Delete repeated words in fs/xfs/.
{we, that, the, a, to, fork}
Change "it it" to "it is" in one location.
Signed-off-by: Randy Dunlap <rdunlap@infradead.org>
To: linux-fsdevel@vger.kernel.org
Cc: Darrick J. Wong <darrick.wong@oracle.com>
Cc: linux-xfs@vger.kernel.org
Reviewed-by: Darrick J. Wong <darrick.wong@oracle.com>
Signed-off-by: Darrick J. Wong <darrick.wong@oracle.com>
* disk. If neither are active, we should NULL the inode.
*
* In all cases, the separate pquotino must remain 0 because it
- * it beyond the "end" of the valid non-pquotino superblock.
+ * is beyond the "end" of the valid non-pquotino superblock.
*/
if (from->sb_qflags & XFS_GQUOTA_ACCT)
to->sb_gquotino = cpu_to_be64(from->sb_gquotino);
/*
* Copy out entries of shortform attribute lists for attr_list().
* Shortform attribute lists are not stored in hashval sorted order.
- * If the output buffer is not large enough to hold them all, then we
+ * If the output buffer is not large enough to hold them all, then
* we have to calculate each entries' hashvalue and sort them before
* we can begin returning them to the user.
*/
* stretch of non-contiguous chunks to be logged. Contiguous chunks are logged
* in a single iovec.
*
- * Discontiguous buffers need a format structure per region that that is being
+ * Discontiguous buffers need a format structure per region that is being
* logged. This makes the changes in the buffer appear to log recovery as though
* they came from separate buffers, just like would occur if multiple buffers
* were used instead of a single discontiguous buffer. This enables
* or inode_cluster_size bytes, whichever is bigger. The inode
* buffers in the log can be a different size if the log was generated
* by an older kernel using unclustered inode buffers or a newer kernel
- * running with a different inode cluster size. Regardless, if the
+ * running with a different inode cluster size. Regardless, if
* the inode buffer size isn't max(blocksize, inode_cluster_size)
* for *our* value of inode_cluster_size, then we need to keep
* the buffer out of the buffer cache so that the buffer won't
}
/*
- * Given the file system, id, and type (UDQUOT/GDQUOT), return a a locked
+ * Given the file system, id, and type (UDQUOT/GDQUOT), return a locked
* dquot, doing an allocation (if requested) as needed.
*/
int
fileid_type = FILEID_INO32_GEN_PARENT;
/*
- * If the the filesystem may contain 64bit inode numbers, we need
+ * If the filesystem may contain 64bit inode numbers, we need
* to use larger file handles that can represent them.
*
* While we only allocate inodes that do not fit into 32 bits any
/*
* Currently supports between 2 and 5 inodes with exclusive locking. We
* support an arbitrary depth of locking here, but absolute limits on
- * inodes depend on the the type of locking and the limits placed by
+ * inodes depend on the type of locking and the limits placed by
* lockdep annotations in xfs_lock_inumorder. These are all checked by
* the asserts.
*/
/*
* xfs_rename_alloc_whiteout()
*
- * Return a referenced, unlinked, unlocked inode that that can be used as a
+ * Return a referenced, unlinked, unlocked inode that can be used as a
* whiteout in a rename transaction. We use a tmpfile inode here so that if we
* crash between allocating the inode and linking it into the rename transaction
* recovery will free the inode and we won't leak it.
ip->i_df.if_bytes > 0) {
/*
* Round i_bytes up to a word boundary.
- * The underlying memory is guaranteed to
+ * The underlying memory is guaranteed
* to be there by xfs_idata_realloc().
*/
data_bytes = roundup(ip->i_df.if_bytes, 4);
ip->i_afp->if_bytes > 0) {
/*
* Round i_bytes up to a word boundary.
- * The underlying memory is guaranteed to
+ * The underlying memory is guaranteed
* to be there by xfs_idata_realloc().
*/
data_bytes = roundup(ip->i_afp->if_bytes, 4);
}
/*
- * Search the data fork fork first to look up our source mapping. We
+ * Search the data fork first to look up our source mapping. We
* always need the data fork map, as we have to return it to the
* iomap code so that the higher level write code can read data in to
* perform read-modify-write cycles for unaligned writes.
* this CIL context and so we need to pin it. If we are replacing the
* old_lv, then remove the space it accounts for and make it the shadow
* buffer for later freeing. In both cases we are now switching to the
- * shadow buffer, so update the the pointer to it appropriately.
+ * shadow buffer, so update the pointer to it appropriately.
*/
if (!old_lv) {
if (lv->lv_item->li_ops->iop_pin)
*
* Note that xlog_find_tail() clears the blocks at the new head
* (i.e., the records with invalid CRC) if the cycle number
- * matches the the current cycle.
+ * matches the current cycle.
*/
found = xlog_rseek_logrec_hdr(log, first_bad, *tail_blk, 1,
buffer, rhead_blk, rhead, wrapped);
* transaction. Normally, any work that needs to be deferred
* gets attached to the same defer_ops that scheduled the
* refcount update. However, we're in log recovery here, so we
- * we use the passed in defer_ops and to finish up any work that
+ * use the passed in defer_ops and to finish up any work that
* doesn't fit. We need to reserve enough blocks to handle a
* full btree split on either end of the refcount range.
*/
* repeatedly cycles the ILOCK to allocate one transaction per remapped
* extent.
*
- * If we're being called by writeback then the the pages will still
+ * If we're being called by writeback then the pages will still
* have PageWriteback set, which prevents races with reflink remapping
* and truncate. Reflink remapping prevents races with writeback by
* taking the iolock and mmaplock before flushing the pages and
* inode buffer is locked because we already pushed the
* updates to it as part of inode clustering.
*
- * We do not want to to stop flushing just because lots
+ * We do not want to stop flushing just because lots
* of items are already being flushed, but we need to
* re-try the flushing relatively soon if most of the
* AIL is being flushed.
/*
* Are there too many items we can't do anything with?
*
- * If we we are skipping too many items because we can't flush
+ * If we are skipping too many items because we can't flush
* them or they are already being flushed, we back off and
* given them time to complete whatever operation is being
* done. i.e. remove pressure from the AIL while we can't make
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