Namespaces
	cef_internal

	PlatformThread
	A namespace for low-level thread functions.

Classes
class	AtomicFlag
	A flag that can safely be set from one thread and read from other threads. More...

class	AtomicRefCount

class	AutoReset

class	OnceCallback< R(Args...)>

class	RepeatingCallback< R(Args...)>

class	OnceCallback

class	RepeatingCallback

class	ScopedClosureRunner
	ScopedClosureRunner is akin to std::unique_ptr<> for Closures. More...

class	NullCallback
	Creates a null callback. More...

class	DoNothing
	Creates a callback that does nothing when called. More...

class	OnceCallbackList

class	RepeatingCallbackList

class	CallbackListSubscription

class	PlatformThreadRef
	Used for thread checking and debugging. More...

class	RefCounted
	A base class for reference counted classes. More...

struct	DefaultRefCountedTraits
	Default traits for RefCounted<T>. More...

class	RefCountedThreadSafe
	A thread-safe variant of RefCounted<T> More...

struct	DefaultRefCountedThreadSafeTraits
	Default traits for RefCountedThreadSafe<T>. More...

class	RefCountedData
	A thread-safe wrapper for some piece of data so we can place other things in scoped_refptrs<>. More...

struct	ScopedTypeRefTraits

class	ScopedTypeRef
	ScopedTypeRef<> is patterned after std::unique_ptr<>, but maintains ownership of a reference to any type that is maintained by Retain and Release methods. More...

class	ThreadChecker
	ThreadChecker is a helper class used to help verify that some methods of a class are called from the same thread. More...

class	SupportsWeakPtr
	A class may extend from SupportsWeakPtr to let others take weak pointers to it. More...

class	WeakPtr
	The WeakPtr class holds a weak reference to \|T*\|. More...

class	WeakPtrFactory
	A class may be composed of a WeakPtrFactory and thereby control how it exposes weak pointers to itself. More...

Typedefs
using	OnceClosure = OnceCallback< void()>
	Syntactic sugar to make OnceClosure<void()> and RepeatingClosure<void()> easier to declare since they will be used in a lot of APIs with delayed execution. More...

using	RepeatingClosure = RepeatingCallback< void()>

template<typename T >
using	IsBaseCallback = internal::IsBaseCallbackImpl< std::decay_t< T > >
	IsBaseCallback<T>::value is true when T is any of the Closure or Callback family of types. More...

template<typename T >
using	IsOnceCallback = internal::IsOnceCallbackImpl< std::decay_t< T > >
	IsOnceCallback<T>::value is true when T is a OnceClosure or OnceCallback type. More...

template<template< typename > class CallbackType>
using	EnableIfIsBaseCallback = std::enable_if_t< IsBaseCallback< CallbackType< void()> >::value >
	SFINAE friendly enabler allowing to overload methods for both Repeating and OnceCallbacks. More...

using	OnceClosureList = OnceCallbackList< void()>
	Syntactic sugar to parallel that used for Callbacks. More...

using	RepeatingClosureList = RepeatingCallbackList< void()>

template<typename Signature >
using	CancelableOnceCallback = internal::CancelableCallbackImpl< OnceCallback< Signature > >
	Consider using base::WeakPtr directly instead of base::CancelableCallback for the task cancellation. More...

using	CancelableOnceClosure = CancelableOnceCallback< void()>

template<typename Signature >
using	CancelableRepeatingCallback = internal::CancelableCallbackImpl< RepeatingCallback< Signature > >

using	CancelableRepeatingClosure = CancelableRepeatingCallback< void()>

typedef cef_platform_thread_id_t	PlatformThreadId
	Used for logging. More...

using	ScopedAllowCrossThreadRefCountAccess = cef_subtle::ScopedAllowCrossThreadRefCountAccess

Functions
template<typename Functor , typename... Args>
OnceCallback< cef_internal::MakeUnboundRunType< Functor, Args... > >	BindOnce (Functor &&functor, Args &&... args)
	Bind as OnceCallback. More...

template<typename Functor , typename... Args>
RepeatingCallback< cef_internal::MakeUnboundRunType< Functor, Args... > >	BindRepeating (Functor &&functor, Args &&... args)
	Bind as RepeatingCallback. More...

template<typename Signature >
OnceCallback< Signature >	BindOnce (OnceCallback< Signature > callback)
	Special cases for binding to a base::Callback without extra bound arguments. More...

