static cache_entry_t * choose_pentry( hash_table_t * ht)
{
struct rbt_node *it;
struct rbt_head *tete_rbt;
cache_entry_t * pentry = NULL ;
unsigned int i = 0;
hash_data_t *pdata = NULL;
unsigned int counter = 0 ;
/* Sanity check */
if(ht == NULL)
return NULL ;
for(i = 0; i < ht->parameter.index_size; i++)
{
tete_rbt = &((ht->array_rbt)[i]);
RBT_LOOP(tete_rbt, it)
{
counter += 1 ;
pdata = (hash_data_t *) it->rbt_opaq;
pentry = (cache_entry_t *) (pdata->buffval.pdata) ;
/* No file invalidation for the moment (file can handle state) */
if( counter >= 10 )
return pentry ;
RBT_INCREMENT(it);
}
}
void
hashtable_log(log_components_t component, struct hash_table *ht)
{
/* The current position in the hash table */
struct rbt_node *it = NULL;
/* The root of the tree currently being inspected */
struct rbt_head *root;
/* Buffer descriptors for the key and value */
struct hash_data *data = NULL;
/* String representation of the key */
char dispkey[HASHTABLE_DISPLAY_STRLEN];
/* String representation of the stored value */
char dispval[HASHTABLE_DISPLAY_STRLEN];
/* Index for traversing the partitions */
uint32_t i = 0;
/* Running count of entries */
size_t nb_entries = 0;
/* Recomputed partitionindex */
uint32_t index = 0;
/* Recomputed hash for Red-Black tree */
uint64_t rbt_hash = 0;
LogFullDebug(component, "The hash is partitioned into %d trees",
ht->parameter.index_size);
for (i = 0; i < ht->parameter.index_size; i++)
nb_entries += ht->partitions[i].count;
LogFullDebug(component, "The hash contains %zd entries", nb_entries);
for (i = 0; i < ht->parameter.index_size; i++) {
root = &ht->partitions[i].rbt;
LogFullDebug(component,
"The partition in position %" PRIu32
"contains: %u entries", i, root->rbt_num_node);
PTHREAD_RWLOCK_rdlock(&ht->partitions[i].lock);
RBT_LOOP(root, it) {
data = it->rbt_opaq;
ht->parameter.key_to_str(&(data->key), dispkey);
ht->parameter.val_to_str(&(data->val), dispval);
if (compute(ht, &data->key, &index, &rbt_hash)
!= HASHTABLE_SUCCESS) {
LogCrit(component,
"Possible implementation error in hash_func_both");
index = 0;
rbt_hash = 0;
}
LogFullDebug(component,
"%s => %s; index=%" PRIu32 " rbt_hash=%"
PRIu64, dispkey, dispval, index, rbt_hash);
RBT_INCREMENT(it);
}
PTHREAD_RWLOCK_unlock(&ht->partitions[i].lock);
}
void print_node(struct rbt_head *head)
{
struct rbt_node *it;
printf("header 0x%lx : root 0x%lx lm 0x%lx rm 0x%lx num = %d\n",
head, head->root, head->leftmost, head->rightmost, head->rbt_num_node);
RBT_LOOP(head, it)
{
printf("node 0x%lx : flags 0%o p 0x%lx a 0x%lx "
"l 0x%lx r 0x%lx val = %d\n",
it, it->rbt_flags, it->parent, it->anchor, it->left, it->next, it->rbt_value);
RBT_INCREMENT(it);
}
/**
*
* HashTable_Print: Print information about the hashtable (mostly for debugging purpose).
*
* Print information about the hashtable (mostly for debugging purpose).
*
* @param component the component debugging config to use.
* @param ht the hashtable to be used.
* @return none (returns void).
