FM / protobuf

/usr/include/google/protobuf

Name	Size	Mode	Actions
io/	-	0755	rm
stubs/	-	0755	rm
util/	-	0755	rm
any.h	6181	0644	edit dl rm
any.pb.h	17726	0644	edit dl rm
any.proto	5878	0644	edit dl rm
api.pb.h	64196	0644	edit dl rm
api.proto	7734	0644	edit dl rm
arena.h	31329	0644	edit dl rm
arenastring.h	14674	0644	edit dl rm
arena_impl.h	14316	0644	edit dl rm
descriptor.h	96357	0644	edit dl rm
descriptor.pb.h	587894	0644	edit dl rm
descriptor.proto	37986	0644	edit dl rm
descriptor_database.h	19379	0644	edit dl rm
duration.pb.h	9865	0644	edit dl rm
duration.proto	4888	0644	edit dl rm
dynamic_message.h	9986	0644	edit dl rm
empty.pb.h	7683	0644	edit dl rm
empty.proto	2422	0644	edit dl rm
extension_set.h	78461	0644	edit dl rm
extension_set_inl.h	12756	0644	edit dl rm
field_mask.pb.h	11825	0644	edit dl rm
field_mask.proto	8192	0644	edit dl rm
generated_enum_reflection.h	3954	0644	edit dl rm
generated_enum_util.h	3266	0644	edit dl rm
generated_message_reflection.h	12880	0644	edit dl rm
generated_message_table_driven.h	12610	0644	edit dl rm
generated_message_util.h	9560	0644	edit dl rm
has_bits.h	3528	0644	edit dl rm
implicit_weak_message.h	7014	0644	edit dl rm
inlined_string_field.h	9332	0644	edit dl rm
map.h	46287	0644	edit dl rm
map_entry.h	7276	0644	edit dl rm
map_entry_lite.h	26016	0644	edit dl rm
map_field.h	31208	0644	edit dl rm
map_field_inl.h	14512	0644	edit dl rm
map_field_lite.h	7559	0644	edit dl rm
map_type_handler.h	39082	0644	edit dl rm
message.h	61613	0644	edit dl rm
message_lite.h	25964	0644	edit dl rm
metadata.h	1857	0644	edit dl rm
metadata_lite.h	8260	0644	edit dl rm
parse_context.h	29812	0644	edit dl rm
port.h	2050	0644	edit dl rm
port_def.inc	17039	0644	edit dl rm
port_undef.inc	3498	0644	edit dl rm
reflection.h	22717	0644	edit dl rm
reflection_ops.h	3686	0644	edit dl rm
repeated_field.h	101032	0644	edit dl rm
service.h	13159	0644	edit dl rm
source_context.pb.h	12740	0644	edit dl rm
source_context.proto	2352	0644	edit dl rm
struct.pb.h	43629	0644	edit dl rm
struct.proto	3780	0644	edit dl rm
text_format.h	28948	0644	edit dl rm
timestamp.pb.h	9928	0644	edit dl rm
timestamp.proto	6200	0644	edit dl rm
type.pb.h	105722	0644	edit dl rm
type.proto	6129	0644	edit dl rm
unknown_field_set.h	14401	0644	edit dl rm
wire_format.h	17660	0644	edit dl rm
wire_format_lite.h	84033	0644	edit dl rm
wrappers.pb.h	61421	0644	edit dl rm
wrappers.proto	4035	0644	edit dl rm

Edit: /usr/include/google/protobuf/reflection.h (22717B)

// Protocol Buffers - Google's data interchange format
// Copyright 2008 Google Inc.  All rights reserved.
// https://developers.google.com/protocol-buffers/
//
// Redistribution and use in source and binary forms, with or without
// modification, are permitted provided that the following conditions are
// met:
//
//     * Redistributions of source code must retain the above copyright
// notice, this list of conditions and the following disclaimer.
//     * Redistributions in binary form must reproduce the above
// copyright notice, this list of conditions and the following disclaimer
// in the documentation and/or other materials provided with the
// distribution.
//     * Neither the name of Google Inc. nor the names of its
// contributors may be used to endorse or promote products derived from
// this software without specific prior written permission.
//
// THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
// "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
// LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
// A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
// OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
// SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
// LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
// DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
// THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
// OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

