"Fossies" - the Fresh Open Source Software Archive  

Source code changes of the file "googlemock/include/gmock/gmock-actions.h" between
googletest-release-1.11.0.tar.gz and googletest-release-1.12.0.tar.gz

About: GoogleTest is Google's (unit) testing and mocking framework for C++ tests.

gmock-actions.h  (googletest-release-1.11.0)	:	gmock-actions.h  (googletest-release-1.12.0)
skipping to change at line 127		skipping to change at line 127
// ACTION*() can only be used in a namespace scope as templates cannot be		// ACTION*() can only be used in a namespace scope as templates cannot be
// declared inside of a local class.		// declared inside of a local class.
// Users can, however, define any local functors (e.g. a lambda) that		// Users can, however, define any local functors (e.g. a lambda) that
// can be used as actions.		// can be used as actions.
//		//
// MORE INFORMATION:		// MORE INFORMATION:
//		//
// To learn more about using these macros, please search for 'ACTION' on		// To learn more about using these macros, please search for 'ACTION' on
// https://github.com/google/googletest/blob/master/docs/gmock_cook_book.md		// https://github.com/google/googletest/blob/master/docs/gmock_cook_book.md
// GOOGLETEST_CM0002 DO NOT DELETE		// IWYU pragma: private, include "gmock/gmock.h"
		// IWYU pragma: friend gmock/.*
#ifndef GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_		#ifndef GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_
#define GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_		#define GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_
#ifndef _WIN32_WCE		#ifndef _WIN32_WCE
# include <errno.h>		#include <errno.h>
#endif		#endif
#include <algorithm>		#include <algorithm>
#include <functional>		#include <functional>
#include <memory>		#include <memory>
#include <string>		#include <string>
#include <tuple>		#include <tuple>
#include <type_traits>		#include <type_traits>
#include <utility>		#include <utility>
#include "gmock/internal/gmock-internal-utils.h"		#include "gmock/internal/gmock-internal-utils.h"
#include "gmock/internal/gmock-port.h"		#include "gmock/internal/gmock-port.h"
#include "gmock/internal/gmock-pp.h"		#include "gmock/internal/gmock-pp.h"
#ifdef _MSC_VER		#ifdef _MSC_VER
# pragma warning(push)		#pragma warning(push)
# pragma warning(disable:4100)		#pragma warning(disable : 4100)
#endif		#endif
namespace testing {		namespace testing {
// To implement an action Foo, define:		// To implement an action Foo, define:
// 1. a class FooAction that implements the ActionInterface interface, and		// 1. a class FooAction that implements the ActionInterface interface, and
// 2. a factory function that creates an Action object from a		// 2. a factory function that creates an Action object from a
// const FooAction*.		// const FooAction*.
//		//
// The two-level delegation design follows that of Matcher, providing		// The two-level delegation design follows that of Matcher, providing
skipping to change at line 198		skipping to change at line 199
// a numeric type, false when T is bool, or "" when T is string or		// a numeric type, false when T is bool, or "" when T is string or
// std::string. In addition, in C++11 and above, it turns a		// std::string. In addition, in C++11 and above, it turns a
// default-constructed T value if T is default constructible. For any		// default-constructed T value if T is default constructible. For any
// other type T, the built-in default T value is undefined, and the		// other type T, the built-in default T value is undefined, and the
// function will abort the process.		// function will abort the process.
template <typename T>		template <typename T>
class BuiltInDefaultValue {		class BuiltInDefaultValue {
public:		public:
// This function returns true if and only if type T has a built-in default		// This function returns true if and only if type T has a built-in default
// value.		// value.
static bool Exists() {		static bool Exists() { return ::std::is_default_constructible<T>::value; }
return ::std::is_default_constructible<T>::value;
}
static T Get() {		static T Get() {
return BuiltInDefaultValueGetter<		return BuiltInDefaultValueGetter<
T, ::std::is_default_constructible<T>::value>::Get();		T, ::std::is_default_constructible<T>::value>::Get();
}		}
};		};
// This partial specialization says that we use the same built-in		// This partial specialization says that we use the same built-in
// default value for T and const T.		// default value for T and const T.
template <typename T>		template <typename T>
skipping to change at line 229		skipping to change at line 228
template <typename T>		template <typename T>
class BuiltInDefaultValue<T*> {		class BuiltInDefaultValue<T*> {
public:		public:
static bool Exists() { return true; }		static bool Exists() { return true; }
static T* Get() { return nullptr; }		static T* Get() { return nullptr; }
};		};
// The following specializations define the default values for		// The following specializations define the default values for
// specific types we care about.		// specific types we care about.
#define GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(type, value) \		#define GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(type, value) \
template <> \		template <> \
class BuiltInDefaultValue<type> { \		class BuiltInDefaultValue<type> { \
public: \		public: \
static bool Exists() { return true; } \		static bool Exists() { return true; } \
static type Get() { return value; } \		static type Get() { return value; } \
}		}
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(void, ); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(void, ); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(::std::string, "");		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(::std::string, "");
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(bool, false);		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(bool, false);
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned char, '\0');		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned char, '\0');
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed char, '\0');		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed char, '\0');
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(char, '\0');		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(char, '\0');
// There's no need for a default action for signed wchar_t, as that		// There's no need for a default action for signed wchar_t, as that
skipping to change at line 257		skipping to change at line 256
// that type is the same as unsigned int for gcc, and invalid for		// that type is the same as unsigned int for gcc, and invalid for
// MSVC.		// MSVC.
#if GMOCK_WCHAR_T_IS_NATIVE_		#if GMOCK_WCHAR_T_IS_NATIVE_
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(wchar_t, 0U); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(wchar_t, 0U); // NOLINT
#endif		#endif
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned short, 0U); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned short, 0U); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed short, 0); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed short, 0); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned int, 0U);		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned int, 0U);
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed int, 0);		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed int, 0);
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned long, 0UL); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned long, 0UL); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed long, 0L); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed long, 0L); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned long long, 0); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(unsigned long long, 0); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed long long, 0); // NOLINT		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(signed long long, 0); // NOLINT
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(float, 0);		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(float, 0);
GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(double, 0);		GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_(double, 0);
#undef GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_		#undef GMOCK_DEFINE_DEFAULT_ACTION_FOR_RETURN_TYPE_
// Simple two-arg form of std::disjunction.		// Partial implementations of metaprogramming types from the standard library
template <typename P, typename Q>		// not available in C++11.
using disjunction = typename ::std::conditional<P::value, P, Q>::type;
		template <typename P>
		struct negation
		// NOLINTNEXTLINE
		: std::integral_constant<bool, bool(!P::value)> {};
		// Base case: with zero predicates the answer is always true.
		template <typename...>
		struct conjunction : std::true_type {};
		// With a single predicate, the answer is that predicate.
		template <typename P1>
		struct conjunction<P1> : P1 {};
		// With multiple predicates the answer is the first predicate if that is false,
		// and we recurse otherwise.
		template <typename P1, typename... Ps>
		struct conjunction<P1, Ps...>
		: std::conditional<bool(P1::value), conjunction<Ps...>, P1>::type {};
		template <typename...>
		struct disjunction : std::false_type {};
		template <typename P1>
		struct disjunction<P1> : P1 {};
		template <typename P1, typename... Ps>
		struct disjunction<P1, Ps...>
		// NOLINTNEXTLINE
		: std::conditional<!bool(P1::value), disjunction<Ps...>, P1>::type {};
		template <typename...>
		using void_t = void;
		// Detects whether an expression of type `From` can be implicitly converted to
		// `To` according to [conv]. In C++17, [conv]/3 defines this as follows:
		//
		// An expression e can be implicitly converted to a type T if and only if
		// the declaration T t=e; is well-formed, for some invented temporary
		// variable t ([dcl.init]).
		//
		// [conv]/2 implies we can use function argument passing to detect whether this
		// initialization is valid.
		//
		// Note that this is distinct from is_convertible, which requires this be valid:
		//
		// To test() {
		// return declval<From>();
		// }
		//
		// In particular, is_convertible doesn't give the correct answer when `To` and
		// `From` are the same non-moveable type since `declval<From>` will be an rvalue
		// reference, defeating the guaranteed copy elision that would otherwise make
		// this function work.
		//
		// REQUIRES: `From` is not cv void.
		template <typename From, typename To>
		struct is_implicitly_convertible {
		private:
		// A function that accepts a parameter of type T. This can be called with type
		// U successfully only if U is implicitly convertible to T.
		template <typename T>
		static void Accept(T);
		// A function that creates a value of type T.
		template <typename T>
		static T Make();
		// An overload be selected when implicit conversion from T to To is possible.
		template <typename T, typename = decltype(Accept<To>(Make<T>()))>
		static std::true_type TestImplicitConversion(int);
		// A fallback overload selected in all other cases.
		template <typename T>
		static std::false_type TestImplicitConversion(...);
		public:
		using type = decltype(TestImplicitConversion<From>(0));
		static constexpr bool value = type::value;
		};
		// Like std::invoke_result_t from C++17, but works only for objects with call
		// operators (not e.g. member function pointers, which we don't need specific
		// support for in OnceAction because std::function deals with them).
		template <typename F, typename... Args>
		using call_result_t = decltype(std::declval<F>()(std::declval<Args>()...));
		template <typename Void, typename R, typename F, typename... Args>
		struct is_callable_r_impl : std::false_type {};
		// Specialize the struct for those template arguments where call_result_t is
		// well-formed. When it's not, the generic template above is chosen, resulting
		// in std::false_type.
		template <typename R, typename F, typename... Args>
		struct is_callable_r_impl<void_t<call_result_t<F, Args...>>, R, F, Args...>
		: std::conditional<
		std::is_void<R>::value, //
		std::true_type, //
		is_implicitly_convertible<call_result_t<F, Args...>, R>>::type {};
		// Like std::is_invocable_r from C++17, but works only for objects with call
		// operators. See the note on call_result_t.
		template <typename R, typename F, typename... Args>
		using is_callable_r = is_callable_r_impl<void, R, F, Args...>;
		// Like std::as_const from C++17.
		template <typename T>
		typename std::add_const<T>::type& as_const(T& t) {
		return t;
		}
} // namespace internal		} // namespace internal
		// Specialized for function types below.
		template <typename F>
		class OnceAction;
		// An action that can only be used once.
