void
mutex_destroy(kmutex_t *mp)
{
mutex_impl_t *lp = (mutex_impl_t *)mp;
if (lp->m_owner == 0 && !MUTEX_HAS_WAITERS(lp)) {
MUTEX_DESTROY(lp);
} else if (MUTEX_TYPE_SPIN(lp)) {
LOCKSTAT_RECORD0(LS_MUTEX_DESTROY_RELEASE, lp);
MUTEX_DESTROY(lp);
} else if (MUTEX_TYPE_ADAPTIVE(lp)) {
LOCKSTAT_RECORD0(LS_MUTEX_DESTROY_RELEASE, lp);
if (MUTEX_OWNER(lp) != curthread)
mutex_panic("mutex_destroy: not owner", lp);
if (MUTEX_HAS_WAITERS(lp)) {
turnstile_t *ts = turnstile_lookup(lp);
turnstile_exit(lp);
if (ts != NULL)
mutex_panic("mutex_destroy: has waiters", lp);
}
MUTEX_DESTROY(lp);
} else {
mutex_panic("mutex_destroy: bad mutex", lp);
}
}
Client::~Client(){
MUTEX_DESTROY(mutex_sendto);
MUTEX_DESTROY(mutex_print);
TerminateThread(client_send_thread.ThreadHandle, 0);
TerminateThread(client_recv_thread.ThreadHandle, 0);
closesocket(mysocket);
}
LoadBalancer::~LoadBalancer(){
MUTEX_DESTROY(mutex_sendto);
MUTEX_DESTROY(mutex_print);
TerminateThread(pkt_thread.ThreadHandle, 0);
TerminateThread(send_heartbeat_thread.ThreadHandle, 0);
closesocket(client_socket);
closesocket(server_socket);
}
void
OMR::Monitor::destroy()
{
#ifdef WIN32
MUTEX_DESTROY(_monitor);
#else
int32_t rc = MUTEX_DESTROY(_monitor);
TR_ASSERT(rc == 0, "error destroying monitor\n");
#endif
}
void
OMR::Monitor::destroy()
{
#if defined(OMR_OS_WINDOWS)
MUTEX_DESTROY(_monitor);
#else
int32_t rc = MUTEX_DESTROY(_monitor);
TR_ASSERT(rc == 0, "error destroying monitor\n");
#endif /* defined(OMR_OS_WINDOWS) */
}
/* clean xmap */
void xmap_clean(XMAP *xmap)
{
if(xmap)
{
//WARN_LOGGER(xmap->logger, "Ready clean tree[%p]", xmap->tree);
mmtree_close(xmap->tree);
//WARN_LOGGER(xmap->logger, "Ready clean tree64[%p]", xmap->tree64);
mmtree64_close(xmap->tree64);
//WARN_LOGGER(xmap->logger, "Ready clean queue[%p]", xmap->queue);
mmqueue_clean(xmap->queue);
//WARN_LOGGER(xmap->logger, "Ready clean kmap[%p]", xmap->kmap);
mmtrie_clean(xmap->kmap);
//WARN_LOGGER(xmap->logger, "Ready reset db[%p]", xmap->db);
cdb_reset(xmap->db);
//WARN_LOGGER(xmap->logger, "Ready clean db[%p]", xmap->db);
cdb_clean(xmap->db);
if(xmap->diskio.map)
{
munmap(xmap->diskio.map, xmap->diskio.size);
xmap->diskio.map = NULL;
}
if(xmap->diskio.fd > 0)
{
close(xmap->diskio.fd);
xmap->diskio.fd = 0;
}
if(xmap->metaio.map)
{
munmap(xmap->metaio.map, xmap->metaio.size);
xmap->metaio.map = NULL;
}
if(xmap->metaio.fd > 0)
{
close(xmap->metaio.fd);
xmap->metaio.fd = 0;
}
if(xmap->stateio.map)
{
munmap(xmap->stateio.map, xmap->stateio.size);
xmap->stateio.map = NULL;
}
if(xmap->stateio.fd > 0)
{
close(xmap->stateio.fd);
xmap->stateio.fd = 0;
}
//WARN_LOGGER(xmap->logger, "Ready clean mutex[%p]", xmap->mutex);
MUTEX_DESTROY(xmap->mutex);
MUTEX_DESTROY(xmap->cmutex);
LOGGER_CLEAN(xmap->logger);
xmm_free(xmap, sizeof(XMAP));
}
return ;
}
int
freerdp_chanman_uninit(void)
{
while (g_chan_man_list)
{
freerdp_chanman_free(g_chan_man_list->chan_man);
}
MUTEX_DESTROY(g_mutex_init);
MUTEX_DESTROY(g_mutex_list);
return 0;
}
int
ams_Destroy(ams_p ams)
{
MUTEX_DESTROY(ams->runflag_lock);
free(ams->runflag_lock);
COND_DESTROY(ams->runflag_cond);
free(ams->runflag_cond);
MUTEX_DESTROY(ams->waiting_lock);
free(ams->waiting_lock);
COND_DESTROY(ams->waiting_cond);
free(ams->waiting_cond);