// This header defines the RepeatedFieldRef class template used to access
// repeated fields with protobuf reflection API.
#ifndef GOOGLE_PROTOBUF_REFLECTION_H__
#define GOOGLE_PROTOBUF_REFLECTION_H__

#include <memory>

#include <google/protobuf/message.h>
#include <google/protobuf/generated_enum_util.h>

#ifdef SWIG
#error "You cannot SWIG proto headers"
#endif

#include <google/protobuf/port_def.inc>

namespace google {
namespace protobuf {
namespace internal {
template <typename T, typename Enable = void>
struct RefTypeTraits;
}  // namespace internal

template <typename T>
RepeatedFieldRef<T> Reflection::GetRepeatedFieldRef(
    const Message& message, const FieldDescriptor* field) const {
  return RepeatedFieldRef<T>(message, field);
}

template <typename T>
MutableRepeatedFieldRef<T> Reflection::GetMutableRepeatedFieldRef(
    Message* message, const FieldDescriptor* field) const {
  return MutableRepeatedFieldRef<T>(message, field);
}

// RepeatedFieldRef definition for non-message types.
template <typename T>
class RepeatedFieldRef<
    T, typename std::enable_if<!std::is_base_of<Message, T>::value>::type> {
  typedef typename internal::RefTypeTraits<T>::iterator IteratorType;
  typedef typename internal::RefTypeTraits<T>::AccessorType AccessorType;

public:
  bool empty() const { return accessor_->IsEmpty(data_); }
  int size() const { return accessor_->Size(data_); }
  T Get(int index) const { return accessor_->template Get<T>(data_, index); }

typedef IteratorType iterator;
  typedef IteratorType const_iterator;
  typedef T value_type;
  typedef T& reference;
  typedef const T& const_reference;
  typedef int size_type;
  typedef ptrdiff_t difference_type;

iterator begin() const { return iterator(data_, accessor_, true); }
  iterator end() const { return iterator(data_, accessor_, false); }

private:
  friend class Reflection;
  RepeatedFieldRef(const Message& message, const FieldDescriptor* field) {
    const Reflection* reflection = message.GetReflection();
    data_ = reflection->RepeatedFieldData(const_cast<Message*>(&message), field,
                                          internal::RefTypeTraits<T>::cpp_type,
                                          NULL);
    accessor_ = reflection->RepeatedFieldAccessor(field);
  }

const void* data_;
  const AccessorType* accessor_;
};

// MutableRepeatedFieldRef definition for non-message types.
template <typename T>
class MutableRepeatedFieldRef<
    T, typename std::enable_if<!std::is_base_of<Message, T>::value>::type> {
  typedef typename internal::RefTypeTraits<T>::AccessorType AccessorType;

public:
  bool empty() const { return accessor_->IsEmpty(data_); }
  int size() const { return accessor_->Size(data_); }
  T Get(int index) const { return accessor_->template Get<T>(data_, index); }

void Set(int index, const T& value) const {
    accessor_->template Set<T>(data_, index, value);
  }
  void Add(const T& value) const { accessor_->template Add<T>(data_, value); }
  void RemoveLast() const { accessor_->RemoveLast(data_); }
  void SwapElements(int index1, int index2) const {
    accessor_->SwapElements(data_, index1, index2);
  }
  void Clear() const { accessor_->Clear(data_); }

void Swap(const MutableRepeatedFieldRef& other) const {
    accessor_->Swap(data_, other.accessor_, other.data_);
  }

template <typename Container>
  void MergeFrom(const Container& container) const {
    typedef typename Container::const_iterator Iterator;
    for (Iterator it = container.begin(); it != container.end(); ++it) {
      Add(*it);
    }
  }
  template <typename Container>
  void CopyFrom(const Container& container) const {
    Clear();
    MergeFrom(container);
  }

void* data_;
  const AccessorType* accessor_;
};