		//
		// This is accepted by WillOnce, which doesn't require the underlying action to
		// be copy-constructible (only move-constructible), and promises to invoke it as
		// an rvalue reference. This allows the action to work with move-only types like
		// std::move_only_function in a type-safe manner.
		//
		// For example:
		//
		// // Assume we have some API that needs to accept a unique pointer to some
		// // non-copyable object Foo.
		// void AcceptUniquePointer(std::unique_ptr<Foo> foo);
		//
		// // We can define an action that provides a Foo to that API. Because It
		// // has to give away its unique pointer, it must not be called more than
		// // once, so its call operator is &&-qualified.
		// struct ProvideFoo {
		// std::unique_ptr<Foo> foo;
		//
		// void operator()() && {
		// AcceptUniquePointer(std::move(Foo));
		// }
		// };
		//
		// // This action can be used with WillOnce.
		// EXPECT_CALL(mock, Call)
		// .WillOnce(ProvideFoo{std::make_unique<Foo>(...)});
		//
		// // But a call to WillRepeatedly will fail to compile. This is correct,
		// // since the action cannot correctly be used repeatedly.
		// EXPECT_CALL(mock, Call)
		// .WillRepeatedly(ProvideFoo{std::make_unique<Foo>(...)});
		//
		// A less-contrived example would be an action that returns an arbitrary type,
		// whose &&-qualified call operator is capable of dealing with move-only types.
		template <typename Result, typename... Args>
		class OnceAction<Result(Args...)> final {
		private:
		// True iff we can use the given callable type (or lvalue reference) directly
		// via StdFunctionAdaptor.
		template <typename Callable>
		using IsDirectlyCompatible = internal::conjunction<
		// It must be possible to capture the callable in StdFunctionAdaptor.
		std::is_constructible<typename std::decay<Callable>::type, Callable>,
		// The callable must be compatible with our signature.
		internal::is_callable_r<Result, typename std::decay<Callable>::type,
		Args...>>;
		// True iff we can use the given callable type via StdFunctionAdaptor once we
		// ignore incoming arguments.
		template <typename Callable>
		using IsCompatibleAfterIgnoringArguments = internal::conjunction<
		// It must be possible to capture the callable in a lambda.
		std::is_constructible<typename std::decay<Callable>::type, Callable>,
		// The callable must be invocable with zero arguments, returning something
		// convertible to Result.
		internal::is_callable_r<Result, typename std::decay<Callable>::type>>;
		public:
		// Construct from a callable that is directly compatible with our mocked
		// signature: it accepts our function type's arguments and returns something
		// convertible to our result type.
		template <typename Callable,
		typename std::enable_if<
		internal::conjunction<
		// Teach clang on macOS that we're not talking about a
		// copy/move constructor here. Otherwise it gets confused
		// when checking the is_constructible requirement of our
		// traits above.
		internal::negation<std::is_same<
		OnceAction, typename std::decay<Callable>::type>>,
		IsDirectlyCompatible<Callable>> //
		::value,
		int>::type = 0>
		OnceAction(Callable&& callable) // NOLINT
		: function_(StdFunctionAdaptor<typename std::decay<Callable>::type>(
		{}, std::forward<Callable>(callable))) {}
		// As above, but for a callable that ignores the mocked function's arguments.
		template <typename Callable,
		typename std::enable_if<
		internal::conjunction<
		// Teach clang on macOS that we're not talking about a
		// copy/move constructor here. Otherwise it gets confused
		// when checking the is_constructible requirement of our
		// traits above.
		internal::negation<std::is_same<
		OnceAction, typename std::decay<Callable>::type>>,
		// Exclude callables for which the overload above works.
		// We'd rather provide the arguments if possible.
		internal::negation<IsDirectlyCompatible<Callable>>,
		IsCompatibleAfterIgnoringArguments<Callable>>::value,
		int>::type = 0>
		OnceAction(Callable&& callable) // NOLINT
		// Call the constructor above with a callable
		// that ignores the input arguments.
		: OnceAction(IgnoreIncomingArguments<typename std::decay<Callable>::type>{
		std::forward<Callable>(callable)}) {}
		// We are naturally copyable because we store only an std::function, but
		// semantically we should not be copyable.
		OnceAction(const OnceAction&) = delete;
		OnceAction& operator=(const OnceAction&) = delete;
		OnceAction(OnceAction&&) = default;
		// Invoke the underlying action callable with which we were constructed,
		// handing it the supplied arguments.
		Result Call(Args... args) && {
		return function_(std::forward<Args>(args)...);
		}
		private:
		// An adaptor that wraps a callable that is compatible with our signature and
		// being invoked as an rvalue reference so that it can be used as an
		// StdFunctionAdaptor. This throws away type safety, but that's fine because
		// this is only used by WillOnce, which we know calls at most once.
		//
		// Once we have something like std::move_only_function from C++23, we can do
		// away with this.
		template <typename Callable>
		class StdFunctionAdaptor final {
		public:
		// A tag indicating that the (otherwise universal) constructor is accepting
		// the callable itself, instead of e.g. stealing calls for the move
		// constructor.
		struct CallableTag final {};
		template <typename F>
		explicit StdFunctionAdaptor(CallableTag, F&& callable)
		: callable_(std::make_shared<Callable>(std::forward<F>(callable))) {}
		// Rather than explicitly returning Result, we return whatever the wrapped
		// callable returns. This allows for compatibility with existing uses like
		// the following, when the mocked function returns void:
		//
		// EXPECT_CALL(mock_fn_, Call)
		// .WillOnce([&] {
		// [...]
		// return 0;
		// });
		//
		// Such a callable can be turned into std::function<void()>. If we use an
		// explicit return type of Result here then it *doesn't* work with
		// std::function, because we'll get a "void function should not return a
		// value" error.
		//
		// We need not worry about incompatible result types because the SFINAE on
		// OnceAction already checks this for us. std::is_invocable_r_v itself makes
		// the same allowance for void result types.
		template <typename... ArgRefs>
		internal::call_result_t<Callable, ArgRefs...> operator()(
		ArgRefs&&... args) const {
		return std::move(*callable_)(std::forward<ArgRefs>(args)...);
		}
		private:
		// We must put the callable on the heap so that we are copyable, which
		// std::function needs.
		std::shared_ptr<Callable> callable_;
		};
		// An adaptor that makes a callable that accepts zero arguments callable with
		// our mocked arguments.
		template <typename Callable>
		struct IgnoreIncomingArguments {
		internal::call_result_t<Callable> operator()(Args&&...) {
		return std::move(callable)();
		}
		Callable callable;
		};
		std::function<Result(Args...)> function_;
		};
// When an unexpected function call is encountered, Google Mock will		// When an unexpected function call is encountered, Google Mock will
// let it return a default value if the user has specified one for its		// let it return a default value if the user has specified one for its
// return type, or if the return type has a built-in default value;		// return type, or if the return type has a built-in default value;
// otherwise Google Mock won't know what value to return and will have		// otherwise Google Mock won't know what value to return and will have
// to abort the process.		// to abort the process.
//		//
// The DefaultValue<T> class allows a user to specify the		// The DefaultValue<T> class allows a user to specify the
// default value for a type T that is both copyable and publicly		// default value for a type T that is both copyable and publicly
// destructible (i.e. anything that can be used as a function return		// destructible (i.e. anything that can be used as a function return
// type). The usage is:		// type). The usage is:
skipping to change at line 341		skipping to change at line 628
virtual T Produce() = 0;		virtual T Produce() = 0;
};		};
class FixedValueProducer : public ValueProducer {		class FixedValueProducer : public ValueProducer {
public:		public:
explicit FixedValueProducer(T value) : value_(value) {}		explicit FixedValueProducer(T value) : value_(value) {}
T Produce() override { return value_; }		T Produce() override { return value_; }
private:		private:
const T value_;		const T value_;
GTEST_DISALLOW_COPY_AND_ASSIGN_(FixedValueProducer);		FixedValueProducer(const FixedValueProducer&) = delete;
		FixedValueProducer& operator=(const FixedValueProducer&) = delete;
};		};
class FactoryValueProducer : public ValueProducer {		class FactoryValueProducer : public ValueProducer {
public:		public:
explicit FactoryValueProducer(FactoryFunction factory)		explicit FactoryValueProducer(FactoryFunction factory)
: factory_(factory) {}		: factory_(factory) {}
T Produce() override { return factory_(); }		T Produce() override { return factory_(); }
private:		private:
const FactoryFunction factory_;		const FactoryFunction factory_;
GTEST_DISALLOW_COPY_AND_ASSIGN_(FactoryValueProducer);		FactoryValueProducer(const FactoryValueProducer&) = delete;
		FactoryValueProducer& operator=(const FactoryValueProducer&) = delete;
};		};
static ValueProducer* producer_;		static ValueProducer* producer_;
};		};
// This partial specialization allows a user to set default values for		// This partial specialization allows a user to set default values for
// reference types.		// reference types.
template <typename T>		template <typename T>
class DefaultValue<T&> {		class DefaultValue<T&> {
public:		public:
skipping to change at line 426		skipping to change at line 715
ActionInterface() {}		ActionInterface() {}
virtual ~ActionInterface() {}		virtual ~ActionInterface() {}
// Performs the action. This method is not const, as in general an		// Performs the action. This method is not const, as in general an
// action can have side effects and be stateful. For example, a		// action can have side effects and be stateful. For example, a
// get-the-next-element-from-the-collection action will need to		// get-the-next-element-from-the-collection action will need to
// remember the current element.		// remember the current element.
virtual Result Perform(const ArgumentTuple& args) = 0;		virtual Result Perform(const ArgumentTuple& args) = 0;
private:		private:
GTEST_DISALLOW_COPY_AND_ASSIGN_(ActionInterface);		ActionInterface(const ActionInterface&) = delete;
		ActionInterface& operator=(const ActionInterface&) = delete;
};		};
// An Action<F> is a copyable and IMMUTABLE (except by assignment)
// object that represents an action to be taken when a mock function
// of type F is called. The implementation of Action<T> is just a
// std::shared_ptr to const ActionInterface<T>. Don't inherit from Action!
