1 // SPDX-License-Identifier: GPL-2.0
3 * Copyright (c) 2000-2001,2005 Silicon Graphics, Inc.
8 #include "xfs_format.h"
9 #include "xfs_log_format.h"
10 #include "xfs_trans_resv.h"
12 #include "xfs_shared.h"
13 #include "xfs_mount.h"
14 #include "xfs_defer.h"
15 #include "xfs_trans.h"
16 #include "xfs_trans_priv.h"
17 #include "xfs_extfree_item.h"
19 #include "xfs_btree.h"
21 #include "xfs_alloc.h"
23 #include "xfs_trace.h"
24 #include "xfs_error.h"
25 #include "xfs_log_priv.h"
26 #include "xfs_log_recover.h"
28 kmem_zone_t *xfs_efi_zone;
29 kmem_zone_t *xfs_efd_zone;
31 static const struct xfs_item_ops xfs_efi_item_ops;
33 static inline struct xfs_efi_log_item *EFI_ITEM(struct xfs_log_item *lip)
35 return container_of(lip, struct xfs_efi_log_item, efi_item);
40 struct xfs_efi_log_item *efip)
42 kmem_free(efip->efi_item.li_lv_shadow);
43 if (efip->efi_format.efi_nextents > XFS_EFI_MAX_FAST_EXTENTS)
46 kmem_cache_free(xfs_efi_zone, efip);
50 * Freeing the efi requires that we remove it from the AIL if it has already
51 * been placed there. However, the EFI may not yet have been placed in the AIL
52 * when called by xfs_efi_release() from EFD processing due to the ordering of
53 * committed vs unpin operations in bulk insert operations. Hence the reference
54 * count to ensure only the last caller frees the EFI.
58 struct xfs_efi_log_item *efip)
60 ASSERT(atomic_read(&efip->efi_refcount) > 0);
61 if (atomic_dec_and_test(&efip->efi_refcount)) {
62 xfs_trans_ail_delete(&efip->efi_item, SHUTDOWN_LOG_IO_ERROR);
63 xfs_efi_item_free(efip);
68 * This returns the number of iovecs needed to log the given efi item.
69 * We only need 1 iovec for an efi item. It just logs the efi_log_format
74 struct xfs_efi_log_item *efip)
76 return sizeof(struct xfs_efi_log_format) +
77 (efip->efi_format.efi_nextents - 1) * sizeof(xfs_extent_t);
82 struct xfs_log_item *lip,
87 *nbytes += xfs_efi_item_sizeof(EFI_ITEM(lip));
91 * This is called to fill in the vector of log iovecs for the
92 * given efi log item. We use only 1 iovec, and we point that
93 * at the efi_log_format structure embedded in the efi item.
94 * It is at this point that we assert that all of the extent
95 * slots in the efi item have been filled.
99 struct xfs_log_item *lip,
100 struct xfs_log_vec *lv)
102 struct xfs_efi_log_item *efip = EFI_ITEM(lip);
103 struct xfs_log_iovec *vecp = NULL;
105 ASSERT(atomic_read(&efip->efi_next_extent) ==
106 efip->efi_format.efi_nextents);
108 efip->efi_format.efi_type = XFS_LI_EFI;
109 efip->efi_format.efi_size = 1;
111 xlog_copy_iovec(lv, &vecp, XLOG_REG_TYPE_EFI_FORMAT,
113 xfs_efi_item_sizeof(efip));
118 * The unpin operation is the last place an EFI is manipulated in the log. It is
119 * either inserted in the AIL or aborted in the event of a log I/O error. In
120 * either case, the EFI transaction has been successfully committed to make it
121 * this far. Therefore, we expect whoever committed the EFI to either construct
122 * and commit the EFD or drop the EFD's reference in the event of error. Simply
123 * drop the log's EFI reference now that the log is done with it.
127 struct xfs_log_item *lip,
130 struct xfs_efi_log_item *efip = EFI_ITEM(lip);
131 xfs_efi_release(efip);
135 * The EFI has been either committed or aborted if the transaction has been
136 * cancelled. If the transaction was cancelled, an EFD isn't going to be
137 * constructed and thus we free the EFI here directly.
140 xfs_efi_item_release(
141 struct xfs_log_item *lip)
143 xfs_efi_release(EFI_ITEM(lip));
147 * Allocate and initialize an efi item with the given number of extents.