// RepeatedFieldRef definition for message types.
template <typename T>
class RepeatedFieldRef<
    T, typename std::enable_if<std::is_base_of<Message, T>::value>::type> {
  typedef typename internal::RefTypeTraits<T>::iterator IteratorType;
  typedef typename internal::RefTypeTraits<T>::AccessorType AccessorType;

public:
  bool empty() const { return accessor_->IsEmpty(data_); }
  int size() const { return accessor_->Size(data_); }
  // This method returns a reference to the underlying message object if it
  // exists. If a message object doesn't exist (e.g., data stored in serialized
  // form), scratch_space will be filled with the data and a reference to it
  // will be returned.
  //
  // Example:
  //   RepeatedFieldRef<Message> h = ...
  //   unique_ptr<Message> scratch_space(h.NewMessage());
  //   const Message& item = h.Get(index, scratch_space.get());
  const T& Get(int index, T* scratch_space) const {
    return *static_cast<const T*>(accessor_->Get(data_, index, scratch_space));
  }
  // Create a new message of the same type as the messages stored in this
  // repeated field. Caller takes ownership of the returned object.
  T* NewMessage() const { return static_cast<T*>(default_instance_->New()); }

iterator begin() const {
    return iterator(data_, accessor_, true, NewMessage());
  }
  iterator end() const {
    // The end iterator must not be dereferenced, no need for scratch space.
    return iterator(data_, accessor_, false, nullptr);
  }

private:
  friend class Reflection;
  RepeatedFieldRef(const Message& message, const FieldDescriptor* field) {
    const Reflection* reflection = message.GetReflection();
    data_ = reflection->RepeatedFieldData(
        const_cast<Message*>(&message), field,
        internal::RefTypeTraits<T>::cpp_type,
        internal::RefTypeTraits<T>::GetMessageFieldDescriptor());
    accessor_ = reflection->RepeatedFieldAccessor(field);
    default_instance_ =
        reflection->GetMessageFactory()->GetPrototype(field->message_type());
  }

const void* data_;
  const AccessorType* accessor_;
  const Message* default_instance_;
};

// MutableRepeatedFieldRef definition for message types.
template <typename T>
class MutableRepeatedFieldRef<
    T, typename std::enable_if<std::is_base_of<Message, T>::value>::type> {
  typedef typename internal::RefTypeTraits<T>::AccessorType AccessorType;

public:
  bool empty() const { return accessor_->IsEmpty(data_); }
  int size() const { return accessor_->Size(data_); }
  // See comments for RepeatedFieldRef<Message>::Get()
  const T& Get(int index, T* scratch_space) const {
    return *static_cast<const T*>(accessor_->Get(data_, index, scratch_space));
  }
  // Create a new message of the same type as the messages stored in this
  // repeated field. Caller takes ownership of the returned object.
  T* NewMessage() const { return static_cast<T*>(default_instance_->New()); }

void Set(int index, const T& value) const {
    accessor_->Set(data_, index, &value);
  }
  void Add(const T& value) const { accessor_->Add(data_, &value); }
  void RemoveLast() const { accessor_->RemoveLast(data_); }
  void SwapElements(int index1, int index2) const {
    accessor_->SwapElements(data_, index1, index2);
  }
  void Clear() const { accessor_->Clear(data_); }

void Swap(const MutableRepeatedFieldRef& other) const {
    accessor_->Swap(data_, other.accessor_, other.data_);
  }

private:
  friend class Reflection;
  MutableRepeatedFieldRef(Message* message, const FieldDescriptor* field) {
    const Reflection* reflection = message->GetReflection();
    data_ = reflection->RepeatedFieldData(
        message, field, internal::RefTypeTraits<T>::cpp_type,
        internal::RefTypeTraits<T>::GetMessageFieldDescriptor());
    accessor_ = reflection->RepeatedFieldAccessor(field);
    default_instance_ =
        reflection->GetMessageFactory()->GetPrototype(field->message_type());
  }

void* data_;
  const AccessorType* accessor_;
  const Message* default_instance_;
};

