assert(__is_same(remove_const_t<const int>, int), "");
  static_assert(__is_same(remove_const_t<volatile int>, volatile int), "");
  static_assert(__is_same(remove_const_t<const volatile int>, volatile int), "");
  static_assert(__is_same(remove_const_t<int *>, int *), "");
  static_assert(__is_same(remove_const_t<int *const>, int *), "");
  static_assert(__is_same(remove_const_t<int const *const>, int const *), "");
  static_assert(__is_same(remove_const_t<int const *const __restrict>, int const *__restrict), "");
  static_assert(__is_same(remove_const_t<int &>, int &), "");
  static_assert(__is_same(remove_const_t<int const &>, int const &), "");
  static_assert(__is_same(remove_const_t<int &&>, int &&), "");
  static_assert(__is_same(remove_const_t<int const &&>, int const &&), "");
  static_assert(__is_same(remove_const_t<int()>, int()), "");
  static_assert(__is_same(remove_const_t<int (*const)()>, int (*)()), "");
  static_assert(__is_same(remove_const_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_const_t<S>, S), "");
  static_assert(__is_same(remove_const_t<const S>, S), "");
  static_assert(__is_same(remove_const_t<volatile S>, volatile S), "");
  static_assert(__is_same(remove_const_t<S *__restrict>, S *__restrict), "");
  static_assert(__is_same(remove_const_t<const volatile S>, volatile S), "");
  static_assert(__is_same(remove_const_t<S *const volatile __restrict>, S *volatile __restrict), "");
  static_assert(__is_same(remove_const_t<int S::*const>, int S::*), "");
  static_assert(__is_same(remove_const_t<int (S::*const)()>, int(S::*)()), "");
}

template <class T> using remove_restrict_t = __remove_restrict(T);

void check_remove_restrict() {
  static_assert(__is_same(remove_restrict_t<void>, void), "");
  static_assert(__is_same(remove_restrict_t<int>, int), "");
  static_assert(__is_same(remove_restrict_t<const int>, const int), "");
  static_assert(__is_same(remove_restrict_t<volatile int>, volatile int), "");
  static_assert(__is_same(remove_restrict_t<int *__restrict>, int *), "");
  static_assert(__is_same(remove_restrict_t<int *const volatile __restrict>, int *const volatile), "");
  static_assert(__is_same(remove_restrict_t<int *>, int *), "");
  static_assert(__is_same(remove_restrict_t<int *__restrict>, int *), "");
  static_assert(__is_same(remove_restrict_t<int &>, int &), "");
  static_assert(__is_same(remove_restrict_t<int &__restrict>, int &), "");
  static_assert(__is_same(remove_restrict_t<int &&>, int &&), "");
  static_assert(__is_same(remove_restrict_t<int &&__restrict>, int &&), "");
  static_assert(__is_same(remove_restrict_t<int()>, int()), "");
  static_assert(__is_same(remove_restrict_t<int (*const volatile)()>, int (*const volatile)()), "");
  static_assert(__is_same(remove_restrict_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_restrict_t<S>, S), "");
  static_assert(__is_same(remove_restrict_t<const S>, const S), "");
  static_assert(__is_same(remove_restrict_t<volatile S>, volatile S), "");
  static_assert(__is_same(remove_restrict_t<S *__restrict>, S *), "");
  static_assert(__is_same(remove_restrict_t<S *const volatile __restrict>, S *const volatile), "");
  static_assert(__is_same(remove_restrict_t<int S::*__restrict>, int S::*), "");
  static_assert(__is_same(remove_restrict_t<int (S::*const volatile)()>, int(S::*const volatile)()), "");
}

template <class T> using remove_volatile_t = __remove_volatile(T);

void check_remove_volatile() {
  static_assert(__is_same(remove_volatile_t<void>, void), "");
  static_assert(__is_same(remove_volatile_t<volatile void>, void), "");
  static_assert(__is_same(remove_volatile_t<int>, int), "");
  static_assert(__is_same(remove_volatile_t<const int>, const int), "");
  static_assert(__is_same(remove_volatile_t<volatile int>, int), "");
  static_assert(__is_same(remove_volatile_t<int *__restrict>, int *__restrict), "");
  static_assert(__is_same(remove_volatile_t<const volatile int>, const int), "");
  static_assert(__is_same(remove_volatile_t<int *const volatile __restrict>, int *const __restrict), "");
  static_assert(__is_same(remove_volatile_t<int *>, int *), "");
  static_assert(__is_same(remove_volatile_t<int *volatile>, int *), "");
  static_assert(__is_same(remove_volatile_t<int volatile *volatile>, int volatile *), "");
  static_assert(__is_same(remove_volatile_t<int &>, int &), "");
  static_assert(__is_same(remove_volatile_t<int volatile &>, int volatile &), "");
  static_assert(__is_same(remove_volatile_t<int &&>, int &&), "");
  static_assert(__is_same(remove_volatile_t<int volatile &&>, int volatile &&), "");
  static_assert(__is_same(remove_volatile_t<int()>, int()), "");
  static_assert(__is_same(remove_volatile_t<int (*volatile)()>, int (*)()), "");
  static_assert(__is_same(remove_volatile_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_volatile_t<S>, S), "");
  static_assert(__is_same(remove_volatile_t<const S>, const S), "");
  static_assert(__is_same(remove_volatile_t<volatile S>, S), "");
  static_assert(__is_same(remove_volatile_t<const volatile S>, const S), "");
  static_assert(__is_same(remove_volatile_t<int S::*volatile>, int S::*), "");
  static_assert(__is_same(remove_volatile_t<int (S::*volatile)()>, int(S::*)()), "");
}

