ztest_znode_t *zp = umem_alloc(sizeof (*zp), UMEM_NOFAIL);
list_link_init(&zp->z_lnode);
- refcount_create(&zp->z_refcnt);
+ zfs_refcount_create(&zp->z_refcnt);
zp->z_object = object;
zfs_rlock_init(&zp->z_range_lock);
static void
ztest_znode_fini(ztest_znode_t *zp)
{
- ASSERT(refcount_is_zero(&zp->z_refcnt));
+ ASSERT(zfs_refcount_is_zero(&zp->z_refcnt));
zfs_rlock_destroy(&zp->z_range_lock);
zp->z_object = 0;
- refcount_destroy(&zp->z_refcnt);
+ zfs_refcount_destroy(&zp->z_refcnt);
list_link_init(&zp->z_lnode);
umem_free(zp, sizeof (*zp));
}
ASSERT3U(zp->z_object, !=, 0);
zll = &zd->zd_range_lock[zp->z_object & (ZTEST_OBJECT_LOCKS - 1)];
mutex_enter(&zll->z_lock);
- refcount_remove(&zp->z_refcnt, RL_TAG);
- if (refcount_is_zero(&zp->z_refcnt)) {
+ zfs_refcount_remove(&zp->z_refcnt, RL_TAG);
+ if (zfs_refcount_is_zero(&zp->z_refcnt)) {
list_remove(&zll->z_list, zp);
ztest_znode_fini(zp);
}
* refcount_create[_untracked]()
*/
-void refcount_create(zfs_refcount_t *rc);
-void refcount_create_untracked(zfs_refcount_t *rc);
-void refcount_create_tracked(zfs_refcount_t *rc);
-void refcount_destroy(zfs_refcount_t *rc);
-void refcount_destroy_many(zfs_refcount_t *rc, uint64_t number);
-int refcount_is_zero(zfs_refcount_t *rc);
-int64_t refcount_count(zfs_refcount_t *rc);
-int64_t zfs_refcount_add(zfs_refcount_t *rc, void *holder_tag);
-int64_t refcount_remove(zfs_refcount_t *rc, void *holder_tag);
-int64_t refcount_add_many(zfs_refcount_t *rc, uint64_t number,
- void *holder_tag);
-int64_t refcount_remove_many(zfs_refcount_t *rc, uint64_t number,
- void *holder_tag);
-void refcount_transfer(zfs_refcount_t *dst, zfs_refcount_t *src);
-void refcount_transfer_ownership(zfs_refcount_t *, void *, void *);
-boolean_t refcount_held(zfs_refcount_t *, void *);
-boolean_t refcount_not_held(zfs_refcount_t *, void *);
-
-void refcount_init(void);
-void refcount_fini(void);
+void zfs_refcount_create(zfs_refcount_t *);
+void zfs_refcount_create_untracked(zfs_refcount_t *);
+void zfs_refcount_create_tracked(zfs_refcount_t *);
+void zfs_refcount_destroy(zfs_refcount_t *);
+void zfs_refcount_destroy_many(zfs_refcount_t *, uint64_t);
+int zfs_refcount_is_zero(zfs_refcount_t *);
+int64_t zfs_refcount_count(zfs_refcount_t *);
+int64_t zfs_refcount_add(zfs_refcount_t *, void *);
+int64_t zfs_refcount_remove(zfs_refcount_t *, void *);
+int64_t zfs_refcount_add_many(zfs_refcount_t *, uint64_t, void *);
+int64_t zfs_refcount_remove_many(zfs_refcount_t *, uint64_t, void *);
+void zfs_refcount_transfer(zfs_refcount_t *, zfs_refcount_t *);
+void zfs_refcount_transfer_ownership(zfs_refcount_t *, void *, void *);
+boolean_t zfs_refcount_held(zfs_refcount_t *, void *);
+boolean_t zfs_refcount_not_held(zfs_refcount_t *, void *);
+
+void zfs_refcount_init(void);
+void zfs_refcount_fini(void);
#else /* ZFS_DEBUG */
uint64_t rc_count;
} zfs_refcount_t;
-#define refcount_create(rc) ((rc)->rc_count = 0)
-#define refcount_create_untracked(rc) ((rc)->rc_count = 0)
-#define refcount_create_tracked(rc) ((rc)->rc_count = 0)
-#define refcount_destroy(rc) ((rc)->rc_count = 0)
-#define refcount_destroy_many(rc, number) ((rc)->rc_count = 0)
-#define refcount_is_zero(rc) ((rc)->rc_count == 0)
-#define refcount_count(rc) ((rc)->rc_count)
+#define zfs_refcount_create(rc) ((rc)->rc_count = 0)
+#define zfs_refcount_create_untracked(rc) ((rc)->rc_count = 0)
+#define zfs_refcount_create_tracked(rc) ((rc)->rc_count = 0)
+#define zfs_refcount_destroy(rc) ((rc)->rc_count = 0)
+#define zfs_refcount_destroy_many(rc, number) ((rc)->rc_count = 0)
+#define zfs_refcount_is_zero(rc) ((rc)->rc_count == 0)
+#define zfs_refcount_count(rc) ((rc)->rc_count)
#define zfs_refcount_add(rc, holder) atomic_inc_64_nv(&(rc)->rc_count)
-#define refcount_remove(rc, holder) atomic_dec_64_nv(&(rc)->rc_count)
-#define refcount_add_many(rc, number, holder) \
+#define zfs_refcount_remove(rc, holder) atomic_dec_64_nv(&(rc)->rc_count)
+#define zfs_refcount_add_many(rc, number, holder) \
atomic_add_64_nv(&(rc)->rc_count, number)
-#define refcount_remove_many(rc, number, holder) \
+#define zfs_refcount_remove_many(rc, number, holder) \
atomic_add_64_nv(&(rc)->rc_count, -number)
-#define refcount_transfer(dst, src) { \
+#define zfs_refcount_transfer(dst, src) { \
uint64_t __tmp = (src)->rc_count; \
atomic_add_64(&(src)->rc_count, -__tmp); \
atomic_add_64(&(dst)->rc_count, __tmp); \
}
-#define refcount_transfer_ownership(rc, current_holder, new_holder) (void)0
-#define refcount_held(rc, holder) ((rc)->rc_count > 0)
-#define refcount_not_held(rc, holder) (B_TRUE)
+#define zfs_refcount_transfer_ownership(rc, current_holder, new_holder) (void)0
+#define zfs_refcount_held(rc, holder) ((rc)->rc_count > 0)
+#define zfs_refcount_not_held(rc, holder) (B_TRUE)
-#define refcount_init()
-#define refcount_fini()
+#define zfs_refcount_init()
+#define zfs_refcount_fini()
#endif /* ZFS_DEBUG */
__entry->db_offset = db->db.db_offset; \
__entry->db_size = db->db.db_size; \
__entry->db_state = db->db_state; \
- __entry->db_holds = refcount_count(&db->db_holds); \
+ __entry->db_holds = zfs_refcount_count(&db->db_holds); \
snprintf(__get_str(msg), TRACE_DBUF_MSG_MAX, \
DBUF_TP_PRINTK_FMT, DBUF_TP_PRINTK_ARGS); \
} else { \
}
abd->abd_size = size;
abd->abd_parent = NULL;
- refcount_create(&abd->abd_children);
+ zfs_refcount_create(&abd->abd_children);
abd->abd_u.abd_scatter.abd_offset = 0;
{
abd_free_pages(abd);
- refcount_destroy(&abd->abd_children);
+ zfs_refcount_destroy(&abd->abd_children);
ABDSTAT_BUMPDOWN(abdstat_scatter_cnt);
ABDSTAT_INCR(abdstat_scatter_data_size, -(int)abd->abd_size);
ABDSTAT_INCR(abdstat_scatter_chunk_waste,
}
abd->abd_size = size;
abd->abd_parent = NULL;
- refcount_create(&abd->abd_children);
+ zfs_refcount_create(&abd->abd_children);
if (is_metadata) {
abd->abd_u.abd_linear.abd_buf = zio_buf_alloc(size);
zio_data_buf_free(abd->abd_u.abd_linear.abd_buf, abd->abd_size);
}
- refcount_destroy(&abd->abd_children);
+ zfs_refcount_destroy(&abd->abd_children);
ABDSTAT_BUMPDOWN(abdstat_linear_cnt);
ABDSTAT_INCR(abdstat_linear_data_size, -(int)abd->abd_size);
abd->abd_size = size;
abd->abd_parent = sabd;
- refcount_create(&abd->abd_children);
- (void) refcount_add_many(&sabd->abd_children, abd->abd_size, abd);
+ zfs_refcount_create(&abd->abd_children);
+ (void) zfs_refcount_add_many(&sabd->abd_children, abd->abd_size, abd);
return (abd);
}
abd->abd_flags = ABD_FLAG_LINEAR;
abd->abd_size = size;
abd->abd_parent = NULL;
- refcount_create(&abd->abd_children);
+ zfs_refcount_create(&abd->abd_children);
abd->abd_u.abd_linear.abd_buf = buf;
ASSERT(!(abd->abd_flags & ABD_FLAG_OWNER));
if (abd->abd_parent != NULL) {
- (void) refcount_remove_many(&abd->abd_parent->abd_children,
+ (void) zfs_refcount_remove_many(&abd->abd_parent->abd_children,
abd->abd_size, abd);
}
- refcount_destroy(&abd->abd_children);
+ zfs_refcount_destroy(&abd->abd_children);
abd_free_struct(abd);
}
} else {
buf = zio_buf_alloc(n);
}
- (void) refcount_add_many(&abd->abd_children, n, buf);
+ (void) zfs_refcount_add_many(&abd->abd_children, n, buf);
return (buf);
}
ASSERT0(abd_cmp_buf(abd, buf, n));
zio_buf_free(buf, n);
}
- (void) refcount_remove_many(&abd->abd_children, n, buf);
+ (void) zfs_refcount_remove_many(&abd->abd_children, n, buf);
}
void
bzero(hdr, HDR_FULL_SIZE);
cv_init(&hdr->b_l1hdr.b_cv, NULL, CV_DEFAULT, NULL);
- refcount_create(&hdr->b_l1hdr.b_refcnt);
+ zfs_refcount_create(&hdr->b_l1hdr.b_refcnt);
mutex_init(&hdr->b_l1hdr.b_freeze_lock, NULL, MUTEX_DEFAULT, NULL);
list_link_init(&hdr->b_l1hdr.b_arc_node);
list_link_init(&hdr->b_l2hdr.b_l2node);
ASSERT(HDR_EMPTY(hdr));
cv_destroy(&hdr->b_l1hdr.b_cv);
- refcount_destroy(&hdr->b_l1hdr.b_refcnt);
+ zfs_refcount_destroy(&hdr->b_l1hdr.b_refcnt);
mutex_destroy(&hdr->b_l1hdr.b_freeze_lock);
ASSERT(!multilist_link_active(&hdr->b_l1hdr.b_arc_node));
arc_space_return(HDR_FULL_SIZE, ARC_SPACE_HDRS);
ASSERT0(hdr->b_l1hdr.b_bufcnt);
ASSERT3P(hdr->b_l1hdr.b_buf, ==, NULL);
ASSERT3P(hdr->b_l1hdr.b_pabd, ==, NULL);
- (void) refcount_add_many(&state->arcs_esize[type],
+ (void) zfs_refcount_add_many(&state->arcs_esize[type],
HDR_GET_LSIZE(hdr), hdr);
return;
}
ASSERT(!GHOST_STATE(state));
if (hdr->b_l1hdr.b_pabd != NULL) {
- (void) refcount_add_many(&state->arcs_esize[type],
+ (void) zfs_refcount_add_many(&state->arcs_esize[type],
arc_hdr_size(hdr), hdr);
}
for (buf = hdr->b_l1hdr.b_buf; buf != NULL; buf = buf->b_next) {
if (arc_buf_is_shared(buf))
continue;
- (void) refcount_add_many(&state->arcs_esize[type],
+ (void) zfs_refcount_add_many(&state->arcs_esize[type],
arc_buf_size(buf), buf);
}
}
ASSERT0(hdr->b_l1hdr.b_bufcnt);
ASSERT3P(hdr->b_l1hdr.b_buf, ==, NULL);
ASSERT3P(hdr->b_l1hdr.b_pabd, ==, NULL);
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(&state->arcs_esize[type],
HDR_GET_LSIZE(hdr), hdr);
return;
}
ASSERT(!GHOST_STATE(state));
if (hdr->b_l1hdr.b_pabd != NULL) {
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(&state->arcs_esize[type],
arc_hdr_size(hdr), hdr);
}
for (buf = hdr->b_l1hdr.b_buf; buf != NULL; buf = buf->b_next) {
if (arc_buf_is_shared(buf))
continue;
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(&state->arcs_esize[type],
arc_buf_size(buf), buf);
}
}
ASSERT(HDR_HAS_L1HDR(hdr));
if (!MUTEX_HELD(HDR_LOCK(hdr))) {
ASSERT(hdr->b_l1hdr.b_state == arc_anon);
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
ASSERT3P(hdr->b_l1hdr.b_buf, ==, NULL);
}
* arc_l2c_only counts as a ghost state so we don't need to explicitly
* check to prevent usage of the arc_l2c_only list.