// You can view an object implementing ActionInterface<F> as a
// concrete action (including its current state), and an Action<F>
// object as a handle to it.
template <typename F>		template <typename F>
class Action {		class Action;
		// An Action<R(Args...)> is a copyable and IMMUTABLE (except by assignment)
		// object that represents an action to be taken when a mock function of type
		// R(Args...) is called. The implementation of Action<T> is just a
		// std::shared_ptr to const ActionInterface<T>. Don't inherit from Action! You
		// can view an object implementing ActionInterface<F> as a concrete action
		// (including its current state), and an Action<F> object as a handle to it.
		template <typename R, typename... Args>
		class Action<R(Args...)> {
		private:
		using F = R(Args...);
// Adapter class to allow constructing Action from a legacy ActionInterface.		// Adapter class to allow constructing Action from a legacy ActionInterface.
// New code should create Actions from functors instead.		// New code should create Actions from functors instead.
struct ActionAdapter {		struct ActionAdapter {
// Adapter must be copyable to satisfy std::function requirements.		// Adapter must be copyable to satisfy std::function requirements.
::std::shared_ptr<ActionInterface<F>> impl_;		::std::shared_ptr<ActionInterface<F>> impl_;
template <typename... Args>		template <typename... InArgs>
typename internal::Function<F>::Result operator()(Args&&... args) {		typename internal::Function<F>::Result operator()(InArgs&&... args) {
return impl_->Perform(		return impl_->Perform(
::std::forward_as_tuple(::std::forward<Args>(args)...));		::std::forward_as_tuple(::std::forward<InArgs>(args)...));
}		}
};		};
template <typename G>		template <typename G>
using IsCompatibleFunctor = std::is_constructible<std::function<F>, G>;		using IsCompatibleFunctor = std::is_constructible<std::function<F>, G>;
public:		public:
typedef typename internal::Function<F>::Result Result;		typedef typename internal::Function<F>::Result Result;
typedef typename internal::Function<F>::ArgumentTuple ArgumentTuple;		typedef typename internal::Function<F>::ArgumentTuple ArgumentTuple;
skipping to change at line 482		skipping to change at line 777
}		}
// Constructs an Action from its implementation.		// Constructs an Action from its implementation.
explicit Action(ActionInterface<F>* impl)		explicit Action(ActionInterface<F>* impl)
: fun_(ActionAdapter{::std::shared_ptr<ActionInterface<F>>(impl)}) {}		: fun_(ActionAdapter{::std::shared_ptr<ActionInterface<F>>(impl)}) {}
// This constructor allows us to turn an Action<Func> object into an		// This constructor allows us to turn an Action<Func> object into an
// Action<F>, as long as F's arguments can be implicitly converted		// Action<F>, as long as F's arguments can be implicitly converted
// to Func's and Func's return type can be implicitly converted to F's.		// to Func's and Func's return type can be implicitly converted to F's.
template <typename Func>		template <typename Func>
explicit Action(const Action<Func>& action) : fun_(action.fun_) {}		Action(const Action<Func>& action) // NOLINT
		: fun_(action.fun_) {}
// Returns true if and only if this is the DoDefault() action.		// Returns true if and only if this is the DoDefault() action.
bool IsDoDefault() const { return fun_ == nullptr; }		bool IsDoDefault() const { return fun_ == nullptr; }
// Performs the action. Note that this method is const even though		// Performs the action. Note that this method is const even though
// the corresponding method in ActionInterface is not. The reason		// the corresponding method in ActionInterface is not. The reason
// is that a const Action<F> means that it cannot be re-bound to		// is that a const Action<F> means that it cannot be re-bound to
// another concrete action, not that the concrete action it binds to		// another concrete action, not that the concrete action it binds to
// cannot change state. (Think of the difference between a const		// cannot change state. (Think of the difference between a const
// pointer and a pointer to const.)		// pointer and a pointer to const.)
Result Perform(ArgumentTuple args) const {		Result Perform(ArgumentTuple args) const {
if (IsDoDefault()) {		if (IsDoDefault()) {
internal::IllegalDoDefault(__FILE__, __LINE__);		internal::IllegalDoDefault(__FILE__, __LINE__);
}		}
return internal::Apply(fun_, ::std::move(args));		return internal::Apply(fun_, ::std::move(args));
}		}
		// An action can be used as a OnceAction, since it's obviously safe to call it
		// once.
		operator OnceAction<F>() const { // NOLINT
		// Return a OnceAction-compatible callable that calls Perform with the
		// arguments it is provided. We could instead just return fun_, but then
		// we'd need to handle the IsDoDefault() case separately.
		struct OA {
		Action<F> action;
		R operator()(Args... args) && {
		return action.Perform(
		std::forward_as_tuple(std::forward<Args>(args)...));
		}
		};
		return OA{*this};
		}
private:		private:
template <typename G>		template <typename G>
friend class Action;		friend class Action;
template <typename G>		template <typename G>
void Init(G&& g, ::std::true_type) {		void Init(G&& g, ::std::true_type) {
fun_ = ::std::forward<G>(g);		fun_ = ::std::forward<G>(g);
}		}
template <typename G>		template <typename G>
void Init(G&& g, ::std::false_type) {		void Init(G&& g, ::std::false_type) {
fun_ = IgnoreArgs<typename ::std::decay<G>::type>{::std::forward<G>(g)};		fun_ = IgnoreArgs<typename ::std::decay<G>::type>{::std::forward<G>(g)};
}		}
template <typename FunctionImpl>		template <typename FunctionImpl>
struct IgnoreArgs {		struct IgnoreArgs {
template <typename... Args>		template <typename... InArgs>
Result operator()(const Args&...) const {		Result operator()(const InArgs&...) const {
return function_impl();		return function_impl();
}		}
FunctionImpl function_impl;		FunctionImpl function_impl;
};		};
// fun_ is an empty function if and only if this is the DoDefault() action.		// fun_ is an empty function if and only if this is the DoDefault() action.
::std::function<F> fun_;		::std::function<F> fun_;
};		};
skipping to change at line 608		skipping to change at line 922
namespace internal {		namespace internal {
// Helper struct to specialize ReturnAction to execute a move instead of a copy		// Helper struct to specialize ReturnAction to execute a move instead of a copy
// on return. Useful for move-only types, but could be used on any type.		// on return. Useful for move-only types, but could be used on any type.
template <typename T>		template <typename T>
struct ByMoveWrapper {		struct ByMoveWrapper {
explicit ByMoveWrapper(T value) : payload(std::move(value)) {}		explicit ByMoveWrapper(T value) : payload(std::move(value)) {}
T payload;		T payload;
};		};
// Implements the polymorphic Return(x) action, which can be used in		// The general implementation of Return(R). Specializations follow below.
// any function that returns the type of x, regardless of the argument
// types.
//
// Note: The value passed into Return must be converted into
// Function<F>::Result when this action is cast to Action<F> rather than
// when that action is performed. This is important in scenarios like
//
// MOCK_METHOD1(Method, T(U));
// ...
// {
// Foo foo;
// X x(&foo);
// EXPECT_CALL(mock, Method(_)).WillOnce(Return(x));
// }
//
// In the example above the variable x holds reference to foo which leaves
// scope and gets destroyed. If copying X just copies a reference to foo,
// that copy will be left with a hanging reference. If conversion to T
// makes a copy of foo, the above code is safe. To support that scenario, we
// need to make sure that the type conversion happens inside the EXPECT_CALL
// statement, and conversion of the result of Return to Action<T(U)> is a
// good place for that.
//
// The real life example of the above scenario happens when an invocation
// of gtl::Container() is passed into Return.
//
template <typename R>		template <typename R>
class ReturnAction {		class ReturnAction final {
public:		public:
// Constructs a ReturnAction object from the value to be returned.		explicit ReturnAction(R value) : value_(std::move(value)) {}
// 'value' is passed by value instead of by const reference in order
// to allow Return("string literal") to compile.
explicit ReturnAction(R value) : value_(new R(std::move(value))) {}
// This template type conversion operator allows Return(x) to be		template <typename U, typename... Args,
// used in ANY function that returns x's type.		typename = typename std::enable_if<conjunction<
template <typename F>		// See the requirements documented on Return.
operator Action<F>() const { // NOLINT		negation<std::is_same<void, U>>, //
// Assert statement belongs here because this is the best place to verify		negation<std::is_reference<U>>, //
// conditions on F. It produces the clearest error messages		std::is_convertible<R, U>, //
// in most compilers.		std::is_move_constructible<U>>::value>::type>
// Impl really belongs in this scope as a local class but can't		operator OnceAction<U(Args...)>() && { // NOLINT
// because MSVC produces duplicate symbols in different translation units		return Impl<U>(std::move(value_));
// in this case. Until MS fixes that bug we put Impl into the class scope		}
// and put the typedef both here (for use in assert statement) and
// in the Impl class. But both definitions must be the same.		template <typename U, typename... Args,
typedef typename Function<F>::Result Result;		typename = typename std::enable_if<conjunction<
GTEST_COMPILE_ASSERT_(		// See the requirements documented on Return.