template <class T> using remove_cv_t = __remove_cv(T);

void check_remove_cv() {
  static_assert(__is_same(remove_cv_t<void>, void), "");
  static_assert(__is_same(remove_cv_t<const volatile void>, void), "");
  static_assert(__is_same(remove_cv_t<int>, int), "");
  static_assert(__is_same(remove_cv_t<const int>, int), "");
  static_assert(__is_same(remove_cv_t<volatile int>, int), "");
  static_assert(__is_same(remove_cv_t<const volatile int>, int), "");
  static_assert(__is_same(remove_cv_t<int *>, int *), "");
  static_assert(__is_same(remove_cv_t<int *const volatile>, int *), "");
  static_assert(__is_same(remove_cv_t<int const *const volatile>, int const *), "");
  static_assert(__is_same(remove_cv_t<int const *const volatile __restrict>, int const *__restrict), "");
  static_assert(__is_same(remove_cv_t<int const *const volatile _Nonnull>, int const *_Nonnull), "");
  static_assert(__is_same(remove_cv_t<int &>, int &), "");
  static_assert(__is_same(remove_cv_t<int const volatile &>, int const volatile &), "");
  static_assert(__is_same(remove_cv_t<int &&>, int &&), "");
  static_assert(__is_same(remove_cv_t<int const volatile &&>, int const volatile &&), "");
  static_assert(__is_same(remove_cv_t<int()>, int()), "");
  static_assert(__is_same(remove_cv_t<int (*const volatile)()>, int (*)()), "");
  static_assert(__is_same(remove_cv_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_cv_t<S>, S), "");
  static_assert(__is_same(remove_cv_t<const S>, S), "");
  static_assert(__is_same(remove_cv_t<volatile S>, S), "");
  static_assert(__is_same(remove_cv_t<const volatile S>, S), "");
  static_assert(__is_same(remove_cv_t<int S::*const volatile>, int S::*), "");
  static_assert(__is_same(remove_cv_t<int (S::*const volatile)()>, int(S::*)()), "");
}

template <class T> using add_pointer_t = __add_pointer(T);

void add_pointer() {
  static_assert(__is_same(add_pointer_t<void>, void *), "");
  static_assert(__is_same(add_pointer_t<const void>, const void *), "");
  static_assert(__is_same(add_pointer_t<volatile void>, volatile void *), "");
  static_assert(__is_same(add_pointer_t<const volatile void>, const volatile void *), "");
  static_assert(__is_same(add_pointer_t<int>, int *), "");
  static_assert(__is_same(add_pointer_t<const int>, const int *), "");
  static_assert(__is_same(add_pointer_t<volatile int>, volatile int *), "");
  static_assert(__is_same(add_pointer_t<const volatile int>, const volatile int *), "");
  static_assert(__is_same(add_pointer_t<int *>, int **), "");
  static_assert(__is_same(add_pointer_t<int &>, int *), "");
  static_assert(__is_same(add_pointer_t<int &&>, int *), "");
  static_assert(__is_same(add_pointer_t<int()>, int (*)()), "");
  static_assert(__is_same(add_pointer_t<int (*)()>, int (**)()), "");
  static_assert(__is_same(add_pointer_t<int (&)()>, int (*)()), "");

  static_assert(__is_same(add_pointer_t<S>, S *), "");
  static_assert(__is_same(add_pointer_t<const S>, const S *), "");
  static_assert(__is_same(add_pointer_t<volatile S>, volatile S *), "");
  static_assert(__is_same(add_pointer_t<const volatile S>, const volatile S *), "");
  static_assert(__is_same(add_pointer_t<int S::*>, int S::**), "");
  static_assert(__is_same(add_pointer_t<int (S::*)()>, int(S::**)()), "");

  static_assert(__is_same(add_pointer_t<int __attribute__((address_space(1)))>, int __attribute__((address_space(1))) *), "");
  static_assert(__is_same(add_pointer_t<S __attribute__((address_space(2)))>, S __attribute__((address_space(2))) *), "");
}

template <class T> using remove_pointer_t = __remove_pointer(T);

