// -*- c++ -*-
/* Do not edit! -- generated file */
#ifndef _SIGC_SIGNAL_H_
#define _SIGC_SIGNAL_H_
#include <list>
#include <sigc++/signal_base.h>
#include <sigc++/type_traits.h>
#include <sigc++/trackable.h>
#include <sigc++/functors/slot.h>
#include <sigc++/functors/mem_fun.h>
//TODO: See comment in functor_trait.h.
#if defined(nil) && defined(SIGC_PRAGMA_PUSH_POP_MACRO)
#define SIGC_NIL_HAS_BEEN_PUSHED 1
#pragma push_macro("nil")
#undef nil
#endif
//SIGC_TYPEDEF_REDEFINE_ALLOWED:
// TODO: This should have its own test, but I can not create one that gives the error instead of just a warning. murrayc.
// I have just used this because there is a correlation between these two problems.
#ifdef SIGC_TEMPLATE_SPECIALIZATION_OPERATOR_OVERLOAD
//Compilers, such as older versions of SUN Forte C++, that do not allow this also often
//do not allow a typedef to have the same name as a class in the typedef's definition.
//For Sun Forte CC 5.7 (SUN Workshop 10), comment this out to fix the build.
#define SIGC_TYPEDEF_REDEFINE_ALLOWED 1
#endif
namespace sigc {
/** STL-style iterator for slot_list.
*
* @ingroup signal
*/
template <typename T_slot>
struct slot_iterator
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
typedef T_slot slot_type;
typedef T_slot value_type;
typedef T_slot* pointer;
typedef T_slot& reference;
typedef typename internal::signal_impl::iterator_type iterator_type;
slot_iterator()
{}
explicit slot_iterator(const iterator_type& i)
: i_(i) {}
reference operator*() const
{ return static_cast<reference>(*i_); }
pointer operator->() const
{ return &(operator*()); }
slot_iterator& operator++()
{
++i_;
return *this;
}
slot_iterator operator++(int)
{
slot_iterator __tmp(*this);
++i_;
return __tmp;
}
slot_iterator& operator--()
{
--i_;
return *this;
}
slot_iterator operator--(int)
{
slot_iterator __tmp(*this);
--i_;
return __tmp;
}
bool operator == (const slot_iterator& other) const
{ return i_ == other.i_; }
bool operator != (const slot_iterator& other) const
{ return i_ != other.i_; }
iterator_type i_;
};
/** STL-style const iterator for slot_list.
*
* @ingroup signal
*/
template <typename T_slot>
struct slot_const_iterator
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
typedef T_slot slot_type;
typedef T_slot value_type;
typedef const T_slot* pointer;
typedef const T_slot& reference;
typedef typename internal::signal_impl::const_iterator_type iterator_type;
slot_const_iterator()
{}
explicit slot_const_iterator(const iterator_type& i)
: i_(i) {}
reference operator*() const
{ return static_cast<reference>(*i_); }
pointer operator->() const
{ return &(operator*()); }
slot_const_iterator& operator++()
{
++i_;
return *this;
}
slot_const_iterator operator++(int)
{
slot_const_iterator __tmp(*this);
++i_;
return __tmp;
}
slot_const_iterator& operator--()
{
--i_;
return *this;
}
slot_const_iterator operator--(int)
{
slot_const_iterator __tmp(*this);
--i_;
return __tmp;
}
bool operator == (const slot_const_iterator& other) const
{ return i_ == other.i_; }
bool operator != (const slot_const_iterator& other) const
{ return i_ != other.i_; }
iterator_type i_;
};
/** STL-style list interface for sigc::signal#.
* slot_list can be used to iterate over the list of slots that
* is managed by a signal. Slots can be added or removed from
* the list while existing iterators stay valid.
*
* @ingroup signal
*/
template <class T_slot>
struct slot_list
{
typedef T_slot slot_type;
typedef slot_type& reference;
typedef const slot_type& const_reference;
typedef slot_iterator<slot_type> iterator;
typedef slot_const_iterator<slot_type> const_iterator;
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<iterator> reverse_iterator;
typedef std::reverse_iterator<const_iterator> const_reverse_iterator;
#else
typedef std::reverse_iterator<iterator, std::random_access_iterator_tag,
int, int&, int*, std::ptrdiff_t> reverse_iterator;
typedef std::reverse_iterator<const_iterator, std::random_access_iterator_tag,
int, const int&, const int*, std::ptrdiff_t> const_reverse_iterator;
#endif /* SIGC_HAVE_SUN_REVERSE_ITERATOR */
slot_list()
: list_(nullptr) {}
explicit slot_list(internal::signal_impl* __list)
: list_(__list) {}
iterator begin()
{ return iterator(list_->slots_.begin()); }
const_iterator begin() const
{ return const_iterator(list_->slots_.begin()); }
iterator end()
{ return iterator(list_->slots_.end()); }
const_iterator end() const
{ return const_iterator(list_->slots_.end()); }
reverse_iterator rbegin()
{ return reverse_iterator(end()); }
const_reverse_iterator rbegin() const
{ return const_reverse_iterator(end()); }
reverse_iterator rend()
{ return reverse_iterator(begin()); }
const_reverse_iterator rend() const
{ return const_reverse_iterator(begin()); }
reference front()
{ return *begin(); }
const_reference front() const
{ return *begin(); }
reference back()
{ return *(--end()); }
const_reference back() const
{ return *(--end()); }
iterator insert(iterator i, const slot_type& slot_)
{ return iterator(list_->insert(i.i_, static_cast<const slot_base&>(slot_))); }
iterator insert(iterator i, slot_type&& slot_)
{ return iterator(list_->insert(i.i_, std::move(static_cast<slot_base&>(slot_)))); }
void push_front(const slot_type& c)
{ insert(begin(), c); }
void push_front(slot_type&& c)
{ insert(begin(), std::move(c)); }
void push_back(const slot_type& c)
{ insert(end(), c); }
void push_back(slot_type&& c)
{ insert(end(), std::move(c)); }
iterator erase(iterator i)
{ return iterator(list_->erase(i.i_)); }
iterator erase(iterator first_, iterator last_)
{
while (first_ != last_)
first_ = erase(first_);
return last_;
}
void pop_front()
{ erase(begin()); }
void pop_back()
{
auto tmp_ = end();
erase(--tmp_);
}
protected:
internal::signal_impl* list_;
};
namespace internal {
/** Special iterator over sigc::internal::signal_impl's slot list that holds extra data.