template<typename Signature >
OnceCallback< Signature >	BindOnce (RepeatingCallback< Signature > callback)

template<typename Signature >
RepeatingCallback< Signature >	BindRepeating (RepeatingCallback< Signature > callback)

template<typename T >
cef_internal::UnretainedWrapper< T >	Unretained (T *o)
	Unretained() allows binding a non-refcounted class, and to disable refcounting on arguments that are refcounted objects. More...

template<typename T >
cef_internal::RetainedRefWrapper< T >	RetainedRef (T *o)
	RetainedRef() accepts a ref counted object and retains a reference to it. More...

template<typename T >
cef_internal::RetainedRefWrapper< T >	RetainedRef (scoped_refptr< T > o)

template<typename T >
cef_internal::OwnedWrapper< T >	Owned (T *o)
	Owned() transfers ownership of an object to the callback resulting from bind; the object will be deleted when the callback is deleted. More...

template<typename T , typename Deleter >
cef_internal::OwnedWrapper< T, Deleter >	Owned (std::unique_ptr< T, Deleter > &&ptr)

template<typename T >
cef_internal::OwnedRefWrapper< std::decay_t< T > >	OwnedRef (T &&t)
	OwnedRef() stores an object in the callback resulting from bind and passes a reference to the object to the bound function. More...

template<typename T , std::enable_if_t<!std::is_lvalue_reference< T >::value > * = nullptr>
cef_internal::PassedWrapper< T >	Passed (T &&scoper)
	Passed() is for transferring movable-but-not-copyable types (eg. More...

template<typename T >
cef_internal::PassedWrapper< T >	Passed (T *scoper)

template<typename T >
cef_internal::IgnoreResultHelper< T >	IgnoreResult (T data)
	IgnoreResult() is used to adapt a function or callback with a return type to one with a void return. More...

template<typename... Args>
RepeatingCallback< void(Args...)>	AdaptCallbackForRepeating (OnceCallback< void(Args...)> callback)
	Wraps the given OnceCallback into a RepeatingCallback that relays its invocation to the original OnceCallback on the first invocation. More...

template<typename... Args>
std::pair< OnceCallback< void(Args...)>, OnceCallback< void(Args...)> >	SplitOnceCallback (OnceCallback< void(Args...)> callback)
	Wraps the given OnceCallback and returns two OnceCallbacks with an identical signature. More...

template<typename T >
void	DeletePointer (T *obj)
	Useful for creating a Closure that will delete a pointer when invoked. More...

template<typename T >
bool	operator== (const RefCountedData< T > &lhs, const RefCountedData< T > &rhs)

template<typename T >
bool	operator!= (const RefCountedData< T > &lhs, const RefCountedData< T > &rhs)

template<typename T >
scoped_refptr< T >	AdoptRef (T *t)

template<typename T , typename... Args>
scoped_refptr< T >	MakeRefCounted (Args &&... args)

template<typename T >
scoped_refptr< T >	WrapRefCounted (T *t)

template<typename ObjT , typename Method , typename Tuple , size_t... Ns>
void	DispatchToMethodImpl (const ObjT &obj, Method method, Tuple &&args, std::index_sequence< Ns... >)

template<typename ObjT , typename Method , typename Tuple >
void	DispatchToMethod (const ObjT &obj, Method method, Tuple &&args)

template<typename Function , typename Tuple , size_t... Ns>
void	DispatchToFunctionImpl (Function function, Tuple &&args, std::index_sequence< Ns... >)

template<typename Function , typename Tuple >
void	DispatchToFunction (Function function, Tuple &&args)

template<typename ObjT , typename Method , typename InTuple , typename OutTuple , size_t... InNs, size_t... OutNs>
void	DispatchToMethodImpl (const ObjT &obj, Method method, InTuple &&in, OutTuple *out, std::index_sequence< InNs... >, std::index_sequence< OutNs... >)

template<typename ObjT , typename Method , typename InTuple , typename OutTuple >
void	DispatchToMethod (const ObjT &obj, Method method, InTuple &&in, OutTuple *out)

template<class T >
bool	operator!= (const WeakPtr< T > &weak_ptr, std::nullptr_t)
	Allow callers to compare WeakPtrs against nullptr to test validity. More...

template<class T >
bool	operator!= (std::nullptr_t, const WeakPtr< T > &weak_ptr)

template<class T >
bool	operator== (const WeakPtr< T > &weak_ptr, std::nullptr_t)

template<class T >
bool	operator== (std::nullptr_t, const WeakPtr< T > &weak_ptr)

template<typename Derived >
WeakPtr< Derived >	AsWeakPtr (Derived *t)
	Helper function that uses type deduction to safely return a WeakPtr<Derived> when Derived doesn't directly extend SupportsWeakPtr<Derived>, instead it extends a Base that extends SupportsWeakPtr<Base>. More...