!std::is_reference<Result>::value,		negation<std::is_same<void, U>>, //
use_ReturnRef_instead_of_Return_to_return_a_reference);		negation<std::is_reference<U>>, //
static_assert(!std::is_void<Result>::value,		std::is_convertible<const R&, U>, //
"Can't use Return() on an action expected to return `void`.");		std::is_copy_constructible<U>>::value>::type>
return Action<F>(new Impl<R, F>(value_));		operator Action<U(Args...)>() const { // NOLINT
		return Impl<U>(value_);
}		}
private:		private:
// Implements the Return(x) action for a particular function type F.		// Implements the Return(x) action for a mock function that returns type U.
template <typename R_, typename F>		template <typename U>
class Impl : public ActionInterface<F> {		class Impl final {
public:		public:
typedef typename Function<F>::Result Result;		// The constructor used when the return value is allowed to move from the
typedef typename Function<F>::ArgumentTuple ArgumentTuple;		// input value (i.e. we are converting to OnceAction).
		explicit Impl(R&& input_value)
		: state_(new State(std::move(input_value))) {}
		// The constructor used when the return value is not allowed to move from
		// the input value (i.e. we are converting to Action).
		explicit Impl(const R& input_value) : state_(new State(input_value)) {}
// The implicit cast is necessary when Result has more than one		U operator()() && { return std::move(state_->value); }
// single-argument constructor (e.g. Result is std::vector<int>) and R		U operator()() const& { return state_->value; }
// has a type conversion operator template. In that case, value_(value)
// won't compile as the compiler doesn't known which constructor of
// Result to call. ImplicitCast_ forces the compiler to convert R to
// Result without considering explicit constructors, thus resolving the
// ambiguity. value_ is then initialized using its copy constructor.
explicit Impl(const std::shared_ptr<R>& value)
: value_before_cast_(*value),
value_(ImplicitCast_<Result>(value_before_cast_)) {}
Result Perform(const ArgumentTuple&) override { return value_; }
private:		private:
GTEST_COMPILE_ASSERT_(!std::is_reference<Result>::value,		// We put our state on the heap so that the compiler-generated copy/move
Result_cannot_be_a_reference_type);		// constructors work correctly even when U is a reference-like type. This is
// We save the value before casting just in case it is being cast to a		// necessary only because we eagerly create State::value (see the note on
// wrapper type.		// that symbol for details). If we instead had only the input value as a
R value_before_cast_;		// member then the default constructors would work fine.
Result value_;		//
		// For example, when R is std::string and U is std::string_view, value is a
		// reference to the string backed by input_value. The copy constructor would
		// copy both, so that we wind up with a new input_value object (with the
		// same contents) and a reference to the *old* input_value object rather
		// than the new one.
		struct State {
		explicit State(const R& input_value_in)
		: input_value(input_value_in),
		// Make an implicit conversion to Result before initializing the U
		// object we store, avoiding calling any explicit constructor of U
		// from R.
		//
		// This simulates the language rules: a function with return type U
		// that does `return R()` requires R to be implicitly convertible to
		// U, and uses that path for the conversion, even U Result has an
		// explicit constructor from R.
		value(ImplicitCast_<U>(internal::as_const(input_value))) {}
		// As above, but for the case where we're moving from the ReturnAction
		// object because it's being used as a OnceAction.
		explicit State(R&& input_value_in)
		: input_value(std::move(input_value_in)),
		// For the same reason as above we make an implicit conversion to U
		// before initializing the value.
		//
		// Unlike above we provide the input value as an rvalue to the
		// implicit conversion because this is a OnceAction: it's fine if it
		// wants to consume the input value.
		value(ImplicitCast_<U>(std::move(input_value))) {}
		// A copy of the value originally provided by the user. We retain this in
		// addition to the value of the mock function's result type below in case
		// the latter is a reference-like type. See the std::string_view example
		// in the documentation on Return.
		R input_value;
		// The value we actually return, as the type returned by the mock function
		// itself.
		//
		// We eagerly initialize this here, rather than lazily doing the implicit
		// conversion automatically each time Perform is called, for historical
		// reasons: in 2009-11, commit a070cbd91c (Google changelist 13540126)
		// made the Action<U()> conversion operator eagerly convert the R value to
		// U, but without keeping the R alive. This broke the use case discussed
		// in the documentation for Return, making reference-like types such as
		// std::string_view not safe to use as U where the input type R is a
		// value-like type such as std::string.
		//
		// The example the commit gave was not very clear, nor was the issue
		// thread (https://github.com/google/googlemock/issues/86), but it seems
		// the worry was about reference-like input types R that flatten to a
		// value-like type U when being implicitly converted. An example of this
		// is std::vector<bool>::reference, which is often a proxy type with an
		// reference to the underlying vector:
		//
		// // Helper method: have the mock function return bools according
		// // to the supplied script.
		// void SetActions(MockFunction<bool(size_t)>& mock,
		// const std::vector<bool>& script) {
		// for (size_t i = 0; i < script.size(); ++i) {
		// EXPECT_CALL(mock, Call(i)).WillOnce(Return(script[i]));
		// }
		// }
		//
		// TEST(Foo, Bar) {
		// // Set actions using a temporary vector, whose operator[]
		// // returns proxy objects that references that will be
		// // dangling once the call to SetActions finishes and the
		// // vector is destroyed.
		// MockFunction<bool(size_t)> mock;
		// SetActions(mock, {false, true});
		//
		// EXPECT_FALSE(mock.AsStdFunction()(0));
		// EXPECT_TRUE(mock.AsStdFunction()(1));
		// }
		//
		// This eager conversion helps with a simple case like this, but doesn't
		// fully make these types work in general. For example the following still
		// uses a dangling reference:
		//
		// TEST(Foo, Baz) {
		// MockFunction<std::vector<std::string>()> mock;
		//
		// // Return the same vector twice, and then the empty vector
		// // thereafter.
		// auto action = Return(std::initializer_list<std::string>{
		// "taco", "burrito",
		// });
		//
		// EXPECT_CALL(mock, Call)
		// .WillOnce(action)
		// .WillOnce(action)
		// .WillRepeatedly(Return(std::vector<std::string>{}));
		//
		// EXPECT_THAT(mock.AsStdFunction()(),
		// ElementsAre("taco", "burrito"));
		// EXPECT_THAT(mock.AsStdFunction()(),
		// ElementsAre("taco", "burrito"));
		// EXPECT_THAT(mock.AsStdFunction()(), IsEmpty());
		// }
		//
		U value;
		};
GTEST_DISALLOW_COPY_AND_ASSIGN_(Impl);		const std::shared_ptr<State> state_;
};		};
// Partially specialize for ByMoveWrapper. This version of ReturnAction will		R value_;
// move its contents instead.		};
template <typename R_, typename F>
class Impl<ByMoveWrapper<R_>, F> : public ActionInterface<F> {
public:
typedef typename Function<F>::Result Result;
typedef typename Function<F>::ArgumentTuple ArgumentTuple;
explicit Impl(const std::shared_ptr<R>& wrapper)		// A specialization of ReturnAction<R> when R is ByMoveWrapper<T> for some T.
: performed_(false), wrapper_(wrapper) {}		//
		// This version applies the type system-defeating hack of moving from T even in
		// the const call operator, checking at runtime that it isn't called more than
		// once, since the user has declared their intent to do so by using ByMove.
		template <typename T>
		class ReturnAction<ByMoveWrapper<T>> final {
		public:
		explicit ReturnAction(ByMoveWrapper<T> wrapper)
		: state_(new State(std::move(wrapper.payload))) {}
Result Perform(const ArgumentTuple&) override {		T operator()() const {
GTEST_CHECK_(!performed_)		GTEST_CHECK_(!state_->called)
<< "A ByMove() action should only be performed once.";		<< "A ByMove() action must be performed at most once.";
performed_ = true;
return std::move(wrapper_->payload);
}
private:		state_->called = true;
bool performed_;		return std::move(state_->value);
const std::shared_ptr<R> wrapper_;		}
		private:
		// We store our state on the heap so that we are copyable as required by
		// Action, despite the fact that we are stateful and T may not be copyable.
		struct State {
		explicit State(T&& value_in) : value(std::move(value_in)) {}
		T value;
		bool called = false;
};		};
const std::shared_ptr<R> value_;		const std::shared_ptr<State> state_;
};		};
// Implements the ReturnNull() action.		// Implements the ReturnNull() action.
class ReturnNullAction {		class ReturnNullAction {
public:		public:
// Allows ReturnNull() to be used in any pointer-returning function. In C++11		// Allows ReturnNull() to be used in any pointer-returning function. In C++11
// this is enforced by returning nullptr, and in non-C++11 by asserting a		// this is enforced by returning nullptr, and in non-C++11 by asserting a
// pointer type on compile time.		// pointer type on compile time.
template <typename Result, typename ArgumentTuple>		template <typename Result, typename ArgumentTuple>
static Result Perform(const ArgumentTuple&) {		static Result Perform(const ArgumentTuple&) {
skipping to change at line 761		skipping to change at line 1155
explicit ReturnRefAction(T& ref) : ref_(ref) {} // NOLINT		explicit ReturnRefAction(T& ref) : ref_(ref) {} // NOLINT
// This template type conversion operator allows ReturnRef(x) to be		// This template type conversion operator allows ReturnRef(x) to be
// used in ANY function that returns a reference to x's type.		// used in ANY function that returns a reference to x's type.
template <typename F>		template <typename F>
operator Action<F>() const {		operator Action<F>() const {
typedef typename Function<F>::Result Result;		typedef typename Function<F>::Result Result;
// Asserts that the function return type is a reference. This		// Asserts that the function return type is a reference. This
// catches the user error of using ReturnRef(x) when Return(x)		// catches the user error of using ReturnRef(x) when Return(x)
// should be used, and generates some helpful error message.		// should be used, and generates some helpful error message.
GTEST_COMPILE_ASSERT_(std::is_reference<Result>::value,		static_assert(std::is_reference<Result>::value,
use_Return_instead_of_ReturnRef_to_return_a_value);		"use Return instead of ReturnRef to return a value");
return Action<F>(new Impl<F>(ref_));		return Action<F>(new Impl<F>(ref_));
}		}
private:		private:
// Implements the ReturnRef(x) action for a particular function type F.		// Implements the ReturnRef(x) action for a particular function type F.
template <typename F>		template <typename F>
class Impl : public ActionInterface<F> {		class Impl : public ActionInterface<F> {
public:		public:
typedef typename Function<F>::Result Result;		typedef typename Function<F>::Result Result;
typedef typename Function<F>::ArgumentTuple ArgumentTuple;		typedef typename Function<F>::ArgumentTuple ArgumentTuple;
skipping to change at line 803		skipping to change at line 1197
explicit ReturnRefOfCopyAction(const T& value) : value_(value) {} // NOLINT		explicit ReturnRefOfCopyAction(const T& value) : value_(value) {} // NOLINT
// This template type conversion operator allows ReturnRefOfCopy(x) to be		// This template type conversion operator allows ReturnRefOfCopy(x) to be
// used in ANY function that returns a reference to x's type.		// used in ANY function that returns a reference to x's type.
template <typename F>		template <typename F>
operator Action<F>() const {		operator Action<F>() const {
typedef typename Function<F>::Result Result;		typedef typename Function<F>::Result Result;
// Asserts that the function return type is a reference. This		// Asserts that the function return type is a reference. This
// catches the user error of using ReturnRefOfCopy(x) when Return(x)		// catches the user error of using ReturnRefOfCopy(x) when Return(x)
// should be used, and generates some helpful error message.		// should be used, and generates some helpful error message.