*
* @see HashTable_Set
* @see HashTable_Init
* @see HashTable_Get
*/
void HashTable_Log(log_components_t component, hash_table_t * ht)
{
struct rbt_node *it;
struct rbt_head *tete_rbt;
hash_data_t *pdata = NULL;
char dispkey[HASHTABLE_DISPLAY_STRLEN];
char dispval[HASHTABLE_DISPLAY_STRLEN];
unsigned int i = 0;
int nb_entries = 0;
unsigned long rbtval;
unsigned long hashval;
/* Sanity check */
if(ht == NULL)
return;
LogFullDebug(COMPONENT_HASHTABLE,
"The hash has %d nodes (this number MUST be a prime integer for performance's issues)\n",
ht->parameter.index_size);
for(i = 0; i < ht->parameter.index_size; i++)
nb_entries += ht->stat_dynamic[i].nb_entries;
LogFullDebug(COMPONENT_HASHTABLE,"The hash contains %d entries\n", nb_entries);
for(i = 0; i < ht->parameter.index_size; i++)
{
tete_rbt = &((ht->array_rbt)[i]);
LogFullDebug(COMPONENT_HASHTABLE,"The node in position %d contains: %d entries \n", i,
tete_rbt->rbt_num_node);
RBT_LOOP(tete_rbt, it)
{
pdata = (hash_data_t *) it->rbt_opaq;
ht->parameter.key_to_str(&(pdata->buffkey), dispkey);
ht->parameter.val_to_str(&(pdata->buffval), dispval);
hashval = (*(ht->parameter.hash_func_key)) (&ht->parameter, &(pdata->buffkey));
rbtval = (*(ht->parameter.hash_func_rbt)) (&ht->parameter, &(pdata->buffkey));
LogFullDebug(component, "%s => %s; hashval=%lu rbtval=%lu\n ", dispkey, dispval, hashval, rbtval);
RBT_INCREMENT(it);
}
}
/**
*
* Key_Locate: Locate a buffer key in the hash table, as a rbt node.
*
* This function is for internal use only
*
* @param ht the hashtable to be used.
* @param buffkey a pointeur to an object of type hash_buffer_t which describe the key location in memory.
* @param hashval hash value associated with the key (in order to avoid computing it a second time)
* @param rbt_value rbt value associated with the key (in order to avoid computing it a second time)
* @param ppnode if successfull,will point to the pointer to the rbt node to be used
*
* @return HASHTABLE_SUCCESS if successfull\n.
* @return HASHTABLE_NO_SUCH_KEY if key was not found
*
*/
static int Key_Locate(hash_table_t * ht, hash_buffer_t * buffkey, unsigned int hashval,
int rbt_value, struct rbt_node **ppnode)
{
struct rbt_head *tete_rbt;
hash_data_t *pdata = NULL;
struct rbt_node *pn;
int found = 0;
/* Sanity check */
if(ht == NULL || buffkey == NULL || ppnode == NULL)
return HASHTABLE_ERROR_INVALID_ARGUMENT;
/* Find the head of the rbt */
tete_rbt = &(ht->array_rbt[hashval]);
/* I get the node with this value that is located on the left (first with this value in the rbtree) */
RBT_FIND_LEFT(tete_rbt, pn, rbt_value);
/* Find was successfull ? */
if(pn == NULL)
return HASHTABLE_ERROR_NO_SUCH_KEY;
/* For each entry with this value, compare the key value */
while((pn != 0) && (RBT_VALUE(pn) == rbt_value))
{
pdata = (hash_data_t *) RBT_OPAQ(pn);
/* Verify the key value : this function returns 0 if key are indentical */
if(!ht->parameter.compare_key(buffkey, &(pdata->buffkey)))
{
found = 1;
break; /* exit the while loop */
}
RBT_INCREMENT(pn);
} /* while */
/* We didn't find anything */
if(!found)
return HASHTABLE_ERROR_NO_SUCH_KEY;
/* Key was found */
*ppnode = pn;
return HASHTABLE_SUCCESS;
} /* Key_Locate */
static bool nfs_rpc_cbsim_get_v40_client_ids(DBusMessageIter *args,
DBusMessage *reply)
{
uint32_t i;
hash_table_t *ht = ht_confirmed_client_id;
struct rbt_head *head_rbt;
struct hash_data *pdata = NULL;
struct rbt_node *pn;
