these typos.
SGI-PV: 904196
SGI-Modid: xfs-linux-melb:xfs-kern:25539a
Signed-off-by: Nathan Scott <nathans@sgi.com>
* Debug-only routine, without some platform-specific asm code, we can
* now only answer requests regarding whether we hold the lock for write
* (reader state is outside our visibility, we only track writer state).
- * Note: means !ismrlocked would give false positivies, so don't do that.
+ * Note: means !ismrlocked would give false positives, so don't do that.
*/
static inline int ismrlocked(mrlock_t *mrp, int type)
{
* assumes that all buffers on the page are started at the same time.
*
* The fix is two passes across the ioend list - one to start writeback on the
- * bufferheads, and then the second one submit them for I/O.
+ * buffer_heads, and then submit them for I/O on the second pass.
*/
STATIC void
xfs_submit_ioend(
/*
* page_dirty is initially a count of buffers on the page before
- * EOF and is decrememted as we move each into a cleanable state.
+ * EOF and is decremented as we move each into a cleanable state.
*
* Derivation:
*
* page if possible.
* The bh->b_state's cannot know if any of the blocks or which block for
* that matter are dirty due to mmap writes, and therefore bh uptodate is
- * only vaild if the page itself isn't completely uptodate. Some layers
+ * only valid if the page itself isn't completely uptodate. Some layers
* may clear the page dirty flag prior to calling write page, under the
* assumption the entire page will be written out; by not writing out the
* whole page the page can be reused before all valid dirty data is
/*
* page_dirty is initially a count of buffers on the page before
- * EOF and is decrememted as we move each into a cleanable state.
+ * EOF and is decremented as we move each into a cleanable state.
*
* Derivation:
*
/*
* Non-NULL private data means we need to issue a transaction to
* convert a range from unwritten to written extents. This needs
- * to happen from process contect but aio+dio I/O completion
+ * to happen from process context but aio+dio I/O completion
* happens from irq context so we need to defer it to a workqueue.
- * This is not nessecary for synchronous direct I/O, but we do
+ * This is not necessary for synchronous direct I/O, but we do
* it anyway to keep the code uniform and simpler.
*
* The core direct I/O code might be changed to always call the
}
/*
- * blockdev_direct_IO can return an error even afer the I/O
+ * blockdev_direct_IO can return an error even after the I/O
* completion handler was called. Thus we need to protect
* against double-freeing.
*/
* Note, the NFS filehandle also includes an fsid portion which
* may have an inode number in it. That number is hardcoded to
* 32bits and there is no way for XFS to intercept it. In
- * practice this means when exporting an XFS filesytem with 64bit
+ * practice this means when exporting an XFS filesystem with 64bit
* inodes you should either export the mountpoint (rather than
* a subdirectory) or use the "fsid" export option.
*/
eventsent = 1;
/*
- * The iolock was dropped and reaquired in XFS_SEND_DATA
+ * The iolock was dropped and reacquired in XFS_SEND_DATA
* so we have to recheck the size when appending.
* We will only "goto start;" once, since having sent the
* event prevents another call to XFS_SEND_DATA, which is
#define SYNC_FSDATA 0x0020 /* flush fs data (e.g. superblocks) */
#define SYNC_REFCACHE 0x0040 /* prune some of the nfs ref cache */
#define SYNC_REMOUNT 0x0080 /* remount readonly, no dummy LRs */
-#define SYNC_QUIESCE 0x0100 /* quiesce fileystem for a snapshot */
+#define SYNC_QUIESCE 0x0100 /* quiesce filesystem for a snapshot */
typedef int (*vfs_mount_t)(bhv_desc_t *,
struct xfs_mount_args *, struct cred *);
* as possible.
*
* We must not be holding the AIL_LOCK at this point. Calling incore() to
- * search the buffercache can be a time consuming thing, and AIL_LOCK is a
+ * search the buffer cache can be a time consuming thing, and AIL_LOCK is a
* spinlock.
*/
STATIC void
/*
* This is called at mount time from xfs_mountfs to initialize the quotainfo
- * structure and start the global quotamanager (xfs_Gqm) if it hasn't done
+ * structure and start the global quota manager (xfs_Gqm) if it hasn't done
* so already. Note that the superblock has not been read in yet.