149 STATIC struct xfs_efi_log_item *
151 struct xfs_mount *mp,
155 struct xfs_efi_log_item *efip;
158 ASSERT(nextents > 0);
159 if (nextents > XFS_EFI_MAX_FAST_EXTENTS) {
160 size = (uint)(sizeof(struct xfs_efi_log_item) +
161 ((nextents - 1) * sizeof(xfs_extent_t)));
162 efip = kmem_zalloc(size, 0);
164 efip = kmem_cache_zalloc(xfs_efi_zone,
165 GFP_KERNEL | __GFP_NOFAIL);
168 xfs_log_item_init(mp, &efip->efi_item, XFS_LI_EFI, &xfs_efi_item_ops);
169 efip->efi_format.efi_nextents = nextents;
170 efip->efi_format.efi_id = (uintptr_t)(void *)efip;
171 atomic_set(&efip->efi_next_extent, 0);
172 atomic_set(&efip->efi_refcount, 2);
178 * Copy an EFI format buffer from the given buf, and into the destination
179 * EFI format structure.
180 * The given buffer can be in 32 bit or 64 bit form (which has different padding),
181 * one of which will be the native format for this kernel.
182 * It will handle the conversion of formats if necessary.
185 xfs_efi_copy_format(xfs_log_iovec_t *buf, xfs_efi_log_format_t *dst_efi_fmt)
187 xfs_efi_log_format_t *src_efi_fmt = buf->i_addr;
189 uint len = sizeof(xfs_efi_log_format_t) +
190 (src_efi_fmt->efi_nextents - 1) * sizeof(xfs_extent_t);
191 uint len32 = sizeof(xfs_efi_log_format_32_t) +
192 (src_efi_fmt->efi_nextents - 1) * sizeof(xfs_extent_32_t);
193 uint len64 = sizeof(xfs_efi_log_format_64_t) +
194 (src_efi_fmt->efi_nextents - 1) * sizeof(xfs_extent_64_t);
196 if (buf->i_len == len) {
197 memcpy((char *)dst_efi_fmt, (char*)src_efi_fmt, len);
199 } else if (buf->i_len == len32) {
200 xfs_efi_log_format_32_t *src_efi_fmt_32 = buf->i_addr;
202 dst_efi_fmt->efi_type = src_efi_fmt_32->efi_type;
203 dst_efi_fmt->efi_size = src_efi_fmt_32->efi_size;
204 dst_efi_fmt->efi_nextents = src_efi_fmt_32->efi_nextents;
205 dst_efi_fmt->efi_id = src_efi_fmt_32->efi_id;
206 for (i = 0; i < dst_efi_fmt->efi_nextents; i++) {
207 dst_efi_fmt->efi_extents[i].ext_start =
208 src_efi_fmt_32->efi_extents[i].ext_start;
209 dst_efi_fmt->efi_extents[i].ext_len =
210 src_efi_fmt_32->efi_extents[i].ext_len;
213 } else if (buf->i_len == len64) {
214 xfs_efi_log_format_64_t *src_efi_fmt_64 = buf->i_addr;
216 dst_efi_fmt->efi_type = src_efi_fmt_64->efi_type;
217 dst_efi_fmt->efi_size = src_efi_fmt_64->efi_size;
218 dst_efi_fmt->efi_nextents = src_efi_fmt_64->efi_nextents;
219 dst_efi_fmt->efi_id = src_efi_fmt_64->efi_id;
220 for (i = 0; i < dst_efi_fmt->efi_nextents; i++) {
221 dst_efi_fmt->efi_extents[i].ext_start =
222 src_efi_fmt_64->efi_extents[i].ext_start;
223 dst_efi_fmt->efi_extents[i].ext_len =
224 src_efi_fmt_64->efi_extents[i].ext_len;
228 XFS_ERROR_REPORT(__func__, XFS_ERRLEVEL_LOW, NULL);
229 return -EFSCORRUPTED;
232 static inline struct xfs_efd_log_item *EFD_ITEM(struct xfs_log_item *lip)
234 return container_of(lip, struct xfs_efd_log_item, efd_item);
238 xfs_efd_item_free(struct xfs_efd_log_item *efdp)
240 kmem_free(efdp->efd_item.li_lv_shadow);
241 if (efdp->efd_format.efd_nextents > XFS_EFD_MAX_FAST_EXTENTS)
244 kmem_cache_free(xfs_efd_zone, efdp);
248 * This returns the number of iovecs needed to log the given efd item.