*/
- if (((cnt = refcount_remove(&hdr->b_l1hdr.b_refcnt, tag)) == 0) &&
+ if (((cnt = zfs_refcount_remove(&hdr->b_l1hdr.b_refcnt, tag)) == 0) &&
(state != arc_anon)) {
multilist_insert(state->arcs_list[arc_buf_type(hdr)], hdr);
ASSERT3U(hdr->b_l1hdr.b_bufcnt, >, 0);
abi->abi_mru_ghost_hits = l1hdr->b_mru_ghost_hits;
abi->abi_mfu_hits = l1hdr->b_mfu_hits;
abi->abi_mfu_ghost_hits = l1hdr->b_mfu_ghost_hits;
- abi->abi_holds = refcount_count(&l1hdr->b_refcnt);
+ abi->abi_holds = zfs_refcount_count(&l1hdr->b_refcnt);
}
if (l2hdr) {
*/
if (HDR_HAS_L1HDR(hdr)) {
old_state = hdr->b_l1hdr.b_state;
- refcnt = refcount_count(&hdr->b_l1hdr.b_refcnt);
+ refcnt = zfs_refcount_count(&hdr->b_l1hdr.b_refcnt);
bufcnt = hdr->b_l1hdr.b_bufcnt;
update_old = (bufcnt > 0 || hdr->b_l1hdr.b_pabd != NULL);
} else {
* the reference. As a result, we use the arc
* header pointer for the reference.
*/
- (void) refcount_add_many(&new_state->arcs_size,
+ (void) zfs_refcount_add_many(&new_state->arcs_size,
HDR_GET_LSIZE(hdr), hdr);
ASSERT3P(hdr->b_l1hdr.b_pabd, ==, NULL);
} else {
if (arc_buf_is_shared(buf))
continue;
- (void) refcount_add_many(&new_state->arcs_size,
+ (void) zfs_refcount_add_many(
+ &new_state->arcs_size,
arc_buf_size(buf), buf);
}
ASSERT3U(bufcnt, ==, buffers);
if (hdr->b_l1hdr.b_pabd != NULL) {
- (void) refcount_add_many(&new_state->arcs_size,
+ (void) zfs_refcount_add_many(
+ &new_state->arcs_size,
arc_hdr_size(hdr), hdr);
} else {
ASSERT(GHOST_STATE(old_state));
* header on the ghost state.
*/
- (void) refcount_remove_many(&old_state->arcs_size,
+ (void) zfs_refcount_remove_many(&old_state->arcs_size,
HDR_GET_LSIZE(hdr), hdr);
} else {
arc_buf_t *buf;
if (arc_buf_is_shared(buf))
continue;
- (void) refcount_remove_many(
+ (void) zfs_refcount_remove_many(
&old_state->arcs_size, arc_buf_size(buf),
buf);
}
ASSERT3U(bufcnt, ==, buffers);
ASSERT3P(hdr->b_l1hdr.b_pabd, !=, NULL);
- (void) refcount_remove_many(
+ (void) zfs_refcount_remove_many(
&old_state->arcs_size, arc_hdr_size(hdr), hdr);
}
}
ASSERT3P(buf->b_data, !=, NULL);
ASSERT(HDR_HAS_L1HDR(hdr));
(void) zfs_refcount_add(&hdr->b_l1hdr.b_refcnt, tag);
- (void) refcount_remove(&hdr->b_l1hdr.b_refcnt, arc_onloan_tag);
+ (void) zfs_refcount_remove(&hdr->b_l1hdr.b_refcnt, arc_onloan_tag);
arc_loaned_bytes_update(-arc_buf_size(buf));
}
ASSERT3P(buf->b_data, !=, NULL);
ASSERT(HDR_HAS_L1HDR(hdr));
(void) zfs_refcount_add(&hdr->b_l1hdr.b_refcnt, arc_onloan_tag);
- (void) refcount_remove(&hdr->b_l1hdr.b_refcnt, tag);
+ (void) zfs_refcount_remove(&hdr->b_l1hdr.b_refcnt, tag);
arc_loaned_bytes_update(arc_buf_size(buf));
}
/* protected by hash lock, if in the hash table */
if (multilist_link_active(&hdr->b_l1hdr.b_arc_node)) {
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
ASSERT(state != arc_anon && state != arc_l2c_only);
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(&state->arcs_esize[type],
size, hdr);
}
- (void) refcount_remove_many(&state->arcs_size, size, hdr);
+ (void) zfs_refcount_remove_many(&state->arcs_size, size, hdr);
if (type == ARC_BUFC_METADATA) {
arc_space_return(size, ARC_SPACE_META);
} else {
* refcount ownership to the hdr since it always owns
* the refcount whenever an arc_buf_t is shared.
*/
- refcount_transfer_ownership(&hdr->b_l1hdr.b_state->arcs_size, buf, hdr);
+ zfs_refcount_transfer_ownership(&hdr->b_l1hdr.b_state->arcs_size, buf,
+ hdr);
hdr->b_l1hdr.b_pabd = abd_get_from_buf(buf->b_data, arc_buf_size(buf));
abd_take_ownership_of_buf(hdr->b_l1hdr.b_pabd,
HDR_ISTYPE_METADATA(hdr));
* We are no longer sharing this buffer so we need
* to transfer its ownership to the rightful owner.
*/
- refcount_transfer_ownership(&hdr->b_l1hdr.b_state->arcs_size, hdr, buf);
+ zfs_refcount_transfer_ownership(&hdr->b_l1hdr.b_state->arcs_size, hdr,
+ buf);
arc_hdr_clear_flags(hdr, ARC_FLAG_SHARED_DATA);
abd_release_ownership_of_buf(hdr->b_l1hdr.b_pabd);
abd_put(hdr->b_l1hdr.b_pabd);
* it references and compressed arc enablement.
*/
arc_hdr_alloc_pabd(hdr);
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
return (hdr);
}
* the wrong pointer address when calling arc_hdr_destroy() later.
*/
- (void) refcount_remove_many(&dev->l2ad_alloc, arc_hdr_size(hdr), hdr);
- (void) refcount_add_many(&dev->l2ad_alloc, arc_hdr_size(nhdr), nhdr);
+ (void) zfs_refcount_remove_many(&dev->l2ad_alloc, arc_hdr_size(hdr),
+ hdr);
+ (void) zfs_refcount_add_many(&dev->l2ad_alloc, arc_hdr_size(nhdr),
+ nhdr);
buf_discard_identity(hdr);
kmem_cache_free(old, hdr);
vdev_space_update(dev->l2ad_vdev, -psize, 0, 0);
- (void) refcount_remove_many(&dev->l2ad_alloc, psize, hdr);
+ (void) zfs_refcount_remove_many(&dev->l2ad_alloc, psize, hdr);
arc_hdr_clear_flags(hdr, ARC_FLAG_HAS_L2HDR);
}
if (HDR_HAS_L1HDR(hdr)) {
ASSERT(hdr->b_l1hdr.b_buf == NULL ||
hdr->b_l1hdr.b_bufcnt > 0);
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
ASSERT3P(hdr->b_l1hdr.b_state, ==, arc_anon);
}
ASSERT(!HDR_IO_IN_PROGRESS(hdr));
return (bytes_evicted);
}
- ASSERT0(refcount_count(&hdr->b_l1hdr.b_refcnt));
+ ASSERT0(zfs_refcount_count(&hdr->b_l1hdr.b_refcnt));
while (hdr->b_l1hdr.b_buf) {
arc_buf_t *buf = hdr->b_l1hdr.b_buf;
if (!mutex_tryenter(&buf->b_evict_lock)) {
{
uint64_t evicted = 0;
- while (refcount_count(&state->arcs_esize[type]) != 0) {
+ while (zfs_refcount_count(&state->arcs_esize[type]) != 0) {
evicted += arc_evict_state(state, spa, ARC_EVICT_ALL, type);
if (!retry)
if (func != NULL)
func(ap->p_adjust, ap->p_private);
- refcount_remove(&ap->p_refcnt, func);
+ zfs_refcount_remove(&ap->p_refcnt, func);
}
/*
for (ap = list_head(&arc_prune_list); ap != NULL;
ap = list_next(&arc_prune_list, ap)) {
- if (refcount_count(&ap->p_refcnt) >= 2)
+ if (zfs_refcount_count(&ap->p_refcnt) >= 2)
continue;
zfs_refcount_add(&ap->p_refcnt, ap->p_pfunc);
ap->p_adjust = adjust;
if (taskq_dispatch(arc_prune_taskq, arc_prune_task,
ap, TQ_SLEEP) == TASKQID_INVALID) {
- refcount_remove(&ap->p_refcnt, ap->p_pfunc);
+ zfs_refcount_remove(&ap->p_refcnt, ap->p_pfunc);
continue;
}
ARCSTAT_BUMP(arcstat_prune);
{
int64_t delta;
- if (bytes > 0 && refcount_count(&state->arcs_esize[type]) > 0) {
- delta = MIN(refcount_count(&state->arcs_esize[type]), bytes);
+ if (bytes > 0 && zfs_refcount_count(&state->arcs_esize[type]) > 0) {
+ delta = MIN(zfs_refcount_count(&state->arcs_esize[type]),
+ bytes);
return (arc_evict_state(state, spa, delta, type));
}
*/
adjustmnt = arc_meta_used - arc_meta_limit;
- if (adjustmnt > 0 && refcount_count(&arc_mru->arcs_esize[type]) > 0) {
- delta = MIN(refcount_count(&arc_mru->arcs_esize[type]),
+ if (adjustmnt > 0 &&
+ zfs_refcount_count(&arc_mru->arcs_esize[type]) > 0) {
+ delta = MIN(zfs_refcount_count(&arc_mru->arcs_esize[type]),
adjustmnt);
total_evicted += arc_adjust_impl(arc_mru, 0, delta, type);
adjustmnt -= delta;
* simply decrement the amount of data evicted from the MRU.
*/
- if (adjustmnt > 0 && refcount_count(&arc_mfu->arcs_esize[type]) > 0) {
- delta = MIN(refcount_count(&arc_mfu->arcs_esize[type]),
+ if (adjustmnt > 0 &&
+ zfs_refcount_count(&arc_mfu->arcs_esize[type]) > 0) {
+ delta = MIN(zfs_refcount_count(&arc_mfu->arcs_esize[type]),
adjustmnt);
total_evicted += arc_adjust_impl(arc_mfu, 0, delta, type);
}
adjustmnt = arc_meta_used - arc_meta_limit;
if (adjustmnt > 0 &&
- refcount_count(&arc_mru_ghost->arcs_esize[type]) > 0) {
+ zfs_refcount_count(&arc_mru_ghost->arcs_esize[type]) > 0) {
delta = MIN(adjustmnt,
- refcount_count(&arc_mru_ghost->arcs_esize[type]));
+ zfs_refcount_count(&arc_mru_ghost->arcs_esize[type]));
total_evicted += arc_adjust_impl(arc_mru_ghost, 0, delta, type);
adjustmnt -= delta;
}
if (adjustmnt > 0 &&
- refcount_count(&arc_mfu_ghost->arcs_esize[type]) > 0) {
+ zfs_refcount_count(&arc_mfu_ghost->arcs_esize[type]) > 0) {
delta = MIN(adjustmnt,
- refcount_count(&arc_mfu_ghost->arcs_esize[type]));
+ zfs_refcount_count(&arc_mfu_ghost->arcs_esize[type]));
total_evicted += arc_adjust_impl(arc_mfu_ghost, 0, delta, type);
}
* evict some from the MRU here, and some from the MFU below.