*/
void
* Given a udquot and gdquot, attach a ptr to the group dquot in the
* udquot as a hint for future lookups. The idea sounds simple, but the
* execution isn't, because the udquot might have a group dquot attached
- * already and getting rid of that gets us into lock ordering contraints.
+ * already and getting rid of that gets us into lock ordering constraints.
* The process is complicated more by the fact that the dquots may or may not
* be locked on entry.
*/
}
/*
* If we can't grab the flush lock then if the caller
- * really wanted us to give this our best shot,
+ * really wanted us to give this our best shot, so
* see if we can give a push to the buffer before we wait
* on the flush lock. At this point, we know that
- * eventhough the dquot is being flushed,
+ * even though the dquot is being flushed,
* it has (new) dirty data.
*/
xfs_qm_dqflock_pushbuf_wait(dqp);
/*
* Do a sanity check, and if needed, repair the dqblk. Don't
* output any warnings because it's perfectly possible to
- * find unitialized dquot blks. See comment in xfs_qm_dqcheck.
+ * find uninitialised dquot blks. See comment in xfs_qm_dqcheck.
*/
(void) xfs_qm_dqcheck(ddq, id+j, type, XFS_QMOPT_DQREPAIR,
"xfs_quotacheck");
error = 0;
/*
- * This looks racey, but we can't keep an inode lock across a
+ * This looks racy, but we can't keep an inode lock across a
* trans_reserve. But, this gets called during quotacheck, and that
* happens only at mount time which is single threaded.
*/
* we have to start from the beginning anyway.
* Once we're done, we'll log all the dquot bufs.
*
- * The *QUOTA_ON checks below may look pretty racey, but quotachecks
+ * The *QUOTA_ON checks below may look pretty racy, but quotachecks
* and quotaoffs don't race. (Quotachecks happen at mount time only).
*/
if (XFS_IS_UQUOTA_ON(mp)) {
/*
* Internally, we don't reset all the timers when quota enforcement
- * gets turned off. No need to confuse the userlevel code,
+ * gets turned off. No need to confuse the user level code,
* so return zeroes in that case.
*/
if (! XFS_IS_QUOTA_ENFORCED(mp)) {
}
/*
- * Didnt change anything critical, so, no need to log
+ * Didn't change anything critical, so, no need to log
*/
return (0);
}
* The access control process to determine the access permission:
* if uid == file owner id, use the file owner bits.
* if gid == file owner group id, use the file group bits.
- * scan ACL for a maching user or group, and use matched entry
+ * scan ACL for a matching user or group, and use matched entry
* permission. Use total permissions of all matching group entries,
* until all acl entries are exhausted. The final permission produced
* by matching acl entry or entries needs to be & with group permission.
{
char pagf_init; /* this agf's entry is initialized */
char pagi_init; /* this agi's entry is initialized */
- char pagf_metadata; /* the agf is prefered to be metadata */
+ char pagf_metadata; /* the agf is preferred to be metadata */
char pagi_inodeok; /* The agi is ok for inodes */
__uint8_t pagf_levels[XFS_BTNUM_AGF];
/* # of levels in bno & cnt btree */
xfs_alloc_trace_busy(
char *name, /* function tag string */
char *str, /* additional string */
- xfs_mount_t *mp, /* file system mount poing */
+ xfs_mount_t *mp, /* file system mount point */
xfs_agnumber_t agno, /* allocation group number */
xfs_agblock_t agbno, /* a.g. relative block number */
xfs_extlen_t len, /* length of extent */
} else
agbp = NULL;
- /* If this is a metadata prefered pag and we are user data
+ /* If this is a metadata preferred pag and we are user data
* then try somewhere else if we are not being asked to
* try harder at this point
*/
/*
* AG Busy list management
* The busy list contains block ranges that have been freed but whose
- * transacations have not yet hit disk. If any block listed in a busy
+ * transactions have not yet hit disk. If any block listed in a busy
* list is reused, the transaction that freed it must be forced to disk
* before continuing to use the block.