void remove_pointer() {
  static_assert(__is_same(remove_pointer_t<void>, void), "");
  static_assert(__is_same(remove_pointer_t<const void>, const void), "");
  static_assert(__is_same(remove_pointer_t<volatile void>, volatile void), "");
  static_assert(__is_same(remove_pointer_t<const volatile void>, const volatile void), "");
  static_assert(__is_same(remove_pointer_t<int>, int), "");
  static_assert(__is_same(remove_pointer_t<const int>, const int), "");
  static_assert(__is_same(remove_pointer_t<volatile int>, volatile int), "");
  static_assert(__is_same(remove_pointer_t<const volatile int>, const volatile int), "");
  static_assert(__is_same(remove_pointer_t<int *>, int), "");
  static_assert(__is_same(remove_pointer_t<const int *>, const int), "");
  static_assert(__is_same(remove_pointer_t<volatile int *>, volatile int), "");
  static_assert(__is_same(remove_pointer_t<const volatile int *>, const volatile int), "");
  static_assert(__is_same(remove_pointer_t<int *const>, int), "");
  static_assert(__is_same(remove_pointer_t<int *volatile>, int), "");
  static_assert(__is_same(remove_pointer_t<int *const volatile>, int), "");
  static_assert(__is_same(remove_pointer_t<int &>, int &), "");
  static_assert(__is_same(remove_pointer_t<int &&>, int &&), "");
  static_assert(__is_same(remove_pointer_t<int()>, int()), "");
  static_assert(__is_same(remove_pointer_t<int (*)()>, int()), "");
  static_assert(__is_same(remove_pointer_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_pointer_t<S>, S), "");
  static_assert(__is_same(remove_pointer_t<const S>, const S), "");
  static_assert(__is_same(remove_pointer_t<volatile S>, volatile S), "");
  static_assert(__is_same(remove_pointer_t<const volatile S>, const volatile S), "");
  static_assert(__is_same(remove_pointer_t<int S::*>, int S::*), "");
  static_assert(__is_same(remove_pointer_t<int (S::*)()>, int(S::*)()), "");

  static_assert(__is_same(remove_pointer_t<int __attribute__((address_space(1))) *>, int __attribute__((address_space(1)))), "");
  static_assert(__is_same(remove_pointer_t<S __attribute__((address_space(2))) *>, S  __attribute__((address_space(2)))), "");

  static_assert(__is_same(remove_pointer_t<int (^)(char)>, int (^)(char)), "");
}

template <class T> using add_lvalue_reference_t = __add_lvalue_reference(T);

void add_lvalue_reference() {
  static_assert(__is_same(add_lvalue_reference_t<void>, void), "");
  static_assert(__is_same(add_lvalue_reference_t<const void>, const void), "");
  static_assert(__is_same(add_lvalue_reference_t<volatile void>, volatile void), "");
  static_assert(__is_same(add_lvalue_reference_t<const volatile void>, const volatile void), "");
  static_assert(__is_same(add_lvalue_reference_t<int>, int &), "");
  static_assert(__is_same(add_lvalue_reference_t<const int>, const int &), "");
  static_assert(__is_same(add_lvalue_reference_t<volatile int>, volatile int &), "");
  static_assert(__is_same(add_lvalue_reference_t<const volatile int>, const volatile int &), "");
  static_assert(__is_same(add_lvalue_reference_t<int *>, int *&), "");
  static_assert(__is_same(add_lvalue_reference_t<int &>, int &), "");
  static_assert(__is_same(add_lvalue_reference_t<int &&>, int &), ""); // reference collapsing
  static_assert(__is_same(add_lvalue_reference_t<int()>, int (&)()), "");
  static_assert(__is_same(add_lvalue_reference_t<int (*)()>, int (*&)()), "");
  static_assert(__is_same(add_lvalue_reference_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(add_lvalue_reference_t<S>, S &), "");
  static_assert(__is_same(add_lvalue_reference_t<const S>, const S &), "");
  static_assert(__is_same(add_lvalue_reference_t<volatile S>, volatile S &), "");
  static_assert(__is_same(add_lvalue_reference_t<const volatile S>, const volatile S &), "");
  static_assert(__is_same(add_lvalue_reference_t<int S::*>, int S::*&), "");
  static_assert(__is_same(add_lvalue_reference_t<int (S::*)()>, int(S::*&)()), "");
}

template <class T> using add_rvalue_reference_t = __add_rvalue_reference(T);

void add_rvalue_reference() {
  static_assert(__is_same(add_rvalue_reference_t<void>, void), "");
  static_assert(__is_same(add_rvalue_reference_t<const void>, const void), "");
  static_assert(__is_same(add_rvalue_reference_t<volatile void>, volatile void), "");
  static_assert(__is_same(add_rvalue_reference_t<const volatile void>, const volatile void), "");
  static_assert(__is_same(add_rvalue_reference_t<int>, int &&), "");
  static_assert(__is_same(add_rvalue_reference_t<const int>, const int &&), "");
  static_assert(__is_same(add_rvalue_reference_t<volatile int>, volatile int &&), "");
  static_assert(__is_same(add_rvalue_reference_t<const volatile int>, const volatile int &&), "");
  static_assert(__is_same(add_rvalue_reference_t<int *>, int *&&), "");
  static_assert(__is_same(add_rvalue_reference_t<int &>, int &), ""); // reference collapsing
  static_assert(__is_same(add_rvalue_reference_t<int &&>, int &&), "");
  static_assert(__is_same(add_rvalue_reference_t<int()>, int(&&)()), "");
  static_assert(__is_same(add_rvalue_reference_t<int (*)()>, int (*&&)()), "");
  static_assert(__is_same(add_rvalue_reference_t<int (&)()>, int (&)()), ""); // reference collapsing

  static_assert(__is_same(add_rvalue_reference_t<S>, S &&), "");
  static_assert(__is_same(add_rvalue_reference_t<const S>, const S &&), "");
  static_assert(__is_same(add_rvalue_reference_t<volatile S>, volatile S &&), "");
  static_assert(__is_same(add_rvalue_reference_t<const volatile S>, const volatile S &&), "");
  static_assert(__is_same(add_rvalue_reference_t<int S::*>, int S::*&&), "");
  static_assert(__is_same(add_rvalue_reference_t<int (S::*)()>, int(S::* &&)()), "");
}