nfs_client_id_t *pclientid;
uint64_t clientid;
DBusMessageIter iter, sub_iter;
struct timespec ts;
/* create a reply from the message */
now(&ts);
dbus_message_iter_init_append(reply, &iter);
dbus_append_timestamp(&iter, &ts);
dbus_message_iter_open_container(&iter, DBUS_TYPE_ARRAY,
DBUS_TYPE_UINT64_AS_STRING, &sub_iter);
/* For each bucket of the hashtable */
for (i = 0; i < ht->parameter.index_size; i++) {
head_rbt = &(ht->partitions[i].rbt);
/* acquire mutex */
PTHREAD_RWLOCK_wrlock(&(ht->partitions[i].lock));
/* go through all entries in the red-black-tree */
RBT_LOOP(head_rbt, pn) {
pdata = RBT_OPAQ(pn);
pclientid = pdata->val.addr;
clientid = pclientid->cid_clientid;
dbus_message_iter_append_basic(&sub_iter,
DBUS_TYPE_UINT64,
&clientid);
RBT_INCREMENT(pn);
}
PTHREAD_RWLOCK_unlock(&(ht->partitions[i].lock));
}
static DBusHandlerResult
nfs_rpc_cbsim_get_client_ids(DBusConnection *conn, DBusMessage *msg,
void *user_data)
{
DBusMessage* reply;
static uint32_t i, serial = 1;
hash_table_t *ht = ht_confirmed_client_id;
struct rbt_head *head_rbt;
hash_data_t *pdata = NULL;
struct rbt_node *pn;
nfs_client_id_t *pclientid;
uint64_t clientid;
DBusMessageIter iter, sub_iter;
/* create a reply from the message */
reply = dbus_message_new_method_return(msg);
dbus_message_iter_init_append(reply, &iter);
dbus_message_iter_open_container(&iter, DBUS_TYPE_ARRAY,
DBUS_TYPE_UINT64_AS_STRING, &sub_iter);
/* For each bucket of the hashtable */
for(i = 0; i < ht->parameter.index_size; i++) {
head_rbt = &(ht->partitions[i].rbt);
/* acquire mutex */
pthread_rwlock_wrlock(&(ht->partitions[i].lock));
/* go through all entries in the red-black-tree*/
RBT_LOOP(head_rbt, pn) {
pdata = RBT_OPAQ(pn);
pclientid =
(nfs_client_id_t *)pdata->buffval.pdata;
clientid = pclientid->cid_clientid;
dbus_message_iter_append_basic(&sub_iter, DBUS_TYPE_UINT64, &clientid);
RBT_INCREMENT(pn);
}
pthread_rwlock_unlock(&(ht->partitions[i].lock));
}
/**
* @brief Locate a key within a partition
*
* This function traverses the red-black tree within a hash table
* partition and returns, if one exists, a pointer to a node matching
* the supplied key.
*
* @param[in] ht The hashtable to be used
* @param[in] key The key to look up
* @param[in] index Index into RBT array
* @param[in] rbthash Hash in red-black tree
* @param[out] node On success, the found node, NULL otherwise
*
* @retval HASHTABLE_SUCCESS if successfull
* @retval HASHTABLE_NO_SUCH_KEY if key was not found
*/
static hash_error_t
key_locate(struct hash_table *ht, const struct gsh_buffdesc *key,
uint32_t index, uint64_t rbthash, struct rbt_node **node)
{
/* The current partition */
struct hash_partition *partition = &(ht->partitions[index]);
/* The root of the red black tree matching this index */
struct rbt_head *root = NULL;
/* A pair of buffer descriptors locating key and value for this
entry */
struct hash_data *data = NULL;
/* The node in the red-black tree currently being traversed */
struct rbt_node *cursor = NULL;
/* true if we have located the key */
int found = false;
*node = NULL;
if (partition->cache) {
void **cache_slot = (void **)
&(partition->cache[cache_offsetof(ht, rbthash)]);
cursor = atomic_fetch_voidptr(cache_slot);
LogFullDebug(COMPONENT_HASHTABLE_CACHE,
"hash %s index %" PRIu32 " slot %d",
(cursor) ? "hit" : "miss", index,
cache_offsetof(ht, rbthash));
if (cursor) {
data = RBT_OPAQ(cursor);
if (ht->parameter.