249 * We only need 1 iovec for an efd item. It just logs the efd_log_format
254 struct xfs_efd_log_item *efdp)
256 return sizeof(xfs_efd_log_format_t) +
257 (efdp->efd_format.efd_nextents - 1) * sizeof(xfs_extent_t);
262 struct xfs_log_item *lip,
267 *nbytes += xfs_efd_item_sizeof(EFD_ITEM(lip));
271 * This is called to fill in the vector of log iovecs for the
272 * given efd log item. We use only 1 iovec, and we point that
273 * at the efd_log_format structure embedded in the efd item.
274 * It is at this point that we assert that all of the extent
275 * slots in the efd item have been filled.
279 struct xfs_log_item *lip,
280 struct xfs_log_vec *lv)
282 struct xfs_efd_log_item *efdp = EFD_ITEM(lip);
283 struct xfs_log_iovec *vecp = NULL;
285 ASSERT(efdp->efd_next_extent == efdp->efd_format.efd_nextents);
287 efdp->efd_format.efd_type = XFS_LI_EFD;
288 efdp->efd_format.efd_size = 1;
290 xlog_copy_iovec(lv, &vecp, XLOG_REG_TYPE_EFD_FORMAT,
292 xfs_efd_item_sizeof(efdp));
296 * The EFD is either committed or aborted if the transaction is cancelled. If
297 * the transaction is cancelled, drop our reference to the EFI and free the EFD.
300 xfs_efd_item_release(
301 struct xfs_log_item *lip)
303 struct xfs_efd_log_item *efdp = EFD_ITEM(lip);
305 xfs_efi_release(efdp->efd_efip);
306 xfs_efd_item_free(efdp);
309 static const struct xfs_item_ops xfs_efd_item_ops = {
310 .flags = XFS_ITEM_RELEASE_WHEN_COMMITTED,
311 .iop_size = xfs_efd_item_size,
312 .iop_format = xfs_efd_item_format,
313 .iop_release = xfs_efd_item_release,
317 * Allocate an "extent free done" log item that will hold nextents worth of
318 * extents. The caller must use all nextents extents, because we are not
319 * flexible about this at all.
321 static struct xfs_efd_log_item *
323 struct xfs_trans *tp,
324 struct xfs_efi_log_item *efip,
325 unsigned int nextents)
327 struct xfs_efd_log_item *efdp;
329 ASSERT(nextents > 0);
331 if (nextents > XFS_EFD_MAX_FAST_EXTENTS) {
332 efdp = kmem_zalloc(sizeof(struct xfs_efd_log_item) +
333 (nextents - 1) * sizeof(struct xfs_extent),
336 efdp = kmem_cache_zalloc(xfs_efd_zone,
337 GFP_KERNEL | __GFP_NOFAIL);
340 xfs_log_item_init(tp->t_mountp, &efdp->efd_item, XFS_LI_EFD,
342 efdp->efd_efip = efip;
343 efdp->efd_format.efd_nextents = nextents;
344 efdp->efd_format.efd_efi_id = efip->efi_format.efi_id;
346 xfs_trans_add_item(tp, &efdp->efd_item);
351 * Free an extent and log it to the EFD. Note that the transaction is marked
352 * dirty regardless of whether the extent free succeeds or fails to support the
353 * EFI/EFD lifecycle rules.