template <class T> using remove_reference_t = __remove_reference_t(T);

void check_remove_reference() {
  static_assert(__is_same(remove_reference_t<void>, void), "");
  static_assert(__is_same(remove_reference_t<const volatile void>, const volatile void), "");
  static_assert(__is_same(remove_reference_t<int>, int), "");
  static_assert(__is_same(remove_reference_t<const int>, const int), "");
  static_assert(__is_same(remove_reference_t<volatile int>, volatile int), "");
  static_assert(__is_same(remove_reference_t<const volatile int>, const volatile int), "");
  static_assert(__is_same(remove_reference_t<int *>, int *), "");
  static_assert(__is_same(remove_reference_t<int *const volatile>, int *const volatile), "");
  static_assert(__is_same(remove_reference_t<int const *const volatile>, int const *const volatile), "");
  static_assert(__is_same(remove_reference_t<int &>, int), "");
  static_assert(__is_same(remove_reference_t<int const volatile &>, int const volatile), "");
  static_assert(__is_same(remove_reference_t<int &&>, int), "");
  static_assert(__is_same(remove_reference_t<int const volatile &&>, int const volatile), "");
  static_assert(__is_same(remove_reference_t<int()>, int()), "");
  static_assert(__is_same(remove_reference_t<int (*const volatile)()>, int (*const volatile)()), "");
  static_assert(__is_same(remove_reference_t<int (&)()>, int()), "");

  static_assert(__is_same(remove_reference_t<S>, S), "");
  static_assert(__is_same(remove_reference_t<S &>, S), "");
  static_assert(__is_same(remove_reference_t<S &&>, S), "");
  static_assert(__is_same(remove_reference_t<const S>, const S), "");
  static_assert(__is_same(remove_reference_t<const S &>, const S), "");
  static_assert(__is_same(remove_reference_t<const S &&>, const S), "");
  static_assert(__is_same(remove_reference_t<volatile S>, volatile S), "");
  static_assert(__is_same(remove_reference_t<volatile S &>, volatile S), "");
  static_assert(__is_same(remove_reference_t<volatile S &&>, volatile S), "");
  static_assert(__is_same(remove_reference_t<const volatile S>, const volatile S), "");
  static_assert(__is_same(remove_reference_t<const volatile S &>, const volatile S), "");
  static_assert(__is_same(remove_reference_t<const volatile S &&>, const volatile S), "");
  static_assert(__is_same(remove_reference_t<int S::*const volatile &>, int S::*const volatile), "");
  static_assert(__is_same(remove_reference_t<int (S::*const volatile &)()>, int(S::*const volatile)()), "");
  static_assert(__is_same(remove_reference_t<int (S::*const volatile &&)() &>, int(S::*const volatile)() &), "");
}

template <class T> using remove_cvref_t = __remove_cvref(T);

void check_remove_cvref() {
  static_assert(__is_same(remove_cvref_t<void>, void), "");
  static_assert(__is_same(remove_cvref_t<const volatile void>, void), "");
  static_assert(__is_same(remove_cvref_t<int>, int), "");
  static_assert(__is_same(remove_cvref_t<const int>, int), "");
  static_assert(__is_same(remove_cvref_t<volatile int>, int), "");
  static_assert(__is_same(remove_cvref_t<const volatile int>, int), "");
  static_assert(__is_same(remove_cvref_t<int *>, int *), "");
  static_assert(__is_same(remove_cvref_t<int *const volatile>, int *), "");
  static_assert(__is_same(remove_cvref_t<int const *const volatile>, int const *), "");
  static_assert(__is_same(remove_cvref_t<int const *const volatile __restrict>, int const *__restrict), "");
  static_assert(__is_same(remove_cvref_t<int const *const volatile _Nonnull>, int const *_Nonnull), "");
  static_assert(__is_same(remove_cvref_t<int &>, int), "");
  static_assert(__is_same(remove_cvref_t<int const volatile &>, int), "");
  static_assert(__is_same(remove_cvref_t<int &&>, int), "");
  static_assert(__is_same(remove_cvref_t<int const volatile &&>, int), "");
  static_assert(__is_same(remove_cvref_t<int()>, int()), "");
  static_assert(__is_same(remove_cvref_t<int (*const volatile)()>, int (*)()), "");
  static_assert(__is_same(remove_cvref_t<int (&)()>, int()), "");

  static_assert(__is_same(remove_cvref_t<S>, S), "");
  static_assert(__is_same(remove_cvref_t<S &>, S), "");
  static_assert(__is_same(remove_cvref_t<S &&>, S), "");
  static_assert(__is_same(remove_cvref_t<const S>, S), "");
  static_assert(__is_same(remove_cvref_t<const S &>, S), "");
  static_assert(__is_same(remove_cvref_t<const S &&>, S), "");
  static_assert(__is_same(remove_cvref_t<volatile S>, S), "");
  static_assert(__is_same(remove_cvref_t<volatile S &>, S), "");
  static_assert(__is_same(remove_cvref_t<volatile S &&>, S), "");
  static_assert(__is_same(remove_cvref_t<const volatile S>, S), "");
  static_assert(__is_same(remove_cvref_t<const volatile S &>, S), "");
  static_assert(__is_same(remove_cvref_t<const volatile S &&>, S), "");
  static_assert(__is_same(remove_cvref_t<int S::*const volatile>, int S::*), "");
  static_assert(__is_same(remove_cvref_t<int (S::*const volatile)()>, int(S::*)()), "");
  static_assert(__is_same(remove_cvref_t<int (S::*const volatile)() &>, int(S::*)() &), "");
  static_assert(__is_same(remove_cvref_t<int (S::*const volatile)() &&>, int(S::*)() &&), "");
}