namespace internal {
// Interfaces used to implement reflection RepeatedFieldRef API.
// Reflection::GetRepeatedAccessor() should return a pointer to an singleton
// object that implements the below interface.
//
// This interface passes/returns values using void pointers. The actual type
// of the value depends on the field's cpp_type. Following is a mapping from
// cpp_type to the type that should be used in this interface:
//
//   field->cpp_type()      T                Actual type of void*
//   CPPTYPE_INT32        int32                   int32
//   CPPTYPE_UINT32       uint32                  uint32
//   CPPTYPE_INT64        int64                   int64
//   CPPTYPE_UINT64       uint64                  uint64
//   CPPTYPE_DOUBLE       double                  double
//   CPPTYPE_FLOAT        float                   float
//   CPPTYPE_BOOL         bool                    bool
//   CPPTYPE_ENUM         generated enum type     int32
//   CPPTYPE_STRING       string                  std::string
//   CPPTYPE_MESSAGE      generated message type  google::protobuf::Message
//                        or google::protobuf::Message
//
// Note that for enums we use int32 in the interface.
//
// You can map from T to the actual type using RefTypeTraits:
//   typedef RefTypeTraits<T>::AccessorValueType ActualType;
class PROTOBUF_EXPORT RepeatedFieldAccessor {
 public:
  // Typedefs for clarity.
  typedef void Field;
  typedef void Value;
  typedef void Iterator;

virtual bool IsEmpty(const Field* data) const = 0;
  virtual int Size(const Field* data) const = 0;
  // Depends on the underlying representation of the repeated field, this
  // method can return a pointer to the underlying object if such an object
  // exists, or fill the data into scratch_space and return scratch_space.
  // Callers of this method must ensure scratch_space is a valid pointer
  // to a mutable object of the correct type.
  virtual const Value* Get(const Field* data, int index,
                           Value* scratch_space) const = 0;

virtual void Clear(Field* data) const = 0;
  virtual void Set(Field* data, int index, const Value* value) const = 0;
  virtual void Add(Field* data, const Value* value) const = 0;
  virtual void RemoveLast(Field* data) const = 0;
  virtual void SwapElements(Field* data, int index1, int index2) const = 0;
  virtual void Swap(Field* data, const RepeatedFieldAccessor* other_mutator,
                    Field* other_data) const = 0;

// Create an iterator that points at the beginning of the repeated field.
  virtual Iterator* BeginIterator(const Field* data) const = 0;
  // Create an iterator that points at the end of the repeated field.
  virtual Iterator* EndIterator(const Field* data) const = 0;
  // Make a copy of an iterator and return the new copy.
  virtual Iterator* CopyIterator(const Field* data,
                                 const Iterator* iterator) const = 0;
  // Move an iterator to point to the next element.
  virtual Iterator* AdvanceIterator(const Field* data,
                                    Iterator* iterator) const = 0;
  // Compare whether two iterators point to the same element.
  virtual bool EqualsIterator(const Field* data, const Iterator* a,
                              const Iterator* b) const = 0;
  // Delete an iterator created by BeginIterator(), EndIterator() and
  // CopyIterator().
  virtual void DeleteIterator(const Field* data, Iterator* iterator) const = 0;
  // Like Get() but for iterators.
  virtual const Value* GetIteratorValue(const Field* data,
                                        const Iterator* iterator,
                                        Value* scratch_space) const = 0;

// Templated methods that make using this interface easier for non-message
  // types.
  template <typename T>
  T Get(const Field* data, int index) const {
    typedef typename RefTypeTraits<T>::AccessorValueType ActualType;
    ActualType scratch_space;
    return static_cast<T>(*reinterpret_cast<const ActualType*>(
        Get(data, index, static_cast<Value*>(&scratch_space))));
  }

template <typename T, typename ValueType>
  void Set(Field* data, int index, const ValueType& value) const {
    typedef typename RefTypeTraits<T>::AccessorValueType ActualType;
    // In this RepeatedFieldAccessor interface we pass/return data using
    // raw pointers. Type of the data these raw pointers point to should
    // be ActualType. Here we have a ValueType object and want a ActualType
    // pointer. We can't cast a ValueType pointer to an ActualType pointer
    // directly because their type might be different (for enums ValueType
    // may be a generated enum type while ActualType is int32). To be safe
    // we make a copy to get a temporary ActualType object and use it.
    ActualType tmp = static_cast<ActualType>(value);
    Set(data, index, static_cast<const Value*>(&tmp));
  }