free(ams);
return MC_SUCCESS;
}
void ippr_raudio_fini()
{
if (raudio_proxy_init == 1) {
MUTEX_DESTROY(&raudiofr.fr_lock);
raudio_proxy_init = 0;
}
}
/*---------------------------------------------------------------------*/
BOOL ArchiveClose(H_ARCHIVE harchive)
{
NODE *node;
STREAM *stream;
if (!ValidateHandle(harchive))
return (FALSE);
_archive[harchive].last_error = ARC_NO_ERROR;
_archive_error = ARC_NO_ERROR;
ArchiveLog(ARC_LOG_VERBOSE, "Close archive: %s", _archive[harchive].path);
/* Close all open event files on archive... */
if ((node = FirstNode(&_archive[harchive].streams))) {
do {
stream = (STREAM *) node->data;
if (_archive[harchive].access == ARC_WRITE)
CloseEventFileAndRename(harchive, stream);
else
CloseEventFile(stream);
} while ((node = NextNode(node)) != NULL);
}
/* If open for write... */
if (_archive[harchive].access == ARC_WRITE) {
MUTEX_LOCK(&_archive[harchive].purge.mutex);
if(_archive[harchive].purge.active ) {
_archive[harchive].purge.stop = TRUE;
MUTEX_UNLOCK(&_archive[harchive].purge.mutex);
ArchiveLog(ARC_LOG_VERBOSE, "Stopping purge thread");
SEM_POST(&_archive[harchive].purge.semaphore);
THREAD_JOIN(&_archive[harchive].purge.thread_id);
}
else
MUTEX_UNLOCK(&_archive[harchive].purge.mutex);
/* Mark as closed and write state to disk */
_archive[harchive].state.write = FALSE;
if (!WriteState(harchive))
return (FALSE);
}
/* Close the state file */
if (!FileClose(_archive[harchive].file)) {
_archive[harchive].last_error = ARC_FILE_IO_ERROR;
return (FALSE);
}
_n_archives--;
/* Clear state */
MUTEX_DESTROY(&_archive[harchive].mutex);
DestroyList(&_archive[harchive].streams);
DestroyPurge(&_archive[harchive].purge);
InitArchive(harchive);
return (TRUE);
}
void ippr_rcmd_fini()
{
if (rcmd_proxy_init == 1) {
MUTEX_DESTROY(&rcmdfr.fr_lock);
rcmd_proxy_init = 0;
}
}
/**
* Discards a lock object.
* An lock must be discarded to free the resources associated with it.
*
* @note A lock must not be destroyed if threads are waiting on it, or
* if it is currently owned.
*/
void
MM_LightweightNonReentrantLock::tearDown()
{
if(NULL != _extensions) {
if(NULL != _tracing) {
if (NULL != _tracing->monitor_name) {
_tracing->monitor_name = NULL;
}
J9Pool* tracingPool = _extensions->_lightweightNonReentrantLockPool;
if(NULL != tracingPool) {
omrthread_monitor_enter(_extensions->_lightweightNonReentrantLockPoolMutex);
pool_removeElement(tracingPool, _tracing);
omrthread_monitor_exit(_extensions->_lightweightNonReentrantLockPoolMutex);
}
_tracing = NULL;
}
}
if (_initialized) {
#if defined(J9MODRON_USE_CUSTOM_SPINLOCKS)
omrgc_spinlock_destroy(&_spinlock);
#else /* J9MODRON_USE_CUSTOM_SPINLOCKS */
MUTEX_DESTROY(_mutex);
#endif /* J9MODRON_USE_CUSTOM_SPINLOCKS */
_initialized = false;
}
}
void xqueue_clean(void *xqueue)
{
XQUEUE *q = (XQUEUE *)xqueue;
XQNODE *node = NULL;
int i = 0;
if(q)
{
//fprintf(stdout, "%s::%d q:%p nleft:%d qtotal:%d qleft:%p\n", __FILE__, __LINE__, q, q->nleft, q->qtotal, q->left);
for(i = 0; i < q->nlist; i++);
{
if(q->list[i])
xmm_free(q->list[i], XQ_NODES_MAX * sizeof(XQNODE));
}
/*
while((node = q->left))
{
q->left = node->next;
xmm_free(node, sizeof(XQNODE));
}
*/
MUTEX_DESTROY(q->mutex);
xmm_free(q, sizeof(XQUEUE));
}
return ;
}
/**
* free a work node.
