Asterisk Source/Tmp File
wait_our_turn ¶* static int wait_our_turn(struct queue_ent *qe, int ringing, enum queue_result *reason)
/*! \brief Check if we should start attempting to call queue members * * The behavior of this function is dependent first on whether autofill is enabled * and second on whether the ring strategy is ringall. If autofill is not enabled, * then return true if we're the head of the queue. If autofill is enabled, then * we count the available members and see if the number of available members is enough * that given our position in the queue, we would theoretically be able to connect to * one of those available members */ * is_our_turn
temp ¶* static int try_calling(struct queue_ent *qe, const char *options, char *announceoverride, const char *url, int *tries, int *noption, const char *agi)
add queue memebr ¶AddQueueMember Dynamically adds queue members AddQueueMember(queuename[|interface[|penalty[|options[|membername]]]]) Dynamically adds interface to an existing queue (i.e. the interface "logs on" to the queue, as an agent does with AgentCallbackLogin). queuename - The name of the queue to add a member to interface - The interface to add to the queue, if not specified, uses the current interface penalty - Integer greater than or equal to 0, available members with lower penalties will get calls first options: j - If the interface is already in the queue and there exists an n+101 priority then it will then jump to this priority. Otherwise it will return an error. membername - a specific member name to be added AddQueueMember(techsupport|SIP/3000) * static int aqm_exec(struct ast_channel *chan, void *data)
/*! * Reference/unreference an object and return the old refcount. * * \param o A pointer to the object * \param delta Value to add to the reference counter. * \return The value of the reference counter before the operation. * * Increase/decrease the reference counter according * the value of delta. * * If the refcount goes to zero, the object is destroyed. * * \note The object must not be locked by the caller of this function, as * it is invalid to try to unlock it after releasing the reference. * * \note if we know the pointer to an object, it is because we * have a reference count to it, so the only case when the object * can go away is when we release our reference, and it is * the last one in existence. */ int ao2_ref(void *o, int delta); /*! * \brief Add an object to a container. * * \param c the container to operate on. * \param newobj the object to be added. * * \return NULL on errors, other values on success. * * This function inserts an object in a container according its key. * * \note Remember to set the key before calling this function. * * \note This function automatically increases the reference count to * account for the reference to the object that the container now holds. * * For Asterisk 1.4 only, there is a dirty hack here to ensure that chan_iax2 * can have objects linked in to the container at the head instead of tail * when it is just a linked list. This is to maintain some existing behavior * where the order must be maintained as it was before this conversion so that * matching behavior doesn't change. */ #define ao2_link(c, o) __ao2_link(c, o, 0) void *__ao2_link(struct ao2_container *c, void *newobj, int iax2_hack);
/*!
* When we need to walk through a container, we use
* ao2_iterator to keep track of the current position.
*
* Because the navigation is typically done without holding the
* lock on the container across the loop,
* objects can be inserted or deleted or moved
* while we work. As a consequence, there is no guarantee that
* the we manage to touch all the elements on the list, or it
* is possible that we touch the same object multiple times.
* However, within the current hash table container, the following is true:
* - It is not possible to miss an object in the container while iterating
* unless it gets added after the iteration begins and is added to a bucket
* that is before the one the current object is in. In this case, even if
* you locked the container around the entire iteration loop, you still would
* not see this object, because it would still be waiting on the container
* lock so that it can be added.
* - It would be extremely rare to see an object twice. The only way this can
* happen is if an object got unlinked from the container and added again
* during the same iteration. Furthermore, when the object gets added back,
* it has to be in the current or later bucket for it to be seen again.
*
* An iterator must be first initialized with ao2_iterator_init(),
* then we can use o = ao2_iterator_next() to move from one
* element to the next. Remember that the object returned by
* ao2_iterator_next() has its refcount incremented,
* and the reference must be explicitly released when done with it.
*
* Example:
* struct ao2_container *c = ... // the container we want to iterate on
* struct ao2_iterator i;
* struct my_obj *o;
*
* i = ao2_iterator_init(c, flags);
*
* while ( (o = ao2_iterator_next(&i)) ) {
* ... do something on o ...
* ao2_ref(o, -1);
* }
struct member_interface {
char interface[80];
AST_LIST_ENTRY(member_interface) list; /*!< Next call queue */
};
static AST_LIST_HEAD_STATIC(interfaces, member_interface);
* static int add_to_interfaces(const char *interface)
/*! \brief Defines a structure to be used to hold a list of specified type, statically initialized. \param name This will be the name of the defined structure. \param type This is the type of each list entry. This macro creates a structure definition that can be used to hold a list of the entries of type \a type, and allocates an instance of it, initialized to be empty. Example usage: \code static AST_LIST_HEAD_STATIC(entry_list, entry); \endcode This would define \c struct \c entry_list, intended to hold a list of type \c struct \c entry. */
/*!
\brief Loops over (traverses) the entries in a list.
\param head This is a pointer to the list head structure
\param var This is the name of the variable that will hold a pointer to the
current list entry on each iteration. It must be declared before calling
this macro.
\param field This is the name of the field (declared using AST_LIST_ENTRY())
used to link entries of this list together.
This macro is use to loop over (traverse) the entries in a list. It uses a
\a for loop, and supplies the enclosed code with a pointer to each list
entry as it loops. It is typically used as follows:
\code
static AST_LIST_HEAD(entry_list, list_entry) entries;
...
struct list_entry {
...
AST_LIST_ENTRY(list_entry) list;
}
...
struct list_entry *current;
...
AST_LIST_TRAVERSE(&entries, current, list) {
(do something with current here)
}
\endcode
\warning If you modify the forward-link pointer contained in the \a current entry while
inside the loop, the behavior will be unpredictable. At a minimum, the following
macros will modify the forward-link pointer, and should not be used inside
AST_LIST_TRAVERSE() against the entry pointed to by the \a current pointer without
careful consideration of their consequences:
\li AST_LIST_NEXT() (when used as an lvalue)
\li AST_LIST_INSERT_AFTER()
\li AST_LIST_INSERT_HEAD()
\li AST_LIST_INSERT_TAIL()
*/
/*! \brief Inserts a list entry at the head of a list. \param head This is a pointer to the list head structure \param elm This is a pointer to the entry to be inserted. \param field This is the name of the field (declared using AST_LIST_ENTRY()) used to link entries of this list together. */ |
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