*/
target = MIN((int64_t)(arc_meta_used - arc_meta_limit),
- (int64_t)(refcount_count(&arc_anon->arcs_size) +
- refcount_count(&arc_mru->arcs_size) - arc_p));
+ (int64_t)(zfs_refcount_count(&arc_anon->arcs_size) +
+ zfs_refcount_count(&arc_mru->arcs_size) - arc_p));
total_evicted += arc_adjust_impl(arc_mru, 0, target, ARC_BUFC_METADATA);
* space allotted to the MFU (which is defined as arc_c - arc_p).
*/
target = MIN((int64_t)(arc_meta_used - arc_meta_limit),
- (int64_t)(refcount_count(&arc_mfu->arcs_size) - (arc_c - arc_p)));
+ (int64_t)(zfs_refcount_count(&arc_mfu->arcs_size) - (arc_c -
+ arc_p)));
total_evicted += arc_adjust_impl(arc_mfu, 0, target, ARC_BUFC_METADATA);
* arc_p here, and then evict more from the MFU below.
*/
target = MIN((int64_t)(arc_size - arc_c),
- (int64_t)(refcount_count(&arc_anon->arcs_size) +
- refcount_count(&arc_mru->arcs_size) + arc_meta_used - arc_p));
+ (int64_t)(zfs_refcount_count(&arc_anon->arcs_size) +
+ zfs_refcount_count(&arc_mru->arcs_size) + arc_meta_used - arc_p));
/*
* If we're below arc_meta_min, always prefer to evict data.
* cache. The following logic enforces these limits on the ghost
* caches, and evicts from them as needed.
*/
- target = refcount_count(&arc_mru->arcs_size) +
- refcount_count(&arc_mru_ghost->arcs_size) - arc_c;
+ target = zfs_refcount_count(&arc_mru->arcs_size) +
+ zfs_refcount_count(&arc_mru_ghost->arcs_size) - arc_c;
bytes = arc_adjust_impl(arc_mru_ghost, 0, target, ARC_BUFC_DATA);
total_evicted += bytes;
* mru + mfu + mru ghost + mfu ghost <= 2 * arc_c
* mru ghost + mfu ghost <= arc_c
*/
- target = refcount_count(&arc_mru_ghost->arcs_size) +
- refcount_count(&arc_mfu_ghost->arcs_size) - arc_c;
+ target = zfs_refcount_count(&arc_mru_ghost->arcs_size) +
+ zfs_refcount_count(&arc_mfu_ghost->arcs_size) - arc_c;
bytes = arc_adjust_impl(arc_mfu_ghost, 0, target, ARC_BUFC_DATA);
total_evicted += bytes;
arc_evictable_memory(void)
{
uint64_t arc_clean =
- refcount_count(&arc_mru->arcs_esize[ARC_BUFC_DATA]) +
- refcount_count(&arc_mru->arcs_esize[ARC_BUFC_METADATA]) +
- refcount_count(&arc_mfu->arcs_esize[ARC_BUFC_DATA]) +
- refcount_count(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_count(&arc_mru->arcs_esize[ARC_BUFC_DATA]) +
+ zfs_refcount_count(&arc_mru->arcs_esize[ARC_BUFC_METADATA]) +
+ zfs_refcount_count(&arc_mfu->arcs_esize[ARC_BUFC_DATA]) +
+ zfs_refcount_count(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
uint64_t arc_dirty = MAX((int64_t)arc_size - (int64_t)arc_clean, 0);
/*
{
int mult;
uint64_t arc_p_min = (arc_c >> arc_p_min_shift);
- int64_t mrug_size = refcount_count(&arc_mru_ghost->arcs_size);
- int64_t mfug_size = refcount_count(&arc_mfu_ghost->arcs_size);
+ int64_t mrug_size = zfs_refcount_count(&arc_mru_ghost->arcs_size);
+ int64_t mfug_size = zfs_refcount_count(&arc_mfu_ghost->arcs_size);
if (state == arc_l2c_only)
return;
*/
if (!GHOST_STATE(state)) {
- (void) refcount_add_many(&state->arcs_size, size, tag);
+ (void) zfs_refcount_add_many(&state->arcs_size, size, tag);
/*
* If this is reached via arc_read, the link is
* trying to [add|remove]_reference it.
*/
if (multilist_link_active(&hdr->b_l1hdr.b_arc_node)) {
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
- (void) refcount_add_many(&state->arcs_esize[type],
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ (void) zfs_refcount_add_many(&state->arcs_esize[type],
size, tag);
}
* data, and we have outgrown arc_p, update arc_p
*/
if (arc_size < arc_c && hdr->b_l1hdr.b_state == arc_anon &&
- (refcount_count(&arc_anon->arcs_size) +
- refcount_count(&arc_mru->arcs_size) > arc_p))
+ (zfs_refcount_count(&arc_anon->arcs_size) +
+ zfs_refcount_count(&arc_mru->arcs_size) > arc_p))
arc_p = MIN(arc_c, arc_p + size);
}
}
/* protected by hash lock, if in the hash table */
if (multilist_link_active(&hdr->b_l1hdr.b_arc_node)) {
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
ASSERT(state != arc_anon && state != arc_l2c_only);
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(&state->arcs_esize[type],
size, tag);
}
- (void) refcount_remove_many(&state->arcs_size, size, tag);
+ (void) zfs_refcount_remove_many(&state->arcs_size, size, tag);
VERIFY3U(hdr->b_type, ==, type);
if (type == ARC_BUFC_METADATA) {
* another prefetch (to make it less likely to be evicted).
*/
if (HDR_PREFETCH(hdr)) {
- if (refcount_count(&hdr->b_l1hdr.b_refcnt) == 0) {
+ if (zfs_refcount_count(&hdr->b_l1hdr.b_refcnt) == 0) {
/* link protected by hash lock */
ASSERT(multilist_link_active(
&hdr->b_l1hdr.b_arc_node));
if (HDR_PREFETCH(hdr)) {
new_state = arc_mru;
- if (refcount_count(&hdr->b_l1hdr.b_refcnt) > 0)
+ if (zfs_refcount_count(&hdr->b_l1hdr.b_refcnt) > 0)
arc_hdr_clear_flags(hdr, ARC_FLAG_PREFETCH);
DTRACE_PROBE1(new_state__mru, arc_buf_hdr_t *, hdr);
} else {
* the head of the list now.
*/
if ((HDR_PREFETCH(hdr)) != 0) {
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
/* link protected by hash_lock */
ASSERT(multilist_link_active(&hdr->b_l1hdr.b_arc_node));
}
* This is a prefetch access...
* move this block back to the MRU state.
*/
- ASSERT0(refcount_count(&hdr->b_l1hdr.b_refcnt));
+ ASSERT0(zfs_refcount_count(&hdr->b_l1hdr.b_refcnt));
new_state = arc_mru;
}
ASSERT3P(hdr->b_l1hdr.b_pabd, !=, NULL);
}
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt) ||
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt) ||
callback_list != NULL);
if (no_zio_error) {
arc_change_state(arc_anon, hdr, hash_lock);
if (HDR_IN_HASH_TABLE(hdr))
buf_hash_remove(hdr);
- freeable = refcount_is_zero(&hdr->b_l1hdr.b_refcnt);
+ freeable = zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt);
}
/*
* in the cache).
*/
ASSERT3P(hdr->b_l1hdr.b_state, ==, arc_anon);
- freeable = refcount_is_zero(&hdr->b_l1hdr.b_refcnt);
+ freeable = zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt);
}
/* execute each callback and free its structure */
VERIFY0(arc_buf_alloc_impl(hdr, private,
compressed_read, B_TRUE, &buf));
} else if (*arc_flags & ARC_FLAG_PREFETCH &&
- refcount_count(&hdr->b_l1hdr.b_refcnt) == 0) {
+ zfs_refcount_count(&hdr->b_l1hdr.b_refcnt) == 0) {
arc_hdr_set_flags(hdr, ARC_FLAG_PREFETCH);
}
DTRACE_PROBE1(arc__hit, arc_buf_hdr_t *, hdr);
ASSERT3P(hdr->b_l1hdr.b_pabd, ==, NULL);
ASSERT(GHOST_STATE(hdr->b_l1hdr.b_state));
ASSERT(!HDR_IO_IN_PROGRESS(hdr));
- ASSERT(refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
ASSERT3P(hdr->b_l1hdr.b_buf, ==, NULL);
ASSERT3P(hdr->b_l1hdr.b_freeze_cksum, ==, NULL);
p->p_pfunc = func;
p->p_private = private;
list_link_init(&p->p_node);
- refcount_create(&p->p_refcnt);
+ zfs_refcount_create(&p->p_refcnt);
mutex_enter(&arc_prune_mtx);
zfs_refcount_add(&p->p_refcnt, &arc_prune_list);
boolean_t wait = B_FALSE;
mutex_enter(&arc_prune_mtx);
list_remove(&arc_prune_list, p);
- if (refcount_remove(&p->p_refcnt, &arc_prune_list) > 0)
+ if (zfs_refcount_remove(&p->p_refcnt, &arc_prune_list) > 0)
wait = B_TRUE;
mutex_exit(&arc_prune_mtx);
/* wait for arc_prune_task to finish */
if (wait)
taskq_wait_outstanding(arc_prune_taskq, 0);
- ASSERT0(refcount_count(&p->p_refcnt));
- refcount_destroy(&p->p_refcnt);
+ ASSERT0(zfs_refcount_count(&p->p_refcnt));
+ zfs_refcount_destroy(&p->p_refcnt);
kmem_free(p, sizeof (*p));
}
* this hdr, then we don't destroy the hdr.