*
xfs_alloctype_t otype; /* original allocation type */
char wasdel; /* set if allocation was prev delayed */
char wasfromfl; /* set if allocation is from freelist */
- char isfl; /* set if is freelist blocks - !actg */
+ char isfl; /* set if is freelist blocks - !acctg */
char userdata; /* set if this is user data */
} xfs_alloc_arg_t;
xfs_trans_ihold(args.trans, dp);
/*
- * If the attribute list is non-existant or a shortform list,
+ * If the attribute list is non-existent or a shortform list,
* upgrade it to a single-leaf-block attribute list.
*/
if ((dp->i_d.di_aformat == XFS_DINODE_FMT_LOCAL) ||
* Fill in the disk block numbers in the state structure for the buffers
* that are attached to the state structure.
* This is done so that we can quickly reattach ourselves to those buffers
- * after some set of transaction commit's has released these buffers.
+ * after some set of transaction commits have released these buffers.
*/
STATIC int
xfs_attr_fillstate(xfs_da_state_t *state)
/*
* Reattach the buffers to the state structure based on the disk block
* numbers stored in the state structure.
- * This is done after some set of transaction commit's has released those
+ * This is done after some set of transaction commits have released those
* buffers from our grip.
*/
STATIC int
/*
* Copy out entries of shortform attribute lists for attr_list().
- * Shortform atrtribute lists are not stored in hashval sorted order.
+ * Shortform attribute lists are not stored in hashval sorted order.
* If the output buffer is not large enough to hold them all, then we
* we have to calculate each entries' hashvalue and sort them before
* we can begin returning them to the user.
/*
* Check for the degenerate case of the block being empty.
* If the block is empty, we'll simply delete it, no need to
- * coalesce it with a sibling block. We choose (aribtrarily)
+ * coalesce it with a sibling block. We choose (arbitrarily)
* to merge with the forward block unless it is NULL.
*/
if (count == 0) {
* The behavior chain is ordered based on the 'position' number which
* lives in the first field of the ops vector (higher numbers first).
*
- * Attemps to insert duplicate ops result in an EINVAL return code.
+ * Attempts to insert duplicate ops result in an EINVAL return code.
* Otherwise, return 0 to indicate success.
*/
int
/*
* Remove a behavior descriptor from a position in a behavior chain;
- * the postition is guaranteed not to be the first position.
+ * the position is guaranteed not to be the first position.
* Should only be called by the bhv_remove() macro.
*/
void
* behaviors is synchronized with operations-in-progress (oip's) so that
* the oip's always see a consistent view of the chain.
*
- * The term "interpostion" is used to refer to the act of inserting
+ * The term "interposition" is used to refer to the act of inserting
* a behavior such that it interposes on (i.e., is inserted in front
* of) a particular other behavior. A key example of this is when a
* system implementing distributed single system image wishes to
*
* Behavior synchronization is logic which is necessary under certain
* circumstances that there is no conflict between ongoing operations
- * traversing the behavior chain and those dunamically modifying the
+ * traversing the behavior chain and those dynamically modifying the
* behavior chain. Because behavior synchronization adds extra overhead
* to virtual operation invocation, we want to restrict, as much as
* we can, the requirement for this extra code, to those situations
}
/*
- * This function is called to verify that our caller's have logged
+ * This function is called to verify that our callers have logged
* all the bytes that they changed.
*
* It does this by comparing the original copy of the buffer stored in
* the buf log item's bli_orig array to the current copy of the buffer
- * and ensuring that all bytes which miscompare are set in the bli_logged
+ * and ensuring that all bytes which mismatch are set in the bli_logged
* array of the buf log item.
*/
STATIC void
/*
* For Linux, we take the bitfields directly from capability.h
* and no longer attempt to keep this attribute ondisk compatible
- * with IRIX. Since this attribute is only set on exectuables,
+ * with IRIX. Since this attribute is only set on executables,
* it just doesn't make much sense to try. We do use a different
* named attribute though, to avoid confusion.
*/
/*
* Check for the degenerate case of the block being empty.
* If the block is empty, we'll simply delete it, no need to
- * coalesce it with a sibling block. We choose (aribtrarily)
+ * coalesce it with a sibling block. We choose (arbitrarily)
* to merge with the forward block unless it is NULL.
*/
if (count == 0) {
/*
* Reached the end of the block.
- * Set the offset to a nonexistent block 1 and return.
+ * Set the offset to a non-existent block 1 and return.