Typedef Documentation

◆ CancelableOnceCallback

template<typename Signature >

using base::CancelableOnceCallback = typedef internal::CancelableCallbackImpl<OnceCallback<Signature> >

Consider using base::WeakPtr directly instead of base::CancelableCallback for the task cancellation.

◆ CancelableOnceClosure

using base::CancelableOnceClosure = typedef CancelableOnceCallback<void()>

◆ CancelableRepeatingCallback

template<typename Signature >

using base::CancelableRepeatingCallback = typedef internal::CancelableCallbackImpl<RepeatingCallback<Signature> >

◆ CancelableRepeatingClosure

using base::CancelableRepeatingClosure = typedef CancelableRepeatingCallback<void()>

◆ EnableIfIsBaseCallback

template<template< typename > class CallbackType>

using base::EnableIfIsBaseCallback = typedef std::enable_if_t<IsBaseCallback<CallbackType<void()> >::value>

SFINAE friendly enabler allowing to overload methods for both Repeating and OnceCallbacks.

Usage:

  template <template <typename> class CallbackType,
            ... other template args ...,
            typename = EnableIfIsBaseCallback<CallbackType>>
  void DoStuff(CallbackType<...> cb, ...);

◆ IsBaseCallback

template<typename T >

using base::IsBaseCallback = typedef internal::IsBaseCallbackImpl<std::decay_t<T> >

IsBaseCallback<T>::value is true when T is any of the Closure or Callback family of types.

◆ IsOnceCallback

template<typename T >

using base::IsOnceCallback = typedef internal::IsOnceCallbackImpl<std::decay_t<T> >

IsOnceCallback<T>::value is true when T is a OnceClosure or OnceCallback type.

◆ OnceClosure

using base::OnceClosure = typedef OnceCallback<void()>

Syntactic sugar to make OnceClosure<void()> and RepeatingClosure<void()> easier to declare since they will be used in a lot of APIs with delayed execution.

◆ OnceClosureList

using base::OnceClosureList = typedef OnceCallbackList<void()>

Syntactic sugar to parallel that used for Callbacks.

◆ PlatformThreadId

typedef cef_platform_thread_id_t base::PlatformThreadId

Used for logging.

Always an integer value.

◆ RepeatingClosure

using base::RepeatingClosure = typedef RepeatingCallback<void()>

◆ RepeatingClosureList

using base::RepeatingClosureList = typedef RepeatingCallbackList<void()>

◆ ScopedAllowCrossThreadRefCountAccess

using base::ScopedAllowCrossThreadRefCountAccess = typedef cef_subtle::ScopedAllowCrossThreadRefCountAccess

Function Documentation

◆ AdaptCallbackForRepeating()

template<typename... Args>

RepeatingCallback<void(Args...)> base::AdaptCallbackForRepeating ( OnceCallback< void(Args...)> callback )

Wraps the given OnceCallback into a RepeatingCallback that relays its invocation to the original OnceCallback on the first invocation.

The following invocations are just ignored.

Note that this deliberately subverts the Once/Repeating paradigm of Callbacks but helps ease the migration from old-style Callbacks. Avoid if possible; use if necessary for migration.

◆ AdoptRef()

template<typename T >

scoped_refptr< T > base::AdoptRef ( T * t )

◆ AsWeakPtr()

template<typename Derived >

WeakPtr<Derived> base::AsWeakPtr ( Derived * t )

Helper function that uses type deduction to safely return a WeakPtr<Derived> when Derived doesn't directly extend SupportsWeakPtr<Derived>, instead it extends a Base that extends SupportsWeakPtr<Base>.

EXAMPLE:

  class Base : public base::SupportsWeakPtr<Producer> {};
  class Derived : public Base {};

  Derived derived;
  base::WeakPtr<Derived> ptr = base::AsWeakPtr(&derived);

Note that the following doesn't work (invalid type conversion) since Derived::AsWeakPtr() is WeakPtr<Base> SupportsWeakPtr<Base>::AsWeakPtr(), and there's no way to safely cast WeakPtr<Base> to WeakPtr<Derived> at the caller.

  base::WeakPtr<Derived> ptr = derived.AsWeakPtr();  // Fails.