*/
if (!HDR_HAS_L1HDR(hdr) || (!HDR_IO_IN_PROGRESS(hdr) &&
- refcount_is_zero(&hdr->b_l1hdr.b_refcnt))) {
+ zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt))) {
arc_change_state(arc_anon, hdr, hash_lock);
arc_hdr_destroy(hdr);
mutex_exit(hash_lock);
ASSERT(HDR_EMPTY(hdr));
ASSERT3U(hdr->b_l1hdr.b_bufcnt, ==, 1);
- ASSERT3S(refcount_count(&hdr->b_l1hdr.b_refcnt), ==, 1);
+ ASSERT3S(zfs_refcount_count(&hdr->b_l1hdr.b_refcnt), ==, 1);
ASSERT(!list_link_active(&hdr->b_l1hdr.b_arc_node));
hdr->b_l1hdr.b_arc_access = 0;
ASSERT3P(state, !=, arc_anon);
/* this buffer is not on any list */
- ASSERT3S(refcount_count(&hdr->b_l1hdr.b_refcnt), >, 0);
+ ASSERT3S(zfs_refcount_count(&hdr->b_l1hdr.b_refcnt), >, 0);
if (HDR_HAS_L2HDR(hdr)) {
mutex_enter(&hdr->b_l2hdr.b_dev->l2ad_mtx);
ASSERT3P(hdr->b_l1hdr.b_pabd, !=, NULL);
ASSERT3P(state, !=, arc_l2c_only);
- (void) refcount_remove_many(&state->arcs_size,
+ (void) zfs_refcount_remove_many(&state->arcs_size,
arc_buf_size(buf), buf);
- if (refcount_is_zero(&hdr->b_l1hdr.b_refcnt)) {
+ if (zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt)) {
ASSERT3P(state, !=, arc_l2c_only);
- (void) refcount_remove_many(&state->arcs_esize[type],
+ (void) zfs_refcount_remove_many(
+ &state->arcs_esize[type],
arc_buf_size(buf), buf);
}
nhdr = arc_hdr_alloc(spa, psize, lsize, compress, type);
ASSERT3P(nhdr->b_l1hdr.b_buf, ==, NULL);
ASSERT0(nhdr->b_l1hdr.b_bufcnt);
- ASSERT0(refcount_count(&nhdr->b_l1hdr.b_refcnt));
+ ASSERT0(zfs_refcount_count(&nhdr->b_l1hdr.b_refcnt));
VERIFY3U(nhdr->b_type, ==, type);
ASSERT(!HDR_SHARED_DATA(nhdr));
buf->b_hdr = nhdr;
mutex_exit(&buf->b_evict_lock);
- (void) refcount_add_many(&arc_anon->arcs_size,
+ (void) zfs_refcount_add_many(&arc_anon->arcs_size,
HDR_GET_LSIZE(nhdr), buf);
} else {
mutex_exit(&buf->b_evict_lock);
- ASSERT(refcount_count(&hdr->b_l1hdr.b_refcnt) == 1);
+ ASSERT(zfs_refcount_count(&hdr->b_l1hdr.b_refcnt) == 1);
/* protected by hash lock, or hdr is on arc_anon */
ASSERT(!multilist_link_active(&hdr->b_l1hdr.b_arc_node));
ASSERT(!HDR_IO_IN_PROGRESS(hdr));
int referenced;
mutex_enter(&buf->b_evict_lock);
- referenced = (refcount_count(&buf->b_hdr->b_l1hdr.b_refcnt));
+ referenced = (zfs_refcount_count(&buf->b_hdr->b_l1hdr.b_refcnt));
mutex_exit(&buf->b_evict_lock);
return (referenced);
}
fstrans_cookie_t cookie = spl_fstrans_mark();
ASSERT(HDR_HAS_L1HDR(hdr));
- ASSERT(!refcount_is_zero(&buf->b_hdr->b_l1hdr.b_refcnt));
+ ASSERT(!zfs_refcount_is_zero(&buf->b_hdr->b_l1hdr.b_refcnt));
ASSERT(hdr->b_l1hdr.b_bufcnt > 0);
/*
if (!BP_EQUAL(&zio->io_bp_orig, zio->io_bp))
panic("bad overwrite, hdr=%p exists=%p",
(void *)hdr, (void *)exists);
- ASSERT(refcount_is_zero(
+ ASSERT(zfs_refcount_is_zero(
&exists->b_l1hdr.b_refcnt));
arc_change_state(arc_anon, exists, hash_lock);
mutex_exit(hash_lock);
arc_hdr_clear_flags(hdr, ARC_FLAG_IO_IN_PROGRESS);
}
- ASSERT(!refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
+ ASSERT(!zfs_refcount_is_zero(&hdr->b_l1hdr.b_refcnt));
callback->awcb_done(zio, buf, callback->awcb_private);
abd_put(zio->io_abd);
/* assert that it has not wrapped around */
ASSERT3S(atomic_add_64_nv(&arc_loaned_bytes, 0), >=, 0);
- anon_size = MAX((int64_t)(refcount_count(&arc_anon->arcs_size) -
+ anon_size = MAX((int64_t)(zfs_refcount_count(&arc_anon->arcs_size) -
arc_loaned_bytes), 0);
/*
if (reserve + arc_tempreserve + anon_size > arc_c / 2 &&
anon_size > arc_c / 4) {
uint64_t meta_esize =
- refcount_count(&arc_anon->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_count(
+ &arc_anon->arcs_esize[ARC_BUFC_METADATA]);
uint64_t data_esize =
- refcount_count(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_count(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
dprintf("failing, arc_tempreserve=%lluK anon_meta=%lluK "
"anon_data=%lluK tempreserve=%lluK arc_c=%lluK\n",
arc_tempreserve >> 10, meta_esize >> 10,
arc_kstat_update_state(arc_state_t *state, kstat_named_t *size,
kstat_named_t *evict_data, kstat_named_t *evict_metadata)
{
- size->value.ui64 = refcount_count(&state->arcs_size);
+ size->value.ui64 = zfs_refcount_count(&state->arcs_size);
evict_data->value.ui64 =
- refcount_count(&state->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_count(&state->arcs_esize[ARC_BUFC_DATA]);
evict_metadata->value.ui64 =
- refcount_count(&state->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_count(&state->arcs_esize[ARC_BUFC_METADATA]);
}
static int
offsetof(arc_buf_hdr_t, b_l1hdr.b_arc_node),
arc_state_multilist_index_func);
- refcount_create(&arc_anon->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
- refcount_create(&arc_mru->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_mru->arcs_esize[ARC_BUFC_DATA]);
- refcount_create(&arc_mru_ghost->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_mru_ghost->arcs_esize[ARC_BUFC_DATA]);
- refcount_create(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_mfu->arcs_esize[ARC_BUFC_DATA]);
- refcount_create(&arc_mfu_ghost->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_mfu_ghost->arcs_esize[ARC_BUFC_DATA]);
- refcount_create(&arc_l2c_only->arcs_esize[ARC_BUFC_METADATA]);
- refcount_create(&arc_l2c_only->arcs_esize[ARC_BUFC_DATA]);
-
- refcount_create(&arc_anon->arcs_size);
- refcount_create(&arc_mru->arcs_size);
- refcount_create(&arc_mru_ghost->arcs_size);
- refcount_create(&arc_mfu->arcs_size);
- refcount_create(&arc_mfu_ghost->arcs_size);
- refcount_create(&arc_l2c_only->arcs_size);
+ zfs_refcount_create(&arc_anon->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_create(&arc_mru->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_mru->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_create(&arc_mru_ghost->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_mru_ghost->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_create(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_mfu->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_create(&arc_mfu_ghost->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_mfu_ghost->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_create(&arc_l2c_only->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_create(&arc_l2c_only->arcs_esize[ARC_BUFC_DATA]);
+
+ zfs_refcount_create(&arc_anon->arcs_size);
+ zfs_refcount_create(&arc_mru->arcs_size);
+ zfs_refcount_create(&arc_mru_ghost->arcs_size);
+ zfs_refcount_create(&arc_mfu->arcs_size);
+ zfs_refcount_create(&arc_mfu_ghost->arcs_size);
+ zfs_refcount_create(&arc_l2c_only->arcs_size);
arc_anon->arcs_state = ARC_STATE_ANON;
arc_mru->arcs_state = ARC_STATE_MRU;
static void
arc_state_fini(void)
{
- refcount_destroy(&arc_anon->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
- refcount_destroy(&arc_mru->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_mru->arcs_esize[ARC_BUFC_DATA]);
- refcount_destroy(&arc_mru_ghost->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_mru_ghost->arcs_esize[ARC_BUFC_DATA]);
- refcount_destroy(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_mfu->arcs_esize[ARC_BUFC_DATA]);
- refcount_destroy(&arc_mfu_ghost->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_mfu_ghost->arcs_esize[ARC_BUFC_DATA]);
- refcount_destroy(&arc_l2c_only->arcs_esize[ARC_BUFC_METADATA]);
- refcount_destroy(&arc_l2c_only->arcs_esize[ARC_BUFC_DATA]);
-
- refcount_destroy(&arc_anon->arcs_size);
- refcount_destroy(&arc_mru->arcs_size);
- refcount_destroy(&arc_mru_ghost->arcs_size);
- refcount_destroy(&arc_mfu->arcs_size);
- refcount_destroy(&arc_mfu_ghost->arcs_size);
- refcount_destroy(&arc_l2c_only->arcs_size);
+ zfs_refcount_destroy(&arc_anon->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_anon->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_destroy(&arc_mru->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_mru->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_destroy(&arc_mru_ghost->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_mru_ghost->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_destroy(&arc_mfu->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_mfu->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_destroy(&arc_mfu_ghost->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_mfu_ghost->arcs_esize[ARC_BUFC_DATA]);
+ zfs_refcount_destroy(&arc_l2c_only->arcs_esize[ARC_BUFC_METADATA]);
+ zfs_refcount_destroy(&arc_l2c_only->arcs_esize[ARC_BUFC_DATA]);
+
+ zfs_refcount_destroy(&arc_anon->arcs_size);
+ zfs_refcount_destroy(&arc_mru->arcs_size);
+ zfs_refcount_destroy(&arc_mru_ghost->arcs_size);
+ zfs_refcount_destroy(&arc_mfu->arcs_size);
+ zfs_refcount_destroy(&arc_mfu_ghost->arcs_size);
+ zfs_refcount_destroy(&arc_l2c_only->arcs_size);
multilist_destroy(arc_mru->arcs_list[ARC_BUFC_METADATA]);
multilist_destroy(arc_mru_ghost->arcs_list[ARC_BUFC_METADATA]);
mutex_enter(&arc_prune_mtx);
while ((p = list_head(&arc_prune_list)) != NULL) {
list_remove(&arc_prune_list, p);
- refcount_remove(&p->p_refcnt, &arc_prune_list);
- refcount_destroy(&p->p_refcnt);
+ zfs_refcount_remove(&p->p_refcnt, &arc_prune_list);
+ zfs_refcount_destroy(&p->p_refcnt);
kmem_free(p, sizeof (*p));
}
mutex_exit(&arc_prune_mtx);
ARCSTAT_INCR(arcstat_l2_lsize, -HDR_GET_LSIZE(hdr));
bytes_dropped += arc_hdr_size(hdr);
- (void) refcount_remove_many(&dev->l2ad_alloc,
+ (void) zfs_refcount_remove_many(&dev->l2ad_alloc,
arc_hdr_size(hdr), hdr);
}
list_insert_head(&dev->l2ad_buflist, hdr);
mutex_exit(&dev->l2ad_mtx);
- (void) refcount_add_many(&dev->l2ad_alloc, psize, hdr);
+ (void) zfs_refcount_add_many(&dev->l2ad_alloc, psize,
+ hdr);
/*
* Normally the L2ARC can use the hdr's data, but if
offsetof(arc_buf_hdr_t, b_l2hdr.b_l2node));
vdev_space_update(vd, 0, 0, adddev->l2ad_end - adddev->l2ad_hand);
- refcount_create(&adddev->l2ad_alloc);
+ zfs_refcount_create(&adddev->l2ad_alloc);
/*
* Add device to global list
l2arc_evict(remdev, 0, B_TRUE);
list_destroy(&remdev->l2ad_buflist);
mutex_destroy(&remdev->l2ad_mtx);
- refcount_destroy(&remdev->l2ad_alloc);
+ zfs_refcount_destroy(&remdev->l2ad_alloc);
kmem_free(remdev, sizeof (l2arc_dev_t));
}
mutex_init(&db->db_mtx, NULL, MUTEX_DEFAULT, NULL);
cv_init(&db->db_changed, NULL, CV_DEFAULT, NULL);
multilist_link_init(&db->db_cache_link);
- refcount_create(&db->db_holds);
+ zfs_refcount_create(&db->db_holds);
multilist_link_init(&db->db_cache_link);
return (0);
mutex_destroy(&db->db_mtx);
cv_destroy(&db->db_changed);
ASSERT(!multilist_link_active(&db->db_cache_link));
- refcount_destroy(&db->db_holds);
+ zfs_refcount_destroy(&db->db_holds);
}
/*
* We mustn't hold db_mtx to maintain lock ordering:
* DBUF_HASH_MUTEX > db_mtx.
*/
- ASSERT(refcount_is_zero(&db->db_holds));
+ ASSERT(zfs_refcount_is_zero(&db->db_holds));
ASSERT(db->db_state == DB_EVICTING);
ASSERT(!MUTEX_HELD(&db->db_mtx));
ASSERT(db->db.db_data != NULL);
ASSERT3U(db->db_state, ==, DB_CACHED);
- holds = refcount_count(&db->db_holds);
+ holds = zfs_refcount_count(&db->db_holds);
if (verify_type == DBVU_EVICTING) {
/*
* Immediate eviction occurs when holds == dirtycnt.
uint64_t dbuf_cache_hiwater_bytes =
(dbuf_cache_target * dbuf_cache_hiwater_pct) / 100;
- return (refcount_count(&dbuf_cache_size) >
+ return (zfs_refcount_count(&dbuf_cache_size) >
dbuf_cache_target + dbuf_cache_hiwater_bytes);
}
uint64_t dbuf_cache_lowater_bytes =
(dbuf_cache_target * dbuf_cache_lowater_pct) / 100;
- return (refcount_count(&dbuf_cache_size) >
+ return (zfs_refcount_count(&dbuf_cache_size) >
dbuf_cache_target - dbuf_cache_lowater_bytes);
}
if (db != NULL) {
multilist_sublist_remove(mls, db);
multilist_sublist_unlock(mls);
- (void) refcount_remove_many(&dbuf_cache_size,
+ (void) zfs_refcount_remove_many(&dbuf_cache_size,
db->db.db_size, db);
dbuf_destroy(db);
} else {
* because it's OK to occasionally make the wrong decision here,
* and grabbing the lock results in massive lock contention.