* This iterators is for use in accumulators. operator*() executes
* the slot. The return value is buffered, so that in an expression
* like @code a = (*i) * (*i); @endcode the slot is executed only once.
*/
template <class T_emitter, class T_result = typename T_emitter::result_type>
struct slot_iterator_buf
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
//These are needed just to make this a proper C++ iterator,
//that can be used with standard C++ algorithms.
typedef T_result value_type;
typedef T_result& reference;
typedef T_result* pointer;
typedef T_emitter emitter_type;
typedef T_result result_type;
typedef typename T_emitter::slot_type slot_type;
typedef signal_impl::const_iterator_type iterator_type;
slot_iterator_buf()
: c_(nullptr), invoked_(false) {}
slot_iterator_buf(const iterator_type& i, const emitter_type* c)
: i_(i), c_(c), invoked_(false) {}
result_type operator*() const
{
if (!i_->empty() && !i_->blocked() && !invoked_)
{
r_ = (*c_)(static_cast<const slot_type&>(*i_));
invoked_ = true;
}
return r_;
}
slot_iterator_buf& operator++()
{
++i_;
invoked_ = false;
return *this;
}
slot_iterator_buf operator++(int)
{
slot_iterator_buf __tmp(*this);
++i_;
invoked_ = false;
return __tmp;
}
slot_iterator_buf& operator--()
{
--i_;
invoked_ = false;
return *this;
}
slot_iterator_buf operator--(int)
{
slot_iterator_buf __tmp(*this);
--i_;
invoked_ = false;
return __tmp;
}
bool operator == (const slot_iterator_buf& other) const
{ return (!c_ || (i_ == other.i_)); } /* If '!c_' the iterators are empty.
* Unfortunately, empty stl iterators are not equal.
* We are forcing equality so that 'first==last'
* in the accumulator's emit function yields true. */
bool operator != (const slot_iterator_buf& other) const
{ return (c_ && (i_ != other.i_)); }
private:
iterator_type i_;
const emitter_type* c_;
mutable result_type r_;
mutable bool invoked_;
};
/** Template specialization of slot_iterator_buf for void return signals.
*/
template <class T_emitter>
struct slot_iterator_buf<T_emitter, void>
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
typedef T_emitter emitter_type;
typedef void result_type;
typedef typename T_emitter::slot_type slot_type;
typedef signal_impl::const_iterator_type iterator_type;
slot_iterator_buf()
: c_(nullptr), invoked_(false) {}
slot_iterator_buf(const iterator_type& i, const emitter_type* c)
: i_(i), c_(c), invoked_(false) {}
void operator*() const
{
if (!i_->empty() && !i_->blocked() && !invoked_)
{
(*c_)(static_cast<const slot_type&>(*i_));
invoked_ = true;
}
}
slot_iterator_buf& operator++()
{
++i_;
invoked_ = false;
return *this;
}
slot_iterator_buf operator++(int)
{
slot_iterator_buf __tmp(*this);
++i_;
invoked_ = false;
return __tmp;
}
slot_iterator_buf& operator--()
{
--i_;
invoked_ = false;
return *this;
}
slot_iterator_buf operator--(int)
{
slot_iterator_buf __tmp(*this);
--i_;
invoked_ = false;
return __tmp;
}
bool operator == (const slot_iterator_buf& other) const
{ return i_ == other.i_; }
bool operator != (const slot_iterator_buf& other) const
{ return i_ != other.i_; }
private:
iterator_type i_;
const emitter_type* c_;
mutable bool invoked_;
};
/** Reverse version of sigc::internal::slot_iterator_buf. */
template <class T_emitter, class T_result = typename T_emitter::result_type>
struct slot_reverse_iterator_buf
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
//These are needed just to make this a proper C++ iterator,
//that can be used with standard C++ algorithms.
typedef T_result value_type;
typedef T_result& reference;
typedef T_result* pointer;
typedef T_emitter emitter_type;
typedef T_result result_type;
typedef typename T_emitter::slot_type slot_type;
typedef signal_impl::const_iterator_type iterator_type;
slot_reverse_iterator_buf()
: c_(nullptr), invoked_(false) {}
slot_reverse_iterator_buf(const iterator_type& i, const emitter_type* c)
: i_(i), c_(c), invoked_(false) {}
result_type operator*() const
{
auto __tmp(i_);
--__tmp;
if (!__tmp->empty() && !__tmp->blocked() && !invoked_)
{
r_ = (*c_)(static_cast<const slot_type&>(*__tmp));
invoked_ = true;
}
return r_;
}
slot_reverse_iterator_buf& operator++()
{
--i_;
invoked_ = false;
return *this;
}
slot_reverse_iterator_buf operator++(int)
{
slot_reverse_iterator_buf __tmp(*this);
--i_;
invoked_ = false;
return __tmp;
}
slot_reverse_iterator_buf& operator--()
{
++i_;
invoked_ = false;
return *this;
}
slot_reverse_iterator_buf operator--(int)
{
slot_reverse_iterator_buf __tmp(*this);
++i_;
invoked_ = false;
return __tmp;
}
bool operator == (const slot_reverse_iterator_buf& other) const
{ return (!c_ || (i_ == other.i_)); } /* If '!c_' the iterators are empty.