◆ BindOnce() [1/3]

template<typename Functor , typename... Args>

OnceCallback<cef_internal::MakeUnboundRunType<Functor, Args...> > base::BindOnce	(	Functor &&	functor,
		Args &&...	args
	)

inline

Bind as OnceCallback.

◆ BindOnce() [2/3]

template<typename Signature >

OnceCallback<Signature> base::BindOnce ( OnceCallback< Signature > callback )

Special cases for binding to a base::Callback without extra bound arguments.

We CHECK() the validity of callback to guard against null pointers accidentally ending up in posted tasks, causing hard-to-debug crashes.

◆ BindOnce() [3/3]

template<typename Signature >

OnceCallback<Signature> base::BindOnce ( RepeatingCallback< Signature > callback )

◆ BindRepeating() [1/2]

template<typename Functor , typename... Args>

RepeatingCallback<cef_internal::MakeUnboundRunType<Functor, Args...> > base::BindRepeating	(	Functor &&	functor,
		Args &&...	args
	)

inline

Bind as RepeatingCallback.

◆ BindRepeating() [2/2]

template<typename Signature >

RepeatingCallback<Signature> base::BindRepeating ( RepeatingCallback< Signature > callback )

◆ DeletePointer()

template<typename T >

void base::DeletePointer ( T * obj )

Useful for creating a Closure that will delete a pointer when invoked.

Only use this when necessary. In most cases MessageLoop::DeleteSoon() is a better fit.

◆ DispatchToFunction()

template<typename Function , typename Tuple >

void base::DispatchToFunction	(	Function	function,
		Tuple &&	args
	)

inline

◆ DispatchToFunctionImpl()

template<typename Function , typename Tuple , size_t... Ns>

void base::DispatchToFunctionImpl	(	Function	function,
		Tuple &&	args,
		std::index_sequence< Ns... >
	)

inline

◆ DispatchToMethod() [1/2]

template<typename ObjT , typename Method , typename InTuple , typename OutTuple >

void base::DispatchToMethod	(	const ObjT &	obj,
		Method	method,
		InTuple &&	in,
		OutTuple *	out
	)

inline

◆ DispatchToMethod() [2/2]

template<typename ObjT , typename Method , typename Tuple >

void base::DispatchToMethod	(	const ObjT &	obj,
		Method	method,
		Tuple &&	args
	)

inline

◆ DispatchToMethodImpl() [1/2]

template<typename ObjT , typename Method , typename InTuple , typename OutTuple , size_t... InNs, size_t... OutNs>

void base::DispatchToMethodImpl	(	const ObjT &	obj,
		Method	method,
		InTuple &&	in,
		OutTuple *	out,
		std::index_sequence< InNs... >	,
		std::index_sequence< OutNs... >
	)

inline

◆ DispatchToMethodImpl() [2/2]

template<typename ObjT , typename Method , typename Tuple , size_t... Ns>

void base::DispatchToMethodImpl	(	const ObjT &	obj,
		Method	method,
		Tuple &&	args,
		std::index_sequence< Ns... >
	)

inline

◆ IgnoreResult()

template<typename T >

cef_internal::IgnoreResultHelper<T> base::IgnoreResult ( T data )

inline

IgnoreResult() is used to adapt a function or callback with a return type to one with a void return.

This is most useful if you have a function with, say, a pesky ignorable bool return that you want to use with PostTask or something else that expect a callback with a void return.

EXAMPLE OF IgnoreResult():

  int DoSomething(int arg) { cout << arg << endl; }

  // Assign to a callback with a void return type.
  OnceCallback<void(int)> cb = BindOnce(IgnoreResult(&DoSomething));
  std::move(cb).Run(1);  // Prints "1".

  // Prints "2" on |ml|.
  ml->PostTask(FROM_HERE, BindOnce(IgnoreResult(&DoSomething), 2);

◆ MakeRefCounted()

template<typename T , typename... Args>

scoped_refptr<T> base::MakeRefCounted ( Args &&... args )

◆ operator!=() [1/3]

template<typename T >

bool base::operator!=	(	const RefCountedData< T > &	lhs,
		const RefCountedData< T > &	rhs
	)

◆ operator!=() [2/3]

template<class T >

bool base::operator!=	(	const WeakPtr< T > &	weak_ptr,
		std::nullptr_t
	)

Allow callers to compare WeakPtrs against nullptr to test validity.