compare_key((struct gsh_buffdesc *)key,
&(data->key)) == 0) {
goto out;
}
}
}
root = &(ht->partitions[index].rbt);
/* The lefmost occurrence of the value is the one from which we
may start iteration to visit all nodes containing a value. */
RBT_FIND_LEFT(root, cursor, rbthash);
if (cursor == NULL) {
if (isFullDebug(COMPONENT_HASHTABLE)
&& isFullDebug(ht->parameter.ht_log_component))
LogFullDebug(ht->parameter.ht_log_component,
"Key not found: rbthash = %" PRIu64,
rbthash);
return HASHTABLE_ERROR_NO_SUCH_KEY;
}
while ((cursor != NULL) && (RBT_VALUE(cursor) == rbthash)) {
data = RBT_OPAQ(cursor);
if (ht->parameter.
compare_key((struct gsh_buffdesc *)key,
&(data->key)) == 0) {
if (partition->cache) {
void **cache_slot = (void **)
&(partition->
cache[cache_offsetof(ht, rbthash)]);
atomic_store_voidptr(cache_slot, cursor);
}
found = true;
break;
}
RBT_INCREMENT(cursor);
}
if (!found) {
if (isFullDebug(COMPONENT_HASHTABLE)
&& isFullDebug(ht->parameter.ht_log_component))
LogFullDebug(ht->parameter.ht_log_component,
"Matching hash found, but no matching key.");
return HASHTABLE_ERROR_NO_SUCH_KEY;
}
out:
*node = cursor;
return HASHTABLE_SUCCESS;
}
/**
*
* nfs_ip_stats_dump: Dumps the IP Stats for each client to a file per client
*
* @param ht_ip_stats [IN] hash table to be dumped
* @param path_stat [IN] pattern used to build path used for dumping stats
*
* @return nothing (void function).
*
*/
void nfs_ip_stats_dump(hash_table_t ** ht_ip_stats,
unsigned int nb_worker, char *path_stat)
{
struct rbt_node *it;
struct rbt_head *tete_rbt;
hash_data_t *pdata = NULL;
unsigned int i = 0;
unsigned int j = 0;
unsigned int k = 0;
nfs_ip_stats_t *pnfs_ip_stats[NB_MAX_WORKER_THREAD];
nfs_ip_stats_t ip_stats_aggreg;
// enough to hold an IPv4 or IPv6 address as a string
char ipaddrbuf[40];
char ifpathdump[MAXPATHLEN];
sockaddr_t * ipaddr;
time_t current_time;
struct tm current_time_struct;
char strdate[1024];
FILE *flushipstat = NULL;
/* Do nothing if configuration disables IP_Stats */
if(nfs_param.core_param.dump_stats_per_client == 0)
return;
/* Compute the current time */
current_time = time(NULL);
memcpy(¤t_time_struct, localtime(¤t_time), sizeof(current_time_struct));
snprintf(strdate, 1024, "%u, %.2d/%.2d/%.4d %.2d:%.2d:%.2d ",
(unsigned int)current_time,
current_time_struct.tm_mday,
current_time_struct.tm_mon + 1,
1900 + current_time_struct.tm_year,
current_time_struct.tm_hour,
current_time_struct.tm_min, current_time_struct.tm_sec);
/* All clients are supposed to have call at least one time worker #0
* we loop on every client in the HashTable */