* Unfortunately, empty stl iterators are not equal.
* We are forcing equality so that 'first==last'
* in the accumulator's emit function yields true. */
bool operator != (const slot_reverse_iterator_buf& other) const
{ return (c_ && (i_ != other.i_)); }
private:
iterator_type i_;
const emitter_type* c_;
mutable result_type r_;
mutable bool invoked_;
};
/** Template specialization of slot_reverse_iterator_buf for void return signals.
*/
template <class T_emitter>
struct slot_reverse_iterator_buf<T_emitter, void>
{
typedef std::size_t size_type;
typedef std::ptrdiff_t difference_type;
typedef std::bidirectional_iterator_tag iterator_category;
typedef T_emitter emitter_type;
typedef void result_type;
typedef typename T_emitter::slot_type slot_type;
typedef signal_impl::const_iterator_type iterator_type;
slot_reverse_iterator_buf()
: c_(nullptr), invoked_(false) {}
slot_reverse_iterator_buf(const iterator_type& i, const emitter_type* c)
: i_(i), c_(c), invoked_(false) {}
void operator*() const
{
auto __tmp(i_);
--__tmp;
if (!__tmp->empty() && !__tmp->blocked() && !invoked_)
{
(*c_)(static_cast<const slot_type&>(*__tmp));
invoked_ = true;
}
}
slot_reverse_iterator_buf& operator++()
{
--i_;
invoked_ = false;
return *this;
}
slot_reverse_iterator_buf operator++(int)
{
slot_reverse_iterator_buf __tmp(*this);
--i_;
invoked_ = false;
return __tmp;
}
slot_reverse_iterator_buf& operator--()
{
++i_;
invoked_ = false;
return *this;
}
slot_reverse_iterator_buf operator--(int)
{
slot_reverse_iterator_buf __tmp(*this);
++i_;
invoked_ = false;
return __tmp;
}
bool operator == (const slot_reverse_iterator_buf& other) const
{ return i_ == other.i_; }
bool operator != (const slot_reverse_iterator_buf& other) const
{ return i_ != other.i_; }
private:
iterator_type i_;
const emitter_type* c_;
mutable bool invoked_;
};
/** Abstracts signal emission.
* This template implements the emit() function of signal0.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_accumulator>
struct signal_emit0
{
typedef signal_emit0<T_return, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return()> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
signal_emit0() {}
/** Invokes a slot.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self ;
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self ;
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return>
struct signal_emit0<T_return, nil>
{
typedef signal_emit0<T_return, nil > self_type;
typedef T_return result_type;
typedef slot<T_return()> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <>
struct signal_emit0<void, nil>
{
typedef signal_emit0<void, nil> self_type;
typedef void result_type;
typedef slot<void()> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef void (*call_type)(slot_rep*);
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
*/
static result_type emit(signal_impl* impl)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal1.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_accumulator>
struct signal_emit1
{
typedef signal_emit1<T_return, T_arg1, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit1(type_trait_take_t<T_arg1> _A_a1)
: _A_a1_(_A_a1) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit1.
* @param _A_a1 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit1.
* @param _A_a1 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1>
struct signal_emit1<T_return, T_arg1, nil>
{
typedef signal_emit1<T_return, T_arg1, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1>
struct signal_emit1<void, T_arg1, nil>
{
typedef signal_emit1<void, T_arg1, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal2.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_accumulator>
struct signal_emit2
{
typedef signal_emit2<T_return, T_arg1, T_arg2, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit2(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
: _A_a1_(_A_a1), _A_a2_(_A_a2) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit2.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit2.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2>
struct signal_emit2<T_return, T_arg1, T_arg2, nil>
{
typedef signal_emit2<T_return, T_arg1, T_arg2, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2>
struct signal_emit2<void, T_arg1, T_arg2, nil>
{
typedef signal_emit2<void, T_arg1, T_arg2, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal3.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_accumulator>
struct signal_emit3
{
typedef signal_emit3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit3(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
: _A_a1_(_A_a1), _A_a2_(_A_a2), _A_a3_(_A_a3) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_, _A_a3_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit3.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit3.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
type_trait_take_t<T_arg3> _A_a3_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3>
struct signal_emit3<T_return, T_arg1, T_arg2, T_arg3, nil>
{
typedef signal_emit3<T_return, T_arg1, T_arg2, T_arg3, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2, class T_arg3>
struct signal_emit3<void, T_arg1, T_arg2, T_arg3, nil>
{
typedef signal_emit3<void, T_arg1, T_arg2, T_arg3, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2, T_arg3)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2, _A_a3);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal4.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_accumulator>
struct signal_emit4
{
typedef signal_emit4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit4(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
: _A_a1_(_A_a1), _A_a2_(_A_a2), _A_a3_(_A_a3), _A_a4_(_A_a4) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_, _A_a3_, _A_a4_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit4.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit4.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
type_trait_take_t<T_arg3> _A_a3_;
type_trait_take_t<T_arg4> _A_a4_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4>
struct signal_emit4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>
{
typedef signal_emit4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2, class T_arg3, class T_arg4>
struct signal_emit4<void, T_arg1, T_arg2, T_arg3, T_arg4, nil>
{
typedef signal_emit4<void, T_arg1, T_arg2, T_arg3, T_arg4, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2, T_arg3, T_arg4)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2, _A_a3, _A_a4);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal5.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_accumulator>