356 xfs_trans_free_extent(
357 struct xfs_trans *tp,
358 struct xfs_efd_log_item *efdp,
359 xfs_fsblock_t start_block,
360 xfs_extlen_t ext_len,
361 const struct xfs_owner_info *oinfo,
364 struct xfs_mount *mp = tp->t_mountp;
365 struct xfs_extent *extp;
367 xfs_agnumber_t agno = XFS_FSB_TO_AGNO(mp, start_block);
368 xfs_agblock_t agbno = XFS_FSB_TO_AGBNO(mp,
372 trace_xfs_bmap_free_deferred(tp->t_mountp, agno, 0, agbno, ext_len);
374 error = __xfs_free_extent(tp, start_block, ext_len,
375 oinfo, XFS_AG_RESV_NONE, skip_discard);
377 * Mark the transaction dirty, even on error. This ensures the
378 * transaction is aborted, which:
380 * 1.) releases the EFI and frees the EFD
381 * 2.) shuts down the filesystem
383 tp->t_flags |= XFS_TRANS_DIRTY;
384 set_bit(XFS_LI_DIRTY, &efdp->efd_item.li_flags);
386 next_extent = efdp->efd_next_extent;
387 ASSERT(next_extent < efdp->efd_format.efd_nextents);
388 extp = &(efdp->efd_format.efd_extents[next_extent]);
389 extp->ext_start = start_block;
390 extp->ext_len = ext_len;
391 efdp->efd_next_extent++;
396 /* Sort bmap items by AG. */
398 xfs_extent_free_diff_items(
400 const struct list_head *a,
401 const struct list_head *b)
403 struct xfs_mount *mp = priv;
404 struct xfs_extent_free_item *ra;
405 struct xfs_extent_free_item *rb;
407 ra = container_of(a, struct xfs_extent_free_item, xefi_list);
408 rb = container_of(b, struct xfs_extent_free_item, xefi_list);
409 return XFS_FSB_TO_AGNO(mp, ra->xefi_startblock) -
410 XFS_FSB_TO_AGNO(mp, rb->xefi_startblock);
413 /* Log a free extent to the intent item. */
415 xfs_extent_free_log_item(
416 struct xfs_trans *tp,
417 struct xfs_efi_log_item *efip,
418 struct xfs_extent_free_item *free)
421 struct xfs_extent *extp;
423 tp->t_flags |= XFS_TRANS_DIRTY;
424 set_bit(XFS_LI_DIRTY, &efip->efi_item.li_flags);
427 * atomic_inc_return gives us the value after the increment;
428 * we want to use it as an array index so we need to subtract 1 from
431 next_extent = atomic_inc_return(&efip->efi_next_extent) - 1;
432 ASSERT(next_extent < efip->efi_format.efi_nextents);
433 extp = &efip->efi_format.efi_extents[next_extent];
434 extp->ext_start = free->xefi_startblock;
435 extp->ext_len = free->xefi_blockcount;
438 static struct xfs_log_item *
439 xfs_extent_free_create_intent(
440 struct xfs_trans *tp,
441 struct list_head *items,
445 struct xfs_mount *mp = tp->t_mountp;
446 struct xfs_efi_log_item *efip = xfs_efi_init(mp, count);
447 struct xfs_extent_free_item *free;
451 xfs_trans_add_item(tp, &efip->efi_item);
453 list_sort(mp, items, xfs_extent_free_diff_items);
454 list_for_each_entry(free, items, xefi_list)
455 xfs_extent_free_log_item(tp, efip, free);
456 return &efip->efi_item;
459 /* Get an EFD so we can process all the free extents. */
460 static struct xfs_log_item *
461 xfs_extent_free_create_done(
462 struct xfs_trans *tp,
463 struct xfs_log_item *intent,
466 return &xfs_trans_get_efd(tp, EFI_ITEM(intent), count)->efd_item;
469 /* Process a free extent. */
471 xfs_extent_free_finish_item(
472 struct xfs_trans *tp,
473 struct xfs_log_item *done,
474 struct list_head *item,
475 struct xfs_btree_cur **state)
477 struct xfs_extent_free_item *free;
480 free = container_of(item, struct xfs_extent_free_item, xefi_list);
481 error = xfs_trans_free_extent(tp, EFD_ITEM(done),
482 free->xefi_startblock,
483 free->xefi_blockcount,
484 &free->xefi_oinfo, free->xefi_skip_discard);
485 kmem_cache_free(xfs_bmap_free_item_zone, free);
489 /* Abort all pending EFIs. */
491 xfs_extent_free_abort_intent(
492 struct xfs_log_item *intent)
494 xfs_efi_release(EFI_ITEM(intent));
497 /* Cancel a free extent. */
499 xfs_extent_free_cancel_item(
500 struct list_head *item)
502 struct xfs_extent_free_item *free;
504 free = container_of(item, struct xfs_extent_free_item, xefi_list);
505 kmem_cache_free(xfs_bmap_free_item_zone, free);
508 const struct xfs_defer_op_type xfs_extent_free_defer_type = {
509 .max_items = XFS_EFI_MAX_FAST_EXTENTS,
510 .create_intent = xfs_extent_free_create_intent,
511 .abort_intent = xfs_extent_free_abort_intent,
512 .create_done = xfs_extent_free_create_done,
513 .finish_item = xfs_extent_free_finish_item,
514 .cancel_item = xfs_extent_free_cancel_item,
518 * AGFL blocks are accounted differently in the reserve pools and are not
519 * inserted into the busy extent list.