for(i = 0; i < ht_ip_stats[0]->parameter.index_size; i++)
{
tete_rbt = &((ht_ip_stats[0]->array_rbt)[i]);
RBT_LOOP(tete_rbt, it)
{
pdata = (hash_data_t *) it->rbt_opaq;
ipaddr = (sockaddr_t *) pdata->buffkey.pdata;
sprint_sockaddr(ipaddr, ipaddrbuf, sizeof(ipaddrbuf));
snprintf(ifpathdump, MAXPATHLEN, "%s/stats_nfs-%s", path_stat, ipaddrbuf);
if((flushipstat = fopen(ifpathdump, "a")) == NULL)
return;
/* Collect stats for each worker and aggregate them */
memset(&ip_stats_aggreg, 0, sizeof(ip_stats_aggreg));
for(j = 0; j < nb_worker; j++)
{
if(nfs_ip_stats_get(ht_ip_stats[j],
ipaddr, &pnfs_ip_stats[j]) != IP_STATS_SUCCESS)
{
fclose(flushipstat);
return;
}
ip_stats_aggreg.nb_call += (pnfs_ip_stats[j])->nb_call;
ip_stats_aggreg.nb_req_nfs2 += (pnfs_ip_stats[j])->nb_req_nfs2;
ip_stats_aggreg.nb_req_nfs3 += (pnfs_ip_stats[j])->nb_req_nfs3;
ip_stats_aggreg.nb_req_nfs4 += (pnfs_ip_stats[j])->nb_req_nfs4;
ip_stats_aggreg.nb_req_mnt1 += (pnfs_ip_stats[j])->nb_req_mnt1;
ip_stats_aggreg.nb_req_mnt3 += (pnfs_ip_stats[j])->nb_req_mnt3;
for(k = 0; k < MNT_V1_NB_COMMAND; k++)
ip_stats_aggreg.req_mnt1[k] += (pnfs_ip_stats[j])->req_mnt1[k];
for(k = 0; k < MNT_V3_NB_COMMAND; k++)
ip_stats_aggreg.req_mnt3[k] += (pnfs_ip_stats[j])->req_mnt3[k];
for(k = 0; k < NFS_V2_NB_COMMAND; k++)
ip_stats_aggreg.req_nfs2[k] += (pnfs_ip_stats[j])->req_nfs2[k];
for(k = 0; k < NFS_V3_NB_COMMAND; k++)
ip_stats_aggreg.req_nfs3[k] += (pnfs_ip_stats[j])->req_nfs3[k];
}
/* Write stats to file */
fprintf(flushipstat, "NFS/MOUNT STATISTICS,%s;%u|%u,%u,%u,%u,%u\n",
strdate,
ip_stats_aggreg.nb_call,
ip_stats_aggreg.nb_req_mnt1,
ip_stats_aggreg.nb_req_mnt3,
ip_stats_aggreg.nb_req_nfs2,
ip_stats_aggreg.nb_req_nfs3, ip_stats_aggreg.nb_req_nfs4);
fprintf(flushipstat, "MNT V1 REQUEST,%s;%u|", strdate,
ip_stats_aggreg.nb_req_mnt1);
for(k = 0; k < MNT_V1_NB_COMMAND - 1; k++)
fprintf(flushipstat, "%u,", ip_stats_aggreg.req_mnt1[k]);
fprintf(flushipstat, "%u\n", ip_stats_aggreg.req_mnt1[MNT_V1_NB_COMMAND - 1]);
fprintf(flushipstat, "MNT V3 REQUEST,%s;%u|", strdate,
ip_stats_aggreg.nb_req_mnt3);
for(k = 0; k < MNT_V3_NB_COMMAND - 1; k++)
fprintf(flushipstat, "%u,", ip_stats_aggreg.req_mnt3[k]);
fprintf(flushipstat, "%u\n", ip_stats_aggreg.req_mnt3[MNT_V3_NB_COMMAND - 1]);
fprintf(flushipstat, "NFS V2 REQUEST,%s;%u|", strdate,
ip_stats_aggreg.nb_req_nfs2);
for(k = 0; k < NFS_V2_NB_COMMAND - 1; k++)
fprintf(flushipstat, "%u,", ip_stats_aggreg.req_nfs2[k]);
fprintf(flushipstat, "%u\n", ip_stats_aggreg.req_nfs2[NFS_V2_NB_COMMAND - 1]);
fprintf(flushipstat, "NFS V3 REQUEST,%s;%u|", strdate,
ip_stats_aggreg.nb_req_nfs3);