*/
- if (refcount_count(&dbuf_cache_size) > dbuf_cache_target_bytes()) {
+ if (zfs_refcount_count(&dbuf_cache_size) > dbuf_cache_target_bytes()) {
if (dbuf_cache_above_hiwater())
dbuf_evict_one();
cv_signal(&dbuf_evict_cv);
dbuf_cache = multilist_create(sizeof (dmu_buf_impl_t),
offsetof(dmu_buf_impl_t, db_cache_link),
dbuf_cache_multilist_index_func);
- refcount_create(&dbuf_cache_size);
+ zfs_refcount_create(&dbuf_cache_size);
tsd_create(&zfs_dbuf_evict_key, NULL);
dbuf_evict_thread_exit = B_FALSE;
mutex_destroy(&dbuf_evict_lock);
cv_destroy(&dbuf_evict_cv);
- refcount_destroy(&dbuf_cache_size);
+ zfs_refcount_destroy(&dbuf_cache_size);
multilist_destroy(dbuf_cache);
}
ASSERT(db->db_blkid != DMU_BONUS_BLKID);
mutex_enter(&db->db_mtx);
- if (arc_released(db->db_buf) || refcount_count(&db->db_holds) > 1) {
+ if (arc_released(db->db_buf) || zfs_refcount_count(&db->db_holds) > 1) {
int blksz = db->db.db_size;
spa_t *spa = db->db_objset->os_spa;
/*
* All reads are synchronous, so we must have a hold on the dbuf
*/
- ASSERT(refcount_count(&db->db_holds) > 0);
+ ASSERT(zfs_refcount_count(&db->db_holds) > 0);
ASSERT(db->db_buf == NULL);
ASSERT(db->db.db_data == NULL);
if (db->db_level == 0 && db->db_freed_in_flight) {
DB_DNODE_ENTER(db);
dn = DB_DNODE(db);
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
/* We need the struct_rwlock to prevent db_blkptr from changing. */
ASSERT(RW_LOCK_HELD(&dn->dn_struct_rwlock));
ASSERT(MUTEX_HELD(&db->db_mtx));
dr->dt.dl.dr_data = kmem_alloc(bonuslen, KM_SLEEP);
arc_space_consume(bonuslen, ARC_SPACE_BONUS);
bcopy(db->db.db_data, dr->dt.dl.dr_data, bonuslen);
- } else if (refcount_count(&db->db_holds) > db->db_dirtycnt) {
+ } else if (zfs_refcount_count(&db->db_holds) > db->db_dirtycnt) {
int size = arc_buf_size(db->db_buf);
arc_buf_contents_t type = DBUF_GET_BUFC_TYPE(db);
spa_t *spa = db->db_objset->os_spa;
* We don't have to hold the mutex to check db_state because it
* can't be freed while we have a hold on the buffer.
*/
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
if (db->db_state == DB_NOFILL)
return (SET_ERROR(EIO));
static void
dbuf_noread(dmu_buf_impl_t *db)
{
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
ASSERT(db->db_blkid != DMU_BONUS_BLKID);
mutex_enter(&db->db_mtx);
while (db->db_state == DB_READ || db->db_state == DB_FILL)
mutex_exit(&db->db_mtx);
continue;
}
- if (refcount_count(&db->db_holds) == 0) {
+ if (zfs_refcount_count(&db->db_holds) == 0) {
ASSERT(db->db_buf);
dbuf_destroy(db);
continue;
int txgoff = tx->tx_txg & TXG_MASK;
ASSERT(tx->tx_txg != 0);
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
DMU_TX_DIRTY_BUF(tx, db);
DB_DNODE_ENTER(db);
ASSERT(db->db_dirtycnt > 0);
db->db_dirtycnt -= 1;
- if (refcount_remove(&db->db_holds, (void *)(uintptr_t)txg) == 0) {
+ if (zfs_refcount_remove(&db->db_holds, (void *)(uintptr_t)txg) == 0) {
ASSERT(db->db_state == DB_NOFILL || arc_released(db->db_buf));
dbuf_destroy(db);
return (B_TRUE);
dbuf_dirty_record_t *dr;
ASSERT(tx->tx_txg != 0);
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
/*
* Quick check for dirtyness. For already dirty blocks, this
ASSERT(db->db_blkid != DMU_BONUS_BLKID);
ASSERT(tx->tx_txg != 0);
ASSERT(db->db_level == 0);
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
ASSERT(db->db.db_object != DMU_META_DNODE_OBJECT ||
dmu_tx_private_ok(tx));
void
dbuf_assign_arcbuf(dmu_buf_impl_t *db, arc_buf_t *buf, dmu_tx_t *tx)
{
- ASSERT(!refcount_is_zero(&db->db_holds));
+ ASSERT(!zfs_refcount_is_zero(&db->db_holds));
ASSERT(db->db_blkid != DMU_BONUS_BLKID);
ASSERT(db->db_level == 0);
ASSERT3U(dbuf_is_metadata(db), ==, arc_is_metadata(buf));
ASSERT(db->db_state == DB_CACHED || db->db_state == DB_UNCACHED);
if (db->db_state == DB_CACHED &&
- refcount_count(&db->db_holds) - 1 > db->db_dirtycnt) {
+ zfs_refcount_count(&db->db_holds) - 1 > db->db_dirtycnt) {
mutex_exit(&db->db_mtx);
(void) dbuf_dirty(db, tx);
bcopy(buf->b_data, db->db.db_data, db->db.db_size);
dmu_buf_impl_t *dndb;
ASSERT(MUTEX_HELD(&db->db_mtx));
- ASSERT(refcount_is_zero(&db->db_holds));
+ ASSERT(zfs_refcount_is_zero(&db->db_holds));
if (db->db_buf != NULL) {
arc_buf_destroy(db->db_buf, db);
if (multilist_link_active(&db->db_cache_link)) {
multilist_remove(dbuf_cache, db);
- (void) refcount_remove_many(&dbuf_cache_size,
+ (void) zfs_refcount_remove_many(&dbuf_cache_size,
db->db.db_size, db);
}
DB_DNODE_EXIT(db);
}
- ASSERT(refcount_is_zero(&db->db_holds));
+ ASSERT(zfs_refcount_is_zero(&db->db_holds));
db->db_parent = NULL;
dbuf_add_ref(parent, db);
ASSERT(dn->dn_object == DMU_META_DNODE_OBJECT ||
- refcount_count(&dn->dn_holds) > 0);
+ zfs_refcount_count(&dn->dn_holds) > 0);
(void) zfs_refcount_add(&dn->dn_holds, db);
atomic_inc_32(&dn->dn_dbufs_count);
}
if (multilist_link_active(&dh->dh_db->db_cache_link)) {
- ASSERT(refcount_is_zero(&dh->dh_db->db_holds));
+ ASSERT(zfs_refcount_is_zero(&dh->dh_db->db_holds));
multilist_remove(dbuf_cache, dh->dh_db);
- (void) refcount_remove_many(&dbuf_cache_size,
+ (void) zfs_refcount_remove_many(&dbuf_cache_size,
dh->dh_db->db.db_size, dh->dh_db);
}
(void) zfs_refcount_add(&dh->dh_db->db_holds, dh->dh_tag);
* dnode so we can guarantee in dnode_move() that a referenced bonus
* buffer has a corresponding dnode hold.
*/
- holds = refcount_remove(&db->db_holds, tag);
+ holds = zfs_refcount_remove(&db->db_holds, tag);
ASSERT(holds >= 0);
/*
dbuf_destroy(db);
} else if (!multilist_link_active(&db->db_cache_link)) {
multilist_insert(dbuf_cache, db);
- (void) refcount_add_many(&dbuf_cache_size,
+ (void) zfs_refcount_add_many(&dbuf_cache_size,
db->db.db_size, db);
mutex_exit(&db->db_mtx);
uint64_t
dbuf_refcount(dmu_buf_impl_t *db)
{
- return (refcount_count(&db->db_holds));
+ return (zfs_refcount_count(&db->db_holds));
}
void *
if (db->db_state != DB_NOFILL &&
dn->dn_object != DMU_META_DNODE_OBJECT &&
- refcount_count(&db->db_holds) > 1 &&
+ zfs_refcount_count(&db->db_holds) > 1 &&
dr->dt.dl.dr_override_state != DR_OVERRIDDEN &&
*datap == db->db_buf) {
/*
(u_longlong_t)db->db.db_size,
!!dbuf_is_metadata(db),
db->db_state,
- (ulong_t)refcount_count(&db->db_holds),
+ (ulong_t)zfs_refcount_count(&db->db_holds),
/* arc_buf_info_t */
abi.abi_state_type,
abi.abi_state_contents,
(ulong_t)doi.doi_metadata_block_size,
(u_longlong_t)doi.doi_bonus_size,
(ulong_t)doi.doi_indirection,
- (ulong_t)refcount_count(&dn->dn_holds),
+ (ulong_t)zfs_refcount_count(&dn->dn_holds),
(u_longlong_t)doi.doi_fill_count,
(u_longlong_t)doi.doi_max_offset);
txh = kmem_zalloc(sizeof (dmu_tx_hold_t), KM_SLEEP);
txh->txh_tx = tx;
txh->txh_dnode = dn;
- refcount_create(&txh->txh_space_towrite);
- refcount_create(&txh->txh_memory_tohold);
+ zfs_refcount_create(&txh->txh_space_towrite);
+ zfs_refcount_create(&txh->txh_memory_tohold);
txh->txh_type = type;
txh->txh_arg1 = arg1;
txh->txh_arg2 = arg2;
if (len == 0)
return;
- (void) refcount_add_many(&txh->txh_space_towrite, len, FTAG);
+ (void) zfs_refcount_add_many(&txh->txh_space_towrite, len, FTAG);
- if (refcount_count(&txh->txh_space_towrite) > 2 * DMU_MAX_ACCESS)
+ if (zfs_refcount_count(&txh->txh_space_towrite) > 2 * DMU_MAX_ACCESS)
err = SET_ERROR(EFBIG);
if (dn == NULL)
static void
dmu_tx_count_dnode(dmu_tx_hold_t *txh)
{
- (void) refcount_add_many(&txh->txh_space_towrite, DNODE_MIN_SIZE, FTAG);
+ (void) zfs_refcount_add_many(&txh->txh_space_towrite, DNODE_MIN_SIZE,
+ FTAG);
}
void
return;
}
- (void) refcount_add_many(&txh->txh_memory_tohold,
+ (void) zfs_refcount_add_many(&txh->txh_memory_tohold,
1 << dn->dn_indblkshift, FTAG);
err = dmu_tx_check_ioerr(zio, dn, 1, i);
* - 2 blocks for possibly split leaves,
* - 2 grown ptrtbl blocks
*/
- (void) refcount_add_many(&txh->txh_space_towrite,
+ (void) zfs_refcount_add_many(&txh->txh_space_towrite,
MZAP_MAX_BLKSZ, FTAG);
if (dn == NULL)
txh = dmu_tx_hold_object_impl(tx, tx->tx_objset,
DMU_NEW_OBJECT, THT_SPACE, space, 0);
if (txh)
- (void) refcount_add_many(&txh->txh_space_towrite, space, FTAG);
+ (void) zfs_refcount_add_many(&txh->txh_space_towrite, space,
+ FTAG);
}
#ifdef ZFS_DEBUG
(void) zfs_refcount_add(&dn->dn_tx_holds, tx);
mutex_exit(&dn->dn_mtx);
}
- towrite += refcount_count(&txh->txh_space_towrite);
- tohold += refcount_count(&txh->txh_memory_tohold);
+ towrite += zfs_refcount_count(&txh->txh_space_towrite);
+ tohold += zfs_refcount_count(&txh->txh_memory_tohold);
}
/* needed allocation: worst-case estimate of write space */
mutex_enter(&dn->dn_mtx);
ASSERT3U(dn->dn_assigned_txg, ==, tx->tx_txg);
- if (refcount_remove(&dn->dn_tx_holds, tx) == 0) {
+ if (zfs_refcount_remove(&dn->dn_tx_holds, tx) == 0) {
dn->dn_assigned_txg = 0;
cv_broadcast(&dn->dn_notxholds);
}
dnode_t *dn = txh->txh_dnode;
list_remove(&tx->tx_holds, txh);
- refcount_destroy_many(&txh->txh_space_towrite,
- refcount_count(&txh->txh_space_towrite));
- refcount_destroy_many(&txh->txh_memory_tohold,
- refcount_count(&txh->txh_memory_tohold));
+ zfs_refcount_destroy_many(&txh->txh_space_towrite,
+ zfs_refcount_count(&txh->txh_space_towrite));
+ zfs_refcount_destroy_many(&txh->txh_memory_tohold,
+ zfs_refcount_count(&txh->txh_memory_tohold));
kmem_free(txh, sizeof (dmu_tx_hold_t));
if (dn != NULL)
dnode_rele(dn, tx);
mutex_enter(&dn->dn_mtx);
ASSERT3U(dn->dn_assigned_txg, ==, tx->tx_txg);
- if (refcount_remove(&dn->dn_tx_holds, tx) == 0) {
+ if (zfs_refcount_remove(&dn->dn_tx_holds, tx) == 0) {
dn->dn_assigned_txg = 0;
cv_broadcast(&dn->dn_notxholds);
}
txh = dmu_tx_hold_object_impl(tx, tx->tx_objset, object,
THT_SPILL, 0, 0);
if (txh != NULL)
- (void) refcount_add_many(&txh->txh_space_towrite,
+ (void) zfs_refcount_add_many(&txh->txh_space_towrite,
SPA_OLD_MAXBLOCKSIZE, FTAG);
}
* Every dbuf has a reference, and dropping a tracked reference is
* O(number of references), so don't track dn_holds.