◆ operator!=() [3/3]

template<class T >

bool base::operator!=	(	std::nullptr_t	,
		const WeakPtr< T > &	weak_ptr
	)

◆ operator==() [1/3]

template<typename T >

bool base::operator==	(	const RefCountedData< T > &	lhs,
		const RefCountedData< T > &	rhs
	)

◆ operator==() [2/3]

template<class T >

bool base::operator==	(	const WeakPtr< T > &	weak_ptr,
		std::nullptr_t
	)

◆ operator==() [3/3]

template<class T >

bool base::operator==	(	std::nullptr_t	,
		const WeakPtr< T > &	weak_ptr
	)

◆ Owned() [1/2]

template<typename T , typename Deleter >

cef_internal::OwnedWrapper<T, Deleter> base::Owned ( std::unique_ptr< T, Deleter > && ptr )

inline

◆ Owned() [2/2]

template<typename T >

cef_internal::OwnedWrapper<T> base::Owned ( T * o )

inline

Owned() transfers ownership of an object to the callback resulting from bind; the object will be deleted when the callback is deleted.

EXAMPLE OF Owned():

  void foo(int* arg) { cout << *arg << endl }

  int* pn = new int(1);
  RepeatingClosure foo_callback = BindRepeating(&foo, Owned(pn));

  foo_callback.Run();  // Prints "1"
  foo_callback.Run();  // Prints "1"
  *pn = 2;
  foo_callback.Run();  // Prints "2"

  foo_callback.Reset();  // |pn| is deleted.  Also will happen when
                         // |foo_callback| goes out of scope.

Without Owned(), someone would have to know to delete |pn| when the last reference to the callback is deleted.

◆ OwnedRef()

template<typename T >

cef_internal::OwnedRefWrapper<std::decay_t<T> > base::OwnedRef ( T && t )

OwnedRef() stores an object in the callback resulting from bind and passes a reference to the object to the bound function.

EXAMPLE OF OwnedRef():

  void foo(int& arg) { cout << ++arg << endl }

  int counter = 0;
  RepeatingClosure foo_callback = BindRepeating(&foo, OwnedRef(counter));

  foo_callback.Run();  // Prints "1"
  foo_callback.Run();  // Prints "2"
  foo_callback.Run();  // Prints "3"

  cout << counter;     // Prints "0", OwnedRef creates a copy of counter.

Supports OnceCallbacks as well, useful to pass placeholder arguments:

  void bar(int& ignore, const std::string& s) { cout << s << endl }

  OnceClosure bar_callback = BindOnce(&bar, OwnedRef(0), "Hello");

  std::move(bar_callback).Run(); // Prints "Hello"

Without OwnedRef() it would not be possible to pass a mutable reference to an object owned by the callback.

◆ Passed() [1/2]

template<typename T , std::enable_if_t<!std::is_lvalue_reference< T >::value > * = nullptr>

cef_internal::PassedWrapper<T> base::Passed ( T && scoper )

inline

Passed() is for transferring movable-but-not-copyable types (eg.

unique_ptr) through a RepeatingCallback. Logically, this signifies a destructive transfer of the state of the argument into the target function. Invoking RepeatingCallback::Run() twice on a callback that was created with a Passed() argument will CHECK() because the first invocation would have already transferred ownership to the target function.

Note that Passed() is not necessary with BindOnce(), as std::move() does the same thing. Avoid Passed() in favor of std::move() with BindOnce().

EXAMPLE OF Passed():

  void TakesOwnership(std::unique_ptr<Foo> arg) { }
  std::unique_ptr<Foo> CreateFoo() { return std::make_unique<Foo>();
  }

  auto f = std::make_unique<Foo>();

  // |cb| is given ownership of Foo(). |f| is now NULL.
  // You can use std::move(f) in place of &f, but it's more verbose.
  RepeatingClosure cb = BindRepeating(&TakesOwnership, Passed(&f));

  // Run was never called so |cb| still owns Foo() and deletes
  // it on Reset().
  cb.Reset();

  // |cb| is given a new Foo created by CreateFoo().
  cb = BindRepeating(&TakesOwnership, Passed(CreateFoo()));

  // |arg| in TakesOwnership() is given ownership of Foo(). |cb|
  // no longer owns Foo() and, if reset, would not delete Foo().
  cb.Run();  // Foo() is now transferred to |arg| and deleted.
  cb.Run();  // This CHECK()s since Foo() already been used once.