for(k = 0; k < NFS_V3_NB_COMMAND - 1; k++)
fprintf(flushipstat, "%u,", ip_stats_aggreg.req_nfs3[k]);
fprintf(flushipstat, "%u\n", ip_stats_aggreg.req_nfs3[NFS_V3_NB_COMMAND - 1]);
fprintf(flushipstat, "END, ----- NO MORE STATS FOR THIS PASS ----\n");
fflush(flushipstat);
/* Check next client */
RBT_INCREMENT(it);
fclose(flushipstat);
}
}
static void reap_hash_table(hash_table_t * ht_reap)
{
struct rbt_head * head_rbt;
hash_data_t * pdata = NULL;
uint32_t i;
int v4, rc;
struct rbt_node * pn;
nfs_client_id_t * pclientid;
nfs_client_record_t * precord;
/* For each bucket of the requested hashtable */
for(i = 0; i < ht_reap->parameter.index_size; i++)
{
head_rbt = &ht_reap->partitions[i].rbt;
restart:
/* acquire mutex */
pthread_rwlock_wrlock(&ht_reap->partitions[i].lock);
/* go through all entries in the red-black-tree*/
RBT_LOOP(head_rbt, pn)
{
pdata = RBT_OPAQ(pn);
pclientid = (nfs_client_id_t *)pdata->buffval.pdata;
/*
* little hack: only want to reap v4 clients
* 4.1 initializess this field to '1'
*/
v4 = (pclientid->cid_create_session_sequence == 0);
P(pclientid->cid_mutex);
if(!valid_lease(pclientid) && v4)
{
inc_client_id_ref(pclientid);
/* Take a reference to the client record */
precord = pclientid->cid_client_record;
inc_client_record_ref(precord);
V(pclientid->cid_mutex);
pthread_rwlock_unlock(&ht_reap->partitions[i].lock);
if(isDebug(COMPONENT_CLIENTID))
{
char str[HASHTABLE_DISPLAY_STRLEN];
display_client_id_rec(pclientid, str);
LogFullDebug(COMPONENT_CLIENTID,
"Expire index %d %s",
i, str);
}
/* Take cr_mutex and expire clientid */
P(precord->cr_mutex);
rc = nfs_client_id_expire(pclientid);
V(precord->cr_mutex);
dec_client_id_ref(pclientid);
dec_client_record_ref(precord);
if(rc)
goto restart;
}
else
{
V(pclientid->cid_mutex);
}
RBT_INCREMENT(pn);
}
pthread_rwlock_unlock(&ht_reap->partitions[i].lock);
}
void *reaper_thread(void *unused)
{
hash_table_t *ht = ht_client_id;
struct rbt_head *head_rbt;
hash_data_t *pdata = NULL;
int i, v4;
struct rbt_node *pn;
nfs_client_id_t *clientp;
#ifndef _NO_BUDDY_SYSTEM
if((i = BuddyInit(&nfs_param.buddy_param_admin)) != BUDDY_SUCCESS) {
/* Failed init */
LogFatal(COMPONENT_MAIN,
"Memory manager could not be initialized");
}
LogInfo(COMPONENT_MAIN, "Memory manager successfully initialized");
#endif
SetNameFunction("reaper_thr");
while(1) {
/* Initial wait */
/* TODO: should this be configurable? */
/* sleep(nfs_param.core_param.reaper_delay); */
sleep(reaper_delay);
LogFullDebug(COMPONENT_MAIN,
"NFS reaper : now checking clients");
/* For each bucket of the hashtable */
for(i = 0; i < ht->parameter.index_size; i++) {