struct signal_emit5
{
typedef signal_emit5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit5(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
: _A_a1_(_A_a1), _A_a2_(_A_a2), _A_a3_(_A_a3), _A_a4_(_A_a4), _A_a5_(_A_a5) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_, _A_a3_, _A_a4_, _A_a5_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit5.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit5.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
type_trait_take_t<T_arg3> _A_a3_;
type_trait_take_t<T_arg4> _A_a4_;
type_trait_take_t<T_arg5> _A_a5_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5>
struct signal_emit5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>
{
typedef signal_emit5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5>
struct signal_emit5<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>
{
typedef signal_emit5<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal6.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_accumulator>
struct signal_emit6
{
typedef signal_emit6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit6(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
: _A_a1_(_A_a1), _A_a2_(_A_a2), _A_a3_(_A_a3), _A_a4_(_A_a4), _A_a5_(_A_a5), _A_a6_(_A_a6) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_, _A_a3_, _A_a4_, _A_a5_, _A_a6_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit6.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit6.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
type_trait_take_t<T_arg3> _A_a3_;
type_trait_take_t<T_arg4> _A_a4_;
type_trait_take_t<T_arg5> _A_a5_;
type_trait_take_t<T_arg6> _A_a6_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6>
struct signal_emit6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>
{
typedef signal_emit6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6>
struct signal_emit6<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>
{
typedef signal_emit6<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template implements the emit() function of signal7.
* Template specializations are available to optimize signal
* emission when no accumulator is used, for example when the template
* argument @e T_accumulator is @p nil.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_arg7, class T_accumulator>
struct signal_emit7
{
typedef signal_emit7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator> self_type;
typedef typename T_accumulator::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7)> slot_type;
typedef internal::slot_iterator_buf<self_type, T_return> slot_iterator_buf_type;
typedef internal::slot_reverse_iterator_buf<self_type, T_return> slot_reverse_iterator_buf_type;
typedef signal_impl::const_iterator_type iterator_type;
/** Instantiates the class.
* The parameters are stored in member variables. operator()() passes
* the values on to some slot.
*/
signal_emit7(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
: _A_a1_(_A_a1), _A_a2_(_A_a2), _A_a3_(_A_a3), _A_a4_(_A_a4), _A_a5_(_A_a5), _A_a6_(_A_a6), _A_a7_(_A_a7) {}
/** Invokes a slot using the buffered parameter values.
* @param _A_slot Some slot to invoke.
* @return The slot's return value.
*/
T_return operator()(const slot_type& _A_slot) const
{ return (reinterpret_cast<typename slot_type::call_type>(_A_slot.rep_->call_))(_A_slot.rep_, _A_a1_, _A_a2_, _A_a3_, _A_a4_, _A_a5_, _A_a6_, _A_a7_); }
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are buffered in a temporary instance of signal_emit7.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
return accumulator(slot_iterator_buf_type(slots.begin(), &self),
slot_iterator_buf_type(slots.end(), &self));
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are buffered in a temporary instance of signal_emit7.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations as processed by the accumulator.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
T_accumulator accumulator;
if (!impl)
return accumulator(slot_iterator_buf_type(), slot_iterator_buf_type());
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
self_type self (_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
return accumulator(slot_reverse_iterator_buf_type(slots.end(), &self),
slot_reverse_iterator_buf_type(slots.begin(), &self));
}
#endif // SIGCXX_DISABLE_DEPRECATED
type_trait_take_t<T_arg1> _A_a1_;
type_trait_take_t<T_arg2> _A_a2_;
type_trait_take_t<T_arg3> _A_a3_;
type_trait_take_t<T_arg4> _A_a4_;
type_trait_take_t<T_arg5> _A_a5_;
type_trait_take_t<T_arg6> _A_a6_;
type_trait_take_t<T_arg7> _A_a7_;
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used.
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_arg7>
struct signal_emit7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>
{
typedef signal_emit7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil > self_type;
typedef T_return result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
temp_slot_list slots(impl->slots_);
auto it = slots.begin();
for (; it != slots.end(); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == slots.end())
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
for (++it; it != slots.end(); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
}
}
return r_;
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* The return value of the last slot invoked is returned.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
* @return The return value of the last slot invoked.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
if (!impl || impl->slots_.empty())
return T_return();
signal_exec exec(impl);
T_return r_ = T_return();
//Use this scope to make sure that "slots" is destroyed before "exec" is destroyed.
//This avoids a leak on MSVC++ - see http://bugzilla.gnome.org/show_bug.cgi?id=306249
{
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
temp_slot_list slots(impl->slots_);
reverse_iterator_type it(slots.end());
for (; it != reverse_iterator_type(slots.begin()); ++it)
if (!it->empty() && !it->blocked()) break;
if (it == reverse_iterator_type(slots.begin()))
return T_return(); // note that 'T_return r_();' doesn't work => define 'r_' after this line and initialize as follows:
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
for (++it; it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
r_ = (reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
}
}
return r_;
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
/** Abstracts signal emission.
* This template specialization implements an optimized emit()
* function for the case that no accumulator is used and the
* return type is @p void.