*/
*eofp = 1;
ASSERT(be32_to_cpu(leaf->ents[highstale].address) ==
XFS_DIR2_NULL_DATAPTR);
/*
- * Copy entries down to copver the stale entry
+ * Copy entries down to cover the stale entry
* and make room for the new entry.
*/
if (highstale - index > 0)
state->inleaf = 1;
blk2->index = 0;
cmn_err(CE_ALERT,
- "xfs_dir2_leafn_rebalance: picked the wrong leaf? reverting orignal leaf: "
+ "xfs_dir2_leafn_rebalance: picked the wrong leaf? reverting original leaf: "
"blk1->index %d\n",
blk1->index);
}
/*
* Check for the degenerate case of the block being empty.
* If the block is empty, we'll simply delete it, no need to
- * coalesce it with a sibling block. We choose (aribtrarily)
+ * coalesce it with a sibling block. We choose (arbitrarily)
* to merge with the forward block unless it is NULL.
*/
if (count == 0) {
*
* xfs_reserve_blocks is called to set m_resblks
* in the in-core mount table. The number of unused reserved blocks
- * is kept in m_resbls_avail.
+ * is kept in m_resblks_avail.
*
* Reserve the requested number of blocks if available. Otherwise return
* as many as possible to satisfy the request. The actual number
rec.ir_freecount++;
/*
- * When an inode cluster is free, it becomes elgible for removal
+ * When an inode cluster is free, it becomes eligible for removal
*/
if ((mp->m_flags & XFS_MOUNT_IDELETE) &&
(rec.ir_freecount == XFS_IALLOC_INODES(mp))) {
} else {
/*
* If the inode is not fully constructed due to
- * filehandle mistmatches wait for the inode to go
+ * filehandle mismatches wait for the inode to go
* away and try again.
*
* iget_locked will call __wait_on_freeing_inode
xfs_dinode_t *dip;
/*
- * Call the space managment code to find the location of the
+ * Call the space management code to find the location of the
* inode on disk.
*/
imap.im_blkno = 0;
/*
* Given a mount structure and an inode number, return a pointer
- * to a newly allocated in-core inode coresponding to the given
+ * to a newly allocated in-core inode corresponding to the given
* inode number.
*
* Initialize the inode's attributes and extent pointers if it
/*
* Decrement the pin count of the given inode, and wake up
* anyone in xfs_iwait_unpin() if the count goes to 0. The
- * inode must have been previoulsy pinned with a call to xfs_ipin().
+ * inode must have been previously pinned with a call to xfs_ipin().
*/
void
xfs_iunpin(
xfs_iext_add(
xfs_ifork_t *ifp, /* inode fork pointer */
xfs_extnum_t idx, /* index to begin adding exts */
- int ext_diff) /* nubmer of extents to add */
+ int ext_diff) /* number of extents to add */
{
int byte_diff; /* new bytes being added */
int new_size; /* size of extents after adding */
xfs_extnum_t ext_diff; /* extents to remove in current list */
xfs_extnum_t nex1; /* number of extents before idx */
xfs_extnum_t nex2; /* extents after idx + count */
- int nlists; /* entries in indirecton array */
+ int nlists; /* entries in indirection array */
int page_idx = idx; /* index in target extent list */
ASSERT(ifp->if_flags & XFS_IFEXTIREC);
xfs_filblks_t blockcount = 0; /* number of blocks in extent */
xfs_bmbt_rec_t *ep = NULL; /* pointer to target extent */
xfs_ext_irec_t *erp = NULL; /* indirection array pointer */
- int high; /* upper boundry in search */
+ int high; /* upper boundary in search */
xfs_extnum_t idx = 0; /* index of target extent */
- int low; /* lower boundry in search */
+ int low; /* lower boundary in search */
xfs_extnum_t nextents; /* number of file extents */
xfs_fileoff_t startoff = 0; /* start offset of extent */
* been or is in the process of being flushed, then (ideally) we'd like to
* see if the inode's buffer is still incore, and if so give it a nudge.
* We delay doing so until the pushbuf routine, though, to avoid holding
- * the AIL lock across a call to the blackhole which is the buffercache.
+ * the AIL lock across a call to the blackhole which is the buffer cache.