*/
- refcount_create_untracked(&dn->dn_holds);
- refcount_create(&dn->dn_tx_holds);
+ zfs_refcount_create_untracked(&dn->dn_holds);
+ zfs_refcount_create(&dn->dn_tx_holds);
list_link_init(&dn->dn_link);
bzero(&dn->dn_next_nblkptr[0], sizeof (dn->dn_next_nblkptr));
mutex_destroy(&dn->dn_mtx);
mutex_destroy(&dn->dn_dbufs_mtx);
cv_destroy(&dn->dn_notxholds);
- refcount_destroy(&dn->dn_holds);
- refcount_destroy(&dn->dn_tx_holds);
+ zfs_refcount_destroy(&dn->dn_holds);
+ zfs_refcount_destroy(&dn->dn_tx_holds);
ASSERT(!list_link_active(&dn->dn_link));
for (i = 0; i < TXG_SIZE; i++) {
void
dnode_setbonuslen(dnode_t *dn, int newsize, dmu_tx_t *tx)
{
- ASSERT3U(refcount_count(&dn->dn_holds), >=, 1);
+ ASSERT3U(zfs_refcount_count(&dn->dn_holds), >=, 1);
dnode_setdirty(dn, tx);
rw_enter(&dn->dn_struct_rwlock, RW_WRITER);
void
dnode_setbonus_type(dnode_t *dn, dmu_object_type_t newtype, dmu_tx_t *tx)
{
- ASSERT3U(refcount_count(&dn->dn_holds), >=, 1);
+ ASSERT3U(zfs_refcount_count(&dn->dn_holds), >=, 1);
dnode_setdirty(dn, tx);
rw_enter(&dn->dn_struct_rwlock, RW_WRITER);
dn->dn_bonustype = newtype;
void
dnode_rm_spill(dnode_t *dn, dmu_tx_t *tx)
{
- ASSERT3U(refcount_count(&dn->dn_holds), >=, 1);
+ ASSERT3U(zfs_refcount_count(&dn->dn_holds), >=, 1);
ASSERT(RW_WRITE_HELD(&dn->dn_struct_rwlock));
dnode_setdirty(dn, tx);
dn->dn_rm_spillblk[tx->tx_txg&TXG_MASK] = DN_KILL_SPILLBLK;
ASSERT0(dn->dn_allocated_txg);
ASSERT0(dn->dn_assigned_txg);
ASSERT0(dn->dn_dirty_txg);
- ASSERT(refcount_is_zero(&dn->dn_tx_holds));
- ASSERT3U(refcount_count(&dn->dn_holds), <=, 1);
+ ASSERT(zfs_refcount_is_zero(&dn->dn_tx_holds));
+ ASSERT3U(zfs_refcount_count(&dn->dn_holds), <=, 1);
ASSERT(avl_is_empty(&dn->dn_dbufs));
for (i = 0; i < TXG_SIZE; i++) {
ndn->dn_dirty_txg = odn->dn_dirty_txg;
ndn->dn_dirtyctx = odn->dn_dirtyctx;
ndn->dn_dirtyctx_firstset = odn->dn_dirtyctx_firstset;
- ASSERT(refcount_count(&odn->dn_tx_holds) == 0);
- refcount_transfer(&ndn->dn_holds, &odn->dn_holds);
+ ASSERT(zfs_refcount_count(&odn->dn_tx_holds) == 0);
+ zfs_refcount_transfer(&ndn->dn_holds, &odn->dn_holds);
ASSERT(avl_is_empty(&ndn->dn_dbufs));
avl_swap(&ndn->dn_dbufs, &odn->dn_dbufs);
ndn->dn_dbufs_count = odn->dn_dbufs_count;
* hold before the dbuf is removed, the hold is discounted, and the
* removal is blocked until the move completes.
*/
- refcount = refcount_count(&odn->dn_holds);
+ refcount = zfs_refcount_count(&odn->dn_holds);
ASSERT(refcount >= 0);
dbufs = odn->dn_dbufs_count;
list_link_replace(&odn->dn_link, &ndn->dn_link);
/* If the dnode was safe to move, the refcount cannot have changed. */
- ASSERT(refcount == refcount_count(&ndn->dn_holds));
+ ASSERT(refcount == zfs_refcount_count(&ndn->dn_holds));
ASSERT(dbufs == ndn->dn_dbufs_count);
zrl_exit(&ndn->dn_handle->dnh_zrlock); /* handle has moved */
mutex_exit(&os->os_lock);
* has a hold on this dnode while we are trying to evict this
* dnode.
*/
- while (refcount_count(&dn->dn_holds) > 0)
+ while (zfs_refcount_count(&dn->dn_holds) > 0)
delay(1);
ASSERT(dn->dn_dbuf == NULL ||
dmu_buf_get_user(&dn->dn_dbuf->db) == NULL);
* it wouldn't be eligible for eviction and this function
* would not have been called.
*/
- ASSERT(refcount_is_zero(&dn->dn_holds));
- ASSERT(refcount_is_zero(&dn->dn_tx_holds));
+ ASSERT(zfs_refcount_is_zero(&dn->dn_holds));
+ ASSERT(zfs_refcount_is_zero(&dn->dn_tx_holds));
dnode_destroy(dn); /* implicit zrl_remove() for first slot */
zrl_destroy(&dnh->dnh_zrlock);
}
mutex_enter(&dn->dn_mtx);
- if (!refcount_is_zero(&dn->dn_holds)) {
+ if (!zfs_refcount_is_zero(&dn->dn_holds)) {
DNODE_STAT_BUMP(dnode_hold_free_refcount);
mutex_exit(&dn->dn_mtx);
dnode_slots_rele(dnc, idx, slots);
dnode_add_ref(dnode_t *dn, void *tag)
{
mutex_enter(&dn->dn_mtx);
- if (refcount_is_zero(&dn->dn_holds)) {
+ if (zfs_refcount_is_zero(&dn->dn_holds)) {
mutex_exit(&dn->dn_mtx);
return (FALSE);
}
dmu_buf_impl_t *db = dn->dn_dbuf;
dnode_handle_t *dnh = dn->dn_handle;
- refs = refcount_remove(&dn->dn_holds, tag);
+ refs = zfs_refcount_remove(&dn->dn_holds, tag);
mutex_exit(&dn->dn_mtx);
/*
return;
}
- ASSERT(!refcount_is_zero(&dn->dn_holds) ||
+ ASSERT(!zfs_refcount_is_zero(&dn->dn_holds) ||
!avl_is_empty(&dn->dn_dbufs));
ASSERT(dn->dn_datablksz != 0);
ASSERT0(dn->dn_next_bonuslen[txg&TXG_MASK]);
mutex_enter(&db->db_mtx);
if (db->db_state != DB_EVICTING &&
- refcount_is_zero(&db->db_holds)) {
+ zfs_refcount_is_zero(&db->db_holds)) {
db_marker->db_level = db->db_level;
db_marker->db_blkid = db->db_blkid;
db_marker->db_state = DB_SEARCH;
{
rw_enter(&dn->dn_struct_rwlock, RW_WRITER);
if (dn->dn_bonus != NULL) {
- if (refcount_is_zero(&dn->dn_bonus->db_holds)) {
+ if (zfs_refcount_is_zero(&dn->dn_bonus->db_holds)) {
mutex_enter(&dn->dn_bonus->db_mtx);
dbuf_destroy(dn->dn_bonus);
dn->dn_bonus = NULL;
* zfs_obj_to_path() also depends on this being
* commented out.