*/
template <class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_arg7>
struct signal_emit7<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>
{
typedef signal_emit7<void, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil> self_type;
typedef void result_type;
typedef slot<void(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7)> slot_type;
typedef signal_impl::const_iterator_type iterator_type;
typedef typename slot_type::call_type call_type;
/** Executes a list of slots using an accumulator of type @e T_accumulator.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
*/
static result_type emit(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
for (const auto& slot : slots)
{
if (slot.empty() || slot.blocked())
continue;
(reinterpret_cast<call_type>(slot.rep_->call_))(slot.rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
}
}
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Executes a list of slots using an accumulator of type @e T_accumulator in reverse order.
* The arguments are passed directly on to the slots.
* @param first An iterator pointing to the first slot in the list.
* @param last An iterator pointing to the last slot in the list.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
static result_type emit_reverse(signal_impl* impl, type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7)
{
if (!impl || impl->slots_.empty()) return;
signal_exec exec(impl);
temp_slot_list slots(impl->slots_);
#ifndef SIGC_HAVE_SUN_REVERSE_ITERATOR
typedef std::reverse_iterator<signal_impl::iterator_type> reverse_iterator_type;
#else
typedef std::reverse_iterator<signal_impl::iterator_type, std::random_access_iterator_tag,
slot_base, slot_base&, slot_base*, std::ptrdiff_t> reverse_iterator_type;
#endif
for (auto it = reverse_iterator_type(slots.end()); it != reverse_iterator_type(slots.begin()); ++it)
{
if (it->empty() || it->blocked())
continue;
(reinterpret_cast<call_type>(it->rep_->call_))(it->rep_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7);
}
}
#endif // SIGCXX_DISABLE_DEPRECATED
};
} /* namespace internal */
/** Signal declaration.
* signal0 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_accumulator=nil>
class signal0
: public signal_base
{
public:
typedef internal::signal_emit0<T_return, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return()> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @return The accumulated return values of the slot invocations.
*/
result_type emit() const
{ return emitter_type::emit(impl_); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse() const
{ return emitter_type::emit_reverse(impl_); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()() const
{ return emit(); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal0::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor0<result_type, signal0> make_slot() const
{ return bound_const_mem_functor0<result_type, signal0>(*this, &signal0::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal0*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal0() {}
signal0(const signal0& src)
: signal_base(src) {}
signal0(signal0&& src)
: signal_base(std::move(src)) {}
signal0& operator=(const signal0& src)
{
signal_base::operator=(src);
return *this;
}
signal0& operator=(signal0&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal1 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_accumulator=nil>
class signal1
: public signal_base
{
public:
typedef internal::signal_emit1<T_return, T_arg1, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1) const
{ return emitter_type::emit(impl_, _A_a1); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1) const
{ return emitter_type::emit_reverse(impl_, _A_a1); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1) const
{ return emit(_A_a1); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal1::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor1<result_type, signal1, type_trait_take_t<T_arg1>> make_slot() const
{ return bound_const_mem_functor1<result_type, signal1, type_trait_take_t<T_arg1>>(*this, &signal1::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal1*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal1() {}
signal1(const signal1& src)
: signal_base(src) {}
signal1(signal1&& src)
: signal_base(std::move(src)) {}
signal1& operator=(const signal1& src)
{
signal_base::operator=(src);
return *this;
}
signal1& operator=(signal1&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal2 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_accumulator=nil>
class signal2
: public signal_base
{
public:
typedef internal::signal_emit2<T_return, T_arg1, T_arg2, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2) const
{ return emit(_A_a1, _A_a2); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal2::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor2<result_type, signal2, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>> make_slot() const
{ return bound_const_mem_functor2<result_type, signal2, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>>(*this, &signal2::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal2*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal2() {}
signal2(const signal2& src)
: signal_base(src) {}
signal2(signal2&& src)
: signal_base(std::move(src)) {}
signal2& operator=(const signal2& src)
{
signal_base::operator=(src);
return *this;
}
signal2& operator=(signal2&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal3 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_arg3 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_accumulator=nil>
class signal3
: public signal_base
{
public:
typedef internal::signal_emit3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2, _A_a3); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2, _A_a3); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3) const
{ return emit(_A_a1, _A_a2, _A_a3); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal3::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor3<result_type, signal3, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>> make_slot() const
{ return bound_const_mem_functor3<result_type, signal3, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>>(*this, &signal3::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal3*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal3() {}
signal3(const signal3& src)
: signal_base(src) {}
signal3(signal3&& src)
: signal_base(std::move(src)) {}
signal3& operator=(const signal3& src)
{
signal_base::operator=(src);
return *this;
}
signal3& operator=(signal3&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal4 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_arg3 Argument type used in the definition of emit().
* - @e T_arg4 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_accumulator=nil>
class signal4
: public signal_base
{
public:
typedef internal::signal_emit4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2, _A_a3, _A_a4); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2, _A_a3, _A_a4); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4) const
{ return emit(_A_a1, _A_a2, _A_a3, _A_a4); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal4::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor4<result_type, signal4, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>> make_slot() const
{ return bound_const_mem_functor4<result_type, signal4, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>>(*this, &signal4::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal4*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal4() {}
signal4(const signal4& src)
: signal_base(src) {}
signal4(signal4&& src)
: signal_base(std::move(src)) {}
signal4& operator=(const signal4& src)
{
signal_base::operator=(src);
return *this;
}
signal4& operator=(signal4&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal5 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_arg3 Argument type used in the definition of emit().
* - @e T_arg4 Argument type used in the definition of emit().