* Also we don't want to sleep in any device strategy routines, which can happen
* if we do the subsequent bawrite in here.
*/
size_t statstruct_size, /* sizeof struct filling */
char __user *ubuffer, /* buffer with inode stats */
int flags, /* defined in xfs_itable.h */
- int *done) /* 1 if there're more stats to get */
+ int *done) /* 1 if there are more stats to get */
{
xfs_agblock_t agbno=0;/* allocation group block number */
xfs_buf_t *agbp; /* agi header buffer */
xfs_mount_t *mp, /* mount point for filesystem */
xfs_ino_t *lastinop, /* inode to return */
char __user *buffer, /* buffer with inode stats */
- int *done) /* 1 if there're more stats to get */
+ int *done) /* 1 if there are more stats to get */
{
int count; /* count value for bulkstat call */
int error; /* return value */
size_t statstruct_size,/* sizeof struct that we're filling */
char __user *ubuffer,/* buffer with inode stats */
int flags, /* flag to control access method */
- int *done); /* 1 if there're more stats to get */
+ int *done); /* 1 if there are more stats to get */
int
xfs_bulkstat_single(
int num_bblks);
STATIC int xlog_space_left(xlog_t *log, int cycle, int bytes);
STATIC int xlog_sync(xlog_t *log, xlog_in_core_t *iclog);
-STATIC void xlog_unalloc_log(xlog_t *log);
+STATIC void xlog_dealloc_log(xlog_t *log);
STATIC int xlog_write(xfs_mount_t *mp, xfs_log_iovec_t region[],
int nentries, xfs_log_ticket_t tic,
xfs_lsn_t *start_lsn,
if ((ticket->t_flags & XLOG_TIC_PERM_RESERV) == 0 ||
(flags & XFS_LOG_REL_PERM_RESERV)) {
/*
- * Release ticket if not permanent reservation or a specifc
+ * Release ticket if not permanent reservation or a specific
* request has been made to release a permanent reservation.
*/
xlog_trace_loggrant(log, ticket, "xfs_log_done: (non-permanent)");
vfsp->vfs_flag |= VFS_RDONLY;
if (error) {
cmn_err(CE_WARN, "XFS: log mount/recovery failed: error %d", error);
- xlog_unalloc_log(mp->m_log);
+ xlog_dealloc_log(mp->m_log);
return error;
}
}
*
* Go through the motions of sync'ing and releasing
* the iclog, even though no I/O will actually happen,
- * we need to wait for other log I/O's that may already
+ * we need to wait for other log I/Os that may already
* be in progress. Do this as a separate section of
* code so we'll know if we ever get stuck here that
* we're in this odd situation of trying to unmount
void
xfs_log_unmount_dealloc(xfs_mount_t *mp)
{
- xlog_unalloc_log(mp->m_log);
+ xlog_dealloc_log(mp->m_log);
}
/*
ASSERT(XFS_BUF_ADDR(bp) <= log->l_logBBsize-1);
ASSERT(XFS_BUF_ADDR(bp) + BTOBB(count) <= log->l_logBBsize);
- /* account for internal log which does't start at block #0 */
+ /* account for internal log which doesn't start at block #0 */
XFS_BUF_SET_ADDR(bp, XFS_BUF_ADDR(bp) + log->l_logBBstart);
XFS_BUF_WRITE(bp);
if ((error = XFS_bwrite(bp))) {
/*
- * Unallocate a log structure
+ * Deallocate a log structure
*/
void
-xlog_unalloc_log(xlog_t *log)
+xlog_dealloc_log(xlog_t *log)
{
xlog_in_core_t *iclog, *next_iclog;
xlog_ticket_t *tic, *next_tic;
if ((log->l_ticket_cnt != log->l_ticket_tcnt) &&
!XLOG_FORCED_SHUTDOWN(log)) {
xfs_fs_cmn_err(CE_WARN, log->l_mp,
- "xlog_unalloc_log: (cnt: %d, total: %d)",
+ "xlog_dealloc_log: (cnt: %d, total: %d)",
log->l_ticket_cnt, log->l_ticket_tcnt);
/* ASSERT(log->l_ticket_cnt == log->l_ticket_tcnt); */
#endif
log->l_mp->m_log = NULL;
kmem_free(log, sizeof(xlog_t));
-} /* xlog_unalloc_log */
+} /* xlog_dealloc_log */
/*
* Update counters atomically now that memcpy is done.