template <class T> using decay_t = __decay(T);

void check_decay() {
  static_assert(__is_same(decay_t<void>, void), "");
  static_assert(__is_same(decay_t<const volatile void>, void), "");
  static_assert(__is_same(decay_t<int>, int), "");
  static_assert(__is_same(decay_t<const int>, int), "");
  static_assert(__is_same(decay_t<volatile int>, int), "");
  static_assert(__is_same(decay_t<const volatile int>, int), "");
  static_assert(__is_same(decay_t<int *>, int *), "");
  static_assert(__is_same(decay_t<int *const volatile>, int *), "");
  static_assert(__is_same(decay_t<int *const volatile __restrict>, int *), "");
  static_assert(__is_same(decay_t<int const *const volatile>, int const *), "");
  static_assert(__is_same(decay_t<int const *const volatile _Nonnull>, int const *), "");
  static_assert(__is_same(decay_t<int &>, int), "");
  static_assert(__is_same(decay_t<int const volatile &>, int), "");
  static_assert(__is_same(decay_t<int &&>, int), "");
  static_assert(__is_same(decay_t<int const volatile &&>, int), "");
  static_assert(__is_same(decay_t<int()>, int (*)()), "");
  static_assert(__is_same(decay_t<int (*)()>, int (*)()), "");
  static_assert(__is_same(decay_t<int (*const)()>, int (*)()), "");
  static_assert(__is_same(decay_t<int (*volatile)()>, int (*)()), "");
  static_assert(__is_same(decay_t<int (*const volatile)()>, int (*)()), "");
  static_assert(__is_same(decay_t<int (&)()>, int (*)()), "");
  static_assert(__is_same(decay_t<IntAr>, int *), "");
  static_assert(__is_same(decay_t<IntArNB>, int *), "");

  static_assert(__is_same(decay_t<S>, S), "");
  static_assert(__is_same(decay_t<S &>, S), "");
  static_assert(__is_same(decay_t<S &&>, S), "");
  static_assert(__is_same(decay_t<const S>, S), "");
  static_assert(__is_same(decay_t<const S &>, S), "");
  static_assert(__is_same(decay_t<const S &&>, S), "");
  static_assert(__is_same(decay_t<volatile S>, S), "");
  static_assert(__is_same(decay_t<volatile S &>, S), "");
  static_assert(__is_same(decay_t<volatile S &&>, S), "");
  static_assert(__is_same(decay_t<const volatile S>, S), "");
  static_assert(__is_same(decay_t<const volatile S &>, S), "");
  static_assert(__is_same(decay_t<const volatile S &&>, S), "");
  static_assert(__is_same(decay_t<int S::*const volatile>, int S::*), "");
  static_assert(__is_same(decay_t<int (S::*const volatile)()>, int(S::*)()), "");
  static_assert(__is_same(decay_t<int S::*const volatile &>, int S::*), "");
  static_assert(__is_same(decay_t<int (S::*const volatile &)()>, int(S::*)()), "");
  static_assert(__is_same(decay_t<int S::*const volatile &&>, int S::*), "");
}

template <class T> struct CheckAbominableFunction {};
template <class M>
struct CheckAbominableFunction<M S::*> {
  static void checks() {
    static_assert(__is_same(add_lvalue_reference_t<M>, M), "");
    static_assert(__is_same(add_pointer_t<M>, M), "");
    static_assert(__is_same(add_rvalue_reference_t<M>, M), "");
    static_assert(__is_same(decay_t<M>, M), "");
    static_assert(__is_same(remove_const_t<M>, M), "");
    static_assert(__is_same(remove_volatile_t<M>, M), "");
    static_assert(__is_same(remove_cv_t<M>, M), "");
    static_assert(__is_same(remove_cvref_t<M>, M), "");
    static_assert(__is_same(remove_pointer_t<M>, M), "");
    static_assert(__is_same(remove_reference_t<M>, M), "");

    static_assert(!__is_referenceable(M), "");
  }
};

void check_abominable_function() {
  { CheckAbominableFunction<int (S::*)() &> x; }
  { CheckAbominableFunction<int (S::*)() &&> x; }
  { CheckAbominableFunction<int (S::*)() const> x; }
  { CheckAbominableFunction<int (S::*)() const &> x; }
  { CheckAbominableFunction<int (S::*)() const &&> x; }
  { CheckAbominableFunction<int (S::*)() volatile> x; }
  { CheckAbominableFunction<int (S::*)() volatile &> x; }
  { CheckAbominableFunction<int (S::*)() volatile &&> x; }
  { CheckAbominableFunction<int (S::*)() const volatile> x; }
  { CheckAbominableFunction<int (S::*)() const volatile &> x; }
  { CheckAbominableFunction<int (S::*)() const volatile &&> x; }
}

template <class T> using make_signed_t = __make_signed(T);
template <class T, class Expected>
void check_make_signed() {
  static_assert(__is_same(make_signed_t<T>, Expected), "");
  static_assert(__is_same(make_signed_t<const T>, const Expected), "");
  static_assert(__is_same(make_signed_t<volatile T>, volatile Expected), "");
  static_assert(__is_same(make_signed_t<const volatile T>, const volatile Expected), "");
}