* - @e T_arg5 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_accumulator=nil>
class signal5
: public signal_base
{
public:
typedef internal::signal_emit5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5) const
{ return emit(_A_a1, _A_a2, _A_a3, _A_a4, _A_a5); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal5::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor5<result_type, signal5, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>> make_slot() const
{ return bound_const_mem_functor5<result_type, signal5, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>>(*this, &signal5::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal5*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal5() {}
signal5(const signal5& src)
: signal_base(src) {}
signal5(signal5&& src)
: signal_base(std::move(src)) {}
signal5& operator=(const signal5& src)
{
signal_base::operator=(src);
return *this;
}
signal5& operator=(signal5&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal6 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_arg3 Argument type used in the definition of emit().
* - @e T_arg4 Argument type used in the definition of emit().
* - @e T_arg5 Argument type used in the definition of emit().
* - @e T_arg6 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_accumulator=nil>
class signal6
: public signal_base
{
public:
typedef internal::signal_emit6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6) const
{ return emit(_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal6::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor6<result_type, signal6, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>, type_trait_take_t<T_arg6>> make_slot() const
{ return bound_const_mem_functor6<result_type, signal6, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>, type_trait_take_t<T_arg6>>(*this, &signal6::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal6*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal6() {}
signal6(const signal6& src)
: signal_base(src) {}
signal6(signal6&& src)
: signal_base(std::move(src)) {}
signal6& operator=(const signal6& src)
{
signal_base::operator=(src);
return *this;
}
signal6& operator=(signal6&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Signal declaration.
* signal7 can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want.
*
* The following template arguments are used:
* - @e T_return The desired return type for the emit() function (may be overridden by the accumulator).
* - @e T_arg1 Argument type used in the definition of emit().
* - @e T_arg2 Argument type used in the definition of emit().
* - @e T_arg3 Argument type used in the definition of emit().
* - @e T_arg4 Argument type used in the definition of emit().
* - @e T_arg5 Argument type used in the definition of emit().
* - @e T_arg6 Argument type used in the definition of emit().
* - @e T_arg7 Argument type used in the definition of emit().
* - @e T_accumulator The accumulator type used for emission. The default
* @p nil means that no accumulator should be used, for example if signal
* emission returns the return value of the last slot invoked.
*
* You should use the more convenient unnumbered sigc::signal template.
*
* @ingroup signal
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_arg7, class T_accumulator=nil>
class signal7
: public signal_base
{
public:
typedef internal::signal_emit7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator> emitter_type;
typedef typename emitter_type::result_type result_type;
typedef slot<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7)> slot_type;
typedef slot_list<slot_type> slot_list_type;
typedef typename slot_list_type::iterator iterator;
typedef typename slot_list_type::const_iterator const_iterator;
typedef typename slot_list_type::reverse_iterator reverse_iterator;
typedef typename slot_list_type::const_reverse_iterator const_reverse_iterator;
/** Add a slot to the list of slots.
* Any functor or slot may be passed into connect().
* It will be converted into a slot implicitly.
* The returned iterator may be stored for disconnection
* of the slot at some later point. It stays valid until
* the slot is removed from the list of slots. The iterator
* can also be implicitly converted into a sigc::connection object
* that may be used safely beyond the life time of the slot.
*
* std::function<> and C++11 lambda expressions are functors.
* These are examples of functors that can be connected to a signal.
*
* %std::bind() creates a functor, but this functor typically has an
* %operator()() which is a variadic template.
* Our functor_trait can't deduce the result type
* of such a functor. If you first assign the return value of %std::bind()
* to a std::function, you can connect the std::function to a signal.
*
* @param slot_ The slot to add to the list of slots.
* @return An iterator pointing to the new slot in the list.
*/
iterator connect(const slot_type& slot_)
{ return iterator(signal_base::connect(static_cast<const slot_base&>(slot_))); }
/** Add a slot to the list of slots.
* @see connect(const slot_type& slot_).
*
* @newin{2,8}
*/
iterator connect(slot_type&& slot_)
{ return iterator(signal_base::connect(std::move(static_cast<slot_base&>(slot_)))); }
/** Triggers the emission of the signal.
* During signal emission all slots that have been connected
* to the signal are invoked unless they are manually set into
* a blocking state. The parameters are passed on to the slots.
* If @e T_accumulated is not @p nil, an accumulator of this type
* is used to process the return values of the slot invocations.
* Otherwise, the return value of the last slot invoked is returned.
* @param _A_a1 Argument to be passed on to the slots.
* @param _A_a2 Argument to be passed on to the slots.
* @param _A_a3 Argument to be passed on to the slots.
* @param _A_a4 Argument to be passed on to the slots.
* @param _A_a5 Argument to be passed on to the slots.
* @param _A_a6 Argument to be passed on to the slots.
* @param _A_a7 Argument to be passed on to the slots.
* @return The accumulated return values of the slot invocations.
*/
result_type emit(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7) const
{ return emitter_type::emit(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal in reverse order (see emit()).
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
result_type emit_reverse(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7) const
{ return emitter_type::emit_reverse(impl_, _A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7); }
#endif // SIGCXX_DISABLE_DEPRECATED
/** Triggers the emission of the signal (see emit()).
*
* @deprecated This is apparently not useful, but let us know if you need it.
*/
result_type operator()(type_trait_take_t<T_arg1> _A_a1, type_trait_take_t<T_arg2> _A_a2, type_trait_take_t<T_arg3> _A_a3, type_trait_take_t<T_arg4> _A_a4, type_trait_take_t<T_arg5> _A_a5, type_trait_take_t<T_arg6> _A_a6, type_trait_take_t<T_arg7> _A_a7) const
{ return emit(_A_a1, _A_a2, _A_a3, _A_a4, _A_a5, _A_a6, _A_a7); }
/** Creates a functor that calls emit() on this signal.
