minix/external/bsd/llvm/dist/clang/test/PCH/cxx-templates.h

// Header for PCH test cxx-templates.cpp

template <typename T1, typename T2>
struct S;

template <typename T1, typename T2>
struct S {
  S() { }
  static void templ();
};

template <typename T>
struct S<int, T> {
    static void partial();
};

template <>
struct S<int, float> {
    static void explicit_special();
};

template <int x>
int tmpl_f2() { return x; }

template <typename T, int y>
T templ_f(T x) {
  int z = templ_f<int, 5>(3);
  z = tmpl_f2<y+2>();
  T data[y];
  return x+y;
}

void govl(int);
void govl(char);

template <typename T>
struct Unresolv {
  void f() {
    govl(T());
  }
};

template <typename T>
struct Dep {
  typedef typename T::type Ty;
  void f() {
    Ty x = Ty();
    T::my_f();
    int y = T::template my_templf<int>(0);
    ovl(y);
  }
  
  void ovl(int);
  void ovl(float);
};

template<typename T, typename A1>
inline T make_a(const A1& a1) {
  T::depend_declref();
  return T(a1);
}

template <class T> class UseBase {
  void foo();
  typedef int bar;
};

template <class T> class UseA : public UseBase<T> {
  using UseBase<T>::foo;
  using typename UseBase<T>::bar; 
};

template <class T> class Sub : public UseBase<int> { };

template <class _Ret, class _Tp>
  class mem_fun_t
  {
  public:
    explicit
    mem_fun_t(_Ret (_Tp::*__pf)())
     {}

  private:
    _Ret (_Tp::*_M_f)();
  };

template<unsigned N>
bool isInt(int x);

template<> bool isInt<8>(int x) {
  try { ++x; } catch(...) { --x; }
  return true;
}

template<typename _CharT>
int __copy_streambufs_eof(_CharT);

class basic_streambuf 
{
  void m() { }
  friend int __copy_streambufs_eof<>(int);
};

// PR 7660
template<typename T> struct S_PR7660 { void g(void (*)(T)); };
 template<> void S_PR7660<int>::g(void(*)(int)) {}

// PR 7670
template<typename> class C_PR7670;
template<> class C_PR7670<int>;
template<> class C_PR7670<int>;

template <bool B>
struct S2 {
    static bool V;
};

extern template class S2<true>;

template <typename T>
struct S3 {
    void m();
};

template <typename T>
inline void S3<T>::m() { }

template <typename T>
struct S4 {
    void m() { }
};
extern template struct S4<int>;

void S4ImplicitInst() {
    S4<int> s;
    s.m();
}

struct S5 {
  S5(int x);
};

struct TS5 {
  S5 s;
  template <typename T>
  TS5(T y) : s(y) {}
};

// PR 8134
template<class T> void f_PR8134(T);
template<class T> void f_PR8134(T);
void g_PR8134() { f_PR8134(0); f_PR8134('x'); }

// rdar8580149
template <typename T>
struct S6;

template <typename T, unsigned N>
struct S6<const T [N]>
{
private:
   typedef const T t1[N];
public:
   typedef t1& t2;
};

template<typename T>
  struct S7;

template<unsigned N>
struct S7<int[N]> : S6<const int[N]> { };

// Zero-length template argument lists
namespace ZeroLengthExplicitTemplateArgs {
  template<typename T> void h();

  struct Y { 
    template<typename T> void f();
  };

  template<typename T>
    void f(T *ptr) {
    T::template g<>(17);
    ptr->template g2<>(17);
    h<T>();
    h<int>();
    Y y;
    y.f<int>();
  }

  struct X {
    template<typename T> static void g(T);
    template<typename T> void g2(T);
  };
}

namespace NonTypeTemplateParmContext {
  template<typename T, int inlineCapacity = 0> class Vector { };

  struct String {
    template<int inlineCapacity>
    static String adopt(Vector<char, inlineCapacity>&);
  };

  template<int inlineCapacity>
    inline bool equalIgnoringNullity(const Vector<char, inlineCapacity>& a, const String& b) { return false; }
}

// <rdar://problem/11112464>
template< typename > class Foo;

template< typename T >
class Foo : protected T
{
 public:
  Foo& operator=( const Foo& other );
};

template<typename...A> struct NestedExpansion {
  template<typename...B> auto f(A...a, B...b) -> decltype(g(a + b...));
};
template struct NestedExpansion<char, char, char>;

namespace rdar13135282 {
template < typename _Alloc >
void foo(_Alloc = _Alloc());

template < bool > class __pool;

template < template < bool > class _PoolTp >
struct __common_pool {
  typedef _PoolTp < 0 > pool_type;
};

template < template < bool > class _PoolTp >
struct __common_pool_base : __common_pool < _PoolTp > {};

template < template < bool > class _PoolTp >
struct A : __common_pool_base < _PoolTp > {};

template < typename _Poolp = A < __pool > >
struct __mt_alloc {
  typedef typename _Poolp::pool_type __pool_type;
  __mt_alloc() {
    foo<__mt_alloc<> >();
  }
};
}

namespace PR13020 {
template<typename T>
void f() {
 enum E {
   enumerator
 };

 T t = enumerator;
}

template void f<int>();
}

template<typename T> void doNotDeserialize() {}
template<typename T> struct ContainsDoNotDeserialize {
  static int doNotDeserialize;
};
template<typename T> struct ContainsDoNotDeserialize2 {
  static void doNotDeserialize();
};
template<typename T> int ContainsDoNotDeserialize<T>::doNotDeserialize = 0;
template<typename T> void ContainsDoNotDeserialize2<T>::doNotDeserialize() {}


template<typename T> void DependentSpecializedFunc(T x) { x.foo(); }
template<typename T> class DependentSpecializedFuncClass {
  void foo() {}
  friend void DependentSpecializedFunc<>(DependentSpecializedFuncClass);
};

namespace cyclic_module_load {
  // Reduced from a libc++ modules crasher.
  namespace std {
    template<class> class mask_array;
    template<class> class valarray {
    public:
      valarray(const valarray &v);
    };

    class gslice {
      valarray<int> x;
      valarray<int> stride() const { return x; }
    };

    template<class> class mask_array {
      template<class> friend class valarray;
    };
  }
}

namespace local_extern {
  template<typename T> int f() {
    extern int arr[3];
    {
      extern T arr;
      return sizeof(arr);
    }
  }
  template<typename T> int g() {
    extern int arr[3];
    extern T arr;
    return sizeof(arr);
  }
}