/*
* We let the log lock go, so it's possible that we hit a log I/O
- * error or someother SHUTDOWN condition that marks the iclog
+ * error or some other SHUTDOWN condition that marks the iclog
* as XLOG_STATE_IOERROR before the bwrite. However, we know that
* this iclog has consistent data, so we ignore IOERROR
* flags after this point.
#ifdef __KERNEL__
/*
- * By comparing each compnent, we don't have to worry about extra
+ * By comparing each component, we don't have to worry about extra
* endian issues in treating two 32 bit numbers as one 64 bit number
*/
static inline xfs_lsn_t _lsn_cmp(xfs_lsn_t lsn1, xfs_lsn_t lsn2)
* x | x ... | x - 1 | x
* Another case that fits this picture would be
* x | x + 1 | x ... | x
- * In this case the head really is somwhere at the end of the
+ * In this case the head really is somewhere at the end of the
* log, as one of the latest writes at the beginning was
* incomplete.
* One more case is
* we don't need to worry about the block number being
* truncated in > 1 TB buffers because in user-land,
* we're now n32 or 64-bit so xfs_daddr_t is 64-bits so
- * the blkno's will get through the user-mode buffer
+ * the blknos will get through the user-mode buffer
* cache properly. The only bad case is o32 kernels
* where xfs_daddr_t is 32-bits but mount will warn us
* off a > 1 TB filesystem before we get here.
break;
}
- /* This ag is prefered for inodes */
+ /* This ag is preferred for inodes */
pag = &mp->m_perag[index];
pag->pagi_inodeok = 1;
if (index < max_metadata)
* We cannot use the hotcpu_register() function because it does
* not allow notifier instances. We need a notifier per filesystem
* as we need to be able to identify the filesystem to balance
- * the counters out. This is acheived by having a notifier block
+ * the counters out. This is achieved by having a notifier block
* embedded in the xfs_mount_t and doing pointer magic to get the
* mount pointer from the notifier block address.
*/
#endif
int m_dalign; /* stripe unit */
int m_swidth; /* stripe width */
- int m_sinoalign; /* stripe unit inode alignmnt */
+ int m_sinoalign; /* stripe unit inode alignment */
int m_attr_magicpct;/* 37% of the blocksize */
int m_dir_magicpct; /* 37% of the dir blocksize */
__uint8_t m_mk_sharedro; /* mark shared ro on unmount */
typedef __uint32_t xfs_dqid_t;
/*
- * Eventhough users may not have quota limits occupying all 64-bits,
+ * Even though users may not have quota limits occupying all 64-bits,
* they may need 64-bit accounting. Hence, 64-bit quota-counters,
* and quota-limits. This is a waste in the common case, but hey ...
*/
#ifdef __KERNEL__
/*
* This check is done typically without holding the inode lock;
- * that may seem racey, but it is harmless in the context that it is used.
+ * that may seem racy, but it is harmless in the context that it is used.
* The inode cannot go inactive as long a reference is kept, and
* therefore if dquot(s) were attached, they'll stay consistent.
* If, for example, the ownership of the inode changes while
case XFS_TRANS_SB_RES_FREXTENTS:
/*
* The allocation has already been applied to the
- * in-core superblocks's counter. This should only
+ * in-core superblock's counter. This should only
* be applied to the on-disk superblock.
*/
ASSERT(delta < 0);
if (whole)
/*
- * Log the whole thing, the fields are discontiguous.
+ * Log the whole thing, the fields are noncontiguous.
*/
xfs_trans_log_buf(tp, bp, 0, sizeof(xfs_sb_t) - 1);
else
/*
* Apply any superblock modifications to the in-core version.
* The t_res_fdblocks_delta and t_res_frextents_delta fields are
- * explicity NOT applied to the in-core superblock.
+ * explicitly NOT applied to the in-core superblock.
* The idea is that that has already been done.