* @code
* sigc::mem_fun(mysignal, &sigc::signal7::emit)
* @endcode
* yields the same result.
* @return A functor that calls emit() on this signal.
*/
bound_const_mem_functor7<result_type, signal7, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>, type_trait_take_t<T_arg6>, type_trait_take_t<T_arg7>> make_slot() const
{ return bound_const_mem_functor7<result_type, signal7, type_trait_take_t<T_arg1>, type_trait_take_t<T_arg2>, type_trait_take_t<T_arg3>, type_trait_take_t<T_arg4>, type_trait_take_t<T_arg5>, type_trait_take_t<T_arg6>, type_trait_take_t<T_arg7>>(*this, &signal7::emit); }
#ifndef SIGCXX_DISABLE_DEPRECATED
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
slot_list_type slots()
{ return slot_list_type(impl()); }
/** Creates an STL-style interface for the signal's list of slots.
* This interface supports iteration, insertion and removal of slots.
* @return An STL-style interface for the signal's list of slots.
*
* @deprecated This is apparently not useful, but please let us know if you need it.
*/
const slot_list_type slots() const
{ return slot_list_type(const_cast<signal7*>(this)->impl()); }
#endif // SIGCXX_DISABLE_DEPRECATED
signal7() {}
signal7(const signal7& src)
: signal_base(src) {}
signal7(signal7&& src)
: signal_base(std::move(src)) {}
signal7& operator=(const signal7& src)
{
signal_base::operator=(src);
return *this;
}
signal7& operator=(signal7&& src)
{
signal_base::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal# templates.
* signal can be used to connect() slots that are invoked
* during subsequent calls to emit(). Any functor or slot
* can be passed into connect(). It is converted into a slot
* implicitly.
*
* If you want to connect one signal to another, use make_slot()
* to retrieve a functor that emits the signal when invoked.
*
* Be careful if you directly pass one signal into the connect()
* method of another: a shallow copy of the signal is made and
* the signal's slots are not disconnected until both the signal
* and its clone are destroyed, which is probably not what you want!
*
* The template arguments determine the function signature of
* the emit() function:
* - @e T_return The desired return type of the emit() function.
* - @e T_arg1 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg2 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg3 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg4 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg5 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg6 Argument type used in the definition of emit(). The default @p nil means no argument.
* - @e T_arg7 Argument type used in the definition of emit(). The default @p nil means no argument.
*
* To specify an accumulator type the nested class signal::accumulated can be used.
*
* @par Example:
* @code
* void foo(int) {}
* sigc::signal<void, long> sig;
* sig.connect(sigc::ptr_fun(&foo));
* sig.emit(19);
* @endcode
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*
* @ingroup signal
*/
template <class T_return, class T_arg1 = nil, class T_arg2 = nil, class T_arg3 = nil, class T_arg4 = nil, class T_arg5 = nil, class T_arg6 = nil, class T_arg7 = nil>
class signal
: public signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal# templates.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*
* An accumulator is a functor that uses a pair of special iterators
* to step through a list of slots and calculate a return value
* from the results of the slot invokations. The iterators' operator*()
* executes the slot. The return value is buffered, so that in an expression
* like @code a = (*i) * (*i); @endcode the slot is executed only once.
* The accumulator must define its return value as @p result_type.
*
* @par Example 1:
* This accumulator calculates the arithmetic mean value:
* @code
* struct arithmetic_mean_accumulator
* {
* typedef double result_type;
* template<typename T_iterator>
* result_type operator()(T_iterator first, T_iterator last) const
* {
* result_type value_ = 0;
* int n_ = 0;
* for (; first != last; ++first, ++n_)
* value_ += *first;
* return value_ / n_;
* }
* };
* @endcode
*
* @par Example 2:
* This accumulator stops signal emission when a slot returns zero:
* @code
* struct interruptable_accumulator
* {
* typedef bool result_type;
* template<typename T_iterator>
* result_type operator()(T_iterator first, T_iterator last) const
* {
* for (; first != last; ++first, ++n_)
* if (!*first) return false;
* return true;
* }
* };
* @endcode
*
* @ingroup signal
*/
template <class T_accumulator>
class accumulated
: public signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>(src) {}
signal(signal&& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6, class T_arg7>
class signal<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7)>
: public signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal# templates.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*
* An accumulator is a functor that uses a pair of special iterators
* to step through a list of slots and calculate a return value
* from the results of the slot invokations. The iterators' operator*()
* executes the slot. The return value is buffered, so that in an expression
* like @code a = (*i) * (*i); @endcode the slot is executed only once.
* The accumulator must define its return value as @p result_type.