*
* @param[in] node work node object
*
* @return operation status
* @retval 0 success
*
* @internal
*/
static int
_afs_wq_node_free(struct afs_work_queue_node * node)
{
int ret = 0;
if (queue_IsOnQueue(node) ||
(node->state == AFS_WQ_NODE_STATE_SCHEDULED) ||
(node->state == AFS_WQ_NODE_STATE_RUNNING) ||
(node->state == AFS_WQ_NODE_STATE_BLOCKED)) {
ret = AFS_WQ_ERROR;
goto error;
}
ret = _afs_wq_node_free_deps(node);
if (ret) {
goto error;
}
MUTEX_DESTROY(&node->lock);
CV_DESTROY(&node->state_cv);
if (node->rock_dtor) {
(*node->rock_dtor) (node->rock);
}
free(node);
error:
return ret;
}
TEST(Mutex, test) {
MUTEX mx;
MUTEX_INIT(mx);
MUTEX_LOCK(mx);
MUTEX_UNLOCK(mx);
MUTEX_DESTROY(mx);
}
void ippr_netbios_fini()
{
if (netbios_proxy_init == 1) {
MUTEX_DESTROY(&netbiosfr.fr_lock);
netbios_proxy_init = 0;
}
}
void ippr_irc_fini()
{
if (irc_proxy_init == 1) {
MUTEX_DESTROY(&ircnatfr.fr_lock);
irc_proxy_init = 0;
}
}
void dbg_deinit()
{
if (MUTEX_DESTROY(&(dbg_g->dbg_fd_out_lock)) != 0) {
dbg_exit(EC__EXIT__NO_RECOVER);
}
free(dbg_g);
}
void S_queue_destroy(pTHX_ message_queue* queue) {
MUTEX_LOCK(&queue->mutex);
node_destroy(&queue->front);
COND_DESTROY(&queue->condvar);
MUTEX_UNLOCK(&queue->mutex);
MUTEX_DESTROY(&queue->mutex);
}
void endAllocation( void )
{
/* Destroy any data structures required to make the allocation thread-
safe */
MUTEX_DESTROY( allocation );
krnlData = NULL;
}
void
ipf_p_raudio_main_unload()
{
if (raudio_proxy_init == 1) {
MUTEX_DESTROY(&raudiofr.fr_lock);
raudio_proxy_init = 0;
}
}
void
ipf_p_pptp_main_unload(void)
{
if (pptp_proxy_init == 1) {
MUTEX_DESTROY(&pptpfr.fr_lock);
pptp_proxy_init = 0;
}
}
void cleanup()
{
free(COMPTE_PRINCIPAL_MAIL);
flushRecentMutex();
flushDB();
releaseDNSCache();
MUTEX_DESTROY(DBRefreshMutex);
}
/* Clean event */
void event_clean(EVENT *event)
{
if(event)
{
MUTEX_DESTROY(event->mutex);
}
return ;
}
void
ippr_pptp_fini(void)
{
if (pptp_proxy_init == 1) {
MUTEX_DESTROY(&pptpfr.fr_lock);
pptp_proxy_init = 0;
}
}
void
ipf_p_irc_main_unload()
{
if (irc_proxy_init == 1) {
MUTEX_DESTROY(&ircnatfr.fr_lock);
irc_proxy_init = 0;
}
}
/* -------------------------------------------------------------------- */
void
ippr_rpcb_fini()
{
if (rpcb_proxy_init == 1) {
MUTEX_DESTROY(&rpcbfr.fr_lock);
rpcb_proxy_init = 0;
}
}
void
pqueue_destroy(pqueue_t *pq)
{
pqueue_drop_items(pq, binheap_count(pq->heap));
binheap_destroy(pq->heap);
MUTEX_DESTROY(pq->lock);
free(pq);
}
void
ipf_p_tftp_main_unload(void)
{
if (tftp_proxy_init == 1) {
MUTEX_DESTROY(&tftpfr.fr_lock);
tftp_proxy_init = 0;
}
}
/* exit:
* Shuts down the driver, freeing allocated resources, etc. All channels
* will already have been destroyed by the `destroy_channel' function, so
* normally all this needs to do is tidy up anything `init' left untidy.
* Return zero if successful, non-zero otherwise.
*/
static int local_exit(void)
{
MUTEX_LOCK(port_list);
while (port_list)
destroy_port(port_list);
MUTEX_UNLOCK(port_list);
MUTEX_DESTROY(port_list);
return 0;
}