522 xfs_agfl_free_finish_item(
523 struct xfs_trans *tp,
524 struct xfs_log_item *done,
525 struct list_head *item,
526 struct xfs_btree_cur **state)
528 struct xfs_mount *mp = tp->t_mountp;
529 struct xfs_efd_log_item *efdp = EFD_ITEM(done);
530 struct xfs_extent_free_item *free;
531 struct xfs_extent *extp;
532 struct xfs_buf *agbp;
538 free = container_of(item, struct xfs_extent_free_item, xefi_list);
539 ASSERT(free->xefi_blockcount == 1);
540 agno = XFS_FSB_TO_AGNO(mp, free->xefi_startblock);
541 agbno = XFS_FSB_TO_AGBNO(mp, free->xefi_startblock);
543 trace_xfs_agfl_free_deferred(mp, agno, 0, agbno, free->xefi_blockcount);
545 error = xfs_alloc_read_agf(mp, tp, agno, 0, &agbp);
547 error = xfs_free_agfl_block(tp, agno, agbno, agbp,
551 * Mark the transaction dirty, even on error. This ensures the
552 * transaction is aborted, which:
554 * 1.) releases the EFI and frees the EFD
555 * 2.) shuts down the filesystem
557 tp->t_flags |= XFS_TRANS_DIRTY;
558 set_bit(XFS_LI_DIRTY, &efdp->efd_item.li_flags);
560 next_extent = efdp->efd_next_extent;
561 ASSERT(next_extent < efdp->efd_format.efd_nextents);
562 extp = &(efdp->efd_format.efd_extents[next_extent]);
563 extp->ext_start = free->xefi_startblock;
564 extp->ext_len = free->xefi_blockcount;
565 efdp->efd_next_extent++;
567 kmem_cache_free(xfs_bmap_free_item_zone, free);
571 /* sub-type with special handling for AGFL deferred frees */
572 const struct xfs_defer_op_type xfs_agfl_free_defer_type = {
573 .max_items = XFS_EFI_MAX_FAST_EXTENTS,
574 .create_intent = xfs_extent_free_create_intent,
575 .abort_intent = xfs_extent_free_abort_intent,
576 .create_done = xfs_extent_free_create_done,
577 .finish_item = xfs_agfl_free_finish_item,
578 .cancel_item = xfs_extent_free_cancel_item,
582 * Process an extent free intent item that was recovered from
583 * the log. We need to free the extents that it describes.
586 xfs_efi_item_recover(
587 struct xfs_log_item *lip,
588 struct list_head *capture_list)
590 struct xfs_efi_log_item *efip = EFI_ITEM(lip);
591 struct xfs_mount *mp = lip->li_mountp;
592 struct xfs_efd_log_item *efdp;
593 struct xfs_trans *tp;
594 struct xfs_extent *extp;
595 xfs_fsblock_t startblock_fsb;
600 * First check the validity of the extents described by the
601 * EFI. If any are bad, then assume that all are bad and
604 for (i = 0; i < efip->efi_format.efi_nextents; i++) {
605 extp = &efip->efi_format.efi_extents[i];
606 startblock_fsb = XFS_BB_TO_FSB(mp,
607 XFS_FSB_TO_DADDR(mp, extp->ext_start));
608 if (startblock_fsb == 0 ||
609 extp->ext_len == 0 ||
610 startblock_fsb >= mp->m_sb.sb_dblocks ||
611 extp->ext_len >= mp->m_sb.sb_agblocks)
612 return -EFSCORRUPTED;
615 error = xfs_trans_alloc(mp, &M_RES(mp)->tr_itruncate, 0, 0, 0, &tp);
618 efdp = xfs_trans_get_efd(tp, efip, efip->efi_format.efi_nextents);
620 for (i = 0; i < efip->efi_format.efi_nextents; i++) {
621 extp = &efip->efi_format.efi_extents[i];
622 error = xfs_trans_free_extent(tp, efdp, extp->ext_start,
624 &XFS_RMAP_OINFO_ANY_OWNER, false);
630 return xfs_defer_ops_capture_and_commit(tp, NULL, capture_list);
633 xfs_trans_cancel(tp);
639 struct xfs_log_item *lip,
642 return EFI_ITEM(lip)->efi_format.efi_id == intent_id;
645 /* Relog an intent item to push the log tail forward. */
646 static struct xfs_log_item *