template <typename T, typename ValueType>
  void Add(Field* data, const ValueType& value) const {
    typedef typename RefTypeTraits<T>::AccessorValueType ActualType;
    // In this RepeatedFieldAccessor interface we pass/return data using
    // raw pointers. Type of the data these raw pointers point to should
    // be ActualType. Here we have a ValueType object and want a ActualType
    // pointer. We can't cast a ValueType pointer to an ActualType pointer
    // directly because their type might be different (for enums ValueType
    // may be a generated enum type while ActualType is int32). To be safe
    // we make a copy to get a temporary ActualType object and use it.
    ActualType tmp = static_cast<ActualType>(value);
    Add(data, static_cast<const Value*>(&tmp));
  }

protected:
  // We want the destructor to be completely trivial as to allow it to be
  // a function local static. Hence we make it non-virtual and protected,
  // this class only live as part of a global singleton and should not be
  // deleted.
  ~RepeatedFieldAccessor() = default;
};

// Implement (Mutable)RepeatedFieldRef::iterator
template <typename T>
class RepeatedFieldRefIterator
    : public std::iterator<std::forward_iterator_tag, T> {
  typedef typename RefTypeTraits<T>::AccessorValueType AccessorValueType;
  typedef typename RefTypeTraits<T>::IteratorValueType IteratorValueType;
  typedef typename RefTypeTraits<T>::IteratorPointerType IteratorPointerType;

public:
  // Constructor for non-message fields.
  RepeatedFieldRefIterator(const void* data,
                           const RepeatedFieldAccessor* accessor, bool begin)
      : data_(data),
        accessor_(accessor),
        iterator_(begin ? accessor->BeginIterator(data)
                        : accessor->EndIterator(data)),
        // The end iterator must not be dereferenced, no need for scratch space.
        scratch_space_(begin ? new AccessorValueType : nullptr) {}
  // Constructor for message fields.
  RepeatedFieldRefIterator(const void* data,
                           const RepeatedFieldAccessor* accessor, bool begin,
                           AccessorValueType* scratch_space)
      : data_(data),
        accessor_(accessor),
        iterator_(begin ? accessor->BeginIterator(data)
                        : accessor->EndIterator(data)),
        scratch_space_(scratch_space) {}
  ~RepeatedFieldRefIterator() { accessor_->DeleteIterator(data_, iterator_); }
  RepeatedFieldRefIterator operator++(int) {
    RepeatedFieldRefIterator tmp(*this);
    iterator_ = accessor_->AdvanceIterator(data_, iterator_);
    return tmp;
  }
  RepeatedFieldRefIterator& operator++() {
    iterator_ = accessor_->AdvanceIterator(data_, iterator_);
    return *this;
  }
  IteratorValueType operator*() const {
    return static_cast<IteratorValueType>(
        *static_cast<const AccessorValueType*>(accessor_->GetIteratorValue(
            data_, iterator_, scratch_space_.get())));
  }
  IteratorPointerType operator->() const {
    return static_cast<IteratorPointerType>(
        accessor_->GetIteratorValue(data_, iterator_, scratch_space_.get()));
  }
  bool operator!=(const RepeatedFieldRefIterator& other) const {
    assert(data_ == other.data_);
    assert(accessor_ == other.accessor_);
    return !accessor_->EqualsIterator(data_, iterator_, other.iterator_);
  }
  bool operator==(const RepeatedFieldRefIterator& other) const {
    return !this->operator!=(other);
  }

RepeatedFieldRefIterator(const RepeatedFieldRefIterator& other)
      : data_(other.data_),
        accessor_(other.accessor_),
        iterator_(accessor_->CopyIterator(data_, other.iterator_)) {}
  RepeatedFieldRefIterator& operator=(const RepeatedFieldRefIterator& other) {
    if (this != &other) {
      accessor_->DeleteIterator(data_, iterator_);
      data_ = other.data_;
      accessor_ = other.accessor_;
      iterator_ = accessor_->CopyIterator(data_, other.iterator_);
    }
    return *this;
  }

protected:
  const void* data_;
  const RepeatedFieldAccessor* accessor_;
  void* iterator_;
  std::unique_ptr<AccessorValueType> scratch_space_;
};