*
- * ASSERT3U(refcount_count(&dn->dn_holds), ==, 1);
+ * ASSERT3U(zfs_refcount_count(&dn->dn_holds), ==, 1);
*/
/* Undirty next bits */
mutex_destroy(&ds->ds_lock);
mutex_destroy(&ds->ds_opening_lock);
mutex_destroy(&ds->ds_sendstream_lock);
- refcount_destroy(&ds->ds_longholds);
+ zfs_refcount_destroy(&ds->ds_longholds);
rrw_destroy(&ds->ds_bp_rwlock);
kmem_free(ds, sizeof (dsl_dataset_t));
mutex_init(&ds->ds_opening_lock, NULL, MUTEX_DEFAULT, NULL);
mutex_init(&ds->ds_sendstream_lock, NULL, MUTEX_DEFAULT, NULL);
rrw_init(&ds->ds_bp_rwlock, B_FALSE);
- refcount_create(&ds->ds_longholds);
+ zfs_refcount_create(&ds->ds_longholds);
bplist_create(&ds->ds_pending_deadlist);
dsl_deadlist_open(&ds->ds_deadlist,
mutex_destroy(&ds->ds_lock);
mutex_destroy(&ds->ds_opening_lock);
mutex_destroy(&ds->ds_sendstream_lock);
- refcount_destroy(&ds->ds_longholds);
+ zfs_refcount_destroy(&ds->ds_longholds);
bplist_destroy(&ds->ds_pending_deadlist);
dsl_deadlist_close(&ds->ds_deadlist);
kmem_free(ds, sizeof (dsl_dataset_t));
mutex_destroy(&ds->ds_lock);
mutex_destroy(&ds->ds_opening_lock);
mutex_destroy(&ds->ds_sendstream_lock);
- refcount_destroy(&ds->ds_longholds);
+ zfs_refcount_destroy(&ds->ds_longholds);
kmem_free(ds, sizeof (dsl_dataset_t));
if (err != 0) {
dmu_buf_rele(dbuf, tag);
void
dsl_dataset_long_rele(dsl_dataset_t *ds, void *tag)
{
- (void) refcount_remove(&ds->ds_longholds, tag);
+ (void) zfs_refcount_remove(&ds->ds_longholds, tag);
}
/* Return B_TRUE if there are any long holds on this dataset. */
boolean_t
dsl_dataset_long_held(dsl_dataset_t *ds)
{
- return (!refcount_is_zero(&ds->ds_longholds));
+ return (!zfs_refcount_is_zero(&ds->ds_longholds));
}
void
rrw_enter(&ds->ds_bp_rwlock, RW_READER, FTAG);
ASSERT3U(dsl_dataset_phys(ds)->ds_bp.blk_birth, <=, tx->tx_txg);
rrw_exit(&ds->ds_bp_rwlock, FTAG);
- ASSERT(refcount_is_zero(&ds->ds_longholds));
+ ASSERT(zfs_refcount_is_zero(&ds->ds_longholds));
if (defer &&
(ds->ds_userrefs > 0 ||
if (ds->ds_is_snapshot)
return (SET_ERROR(EINVAL));
- if (refcount_count(&ds->ds_longholds) != expected_holds)
+ if (zfs_refcount_count(&ds->ds_longholds) != expected_holds)
return (SET_ERROR(EBUSY));
mos = ds->ds_dir->dd_pool->dp_meta_objset;
dsl_dataset_phys(ds->ds_prev)->ds_num_children == 2 &&
ds->ds_prev->ds_userrefs == 0) {
/* We need to remove the origin snapshot as well. */
- if (!refcount_is_zero(&ds->ds_prev->ds_longholds))
+ if (!zfs_refcount_is_zero(&ds->ds_prev->ds_longholds))
return (SET_ERROR(EBUSY));
}
return (0);
mc->mc_rotor = NULL;
mc->mc_ops = ops;
mutex_init(&mc->mc_lock, NULL, MUTEX_DEFAULT, NULL);
- refcount_create_tracked(&mc->mc_alloc_slots);
+ zfs_refcount_create_tracked(&mc->mc_alloc_slots);
return (mc);
}
ASSERT(mc->mc_space == 0);
ASSERT(mc->mc_dspace == 0);
- refcount_destroy(&mc->mc_alloc_slots);
+ zfs_refcount_destroy(&mc->mc_alloc_slots);
mutex_destroy(&mc->mc_lock);
kmem_free(mc, sizeof (metaslab_class_t));
}
mg->mg_activation_count = 0;
mg->mg_initialized = B_FALSE;
mg->mg_no_free_space = B_TRUE;
- refcount_create_tracked(&mg->mg_alloc_queue_depth);
+ zfs_refcount_create_tracked(&mg->mg_alloc_queue_depth);
mg->mg_taskq = taskq_create("metaslab_group_taskq", metaslab_load_pct,
maxclsyspri, 10, INT_MAX, TASKQ_THREADS_CPU_PCT | TASKQ_DYNAMIC);
taskq_destroy(mg->mg_taskq);
avl_destroy(&mg->mg_metaslab_tree);
mutex_destroy(&mg->mg_lock);
- refcount_destroy(&mg->mg_alloc_queue_depth);
+ zfs_refcount_destroy(&mg->mg_alloc_queue_depth);
kmem_free(mg, sizeof (metaslab_group_t));
}
if (mg->mg_no_free_space)
return (B_FALSE);
- qdepth = refcount_count(&mg->mg_alloc_queue_depth);
+ qdepth = zfs_refcount_count(&mg->mg_alloc_queue_depth);
/*
* If this metaslab group is below its qmax or it's
for (mgp = mg->mg_next; mgp != rotor; mgp = mgp->mg_next) {
qmax = mgp->mg_max_alloc_queue_depth;
- qdepth = refcount_count(&mgp->mg_alloc_queue_depth);
+ qdepth = zfs_refcount_count(&mgp->mg_alloc_queue_depth);
/*
* If there is another metaslab group that
if (!mg->mg_class->mc_alloc_throttle_enabled)
return;
- (void) refcount_remove(&mg->mg_alloc_queue_depth, tag);
+ (void) zfs_refcount_remove(&mg->mg_alloc_queue_depth, tag);
}
void
for (d = 0; d < ndvas; d++) {
uint64_t vdev = DVA_GET_VDEV(&dva[d]);
metaslab_group_t *mg = vdev_lookup_top(spa, vdev)->vdev_mg;
- VERIFY(refcount_not_held(&mg->mg_alloc_queue_depth, tag));
+ VERIFY(zfs_refcount_not_held(&mg->mg_alloc_queue_depth, tag));
}
#endif
}
ASSERT(mc->mc_alloc_throttle_enabled);
mutex_enter(&mc->mc_lock);
- reserved_slots = refcount_count(&mc->mc_alloc_slots);
+ reserved_slots = zfs_refcount_count(&mc->mc_alloc_slots);
if (reserved_slots < mc->mc_alloc_max_slots)
available_slots = mc->mc_alloc_max_slots - reserved_slots;
* them individually when an I/O completes.
*/
for (d = 0; d < slots; d++) {
- reserved_slots = zfs_refcount_add(&mc->mc_alloc_slots, zio);
+ reserved_slots = zfs_refcount_add(&mc->mc_alloc_slots,
+ zio);
}
zio->io_flags |= ZIO_FLAG_IO_ALLOCATING;
slot_reserved = B_TRUE;
ASSERT(mc->mc_alloc_throttle_enabled);
mutex_enter(&mc->mc_lock);
for (d = 0; d < slots; d++) {
- (void) refcount_remove(&mc->mc_alloc_slots, zio);
+ (void) zfs_refcount_remove(&mc->mc_alloc_slots, zio);
}
mutex_exit(&mc->mc_lock);
}
static kmem_cache_t *reference_history_cache;
void
-refcount_init(void)
+zfs_refcount_init(void)
{
reference_cache = kmem_cache_create("reference_cache",
sizeof (reference_t), 0, NULL, NULL, NULL, NULL, NULL, 0);
}
void
-refcount_fini(void)
+zfs_refcount_fini(void)
{
kmem_cache_destroy(reference_cache);
kmem_cache_destroy(reference_history_cache);
}
void
-refcount_create(zfs_refcount_t *rc)
+zfs_refcount_create(zfs_refcount_t *rc)
{
mutex_init(&rc->rc_mtx, NULL, MUTEX_DEFAULT, NULL);
list_create(&rc->rc_list, sizeof (reference_t),
}
void
-refcount_create_tracked(zfs_refcount_t *rc)
+zfs_refcount_create_tracked(zfs_refcount_t *rc)
{
- refcount_create(rc);
+ zfs_refcount_create(rc);
rc->rc_tracked = B_TRUE;
}
void
-refcount_create_untracked(zfs_refcount_t *rc)
+zfs_refcount_create_untracked(zfs_refcount_t *rc)
{
- refcount_create(rc);
+ zfs_refcount_create(rc);
rc->rc_tracked = B_FALSE;
}
void
-refcount_destroy_many(zfs_refcount_t *rc, uint64_t number)
+zfs_refcount_destroy_many(zfs_refcount_t *rc, uint64_t number)
{
reference_t *ref;
}
void
-refcount_destroy(zfs_refcount_t *rc)
+zfs_refcount_destroy(zfs_refcount_t *rc)
{
- refcount_destroy_many(rc, 0);
+ zfs_refcount_destroy_many(rc, 0);
}
int
-refcount_is_zero(zfs_refcount_t *rc)
+zfs_refcount_is_zero(zfs_refcount_t *rc)
{
return (rc->rc_count == 0);
}
int64_t
-refcount_count(zfs_refcount_t *rc)
+zfs_refcount_count(zfs_refcount_t *rc)
{
return (rc->rc_count);
}
int64_t
-refcount_add_many(zfs_refcount_t *rc, uint64_t number, void *holder)
+zfs_refcount_add_many(zfs_refcount_t *rc, uint64_t number, void *holder)
{
reference_t *ref = NULL;
int64_t count;
int64_t
zfs_refcount_add(zfs_refcount_t *rc, void *holder)
{
- return (refcount_add_many(rc, 1, holder));
+ return (zfs_refcount_add_many(rc, 1, holder));
}
int64_t
-refcount_remove_many(zfs_refcount_t *rc, uint64_t number, void *holder)
+zfs_refcount_remove_many(zfs_refcount_t *rc, uint64_t number, void *holder)
{
reference_t *ref;
int64_t count;
}
int64_t
-refcount_remove(zfs_refcount_t *rc, void *holder)
+zfs_refcount_remove(zfs_refcount_t *rc, void *holder)
{
- return (refcount_remove_many(rc, 1, holder));
+ return (zfs_refcount_remove_many(rc, 1, holder));
}
void
-refcount_transfer(zfs_refcount_t *dst, zfs_refcount_t *src)
+zfs_refcount_transfer(zfs_refcount_t *dst, zfs_refcount_t *src)
{
int64_t count, removed_count;
list_t list, removed;
}
void
-refcount_transfer_ownership(zfs_refcount_t *rc, void *current_holder,
+zfs_refcount_transfer_ownership(zfs_refcount_t *rc, void *current_holder,
void *new_holder)
{
reference_t *ref;
* might be held.
*/
boolean_t
-refcount_held(zfs_refcount_t *rc, void *holder)
+zfs_refcount_held(zfs_refcount_t *rc, void *holder)
{
reference_t *ref;
* since the reference might not be held.
*/
boolean_t
-refcount_not_held(zfs_refcount_t *rc, void *holder)
+zfs_refcount_not_held(zfs_refcount_t *rc, void *holder)
{
reference_t *ref;
{
rrw_node_t *rn;
- if (refcount_count(&rrl->rr_linked_rcount) == 0)
+ if (zfs_refcount_count(&rrl->rr_linked_rcount) == 0)
return (NULL);
for (rn = tsd_get(rrw_tsd_key); rn != NULL; rn = rn->rn_next) {
rrw_node_t *rn;
rrw_node_t *prev = NULL;
- if (refcount_count(&rrl->rr_linked_rcount) == 0)
+ if (zfs_refcount_count(&rrl->rr_linked_rcount) == 0)
return (B_FALSE);
for (rn = tsd_get(rrw_tsd_key); rn != NULL; rn = rn->rn_next) {
mutex_init(&rrl->rr_lock, NULL, MUTEX_DEFAULT, NULL);
cv_init(&rrl->rr_cv, NULL, CV_DEFAULT, NULL);
rrl->rr_writer = NULL;
- refcount_create(&rrl->rr_anon_rcount);
- refcount_create(&rrl->rr_linked_rcount);
+ zfs_refcount_create(&rrl->rr_anon_rcount);
+ zfs_refcount_create(&rrl->rr_linked_rcount);
rrl->rr_writer_wanted = B_FALSE;
rrl->rr_track_all = track_all;
}
mutex_destroy(&rrl->rr_lock);
cv_destroy(&rrl->rr_cv);
ASSERT(rrl->rr_writer == NULL);
- refcount_destroy(&rrl->rr_anon_rcount);
- refcount_destroy(&rrl->rr_linked_rcount);
+ zfs_refcount_destroy(&rrl->rr_anon_rcount);
+ zfs_refcount_destroy(&rrl->rr_linked_rcount);
}
static void
DTRACE_PROBE(zfs__rrwfastpath__rdmiss);
#endif
ASSERT(rrl->rr_writer != curthread);
- ASSERT(refcount_count(&rrl->rr_anon_rcount) >= 0);
+ ASSERT(zfs_refcount_count(&rrl->rr_anon_rcount) >= 0);
while (rrl->rr_writer != NULL || (rrl->rr_writer_wanted &&
- refcount_is_zero(&rrl->rr_anon_rcount) && !prio &&
+ zfs_refcount_is_zero(&rrl->rr_anon_rcount) && !prio &&
rrn_find(rrl) == NULL))
cv_wait(&rrl->rr_cv, &rrl->rr_lock);
mutex_enter(&rrl->rr_lock);
ASSERT(rrl->rr_writer != curthread);
- while (refcount_count(&rrl->rr_anon_rcount) > 0 ||
- refcount_count(&rrl->rr_linked_rcount) > 0 ||
+ while (zfs_refcount_count(&rrl->rr_anon_rcount) > 0 ||
+ zfs_refcount_count(&rrl->rr_linked_rcount) > 0 ||
rrl->rr_writer != NULL) {
rrl->rr_writer_wanted = B_TRUE;
cv_wait(&rrl->rr_cv, &rrl->rr_lock);
}
DTRACE_PROBE(zfs__rrwfastpath__exitmiss);
#endif
- ASSERT(!refcount_is_zero(&rrl->rr_anon_rcount) ||
- !refcount_is_zero(&rrl->rr_linked_rcount) ||
+ ASSERT(!zfs_refcount_is_zero(&rrl->rr_anon_rcount) ||
+ !zfs_refcount_is_zero(&rrl->rr_linked_rcount) ||
rrl->rr_writer != NULL);
if (rrl->rr_writer == NULL) {
int64_t count;
if (rrn_find_and_remove(rrl, tag)) {
- count = refcount_remove(&rrl->rr_linked_rcount, tag);
+ count = zfs_refcount_remove(
+ &rrl->rr_linked_rcount, tag);
} else {
ASSERT(!rrl->rr_track_all);
- count = refcount_remove(&rrl->rr_anon_rcount, tag);
+ count = zfs_refcount_remove(&rrl->rr_anon_rcount, tag);
}
if (count == 0)
cv_broadcast(&rrl->rr_cv);
} else {
ASSERT(rrl->rr_writer == curthread);
- ASSERT(refcount_is_zero(&rrl->rr_anon_rcount) &&
- refcount_is_zero(&rrl->rr_linked_rcount));
+ ASSERT(zfs_refcount_is_zero(&rrl->rr_anon_rcount) &&
+ zfs_refcount_is_zero(&rrl->rr_linked_rcount));
rrl->rr_writer = NULL;
cv_broadcast(&rrl->rr_cv);
}
if (rw == RW_WRITER) {
held = (rrl->rr_writer == curthread);
} else {
- held = (!refcount_is_zero(&rrl->rr_anon_rcount) ||
+ held = (!zfs_refcount_is_zero(&rrl->rr_anon_rcount) ||
rrn_find(rrl) != NULL);
}
mutex_exit(&rrl->rr_lock);
avl_destroy_nodes(&sa->sa_layout_hash_tree, &cookie))) {
sa_idx_tab_t *tab;
while ((tab = list_head(&layout->lot_idx_tab))) {
- ASSERT(refcount_count(&tab->sa_refcount));
+ ASSERT(zfs_refcount_count(&tab->sa_refcount));
sa_idx_tab_rele(os, tab);
}
}
return;
mutex_enter(&sa->sa_lock);
- if (refcount_remove(&idx_tab->sa_refcount, NULL) == 0) {
+ if (zfs_refcount_remove(&idx_tab->sa_refcount, NULL) == 0) {
list_remove(&idx_tab->sa_layout->lot_idx_tab, idx_tab);
if (idx_tab->sa_variable_lengths)
kmem_free(idx_tab->sa_variable_lengths,
sizeof (uint16_t) *
idx_tab->sa_layout->lot_var_sizes);
- refcount_destroy(&idx_tab->sa_refcount);
+ zfs_refcount_destroy(&idx_tab->sa_refcount);
kmem_free(idx_tab->sa_idx_tab,
sizeof (uint32_t) * sa->sa_num_attrs);
kmem_free(idx_tab, sizeof (sa_idx_tab_t));
idx_tab->sa_idx_tab =
kmem_zalloc(sizeof (uint32_t) * sa->sa_num_attrs, KM_SLEEP);
idx_tab->sa_layout = tb;
- refcount_create(&idx_tab->sa_refcount);
+ zfs_refcount_create(&idx_tab->sa_refcount);
if (tb->lot_var_sizes)
idx_tab->sa_variable_lengths = kmem_alloc(sizeof (uint16_t) *
tb->lot_var_sizes, KM_SLEEP);
* and are making their way through the eviction process.