648 struct xfs_log_item *intent,
649 struct xfs_trans *tp)
651 struct xfs_efd_log_item *efdp;
652 struct xfs_efi_log_item *efip;
653 struct xfs_extent *extp;
656 count = EFI_ITEM(intent)->efi_format.efi_nextents;
657 extp = EFI_ITEM(intent)->efi_format.efi_extents;
659 tp->t_flags |= XFS_TRANS_DIRTY;
660 efdp = xfs_trans_get_efd(tp, EFI_ITEM(intent), count);
661 efdp->efd_next_extent = count;
662 memcpy(efdp->efd_format.efd_extents, extp, count * sizeof(*extp));
663 set_bit(XFS_LI_DIRTY, &efdp->efd_item.li_flags);
665 efip = xfs_efi_init(tp->t_mountp, count);
666 memcpy(efip->efi_format.efi_extents, extp, count * sizeof(*extp));
667 atomic_set(&efip->efi_next_extent, count);
668 xfs_trans_add_item(tp, &efip->efi_item);
669 set_bit(XFS_LI_DIRTY, &efip->efi_item.li_flags);
670 return &efip->efi_item;
673 static const struct xfs_item_ops xfs_efi_item_ops = {
674 .iop_size = xfs_efi_item_size,
675 .iop_format = xfs_efi_item_format,
676 .iop_unpin = xfs_efi_item_unpin,
677 .iop_release = xfs_efi_item_release,
678 .iop_recover = xfs_efi_item_recover,
679 .iop_match = xfs_efi_item_match,
680 .iop_relog = xfs_efi_item_relog,
684 * This routine is called to create an in-core extent free intent
685 * item from the efi format structure which was logged on disk.
686 * It allocates an in-core efi, copies the extents from the format
687 * structure into it, and adds the efi to the AIL with the given
691 xlog_recover_efi_commit_pass2(
693 struct list_head *buffer_list,
694 struct xlog_recover_item *item,
697 struct xfs_mount *mp = log->l_mp;
698 struct xfs_efi_log_item *efip;
699 struct xfs_efi_log_format *efi_formatp;
702 efi_formatp = item->ri_buf[0].i_addr;
704 efip = xfs_efi_init(mp, efi_formatp->efi_nextents);
705 error = xfs_efi_copy_format(&item->ri_buf[0], &efip->efi_format);
707 xfs_efi_item_free(efip);
710 atomic_set(&efip->efi_next_extent, efi_formatp->efi_nextents);
712 * Insert the intent into the AIL directly and drop one reference so
713 * that finishing or canceling the work will drop the other.
715 xfs_trans_ail_insert(log->l_ailp, &efip->efi_item, lsn);
716 xfs_efi_release(efip);
720 const struct xlog_recover_item_ops xlog_efi_item_ops = {
721 .item_type = XFS_LI_EFI,
722 .commit_pass2 = xlog_recover_efi_commit_pass2,
726 * This routine is called when an EFD format structure is found in a committed
727 * transaction in the log. Its purpose is to cancel the corresponding EFI if it
728 * was still in the log. To do this it searches the AIL for the EFI with an id
729 * equal to that in the EFD format structure. If we find it we drop the EFD
730 * reference, which removes the EFI from the AIL and frees it.
733 xlog_recover_efd_commit_pass2(
735 struct list_head *buffer_list,
736 struct xlog_recover_item *item,
739 struct xfs_efd_log_format *efd_formatp;
741 efd_formatp = item->ri_buf[0].i_addr;
742 ASSERT((item->ri_buf[0].i_len == (sizeof(xfs_efd_log_format_32_t) +
743 ((efd_formatp->efd_nextents - 1) * sizeof(xfs_extent_32_t)))) ||
744 (item->ri_buf[0].i_len == (sizeof(xfs_efd_log_format_64_t) +
745 ((efd_formatp->efd_nextents - 1) * sizeof(xfs_extent_64_t)))));
747 xlog_recover_release_intent(log, XFS_LI_EFI, efd_formatp->efd_efi_id);
751 const struct xlog_recover_item_ops xlog_efd_item_ops = {
752 .item_type = XFS_LI_EFD,
753 .commit_pass2 = xlog_recover_efd_commit_pass2,