#if defined(__ILP32__) || defined(__LLP64__)
  using Int64 = long long;
  using UInt64 = unsigned long long;
#elif defined(__LP64__) || defined(__ILP64__) || defined(__SILP64__)
  using Int64 = long;
  using UInt64 = unsigned long;
#else
#error Programming model currently unsupported; please add a new entry.
#endif

enum UnscopedBool : bool {}; // deliberately char
enum class ScopedBool : bool {}; // deliberately char
enum UnscopedChar : char {}; // deliberately char
enum class ScopedChar : char {}; // deliberately char
enum UnscopedUChar : unsigned char {};
enum class ScopedUChar : unsigned char {};
enum UnscopedLongLong : long long {};
enum UnscopedULongLong : unsigned long long {};
enum class ScopedLongLong : long long {};
enum class ScopedULongLong : unsigned long long {};
enum class UnscopedInt128 : __int128 {};
enum class ScopedInt128 : __int128 {};
enum class UnscopedUInt128 : unsigned __int128 {};
enum class ScopedUInt128 : unsigned __int128 {};
enum UnscopedBit : unsigned _BitInt(1) {};
enum ScopedBit : unsigned _BitInt(1) {};
enum UnscopedIrregular : _BitInt(21) {};
enum UnscopedUIrregular : unsigned _BitInt(21) {};
enum class ScopedIrregular : _BitInt(21) {};
enum class ScopedUIrregular : unsigned _BitInt(21) {};

void make_signed() {
  check_make_signed<char, signed char>();
  check_make_signed<signed char, signed char>();
  check_make_signed<unsigned char, signed char>();
  check_make_signed<short, short>();
  check_make_signed<unsigned short, short>();
  check_make_signed<int, int>();
  check_make_signed<unsigned int, int>();
  check_make_signed<long, long>();
  check_make_signed<unsigned long, long>();
  check_make_signed<long long, long long>();
  check_make_signed<unsigned long long, long long>();
  check_make_signed<__int128, __int128>();
  check_make_signed<__uint128_t, __int128>();
  check_make_signed<_BitInt(65), _BitInt(65)>();
  check_make_signed<unsigned _BitInt(65), _BitInt(65)>();

  check_make_signed<wchar_t, int>();
#if __cplusplus >= 202002L
  check_make_signed<char8_t, signed char>();
#endif
#if __cplusplus >= 201103L
  check_make_signed<char16_t, short>();
  check_make_signed<char32_t, int>();
#endif

  check_make_signed<UnscopedChar, signed char>();
  check_make_signed<ScopedChar, signed char>();
  check_make_signed<UnscopedUChar, signed char>();
  check_make_signed<ScopedUChar, signed char>();

  check_make_signed<UnscopedLongLong, Int64>();
  check_make_signed<UnscopedULongLong, Int64>();
  check_make_signed<ScopedLongLong, Int64>();
  check_make_signed<ScopedULongLong, Int64>();

  check_make_signed<UnscopedInt128, __int128>();
  check_make_signed<ScopedInt128, __int128>();
  check_make_signed<UnscopedUInt128, __int128>();
  check_make_signed<ScopedUInt128, __int128>();

  check_make_signed<UnscopedIrregular, _BitInt(21)>();
  check_make_signed<UnscopedUIrregular, _BitInt(21)>();
  check_make_signed<ScopedIrregular, _BitInt(21)>();
  check_make_signed<ScopedUIrregular, _BitInt(21)>();

  { using ExpectedError = __make_signed(bool); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'bool'}}
  { using ExpectedError = __make_signed(UnscopedBool); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'UnscopedBool' whose underlying type is 'bool'}}
  { using ExpectedError = __make_signed(ScopedBool); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'ScopedBool' whose underlying type is 'bool'}}
  { using ExpectedError = __make_signed(unsigned _BitInt(1)); }
  // expected-error@*:*{{'make_signed' is only compatible with non-_BitInt(1) integers and enum types, but was given 'unsigned _BitInt(1)'}}
  { using ExpectedError = __make_signed(UnscopedBit); }
  // expected-error@*:*{{'make_signed' is only compatible with non-_BitInt(1) integers and enum types, but was given 'UnscopedBit' whose underlying type is 'unsigned _BitInt(1)'}}
  { using ExpectedError = __make_signed(ScopedBit); }
  // expected-error@*:*{{'make_signed' is only compatible with non-_BitInt(1) integers and enum types, but was given 'ScopedBit' whose underlying type is 'unsigned _BitInt(1)'}}
  { using ExpectedError = __make_signed(int[]); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int[]'}}
  { using ExpectedError = __make_signed(int[5]); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int[5]'}}
  { using ExpectedError = __make_signed(void); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'void'}}
  { using ExpectedError = __make_signed(int *); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int *'}}
  { using ExpectedError = __make_signed(int &); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int &'}}
  { using ExpectedError = __make_signed(int &&); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int &&'}}
  { using ExpectedError = __make_signed(float); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'float'}}
  { using ExpectedError = __make_signed(double); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'double'}}
  { using ExpectedError = __make_signed(long double); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'long double'}}
  { using ExpectedError = __make_signed(S); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'S'}}
  { using ExpectedError = __make_signed(S *); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'S *'}}
  { using ExpectedError = __make_signed(int S::*); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int S::*'}}
  { using ExpectedError = __make_signed(int(S::*)()); }
  // expected-error@*:*{{'make_signed' is only compatible with non-bool integers and enum types, but was given 'int (S::*)()'}}
}