// TypeTraits that maps the type parameter T of RepeatedFieldRef or
// MutableRepeatedFieldRef to corresponding iterator type,
// RepeatedFieldAccessor type, etc.
template <typename T>
struct PrimitiveTraits {
  static constexpr bool is_primitive = false;
};
#define DEFINE_PRIMITIVE(TYPE, type)                 \
  template <>                                        \
  struct PrimitiveTraits<type> {                     \
    static const bool is_primitive = true;           \
    static const FieldDescriptor::CppType cpp_type = \
        FieldDescriptor::CPPTYPE_##TYPE;             \
  };
DEFINE_PRIMITIVE(INT32, int32)
DEFINE_PRIMITIVE(UINT32, uint32)
DEFINE_PRIMITIVE(INT64, int64)
DEFINE_PRIMITIVE(UINT64, uint64)
DEFINE_PRIMITIVE(FLOAT, float)
DEFINE_PRIMITIVE(DOUBLE, double)
DEFINE_PRIMITIVE(BOOL, bool)
#undef DEFINE_PRIMITIVE

template <typename T>
struct RefTypeTraits<
    T, typename std::enable_if<PrimitiveTraits<T>::is_primitive>::type> {
  typedef RepeatedFieldRefIterator<T> iterator;
  typedef RepeatedFieldAccessor AccessorType;
  typedef T AccessorValueType;
  typedef T IteratorValueType;
  typedef T* IteratorPointerType;
  static constexpr FieldDescriptor::CppType cpp_type =
      PrimitiveTraits<T>::cpp_type;
  static const Descriptor* GetMessageFieldDescriptor() { return NULL; }
};

template <typename T>
struct RefTypeTraits<
    T, typename std::enable_if<is_proto_enum<T>::value>::type> {
  typedef RepeatedFieldRefIterator<T> iterator;
  typedef RepeatedFieldAccessor AccessorType;
  // We use int32 for repeated enums in RepeatedFieldAccessor.
  typedef int32 AccessorValueType;
  typedef T IteratorValueType;
  typedef int32* IteratorPointerType;
  static constexpr FieldDescriptor::CppType cpp_type =
      FieldDescriptor::CPPTYPE_ENUM;
  static const Descriptor* GetMessageFieldDescriptor() { return NULL; }
};

template <typename T>
struct RefTypeTraits<
    T, typename std::enable_if<std::is_same<std::string, T>::value>::type> {
  typedef RepeatedFieldRefIterator<T> iterator;
  typedef RepeatedFieldAccessor AccessorType;
  typedef std::string AccessorValueType;
  typedef const std::string IteratorValueType;
  typedef const std::string* IteratorPointerType;
  static constexpr FieldDescriptor::CppType cpp_type =
      FieldDescriptor::CPPTYPE_STRING;
  static const Descriptor* GetMessageFieldDescriptor() { return NULL; }
};

template <typename T>
struct MessageDescriptorGetter {
  static const Descriptor* get() {
    return T::default_instance().GetDescriptor();
  }
};
template <>
struct MessageDescriptorGetter<Message> {
  static const Descriptor* get() { return NULL; }
};

template <typename T>
struct RefTypeTraits<
    T, typename std::enable_if<std::is_base_of<Message, T>::value>::type> {
  typedef RepeatedFieldRefIterator<T> iterator;
  typedef RepeatedFieldAccessor AccessorType;
  typedef Message AccessorValueType;
  typedef const T& IteratorValueType;
  typedef const T* IteratorPointerType;
  static constexpr FieldDescriptor::CppType cpp_type =
      FieldDescriptor::CPPTYPE_MESSAGE;
  static const Descriptor* GetMessageFieldDescriptor() {
    return MessageDescriptorGetter<T>::get();
  }
};
}  // namespace internal
}  // namespace protobuf
}  // namespace google

#include <google/protobuf/port_undef.inc>

#endif  // GOOGLE_PROTOBUF_REFLECTION_H__

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