head_rbt = &(ht->array_rbt[i]);
restart:
/* acquire mutex */
P_w(&(ht->array_lock[i]));
/* go through all entries in the red-black-tree*/
RBT_LOOP(head_rbt, pn) {
pdata = RBT_OPAQ(pn);
clientp =
(nfs_client_id_t *)pdata->buffval.pdata;
/*
* little hack: only want to reap v4 clients
* 4.1 initializess this field to '1'
*/
v4 = (clientp->create_session_sequence == 0);
if (clientp->confirmed != EXPIRED_CLIENT_ID &&
nfs4_is_lease_expired(clientp) && v4) {
V_w(&(ht->array_lock[i]));
LogDebug(COMPONENT_MAIN,
"NFS reaper: expire client %s",
clientp->client_name);
nfs_client_id_expire(clientp);
goto restart;
}
if (clientp->confirmed == EXPIRED_CLIENT_ID) {
LogDebug(COMPONENT_MAIN,
"reaper: client %s already expired",
clientp->client_name);
}
RBT_INCREMENT(pn);
}
V_w(&(ht->array_lock[i]));
}
} /* while ( 1 ) */
static int reap_hash_table(hash_table_t *ht_reap)
{
struct rbt_head *head_rbt;
struct hash_data *addr = NULL;
uint32_t i;
int rc;
struct rbt_node *pn;
nfs_client_id_t *pclientid;
nfs_client_record_t *precord;
int count = 0;
struct req_op_context req_ctx;
struct user_cred creds;
/* We need a real context. Make all reaping done
* by root,root
*/
memset(&creds, 0, sizeof(creds));
req_ctx.creds = &creds;
/* For each bucket of the requested hashtable */
for (i = 0; i < ht_reap->parameter.index_size; i++) {
head_rbt = &ht_reap->partitions[i].rbt;
restart:
/* acquire mutex */
PTHREAD_RWLOCK_wrlock(&ht_reap->partitions[i].lock);
/* go through all entries in the red-black-tree */
RBT_LOOP(head_rbt, pn) {
addr = RBT_OPAQ(pn);
pclientid = addr->val.addr;
count++;
pthread_mutex_lock(&pclientid->cid_mutex);
if (!valid_lease(pclientid)) {
inc_client_id_ref(pclientid);
/* Take a reference to the client record */
precord = pclientid->cid_client_record;
inc_client_record_ref(precord);
pthread_mutex_unlock(&pclientid->cid_mutex);
PTHREAD_RWLOCK_unlock(&ht_reap->partitions[i].
lock);
if (isDebug(COMPONENT_CLIENTID)) {
char str[HASHTABLE_DISPLAY_STRLEN];
display_client_id_rec(pclientid, str);
LogFullDebug(COMPONENT_CLIENTID,
"Expire index %d %s", i,
str);
}
/* Take cr_mutex and expire clientid */
pthread_mutex_lock(&precord->cr_mutex);
/**
* @TODO This is incomplete! the context has to be filled in from
* somewhere
*/
memset(&req_ctx, 0, sizeof(req_ctx));
rc = nfs_client_id_expire(pclientid, &req_ctx);
pthread_mutex_unlock(&precord->cr_mutex);
dec_client_id_ref(pclientid);
dec_client_record_ref(precord);
if (rc)
goto restart;
} else {
pthread_mutex_unlock(&pclientid->cid_mutex);
}
RBT_INCREMENT(pn);
}
PTHREAD_RWLOCK_unlock(&ht_reap->partitions[i].lock);
}