GTEST_COMPILE_ASSERT_(		static_assert(std::is_reference<Result>::value,
std::is_reference<Result>::value,		"use Return instead of ReturnRefOfCopy to return a value");
use_Return_instead_of_ReturnRefOfCopy_to_return_a_value);
return Action<F>(new Impl<F>(value_));		return Action<F>(new Impl<F>(value_));
}		}
private:		private:
// Implements the ReturnRefOfCopy(x) action for a particular function type F.		// Implements the ReturnRefOfCopy(x) action for a particular function type F.
template <typename F>		template <typename F>
class Impl : public ActionInterface<F> {		class Impl : public ActionInterface<F> {
public:		public:
typedef typename Function<F>::Result Result;		typedef typename Function<F>::Result Result;
typedef typename Function<F>::ArgumentTuple ArgumentTuple;		typedef typename Function<F>::ArgumentTuple ArgumentTuple;
skipping to change at line 841		skipping to change at line 1234
class ReturnRoundRobinAction {		class ReturnRoundRobinAction {
public:		public:
explicit ReturnRoundRobinAction(std::vector<T> values) {		explicit ReturnRoundRobinAction(std::vector<T> values) {
GTEST_CHECK_(!values.empty())		GTEST_CHECK_(!values.empty())
<< "ReturnRoundRobin requires at least one element.";		<< "ReturnRoundRobin requires at least one element.";
state_->values = std::move(values);		state_->values = std::move(values);
}		}
template <typename... Args>		template <typename... Args>
T operator()(Args&&...) const {		T operator()(Args&&...) const {
return state_->Next();		return state_->Next();
}		}
private:		private:
struct State {		struct State {
T Next() {		T Next() {
T ret_val = values[i++];		T ret_val = values[i++];
if (i == values.size()) i = 0;		if (i == values.size()) i = 0;
return ret_val;		return ret_val;
}		}
skipping to change at line 864		skipping to change at line 1257
};		};
std::shared_ptr<State> state_ = std::make_shared<State>();		std::shared_ptr<State> state_ = std::make_shared<State>();
};		};
// Implements the polymorphic DoDefault() action.		// Implements the polymorphic DoDefault() action.
class DoDefaultAction {		class DoDefaultAction {
public:		public:
// This template type conversion operator allows DoDefault() to be		// This template type conversion operator allows DoDefault() to be
// used in any function.		// used in any function.
template <typename F>		template <typename F>
operator Action<F>() const { return Action<F>(); } // NOLINT		operator Action<F>() const {
		return Action<F>();
		} // NOLINT
};		};
// Implements the Assign action to set a given pointer referent to a		// Implements the Assign action to set a given pointer referent to a
// particular value.		// particular value.
template <typename T1, typename T2>		template <typename T1, typename T2>
class AssignAction {		class AssignAction {
public:		public:
AssignAction(T1* ptr, T2 value) : ptr_(ptr), value_(value) {}		AssignAction(T1* ptr, T2 value) : ptr_(ptr), value_(value) {}
template <typename Result, typename ArgumentTuple>		template <typename Result, typename ArgumentTuple>
skipping to change at line 892		skipping to change at line 1287
};		};
#if !GTEST_OS_WINDOWS_MOBILE		#if !GTEST_OS_WINDOWS_MOBILE
// Implements the SetErrnoAndReturn action to simulate return from		// Implements the SetErrnoAndReturn action to simulate return from
// various system calls and libc functions.		// various system calls and libc functions.
template <typename T>		template <typename T>
class SetErrnoAndReturnAction {		class SetErrnoAndReturnAction {
public:		public:
SetErrnoAndReturnAction(int errno_value, T result)		SetErrnoAndReturnAction(int errno_value, T result)
: errno_(errno_value),		: errno_(errno_value), result_(result) {}
result_(result) {}
template <typename Result, typename ArgumentTuple>		template <typename Result, typename ArgumentTuple>
Result Perform(const ArgumentTuple& /* args */) const {		Result Perform(const ArgumentTuple& /* args */) const {
errno = errno_;		errno = errno_;
return result_;		return result_;
}		}
private:		private:
const int errno_;		const int errno_;
const T result_;		const T result_;
};		};
skipping to change at line 1004		skipping to change at line 1398
explicit Impl(const A& action) : action_(action) {}		explicit Impl(const A& action) : action_(action) {}
void Perform(const ArgumentTuple& args) override {		void Perform(const ArgumentTuple& args) override {
// Performs the action and ignores its result.		// Performs the action and ignores its result.
action_.Perform(args);		action_.Perform(args);
}		}
private:		private:
// Type OriginalFunction is the same as F except that its return		// Type OriginalFunction is the same as F except that its return
// type is IgnoredValue.		// type is IgnoredValue.
typedef typename internal::Function<F>::MakeResultIgnoredValue		typedef
OriginalFunction;		typename internal::Function<F>::MakeResultIgnoredValue OriginalFunction;
const Action<OriginalFunction> action_;		const Action<OriginalFunction> action_;
};		};
const A action_;		const A action_;
};		};
template <typename InnerAction, size_t... I>		template <typename InnerAction, size_t... I>
struct WithArgsAction {		struct WithArgsAction {
InnerAction action;		InnerAction inner_action;
// The inner action could be anything convertible to Action<X>.		// The signature of the function as seen by the inner action, given an out
// We use the conversion operator to detect the signature of the inner Action.		// action with the given result and argument types.
template <typename R, typename... Args>		template <typename R, typename... Args>
		using InnerSignature =
		R(typename std::tuple_element<I, std::tuple<Args...>>::type...);
		// Rather than a call operator, we must define conversion operators to
		// particular action types. This is necessary for embedded actions like
		// DoDefault(), which rely on an action conversion operators rather than
		// providing a call operator because even with a particular set of arguments
		// they don't have a fixed return type.
		template <typename R, typename... Args,
		typename std::enable_if<
		std::is_convertible<
		InnerAction,
		// Unfortunately we can't use the InnerSignature alias here;
		// MSVC complains about the I parameter pack not being
		// expanded (error C3520) despite it being expanded in the
		// type alias.
		OnceAction<R(typename std::tuple_element<
		I, std::tuple<Args...>>::type...)>>::value,
		int>::type = 0>
		operator OnceAction<R(Args...)>() && { // NOLINT
		struct OA {
		OnceAction<InnerSignature<R, Args...>> inner_action;
		R operator()(Args&&... args) && {
		return std::move(inner_action)
		.Call(std::get<I>(
		std::forward_as_tuple(std::forward<Args>(args)...))...);
		}
		};
		return OA{std::move(inner_action)};
		}
		template <typename R, typename... Args,
		typename std::enable_if<
		std::is_convertible<
		const InnerAction&,
		// Unfortunately we can't use the InnerSignature alias here;
		// MSVC complains about the I parameter pack not being
		// expanded (error C3520) despite it being expanded in the
		// type alias.
		Action<R(typename std::tuple_element<
		I, std::tuple<Args...>>::type...)>>::value,
		int>::type = 0>
operator Action<R(Args...)>() const { // NOLINT		operator Action<R(Args...)>() const { // NOLINT
using TupleType = std::tuple<Args...>;		Action<InnerSignature<R, Args...>> converted(inner_action);
Action<R(typename std::tuple_element<I, TupleType>::type...)>
converted(action);
return [converted](Args... args) -> R {		return [converted](Args&&... args) -> R {
return converted.Perform(std::forward_as_tuple(		return converted.Perform(std::forward_as_tuple(
std::get<I>(std::forward_as_tuple(std::forward<Args>(args)...))...));		std::get<I>(std::forward_as_tuple(std::forward<Args>(args)...))...));
};		};
}		}
};		};
template <typename... Actions>		template <typename... Actions>
struct DoAllAction {		class DoAllAction;
private:
		// Base case: only a single action.
		template <typename FinalAction>
		class DoAllAction<FinalAction> {
		public:
		struct UserConstructorTag {};
template <typename T>		template <typename T>
using NonFinalType =		explicit DoAllAction(UserConstructorTag, T&& action)
typename std::conditional<std::is_scalar<T>::value, T, const T&>::type;		: final_action_(std::forward<T>(action)) {}
template <typename ActionT, size_t... I>		// Rather than a call operator, we must define conversion operators to
std::vector<ActionT> Convert(IndexSequence<I...>) const {		// particular action types. This is necessary for embedded actions like
return {ActionT(std::get<I>(actions))...};		// DoDefault(), which rely on an action conversion operators rather than
		// providing a call operator because even with a particular set of arguments
		// they don't have a fixed return type.
		template <typename R, typename... Args,
		typename std::enable_if<
		std::is_convertible<FinalAction, OnceAction<R(Args...)>>::value,
		int>::type = 0>
		operator OnceAction<R(Args...)>() && { // NOLINT
		return std::move(final_action_);
}		}
		template <
		typename R, typename... Args,
		typename std::enable_if<
		std::is_convertible<const FinalAction&, Action<R(Args...)>>::value,
		int>::type = 0>
		operator Action<R(Args...)>() const { // NOLINT
		return final_action_;
		}
		private:
		FinalAction final_action_;
		};
		// Recursive case: support N actions by calling the initial action and then
		// calling through to the base class containing N-1 actions.
		template <typename InitialAction, typename... OtherActions>
		class DoAllAction<InitialAction, OtherActions...>
		: private DoAllAction<OtherActions...> {
		private:
		using Base = DoAllAction<OtherActions...>;
		// The type of reference that should be provided to an initial action for a
		// mocked function parameter of type T.
		//
		// There are two quirks here:
		//
		// * Unlike most forwarding functions, we pass scalars through by value.
		// This isn't strictly necessary because an lvalue reference would work
		// fine too and be consistent with other non-reference types, but it's
		// perhaps less surprising.