template <class T>
using make_unsigned_t = __make_unsigned(T);

template <class T, class Expected>
void check_make_unsigned() {
  static_assert(__is_same(make_unsigned_t<T>, Expected), "");
  static_assert(__is_same(make_unsigned_t<const T>, const Expected), "");
  static_assert(__is_same(make_unsigned_t<volatile T>, volatile Expected), "");
  static_assert(__is_same(make_unsigned_t<const volatile T>, const volatile Expected), "");
}

void make_unsigned() {
  check_make_unsigned<char, unsigned char>();
  check_make_unsigned<signed char, unsigned char>();
  check_make_unsigned<unsigned char, unsigned char>();
  check_make_unsigned<short, unsigned short>();
  check_make_unsigned<unsigned short, unsigned short>();
  check_make_unsigned<int, unsigned int>();
  check_make_unsigned<unsigned int, unsigned int>();
  check_make_unsigned<long, unsigned long>();
  check_make_unsigned<unsigned long, unsigned long>();
  check_make_unsigned<long long, unsigned long long>();
  check_make_unsigned<unsigned long long, unsigned long long>();
  check_make_unsigned<__int128, __uint128_t>();
  check_make_unsigned<__uint128_t, __uint128_t>();
  check_make_unsigned<_BitInt(65), unsigned _BitInt(65)>();
  check_make_unsigned<unsigned _BitInt(65), unsigned _BitInt(65)>();

  check_make_unsigned<wchar_t, unsigned int>();
#if __cplusplus >= 202002L
  check_make_unsigned<char8_t, unsigned char>();
#endif
#if __cplusplus >= 201103L
  check_make_unsigned<char16_t, unsigned short>();
  check_make_unsigned<char32_t, unsigned int>();
#endif

  check_make_unsigned<UnscopedChar, unsigned char>();
  check_make_unsigned<ScopedChar, unsigned char>();
  check_make_unsigned<UnscopedUChar, unsigned char>();
  check_make_unsigned<ScopedUChar, unsigned char>();

  check_make_unsigned<UnscopedLongLong, UInt64>();
  check_make_unsigned<UnscopedULongLong, UInt64>();
  check_make_unsigned<ScopedLongLong, UInt64>();
  check_make_unsigned<ScopedULongLong, UInt64>();

  check_make_unsigned<UnscopedInt128, unsigned __int128>();
  check_make_unsigned<ScopedInt128, unsigned __int128>();
  check_make_unsigned<UnscopedUInt128, unsigned __int128>();
  check_make_unsigned<ScopedUInt128, unsigned __int128>();

  check_make_unsigned<UnscopedIrregular, unsigned _BitInt(21)>();
  check_make_unsigned<UnscopedUIrregular, unsigned _BitInt(21)>();
  check_make_unsigned<ScopedIrregular, unsigned _BitInt(21)>();
  check_make_unsigned<ScopedUIrregular, unsigned _BitInt(21)>();

  { using ExpectedError = __make_unsigned(bool); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'bool'}}
  { using ExpectedError = __make_unsigned(UnscopedBool); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'UnscopedBool' whose underlying type is 'bool'}}
  { using ExpectedError = __make_unsigned(ScopedBool); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'ScopedBool' whose underlying type is 'bool'}}
  { using ExpectedError = __make_unsigned(unsigned _BitInt(1)); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-_BitInt(1) integers and enum types, but was given 'unsigned _BitInt(1)'}}
  { using ExpectedError = __make_unsigned(UnscopedBit); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-_BitInt(1) integers and enum types, but was given 'UnscopedBit'}}
  { using ExpectedError = __make_unsigned(ScopedBit); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-_BitInt(1) integers and enum types, but was given 'ScopedBit'}}
  { using ExpectedError = __make_unsigned(int[]); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int[]'}}
  { using ExpectedError = __make_unsigned(int[5]); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int[5]'}}
  { using ExpectedError = __make_unsigned(void); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'void'}}
  { using ExpectedError = __make_unsigned(int *); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int *'}}
  { using ExpectedError = __make_unsigned(int &); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int &'}}
  { using ExpectedError = __make_unsigned(int &&); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int &&'}}
  { using ExpectedError = __make_unsigned(float); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'float'}}
  { using ExpectedError = __make_unsigned(double); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'double'}}
  { using ExpectedError = __make_unsigned(long double); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'long double'}}
  { using ExpectedError = __make_unsigned(S); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'S'}}
  { using ExpectedError = __make_unsigned(S *); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'S *'}}
  { using ExpectedError = __make_unsigned(int S::*); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int S::*'}}
  { using ExpectedError = __make_unsigned(int(S::*)()); }
  // expected-error@*:*{{'make_unsigned' is only compatible with non-bool integers and enum types, but was given 'int (S::*)()'}}
}