*
* @par Example 1:
* This accumulator calculates the arithmetic mean value:
* @code
* struct arithmetic_mean_accumulator
* {
* typedef double result_type;
* template<typename T_iterator>
* result_type operator()(T_iterator first, T_iterator last) const
* {
* result_type value_ = 0;
* int n_ = 0;
* for (; first != last; ++first, ++n_)
* value_ += *first;
* return value_ / n_;
* }
* };
* @endcode
*
* @par Example 2:
* This accumulator stops signal emission when a slot returns zero:
* @code
* struct interruptable_accumulator
* {
* typedef bool result_type;
* template<typename T_iterator>
* result_type operator()(T_iterator first, T_iterator last) const
* {
* for (; first != last; ++first, ++n_)
* if (!*first) return false;
* return true;
* }
* };
* @endcode
*
* @ingroup signal
*/
template <class T_accumulator>
class accumulated
: public signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>(src) {}
signal(signal&& src)
: signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal7<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_arg7, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal0 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 0 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return>
class signal <T_return, nil, nil, nil, nil, nil, nil, nil>
: public signal0<T_return, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal0 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal0<T_return, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal0<T_return, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal0<T_return, nil>(src) {}
signal(signal&& src)
: signal0<T_return, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal0<T_return, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal0<T_return, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return>
class signal<T_return()>
: public signal0<T_return, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal0 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal0<T_return, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal0<T_return, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal0<T_return, nil>(src) {}
signal(signal&& src)
: signal0<T_return, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal0<T_return, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal0<T_return, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal1 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 1 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1>
class signal <T_return, T_arg1, nil, nil, nil, nil, nil, nil>
: public signal1<T_return, T_arg1, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal1 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal1<T_return, T_arg1, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal1<T_return, T_arg1, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal1<T_return, T_arg1, nil>(src) {}
signal(signal&& src)
: signal1<T_return, T_arg1, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal1<T_return, T_arg1, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal1<T_return, T_arg1, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1>
class signal<T_return(T_arg1)>
: public signal1<T_return, T_arg1, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal1 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal1<T_return, T_arg1, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal1<T_return, T_arg1, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal1<T_return, T_arg1, nil>(src) {}
signal(signal&& src)
: signal1<T_return, T_arg1, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal1<T_return, T_arg1, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal1<T_return, T_arg1, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal2 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 2 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1, class T_arg2>
class signal <T_return, T_arg1, T_arg2, nil, nil, nil, nil, nil>
: public signal2<T_return, T_arg1, T_arg2, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal2 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal2<T_return, T_arg1, T_arg2, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal2<T_return, T_arg1, T_arg2, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal2<T_return, T_arg1, T_arg2, nil>(src) {}
signal(signal&& src)
: signal2<T_return, T_arg1, T_arg2, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal2<T_return, T_arg1, T_arg2, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal2<T_return, T_arg1, T_arg2, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2>
class signal<T_return(T_arg1, T_arg2)>
: public signal2<T_return, T_arg1, T_arg2, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal2 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal2<T_return, T_arg1, T_arg2, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal2<T_return, T_arg1, T_arg2, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal2<T_return, T_arg1, T_arg2, nil>(src) {}
signal(signal&& src)
: signal2<T_return, T_arg1, T_arg2, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal2<T_return, T_arg1, T_arg2, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal2<T_return, T_arg1, T_arg2, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal3 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 3 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3>
class signal <T_return, T_arg1, T_arg2, T_arg3, nil, nil, nil, nil>
: public signal3<T_return, T_arg1, T_arg2, T_arg3, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal3 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, nil>(src) {}
signal(signal&& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal3<T_return, T_arg1, T_arg2, T_arg3, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal3<T_return, T_arg1, T_arg2, T_arg3, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3>
class signal<T_return(T_arg1, T_arg2, T_arg3)>
: public signal3<T_return, T_arg1, T_arg2, T_arg3, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal3 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, nil>(src) {}
signal(signal&& src)
: signal3<T_return, T_arg1, T_arg2, T_arg3, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal3<T_return, T_arg1, T_arg2, T_arg3, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal3<T_return, T_arg1, T_arg2, T_arg3, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal4 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 4 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4>
class signal <T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil, nil, nil>
: public signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal4 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>(src) {}
signal(signal&& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4>
class signal<T_return(T_arg1, T_arg2, T_arg3, T_arg4)>
: public signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal4 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>(src) {}
signal(signal&& src)
: signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal4<T_return, T_arg1, T_arg2, T_arg3, T_arg4, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal5 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 5 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5>
class signal <T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil, nil>
: public signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal5 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>(src) {}
signal(signal&& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5>
class signal<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5)>
: public signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal5 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>(src) {}
signal(signal&& src)
: signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal5<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, nil>::operator=(std::move(src));
return *this;
}
};
/** Convenience wrapper for the numbered sigc::signal6 template.
* See the base class for useful methods.
* This is the template specialization of the unnumbered sigc::signal
* template for 6 argument(s).
*
* @deprecated Please use the syntax similar to that used by std::function<>:
* @code
* sigc::slot<void(bool, int)> some_slot;
* @endcode
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6>
class signal <T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>
: public signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal6 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>(src) {}
signal(signal&& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>::operator=(std::move(src));
return *this;
}
};
/**
* This specialization allow use of the sigc::signal<R(Args...)> syntax,
*/
template <class T_return, class T_arg1, class T_arg2, class T_arg3, class T_arg4, class T_arg5, class T_arg6>
class signal<T_return(T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6)>
: public signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>
{
public:
/** Convenience wrapper for the numbered sigc::signal6 template.
* Like sigc::signal but the additional template parameter @e T_accumulator
* defines the accumulator type that should be used.
*/
template <class T_accumulator>
class accumulated
: public signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator>
{
public:
accumulated() {}
accumulated(const accumulated& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, T_accumulator>(src) {}
};
signal() {}
signal(const signal& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>(src) {}
signal(signal&& src)
: signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>(std::move(src)) {}
signal& operator=(const signal& src)
{
signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>::operator=(src);
return *this;
}
signal& operator=(signal&& src)
{
signal6<T_return, T_arg1, T_arg2, T_arg3, T_arg4, T_arg5, T_arg6, nil>::operator=(std::move(src));
return *this;
}
};
} /* namespace sigc */
#ifdef SIGC_NIL_HAS_BEEN_PUSHED
#undef SIGC_NIL_HAS_BEEN_PUSHED
#pragma pop_macro("nil")
#endif
#endif /* _SIGC_SIGNAL_H_ */