		//
		// For example if the mocked function has signature void(int), then it
		// might seem surprising for the user's initial action to need to be
		// convertible to Action<void(const int&)>. This is perhaps less
		// surprising for a non-scalar type where there may be a performance
		// impact, or it might even be impossible, to pass by value.
		//
		// * More surprisingly, `const T&` is often not a const reference type.
		// By the reference collapsing rules in C++17 [dcl.ref]/6, if T refers to
		// U& or U&& for some non-scalar type U, then InitialActionArgType<T> is
		// U&. In other words, we may hand over a non-const reference.
		//
		// So for example, given some non-scalar type Obj we have the following
		// mappings:
		//
		// T InitialActionArgType<T>
		// ------- -----------------------
		// Obj const Obj&
		// Obj& Obj&
		// Obj&& Obj&
		// const Obj const Obj&
		// const Obj& const Obj&
		// const Obj&& const Obj&
		//
		// In other words, the initial actions get a mutable view of an non-scalar
		// argument if and only if the mock function itself accepts a non-const
		// reference type. They are never given an rvalue reference to an
		// non-scalar type.
		//
		// This situation makes sense if you imagine use with a matcher that is
		// designed to write through a reference. For example, if the caller wants
		// to fill in a reference argument and then return a canned value:
		//
		// EXPECT_CALL(mock, Call)
		// .WillOnce(DoAll(SetArgReferee<0>(17), Return(19)));
		//
		template <typename T>
		using InitialActionArgType =
		typename std::conditional<std::is_scalar<T>::value, T, const T&>::type;
public:		public:
std::tuple<Actions...> actions;		struct UserConstructorTag {};
template <typename R, typename... Args>		template <typename T, typename... U>
		explicit DoAllAction(UserConstructorTag, T&& initial_action,
		U&&... other_actions)
		: Base({}, std::forward<U>(other_actions)...),
		initial_action_(std::forward<T>(initial_action)) {}
		template <typename R, typename... Args,
		typename std::enable_if<
		conjunction<
		// Both the initial action and the rest must support
		// conversion to OnceAction.
		std::is_convertible<
		InitialAction,
		OnceAction<void(InitialActionArgType<Args>...)>>,
		std::is_convertible<Base, OnceAction<R(Args...)>>>::value,
		int>::type = 0>
		operator OnceAction<R(Args...)>() && { // NOLINT
		// Return an action that first calls the initial action with arguments
		// filtered through InitialActionArgType, then forwards arguments directly
		// to the base class to deal with the remaining actions.
		struct OA {
		OnceAction<void(InitialActionArgType<Args>...)> initial_action;
		OnceAction<R(Args...)> remaining_actions;
		R operator()(Args... args) && {
		std::move(initial_action)
		.Call(static_cast<InitialActionArgType<Args>>(args)...);
		return std::move(remaining_actions).Call(std::forward<Args>(args)...);
		}
		};
		return OA{
		std::move(initial_action_),
		std::move(static_cast<Base&>(*this)),
		};
		}
		template <
		typename R, typename... Args,
		typename std::enable_if<
		conjunction<
		// Both the initial action and the rest must support conversion to
		// Action.
		std::is_convertible<const InitialAction&,
		Action<void(InitialActionArgType<Args>...)>>,
		std::is_convertible<const Base&, Action<R(Args...)>>>::value,
		int>::type = 0>
operator Action<R(Args...)>() const { // NOLINT		operator Action<R(Args...)>() const { // NOLINT
struct Op {		// Return an action that first calls the initial action with arguments
std::vector<Action<void(NonFinalType<Args>...)>> converted;		// filtered through InitialActionArgType, then forwards arguments directly
Action<R(Args...)> last;		// to the base class to deal with the remaining actions.
		struct OA {
		Action<void(InitialActionArgType<Args>...)> initial_action;
		Action<R(Args...)> remaining_actions;
R operator()(Args... args) const {		R operator()(Args... args) const {
auto tuple_args = std::forward_as_tuple(std::forward<Args>(args)...);		initial_action.Perform(std::forward_as_tuple(
for (auto& a : converted) {		static_cast<InitialActionArgType<Args>>(args)...));
a.Perform(tuple_args);
}		return remaining_actions.Perform(
return last.Perform(std::move(tuple_args));		std::forward_as_tuple(std::forward<Args>(args)...));
}		}
};		};
return Op{Convert<Action<void(NonFinalType<Args>...)>>(
MakeIndexSequence<sizeof...(Actions) - 1>()),		return OA{
std::get<sizeof...(Actions) - 1>(actions)};		initial_action_,
		static_cast<const Base&>(*this),
		};
}		}
		private:
		InitialAction initial_action_;
};		};
template <typename T, typename... Params>		template <typename T, typename... Params>
struct ReturnNewAction {		struct ReturnNewAction {
T* operator()() const {		T* operator()() const {
return internal::Apply(		return internal::Apply(
[](const Params&... unpacked_params) {		[](const Params&... unpacked_params) {
return new T(unpacked_params...);		return new T(unpacked_params...);
},		},
params);		params);
}		}
std::tuple<Params...> params;		std::tuple<Params...> params;
};		};
template <size_t k>		template <size_t k>
struct ReturnArgAction {		struct ReturnArgAction {
template <typename... Args>		template <typename... Args,
auto operator()(const Args&... args) const ->		typename = typename std::enable_if<(k < sizeof...(Args))>::type>
typename std::tuple_element<k, std::tuple<Args...>>::type {		auto operator()(Args&&... args) const -> decltype(std::get<k>(
return std::get<k>(std::tie(args...));		std::forward_as_tuple(std::forward<Args>(args)...))) {
		return std::get<k>(std::forward_as_tuple(std::forward<Args>(args)...));
}		}
};		};
template <size_t k, typename Ptr>		template <size_t k, typename Ptr>
struct SaveArgAction {		struct SaveArgAction {
Ptr pointer;		Ptr pointer;
template <typename... Args>		template <typename... Args>
void operator()(const Args&... args) const {		void operator()(const Args&... args) const {
*pointer = std::get<k>(std::tie(args...));		*pointer = std::get<k>(std::tie(args...));
skipping to change at line 1205		skipping to change at line 1784
// EXPECT_CALL(mock, Foo("abc", _, _)).WillOnce(Invoke(DistanceToOrigin));		// EXPECT_CALL(mock, Foo("abc", _, _)).WillOnce(Invoke(DistanceToOrigin));
// EXPECT_CALL(mock, Bar(5, _, _)).WillOnce(Invoke(DistanceToOrigin));		// EXPECT_CALL(mock, Bar(5, _, _)).WillOnce(Invoke(DistanceToOrigin));
typedef internal::IgnoredValue Unused;		typedef internal::IgnoredValue Unused;
// Creates an action that does actions a1, a2, ..., sequentially in		// Creates an action that does actions a1, a2, ..., sequentially in
// each invocation. All but the last action will have a readonly view of the		// each invocation. All but the last action will have a readonly view of the
// arguments.		// arguments.
template <typename... Action>		template <typename... Action>
internal::DoAllAction<typename std::decay<Action>::type...> DoAll(		internal::DoAllAction<typename std::decay<Action>::type...> DoAll(
Action&&... action) {		Action&&... action) {
return {std::forward_as_tuple(std::forward<Action>(action)...)};		return internal::DoAllAction<typename std::decay<Action>::type...>(
		{}, std::forward<Action>(action)...);
}		}
// WithArg<k>(an_action) creates an action that passes the k-th		// WithArg<k>(an_action) creates an action that passes the k-th
// (0-based) argument of the mock function to an_action and performs		// (0-based) argument of the mock function to an_action and performs
// it. It adapts an action accepting one argument to one that accepts		// it. It adapts an action accepting one argument to one that accepts
// multiple arguments. For convenience, we also provide		// multiple arguments. For convenience, we also provide
// WithArgs<k>(an_action) (defined below) as a synonym.		// WithArgs<k>(an_action) (defined below) as a synonym.
template <size_t k, typename InnerAction>		template <size_t k, typename InnerAction>
internal::WithArgsAction<typename std::decay<InnerAction>::type, k>		internal::WithArgsAction<typename std::decay<InnerAction>::type, k> WithArg(
WithArg(InnerAction&& action) {		InnerAction&& action) {
return {std::forward<InnerAction>(action)};		return {std::forward<InnerAction>(action)};
}		}
// WithArgs<N1, N2, ..., Nk>(an_action) creates an action that passes		// WithArgs<N1, N2, ..., Nk>(an_action) creates an action that passes
// the selected arguments of the mock function to an_action and		// the selected arguments of the mock function to an_action and
// performs it. It serves as an adaptor between actions with		// performs it. It serves as an adaptor between actions with
// different argument lists.		// different argument lists.
template <size_t k, size_t... ks, typename InnerAction>		template <size_t k, size_t... ks, typename InnerAction>
internal::WithArgsAction<typename std::decay<InnerAction>::type, k, ks...>		internal::WithArgsAction<typename std::decay<InnerAction>::type, k, ks...>
WithArgs(InnerAction&& action) {		WithArgs(InnerAction&& action) {
return {std::forward<InnerAction>(action)};		return {std::forward<InnerAction>(action)};
}		}
// WithoutArgs(inner_action) can be used in a mock function with a		// WithoutArgs(inner_action) can be used in a mock function with a
// non-empty argument list to perform inner_action, which takes no		// non-empty argument list to perform inner_action, which takes no
// argument. In other words, it adapts an action accepting no		// argument. In other words, it adapts an action accepting no
// argument to one that accepts (and ignores) arguments.		// argument to one that accepts (and ignores) arguments.
template <typename InnerAction>		template <typename InnerAction>
internal::WithArgsAction<typename std::decay<InnerAction>::type>		internal::WithArgsAction<typename std::decay<InnerAction>::type> WithoutArgs(
WithoutArgs(InnerAction&& action) {		InnerAction&& action) {
return {std::forward<InnerAction>(action)};		return {std::forward<InnerAction>(action)};
}		}
// Creates an action that returns 'value'. 'value' is passed by value		// Creates an action that returns a value.
// instead of const reference - otherwise Return("string literal")		//
// will trigger a compiler error about using array as initializer.		// The returned type can be used with a mock function returning a non-void,
		// non-reference type U as follows:
		//
		// * If R is convertible to U and U is move-constructible, then the action can
		// be used with WillOnce.