template <class T> using remove_extent_t = __remove_extent(T);

void remove_extent() {
  static_assert(__is_same(remove_extent_t<void>, void), "");
  static_assert(__is_same(remove_extent_t<int>, int), "");
  static_assert(__is_same(remove_extent_t<int[]>, int), "");
  static_assert(__is_same(remove_extent_t<int[1]>, int), "");
  static_assert(__is_same(remove_extent_t<int[1][2]>, int[2]), "");
  static_assert(__is_same(remove_extent_t<int[][2]>, int[2]), "");
  static_assert(__is_same(remove_extent_t<const int[]>, const int), "");
  static_assert(__is_same(remove_extent_t<const int[1]>, const int), "");
  static_assert(__is_same(remove_extent_t<const int[1][2]>, const int[2]), "");
  static_assert(__is_same(remove_extent_t<const int[][2]>, const int[2]), "");
  static_assert(__is_same(remove_extent_t<volatile int[]>, volatile int), "");
  static_assert(__is_same(remove_extent_t<volatile int[1]>, volatile int), "");
  static_assert(__is_same(remove_extent_t<volatile int[1][2]>, volatile int[2]), "");
  static_assert(__is_same(remove_extent_t<volatile int[][2]>, volatile int[2]), "");
  static_assert(__is_same(remove_extent_t<const volatile int[]>, const volatile int), "");
  static_assert(__is_same(remove_extent_t<const volatile int[1]>, const volatile int), "");
  static_assert(__is_same(remove_extent_t<const volatile int[1][2]>, const volatile int[2]), "");
  static_assert(__is_same(remove_extent_t<const volatile int[][2]>, const volatile int[2]), "");
  static_assert(__is_same(remove_extent_t<int *>, int *), "");
  static_assert(__is_same(remove_extent_t<int &>, int &), "");
  static_assert(__is_same(remove_extent_t<int &&>, int &&), "");
  static_assert(__is_same(remove_extent_t<int()>, int()), "");
  static_assert(__is_same(remove_extent_t<int (*)()>, int (*)()), "");
  static_assert(__is_same(remove_extent_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_extent_t<S>, S), "");
  static_assert(__is_same(remove_extent_t<int S::*>, int S::*), "");
  static_assert(__is_same(remove_extent_t<int (S::*)()>, int(S::*)()), "");

  using SomeArray = int[1][2];
  static_assert(__is_same(remove_extent_t<const SomeArray>, const int[2]), "");
}

template <class T> using remove_all_extents_t = __remove_all_extents(T);

void remove_all_extents() {
  static_assert(__is_same(remove_all_extents_t<void>, void), "");
  static_assert(__is_same(remove_all_extents_t<int>, int), "");
  static_assert(__is_same(remove_all_extents_t<const int>, const int), "");
  static_assert(__is_same(remove_all_extents_t<volatile int>, volatile int), "");
  static_assert(__is_same(remove_all_extents_t<const volatile int>, const volatile int), "");
  static_assert(__is_same(remove_all_extents_t<int[]>, int), "");
  static_assert(__is_same(remove_all_extents_t<int[1]>, int), "");
  static_assert(__is_same(remove_all_extents_t<int[1][2]>, int), "");
  static_assert(__is_same(remove_all_extents_t<int[][2]>, int), "");
  static_assert(__is_same(remove_all_extents_t<const int[]>, const int), "");
  static_assert(__is_same(remove_all_extents_t<const int[1]>, const int), "");
  static_assert(__is_same(remove_all_extents_t<const int[1][2]>, const int), "");
  static_assert(__is_same(remove_all_extents_t<const int[][2]>, const int), "");
  static_assert(__is_same(remove_all_extents_t<volatile int[]>, volatile int), "");
  static_assert(__is_same(remove_all_extents_t<volatile int[1]>, volatile int), "");
  static_assert(__is_same(remove_all_extents_t<volatile int[1][2]>, volatile int), "");
  static_assert(__is_same(remove_all_extents_t<volatile int[][2]>, volatile int), "");
  static_assert(__is_same(remove_all_extents_t<const volatile int[]>, const volatile int), "");
  static_assert(__is_same(remove_all_extents_t<const volatile int[1]>, const volatile int), "");
  static_assert(__is_same(remove_all_extents_t<const volatile int[1][2]>, const volatile int), "");
  static_assert(__is_same(remove_all_extents_t<const volatile int[][2]>, const volatile int), "");
  static_assert(__is_same(remove_all_extents_t<int *>, int *), "");
  static_assert(__is_same(remove_all_extents_t<int &>, int &), "");
  static_assert(__is_same(remove_all_extents_t<int &&>, int &&), "");
  static_assert(__is_same(remove_all_extents_t<int()>, int()), "");
  static_assert(__is_same(remove_all_extents_t<int (*)()>, int (*)()), "");
  static_assert(__is_same(remove_all_extents_t<int (&)()>, int (&)()), "");

  static_assert(__is_same(remove_all_extents_t<S>, S), "");
  static_assert(__is_same(remove_all_extents_t<int S::*>, int S::*), "");
  static_assert(__is_same(remove_all_extents_t<int (S::*)()>, int(S::*)()), "");

  using SomeArray = int[1][2];
  static_assert(__is_same(remove_all_extents_t<const SomeArray>, const int), "");
}