*/
if (tp->t_flags & XFS_TRANS_SB_DIRTY) {
xfs_lsn_t t_commit_lsn; /* log seq num of end of
* transaction. */
struct xfs_mount *t_mountp; /* ptr to fs mount struct */
- struct xfs_dquot_acct *t_dqinfo; /* accting info for dquots */
+ struct xfs_dquot_acct *t_dqinfo; /* acctg info for dquots */
xfs_trans_callback_t t_callback; /* transaction callback */
void *t_callarg; /* callback arg */
unsigned int t_flags; /* misc flags */
* This is to coordinate with the xfs_iflush() and xfs_iflush_done()
* routines in the eventual clearing of the ilf_fields bits.
* See the big comment in xfs_iflush() for an explanation of
- * this coorination mechanism.
+ * this coordination mechanism.
*/
flags |= ip->i_itemp->ili_last_fields;
ip->i_itemp->ili_format.ilf_fields |= flags;
* determine if they should be flushed sync, async, or
* delwri.
* SYNC_CLOSE - This flag is passed when the system is being
- * unmounted. We should sync and invalidate everthing.
+ * unmounted. We should sync and invalidate everything.
* SYNC_FSDATA - This indicates that the caller would like to make
* sure the superblock is safe on disk. We can ensure
- * this by simply makeing sure the log gets flushed
+ * this by simply making sure the log gets flushed
* if SYNC_BDFLUSH is set, and by actually writing it
* out otherwise.
*
*
* This routine supports all of the flags defined for the generic VFS_SYNC
* interface as explained above under xfs_sync. In the interests of not
- * changing interfaces within the 6.5 family, additional internallly-
+ * changing interfaces within the 6.5 family, additional internally-
* required functions are specified within a separate xflags parameter,
* only available by calling this routine.
*
* If this is just vfs_sync() or pflushd() calling
* then we can skip inodes for which it looks like
* there is nothing to do. Since we don't have the
- * inode locked this is racey, but these are periodic
+ * inode locked this is racy, but these are periodic
* calls so it doesn't matter. For the others we want
* to know for sure, so we at least try to lock them.
*/
*
* This routine supports all of the flags defined for the generic VFS_SYNC
* interface as explained above under xfs_sync. In the interests of not
- * changing interfaces within the 6.5 family, additional internallly-
+ * changing interfaces within the 6.5 family, additional internally-
* required functions are specified within a separate xflags parameter,
* only available by calling this routine.
*
* If this is a synchronous mount, make sure that the
* transaction goes to disk before returning to the user.
* This is slightly sub-optimal in that truncates require
- * two sync transactions instead of one for wsync filesytems.
+ * two sync transactions instead of one for wsync filesystems.
* One for the truncate and one for the timestamps since we
* don't want to change the timestamps unless we're sure the
* truncate worked. Truncates are less than 1% of the laddis
/*
* If this inode is on the RT dev we need to flush that
- * cache aswell.
+ * cache as well.
*/
if (ip->i_d.di_flags & XFS_DIFLAG_REALTIME)
xfs_blkdev_issue_flush(ip->i_mount->m_rtdev_targp);
*/
ntp = xfs_trans_dup(tp);
/*
- * Commit the transaction containing extent freeing and EFD's.
+ * Commit the transaction containing extent freeing and EFDs.
* If we get an error on the commit here or on the reserve below,
* we need to unlock the inode since the new transaction doesn't
* have the inode attached.
XFS_QM_DQRELE(mp, gdqp);
/*
- * Propogate the fact that the vnode changed after the
+ * Propagate the fact that the vnode changed after the
* xfs_inode locks have been released.
*/
VOP_VNODE_CHANGE(vp, VCHANGE_FLAGS_TRUNCATED, 3);
* for a log reservation. Since we'll have to wait for the
* inactive code to complete before returning from xfs_iget,
* we need to make sure that we don't have log space reserved
- * when we call xfs_iget. Instead we get an unlocked referece
+ * when we call xfs_iget. Instead we get an unlocked reference
* to the inode before getting our log reservation.
*/
error = xfs_get_dir_entry(dentry, &ip);
* for a log reservation. Since we'll have to wait for the
* inactive code to complete before returning from xfs_iget,
* we need to make sure that we don't have log space reserved
- * when we call xfs_iget. Instead we get an unlocked referece
+ * when we call xfs_iget. Instead we get an unlocked reference
* to the inode before getting our log reservation.
*/
error = xfs_get_dir_entry(dentry, &cdp);