		//
		// * If const R& is convertible to U and U is copy-constructible, then the
		// action can be used with both WillOnce and WillRepeatedly.
		//
		// The mock expectation contains the R value from which the U return value is
		// constructed (a move/copy of the argument to Return). This means that the R
		// value will survive at least until the mock object's expectations are cleared
		// or the mock object is destroyed, meaning that U can safely be a
		// reference-like type such as std::string_view:
		//
		// // The mock function returns a view of a copy of the string fed to
		// // Return. The view is valid even after the action is performed.
		// MockFunction<std::string_view()> mock;
		// EXPECT_CALL(mock, Call).WillOnce(Return(std::string("taco")));
		// const std::string_view result = mock.AsStdFunction()();
		// EXPECT_EQ("taco", result);
		//
template <typename R>		template <typename R>
internal::ReturnAction<R> Return(R value) {		internal::ReturnAction<R> Return(R value) {
return internal::ReturnAction<R>(std::move(value));		return internal::ReturnAction<R>(std::move(value));
}		}
// Creates an action that returns NULL.		// Creates an action that returns NULL.
inline PolymorphicAction<internal::ReturnNullAction> ReturnNull() {		inline PolymorphicAction<internal::ReturnNullAction> ReturnNull() {
return MakePolymorphicAction(internal::ReturnNullAction());		return MakePolymorphicAction(internal::ReturnNullAction());
}		}
skipping to change at line 1275		skipping to change at line 1876
internal::ReturnRefAction<R> ReturnRef(R&&) = delete;		internal::ReturnRefAction<R> ReturnRef(R&&) = delete;
// Creates an action that returns the reference to a copy of the		// Creates an action that returns the reference to a copy of the
// argument. The copy is created when the action is constructed and		// argument. The copy is created when the action is constructed and
// lives as long as the action.		// lives as long as the action.
template <typename R>		template <typename R>
inline internal::ReturnRefOfCopyAction<R> ReturnRefOfCopy(const R& x) {		inline internal::ReturnRefOfCopyAction<R> ReturnRefOfCopy(const R& x) {
return internal::ReturnRefOfCopyAction<R>(x);		return internal::ReturnRefOfCopyAction<R>(x);
}		}
		// DEPRECATED: use Return(x) directly with WillOnce.
		//
// Modifies the parent action (a Return() action) to perform a move of the		// Modifies the parent action (a Return() action) to perform a move of the
// argument instead of a copy.		// argument instead of a copy.
// Return(ByMove()) actions can only be executed once and will assert this		// Return(ByMove()) actions can only be executed once and will assert this
// invariant.		// invariant.
template <typename R>		template <typename R>
internal::ByMoveWrapper<R> ByMove(R x) {		internal::ByMoveWrapper<R> ByMove(R x) {
return internal::ByMoveWrapper<R>(std::move(x));		return internal::ByMoveWrapper<R>(std::move(x));
}		}
// Creates an action that returns an element of `vals`. Calling this action will		// Creates an action that returns an element of `vals`. Calling this action will
skipping to change at line 1321		skipping to change at line 1924
}		}
// The following version is DEPRECATED.		// The following version is DEPRECATED.
template <size_t N, typename T>		template <size_t N, typename T>
internal::SetArgumentPointeeAction<N, T> SetArgumentPointee(T value) {		internal::SetArgumentPointeeAction<N, T> SetArgumentPointee(T value) {
return {std::move(value)};		return {std::move(value)};
}		}
// Creates an action that sets a pointer referent to a given value.		// Creates an action that sets a pointer referent to a given value.
template <typename T1, typename T2>		template <typename T1, typename T2>
PolymorphicAction<internal::AssignAction<T1, T2> > Assign(T1* ptr, T2 val) {		PolymorphicAction<internal::AssignAction<T1, T2>> Assign(T1* ptr, T2 val) {
return MakePolymorphicAction(internal::AssignAction<T1, T2>(ptr, val));		return MakePolymorphicAction(internal::AssignAction<T1, T2>(ptr, val));
}		}
#if !GTEST_OS_WINDOWS_MOBILE		#if !GTEST_OS_WINDOWS_MOBILE
// Creates an action that sets errno and returns the appropriate error.		// Creates an action that sets errno and returns the appropriate error.
template <typename T>		template <typename T>
PolymorphicAction<internal::SetErrnoAndReturnAction<T> >		PolymorphicAction<internal::SetErrnoAndReturnAction<T>> SetErrnoAndReturn(
SetErrnoAndReturn(int errval, T result) {		int errval, T result) {
return MakePolymorphicAction(		return MakePolymorphicAction(
internal::SetErrnoAndReturnAction<T>(errval, result));		internal::SetErrnoAndReturnAction<T>(errval, result));
}		}
#endif // !GTEST_OS_WINDOWS_MOBILE		#endif // !GTEST_OS_WINDOWS_MOBILE
// Various overloads for Invoke().		// Various overloads for Invoke().
// Legacy function.		// Legacy function.
// Actions can now be implicitly constructed from callables. No need to create		// Actions can now be implicitly constructed from callables. No need to create
skipping to change at line 1484		skipping to change at line 2087
// arguments than it needs. The ExcessiveArg type is used to		// arguments than it needs. The ExcessiveArg type is used to
// represent those excessive arguments. In order to keep the compiler		// represent those excessive arguments. In order to keep the compiler
// error messages tractable, we define it in the testing namespace		// error messages tractable, we define it in the testing namespace
// instead of testing::internal. However, this is an INTERNAL TYPE		// instead of testing::internal. However, this is an INTERNAL TYPE
// and subject to change without notice, so a user MUST NOT USE THIS		// and subject to change without notice, so a user MUST NOT USE THIS
// TYPE DIRECTLY.		// TYPE DIRECTLY.
struct ExcessiveArg {};		struct ExcessiveArg {};
// Builds an implementation of an Action<> for some particular signature, using		// Builds an implementation of an Action<> for some particular signature, using
// a class defined by an ACTION* macro.		// a class defined by an ACTION* macro.
template <typename F, typename Impl> struct ActionImpl;		template <typename F, typename Impl>
		struct ActionImpl;
template <typename Impl>		template <typename Impl>
struct ImplBase {		struct ImplBase {
struct Holder {		struct Holder {
// Allows each copy of the Action<> to get to the Impl.		// Allows each copy of the Action<> to get to the Impl.
explicit operator const Impl&() const { return *ptr; }		explicit operator const Impl&() const { return *ptr; }
std::shared_ptr<Impl> ptr;		std::shared_ptr<Impl> ptr;
};		};
using type = typename std::conditional<std::is_constructible<Impl>::value,		using type = typename std::conditional<std::is_constructible<Impl>::value,
Impl, Holder>::type;		Impl, Holder>::type;
};		};
template <typename R, typename... Args, typename Impl>		template <typename R, typename... Args, typename Impl>
struct ActionImpl<R(Args...), Impl> : ImplBase<Impl>::type {		struct ActionImpl<R(Args...), Impl> : ImplBase<Impl>::type {
using Base = typename ImplBase<Impl>::type;		using Base = typename ImplBase<Impl>::type;
using function_type = R(Args...);		using function_type = R(Args...);
using args_type = std::tuple<Args...>;		using args_type = std::tuple<Args...>;
ActionImpl() = default; // Only defined if appropriate for Base.		ActionImpl() = default; // Only defined if appropriate for Base.
explicit ActionImpl(std::shared_ptr<Impl> impl) : Base{std::move(impl)} { }		explicit ActionImpl(std::shared_ptr<Impl> impl) : Base{std::move(impl)} {}
R operator()(Args&&... arg) const {		R operator()(Args&&... arg) const {
static constexpr size_t kMaxArgs =		static constexpr size_t kMaxArgs =
sizeof...(Args) <= 10 ? sizeof...(Args) : 10;		sizeof...(Args) <= 10 ? sizeof...(Args) : 10;
return Apply(MakeIndexSequence<kMaxArgs>{},		return Apply(MakeIndexSequence<kMaxArgs>{},
MakeIndexSequence<10 - kMaxArgs>{},		MakeIndexSequence<10 - kMaxArgs>{},
args_type{std::forward<Args>(arg)...});		args_type{std::forward<Args>(arg)...});
}		}
template <std::size_t... arg_id, std::size_t... excess_id>		template <std::size_t... arg_id, std::size_t... excess_id>
R Apply(IndexSequence<arg_id...>, IndexSequence<excess_id...>,		R Apply(IndexSequence<arg_id...>, IndexSequence<excess_id...>,
const args_type& args) const {		const args_type& args) const {
// Impl need not be specific to the signature of action being implemented;		// Impl need not be specific to the signature of action being implemented;
// only the implementing function body needs to have all of the specific		// only the implementing function body needs to have all of the specific
// types instantiated. Up to 10 of the args that are provided by the		// types instantiated. Up to 10 of the args that are provided by the
// args_type get passed, followed by a dummy of unspecified type for the		// args_type get passed, followed by a dummy of unspecified type for the
// remainder up to 10 explicit args.		// remainder up to 10 explicit args.
static constexpr ExcessiveArg kExcessArg{};		static constexpr ExcessiveArg kExcessArg{};
return static_cast<const Impl&>(*this).template gmock_PerformImpl<		return static_cast<const Impl&>(*this)
/*function_type=*/function_type, /*return_type=*/R,		.template gmock_PerformImpl<
/*args_type=*/args_type,		/*function_type=*/function_type, /*return_type=*/R,
/*argN_type=*/typename std::tuple_element<arg_id, args_type>::type...>(		/*args_type=*/args_type,
/*args=*/args, std::get<arg_id>(args)...,		/*argN_type=*/
((void)excess_id, kExcessArg)...);		typename std::tuple_element<arg_id, args_type>::type...>(
		/*args=*/args, std::get<arg_id>(args)...,
		((void)excess_id, kExcessArg)...);
}		}
};		};
// Stores a default-constructed Impl as part of the Action<>'s		// Stores a default-constructed Impl as part of the Action<>'s
// std::function<>. The Impl should be trivial to copy.		// std::function<>. The Impl should be trivial to copy.