We offer 2 syntaxes for calling Passed(). The first takes an rvalue and is best suited for use with the return value of a function or other temporary rvalues. The second takes a pointer to the scoper and is just syntactic sugar to avoid having to write Passed(std::move(scoper)).

Both versions of Passed() prevent T from being an lvalue reference. The first via use of enable_if, and the second takes a T* which will not bind to T&.

◆ Passed() [2/2]

template<typename T >

cef_internal::PassedWrapper<T> base::Passed ( T * scoper )

inline

◆ RetainedRef() [1/2]

template<typename T >

cef_internal::RetainedRefWrapper<T> base::RetainedRef ( scoped_refptr< T > o )

inline

◆ RetainedRef() [2/2]

template<typename T >

cef_internal::RetainedRefWrapper<T> base::RetainedRef ( T * o )

inline

RetainedRef() accepts a ref counted object and retains a reference to it.

When the callback is called, the object is passed as a raw pointer.

EXAMPLE OF RetainedRef():

   void foo(RefCountedBytes* bytes) {}

   scoped_refptr<RefCountedBytes> bytes = ...;
   OnceClosure callback = BindOnce(&foo, base::RetainedRef(bytes));
   std::move(callback).Run();

Without RetainedRef, the scoped_refptr would try to implicitly convert to a raw pointer and fail compilation:

   OnceClosure callback = BindOnce(&foo, bytes); // ERROR!

◆ SplitOnceCallback()

template<typename... Args>

std::pair<OnceCallback<void(Args...)>, OnceCallback<void(Args...)> > base::SplitOnceCallback ( OnceCallback< void(Args...)> callback )

Wraps the given OnceCallback and returns two OnceCallbacks with an identical signature.

On first invokation of either returned callbacks, the original callback is invoked. Invoking the remaining callback results in a crash.

◆ Unretained()

template<typename T >

cef_internal::UnretainedWrapper<T> base::Unretained ( T * o )

inline

Unretained() allows binding a non-refcounted class, and to disable refcounting on arguments that are refcounted objects.

EXAMPLE OF Unretained():

  class Foo {
   public:
    void func() { cout << "Foo:f" << endl; }
  };

  // In some function somewhere.
  Foo foo;
  OnceClosure foo_callback =
      BindOnce(&Foo::func, Unretained(&foo));
  std::move(foo_callback).Run();  // Prints "Foo:f".

Without the Unretained() wrapper on |&foo|, the above call would fail to compile because Foo does not support the AddRef() and Release() methods.

◆ WrapRefCounted()

template<typename T >

scoped_refptr<T> base::WrapRefCounted ( T * t )

Namespaces

Classes

Typedefs

Functions

Typedef Documentation

◆ CancelableOnceCallback

◆ CancelableOnceClosure

◆ CancelableRepeatingCallback

◆ CancelableRepeatingClosure

◆ EnableIfIsBaseCallback

◆ IsBaseCallback

◆ IsOnceCallback

◆ OnceClosure

◆ OnceClosureList

◆ PlatformThreadId

◆ RepeatingClosure

◆ RepeatingClosureList

◆ ScopedAllowCrossThreadRefCountAccess

Function Documentation

◆ AdaptCallbackForRepeating()

◆ AdoptRef()

◆ AsWeakPtr()

◆ BindOnce() [1/3]

◆ BindOnce() [2/3]

◆ BindOnce() [3/3]

◆ BindRepeating() [1/2]

◆ BindRepeating() [2/2]

◆ DeletePointer()

◆ DispatchToFunction()

◆ DispatchToFunctionImpl()

◆ DispatchToMethod() [1/2]

◆ DispatchToMethod() [2/2]

◆ DispatchToMethodImpl() [1/2]

◆ DispatchToMethodImpl() [2/2]

◆ IgnoreResult()

◆ MakeRefCounted()

◆ operator!=() [1/3]

◆ operator!=() [2/3]

◆ operator!=() [3/3]

◆ operator==() [1/3]

◆ operator==() [2/3]

◆ operator==() [3/3]

◆ Owned() [1/2]

◆ Owned() [2/2]

◆ OwnedRef()

◆ Passed() [1/2]

◆ Passed() [2/2]

◆ RetainedRef() [1/2]

◆ RetainedRef() [2/2]

◆ SplitOnceCallback()

◆ Unretained()

◆ WrapRefCounted()