*/
spa_evicting_os_wait(spa);
- spa->spa_minref = refcount_count(&spa->spa_refcount);
+ spa->spa_minref = zfs_refcount_count(&spa->spa_refcount);
if (error) {
if (error != EEXIST) {
spa->spa_loaded_ts.tv_sec = 0;
* and are making their way through the eviction process.
*/
spa_evicting_os_wait(spa);
- spa->spa_minref = refcount_count(&spa->spa_refcount);
+ spa->spa_minref = zfs_refcount_count(&spa->spa_refcount);
spa->spa_load_state = SPA_LOAD_NONE;
mutex_exit(&spa_namespace_lock);
* allocations look at mg_max_alloc_queue_depth, and async
* allocations all happen from spa_sync().
*/
- ASSERT0(refcount_count(&mg->mg_alloc_queue_depth));
+ ASSERT0(zfs_refcount_count(&mg->mg_alloc_queue_depth));
mg->mg_max_alloc_queue_depth = max_queue_depth;
queue_depth_total += mg->mg_max_alloc_queue_depth;
}
mc = spa_normal_class(spa);
- ASSERT0(refcount_count(&mc->mc_alloc_slots));
+ ASSERT0(zfs_refcount_count(&mc->mc_alloc_slots));
mc->mc_alloc_max_slots = queue_depth_total;
mc->mc_alloc_throttle_enabled = zio_dva_throttle_enabled;
spa_config_lock_t *scl = &spa->spa_config_lock[i];
mutex_init(&scl->scl_lock, NULL, MUTEX_DEFAULT, NULL);
cv_init(&scl->scl_cv, NULL, CV_DEFAULT, NULL);
- refcount_create_untracked(&scl->scl_count);
+ zfs_refcount_create_untracked(&scl->scl_count);
scl->scl_writer = NULL;
scl->scl_write_wanted = 0;
}
spa_config_lock_t *scl = &spa->spa_config_lock[i];
mutex_destroy(&scl->scl_lock);
cv_destroy(&scl->scl_cv);
- refcount_destroy(&scl->scl_count);
+ zfs_refcount_destroy(&scl->scl_count);
ASSERT(scl->scl_writer == NULL);
ASSERT(scl->scl_write_wanted == 0);
}
}
} else {
ASSERT(scl->scl_writer != curthread);
- if (!refcount_is_zero(&scl->scl_count)) {
+ if (!zfs_refcount_is_zero(&scl->scl_count)) {
mutex_exit(&scl->scl_lock);
spa_config_exit(spa, locks & ((1 << i) - 1),
tag);
}
} else {
ASSERT(scl->scl_writer != curthread);
- while (!refcount_is_zero(&scl->scl_count)) {
+ while (!zfs_refcount_is_zero(&scl->scl_count)) {
scl->scl_write_wanted++;
cv_wait(&scl->scl_cv, &scl->scl_lock);
scl->scl_write_wanted--;
if (!(locks & (1 << i)))
continue;
mutex_enter(&scl->scl_lock);
- ASSERT(!refcount_is_zero(&scl->scl_count));
- if (refcount_remove(&scl->scl_count, tag) == 0) {
+ ASSERT(!zfs_refcount_is_zero(&scl->scl_count));
+ if (zfs_refcount_remove(&scl->scl_count, tag) == 0) {
ASSERT(scl->scl_writer == NULL ||
scl->scl_writer == curthread);
scl->scl_writer = NULL; /* OK in either case */
spa_config_lock_t *scl = &spa->spa_config_lock[i];
if (!(locks & (1 << i)))
continue;
- if ((rw == RW_READER && !refcount_is_zero(&scl->scl_count)) ||
+ if ((rw == RW_READER &&
+ !zfs_refcount_is_zero(&scl->scl_count)) ||
(rw == RW_WRITER && scl->scl_writer == curthread))
locks_held |= 1 << i;
}
spa->spa_deadman_synctime = MSEC2NSEC(zfs_deadman_synctime_ms);
- refcount_create(&spa->spa_refcount);
+ zfs_refcount_create(&spa->spa_refcount);
spa_config_lock_init(spa);
spa_stats_init(spa);
ASSERT(MUTEX_HELD(&spa_namespace_lock));
ASSERT(spa->spa_state == POOL_STATE_UNINITIALIZED);
- ASSERT3U(refcount_count(&spa->spa_refcount), ==, 0);
+ ASSERT3U(zfs_refcount_count(&spa->spa_refcount), ==, 0);
nvlist_free(spa->spa_config_splitting);
nvlist_free(spa->spa_feat_stats);
spa_config_set(spa, NULL);
- refcount_destroy(&spa->spa_refcount);
+ zfs_refcount_destroy(&spa->spa_refcount);
spa_stats_destroy(spa);
spa_config_lock_destroy(spa);
void
spa_open_ref(spa_t *spa, void *tag)
{
- ASSERT(refcount_count(&spa->spa_refcount) >= spa->spa_minref ||
+ ASSERT(zfs_refcount_count(&spa->spa_refcount) >= spa->spa_minref ||
MUTEX_HELD(&spa_namespace_lock));
(void) zfs_refcount_add(&spa->spa_refcount, tag);
}
void
spa_close(spa_t *spa, void *tag)
{
- ASSERT(refcount_count(&spa->spa_refcount) > spa->spa_minref ||
+ ASSERT(zfs_refcount_count(&spa->spa_refcount) > spa->spa_minref ||
MUTEX_HELD(&spa_namespace_lock));
- (void) refcount_remove(&spa->spa_refcount, tag);
+ (void) zfs_refcount_remove(&spa->spa_refcount, tag);
}
/*
void
spa_async_close(spa_t *spa, void *tag)
{
- (void) refcount_remove(&spa->spa_refcount, tag);
+ (void) zfs_refcount_remove(&spa->spa_refcount, tag);
}
/*
{
ASSERT(MUTEX_HELD(&spa_namespace_lock));
- return (refcount_count(&spa->spa_refcount) == spa->spa_minref);
+ return (zfs_refcount_count(&spa->spa_refcount) == spa->spa_minref);
}
/*
#endif
fm_init();
- refcount_init();
+ zfs_refcount_init();
unique_init();
range_tree_init();
metaslab_alloc_trace_init();
metaslab_alloc_trace_fini();
range_tree_fini();
unique_fini();
- refcount_fini();
+ zfs_refcount_fini();
fm_fini();
qat_fini();
se->se_root_dentry = root_dentry;
se->se_taskqid = TASKQID_INVALID;
- refcount_create(&se->se_refcount);
+ zfs_refcount_create(&se->se_refcount);
return (se);
}
static void
zfsctl_snapshot_free(zfs_snapentry_t *se)
{
- refcount_destroy(&se->se_refcount);
+ zfs_refcount_destroy(&se->se_refcount);
strfree(se->se_name);
strfree(se->se_path);
static void
zfsctl_snapshot_rele(zfs_snapentry_t *se)
{
- if (refcount_remove(&se->se_refcount, NULL) == 0)
+ if (zfs_refcount_remove(&se->se_refcount, NULL) == 0)
zfsctl_snapshot_free(se);
}
znode_hold_t *zh = buf;
mutex_init(&zh->zh_lock, NULL, MUTEX_DEFAULT, NULL);
- refcount_create(&zh->zh_refcount);
+ zfs_refcount_create(&zh->zh_refcount);
zh->zh_obj = ZFS_NO_OBJECT;
return (0);
znode_hold_t *zh = buf;
mutex_destroy(&zh->zh_lock);
- refcount_destroy(&zh->zh_refcount);
+ zfs_refcount_destroy(&zh->zh_refcount);
}
void
kmem_cache_free(znode_hold_cache, zh_new);
ASSERT(MUTEX_NOT_HELD(&zh->zh_lock));
- ASSERT3S(refcount_count(&zh->zh_refcount), >, 0);
+ ASSERT3S(zfs_refcount_count(&zh->zh_refcount), >, 0);
mutex_enter(&zh->zh_lock);
return (zh);
boolean_t remove = B_FALSE;
ASSERT(zfs_znode_held(zfsvfs, zh->zh_obj));
- ASSERT3S(refcount_count(&zh->zh_refcount), >, 0);
+ ASSERT3S(zfs_refcount_count(&zh->zh_refcount), >, 0);
mutex_exit(&zh->zh_lock);
mutex_enter(&zfsvfs->z_hold_locks[i]);
- if (refcount_remove(&zh->zh_refcount, NULL) == 0) {
+ if (zfs_refcount_remove(&zh->zh_refcount, NULL) == 0) {
avl_remove(&zfsvfs->z_hold_trees[i], zh);
remove = B_TRUE;
}
ASSERT(!(pio->io_flags & ZIO_FLAG_NODATA));
flags |= METASLAB_ASYNC_ALLOC;
- VERIFY(refcount_held(&mc->mc_alloc_slots, pio));
+ VERIFY(zfs_refcount_held(&mc->mc_alloc_slots, pio));
/*
* The logical zio has already placed a reservation for
ASSERT(zio->io_priority == ZIO_PRIORITY_ASYNC_WRITE);
ASSERT(zio->io_bp != NULL);
metaslab_group_alloc_verify(zio->io_spa, zio->io_bp, zio);
- VERIFY(refcount_not_held(
+ VERIFY(zfs_refcount_not_held(
&(spa_normal_class(zio->io_spa)->mc_alloc_slots), zio));
}
projects / zfs / commitdiff