template <typename F, typename Impl>		template <typename F, typename Impl>
::testing::Action<F> MakeAction() {		::testing::Action<F> MakeAction() {
return ::testing::Action<F>(ActionImpl<F, Impl>());		return ::testing::Action<F>(ActionImpl<F, Impl>());
}		}
// Stores just the one given instance of Impl.		// Stores just the one given instance of Impl.
template <typename F, typename Impl>		template <typename F, typename Impl>
::testing::Action<F> MakeAction(std::shared_ptr<Impl> impl) {		::testing::Action<F> MakeAction(std::shared_ptr<Impl> impl) {
return ::testing::Action<F>(ActionImpl<F, Impl>(std::move(impl)));		return ::testing::Action<F>(ActionImpl<F, Impl>(std::move(impl)));
}		}
#define GMOCK_INTERNAL_ARG_UNUSED(i, data, el) \		#define GMOCK_INTERNAL_ARG_UNUSED(i, data, el) \
, const arg##i##_type& arg##i GTEST_ATTRIBUTE_UNUSED_		, const arg##i##_type& arg##i GTEST_ATTRIBUTE_UNUSED_
#define GMOCK_ACTION_ARG_TYPES_AND_NAMES_UNUSED_ \		#define GMOCK_ACTION_ARG_TYPES_AND_NAMES_UNUSED_ \
const args_type& args GTEST_ATTRIBUTE_UNUSED_ GMOCK_PP_REPEAT( \		const args_type& args GTEST_ATTRIBUTE_UNUSED_ GMOCK_PP_REPEAT( \
GMOCK_INTERNAL_ARG_UNUSED, , 10)		GMOCK_INTERNAL_ARG_UNUSED, , 10)
#define GMOCK_INTERNAL_ARG(i, data, el) , const arg##i##_type& arg##i		#define GMOCK_INTERNAL_ARG(i, data, el) , const arg##i##_type& arg##i
#define GMOCK_ACTION_ARG_TYPES_AND_NAMES_ \		#define GMOCK_ACTION_ARG_TYPES_AND_NAMES_ \
const args_type& args GMOCK_PP_REPEAT(GMOCK_INTERNAL_ARG, , 10)		const args_type& args GMOCK_PP_REPEAT(GMOCK_INTERNAL_ARG, , 10)
#define GMOCK_INTERNAL_TEMPLATE_ARG(i, data, el) , typename arg##i##_type		#define GMOCK_INTERNAL_TEMPLATE_ARG(i, data, el) , typename arg##i##_type
#define GMOCK_ACTION_TEMPLATE_ARGS_NAMES_ \		#define GMOCK_ACTION_TEMPLATE_ARGS_NAMES_ \
GMOCK_PP_TAIL(GMOCK_PP_REPEAT(GMOCK_INTERNAL_TEMPLATE_ARG, , 10))		GMOCK_PP_TAIL(GMOCK_PP_REPEAT(GMOCK_INTERNAL_TEMPLATE_ARG, , 10))
skipping to change at line 1586		skipping to change at line 2192
#define GMOCK_INTERNAL_INIT_PARAM(i, data, param) \		#define GMOCK_INTERNAL_INIT_PARAM(i, data, param) \
, param(::std::forward<param##_type>(gmock_p##i))		, param(::std::forward<param##_type>(gmock_p##i))
#define GMOCK_ACTION_INIT_PARAMS_(params) \		#define GMOCK_ACTION_INIT_PARAMS_(params) \
GMOCK_PP_TAIL(GMOCK_PP_FOR_EACH(GMOCK_INTERNAL_INIT_PARAM, , params))		GMOCK_PP_TAIL(GMOCK_PP_FOR_EACH(GMOCK_INTERNAL_INIT_PARAM, , params))
#define GMOCK_INTERNAL_FIELD_PARAM(i, data, param) param##_type param;		#define GMOCK_INTERNAL_FIELD_PARAM(i, data, param) param##_type param;
#define GMOCK_ACTION_FIELD_PARAMS_(params) \		#define GMOCK_ACTION_FIELD_PARAMS_(params) \
GMOCK_PP_FOR_EACH(GMOCK_INTERNAL_FIELD_PARAM, , params)		GMOCK_PP_FOR_EACH(GMOCK_INTERNAL_FIELD_PARAM, , params)
#define GMOCK_INTERNAL_ACTION(name, full_name, params) \		#define GMOCK_INTERNAL_ACTION(name, full_name, params) \
template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \		template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \
class full_name { \		class full_name { \
public: \		public: \
explicit full_name(GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) \		explicit full_name(GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) \
: impl_(std::make_shared<gmock_Impl>( \		: impl_(std::make_shared<gmock_Impl>( \
GMOCK_ACTION_GVALUE_PARAMS_(params))) { } \		GMOCK_ACTION_GVALUE_PARAMS_(params))) {} \
full_name(const full_name&) = default; \		full_name(const full_name&) = default; \
full_name(full_name&&) noexcept = default; \		full_name(full_name&&) noexcept = default; \
template <typename F> \		template <typename F> \
operator ::testing::Action<F>() const { \		operator ::testing::Action<F>() const { \
return ::testing::internal::MakeAction<F>(impl_); \		return ::testing::internal::MakeAction<F>(impl_); \
} \		} \
private: \		\
class gmock_Impl { \		private: \
public: \		class gmock_Impl { \
explicit gmock_Impl(GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) \		public: \
: GMOCK_ACTION_INIT_PARAMS_(params) {} \		explicit gmock_Impl(GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) \
template <typename function_type, typename return_type, \		: GMOCK_ACTION_INIT_PARAMS_(params) {} \
typename args_type, GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \		template <typename function_type, typename return_type, \
return_type gmock_PerformImpl(GMOCK_ACTION_ARG_TYPES_AND_NAMES_) const; \		typename args_type, GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \
GMOCK_ACTION_FIELD_PARAMS_(params) \		return_type gmock_PerformImpl(GMOCK_ACTION_ARG_TYPES_AND_NAMES_) const; \
}; \		GMOCK_ACTION_FIELD_PARAMS_(params) \
std::shared_ptr<const gmock_Impl> impl_; \		}; \
}; \		std::shared_ptr<const gmock_Impl> impl_; \
template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \		}; \
inline full_name<GMOCK_ACTION_TYPE_PARAMS_(params)> name( \		template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \
GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) { \		inline full_name<GMOCK_ACTION_TYPE_PARAMS_(params)> name( \
return full_name<GMOCK_ACTION_TYPE_PARAMS_(params)>( \		GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) GTEST_MUST_USE_RESULT_; \
GMOCK_ACTION_GVALUE_PARAMS_(params)); \		template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \
} \		inline full_name<GMOCK_ACTION_TYPE_PARAMS_(params)> name( \
template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \		GMOCK_ACTION_TYPE_GVALUE_PARAMS_(params)) { \
template <typename function_type, typename return_type, typename args_type, \		return full_name<GMOCK_ACTION_TYPE_PARAMS_(params)>( \
GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \		GMOCK_ACTION_GVALUE_PARAMS_(params)); \
return_type full_name<GMOCK_ACTION_TYPE_PARAMS_(params)>::gmock_Impl:: \		} \
gmock_PerformImpl(GMOCK_ACTION_ARG_TYPES_AND_NAMES_UNUSED_) const		template <GMOCK_ACTION_TYPENAME_PARAMS_(params)> \
		template <typename function_type, typename return_type, typename args_type, \
		GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \
		return_type \
		full_name<GMOCK_ACTION_TYPE_PARAMS_(params)>::gmock_Impl::gmock_PerformImpl( \
		GMOCK_ACTION_ARG_TYPES_AND_NAMES_UNUSED_) const
} // namespace internal		} // namespace internal
// Similar to GMOCK_INTERNAL_ACTION, but no bound parameters are stored.		// Similar to GMOCK_INTERNAL_ACTION, but no bound parameters are stored.
#define ACTION(name) \		#define ACTION(name) \
class name##Action { \		class name##Action { \
public: \		public: \
explicit name##Action() noexcept {} \		explicit name##Action() noexcept {} \
name##Action(const name##Action&) noexcept {} \		name##Action(const name##Action&) noexcept {} \
template <typename F> \		template <typename F> \
operator ::testing::Action<F>() const { \		operator ::testing::Action<F>() const { \
return ::testing::internal::MakeAction<F, gmock_Impl>(); \		return ::testing::internal::MakeAction<F, gmock_Impl>(); \
} \		} \
		\
private: \		private: \
class gmock_Impl { \		class gmock_Impl { \
public: \		public: \
template <typename function_type, typename return_type, \		template <typename function_type, typename return_type, \
typename args_type, GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \		typename args_type, GMOCK_ACTION_TEMPLATE_ARGS_NAMES_> \
return_type gmock_PerformImpl(GMOCK_ACTION_ARG_TYPES_AND_NAMES_) const; \		return_type gmock_PerformImpl(GMOCK_ACTION_ARG_TYPES_AND_NAMES_) const; \
}; \		}; \
}; \		}; \
inline name##Action name() GTEST_MUST_USE_RESULT_; \		inline name##Action name() GTEST_MUST_USE_RESULT_; \
inline name##Action name() { return name##Action(); } \		inline name##Action name() { return name##Action(); } \
skipping to change at line 1683		skipping to change at line 2295
#define ACTION_P9(name, ...) \		#define ACTION_P9(name, ...) \
GMOCK_INTERNAL_ACTION(name, name##ActionP9, (__VA_ARGS__))		GMOCK_INTERNAL_ACTION(name, name##ActionP9, (__VA_ARGS__))
#define ACTION_P10(name, ...) \		#define ACTION_P10(name, ...) \
GMOCK_INTERNAL_ACTION(name, name##ActionP10, (__VA_ARGS__))		GMOCK_INTERNAL_ACTION(name, name##ActionP10, (__VA_ARGS__))
} // namespace testing		} // namespace testing
#ifdef _MSC_VER		#ifdef _MSC_VER
# pragma warning(pop)		#pragma warning(pop)
#endif		#endif
#endif // GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_		#endif // GOOGLEMOCK_INCLUDE_GMOCK_GMOCK_ACTIONS_H_
End of changes. 71 change blocks.
231 lines changed or deleted		843 lines changed or added

---