return ret;
}
-static int ocfs2_request_delete(struct inode *inode)
-{
- int status = 0;
- struct ocfs2_super *osb = OCFS2_SB(inode->i_sb);
-
- if (ocfs2_inode_is_new(inode))
- return 0;
-
- if (ocfs2_node_map_is_only(osb, &osb->mounted_map,
- osb->node_num))
- return 0;
- /*
- * This is how ocfs2 determines whether an inode is still live
- * within the cluster. Every node takes a shared read lock on
- * the inode open lock in ocfs2_read_locked_inode(). When we
- * get to ->delete_inode(), each node tries to convert it's
- * lock to an exclusive. Trylocks are serialized by the inode
- * meta data lock. If the upconvert suceeds, we know the inode
- * is no longer live and can be deleted.
- *
- * Though we call this with the meta data lock held, the
- * trylock keeps us from ABBA deadlock.
- */
- status = ocfs2_try_open_lock(inode, 1);
- if (status < 0 && status != -EAGAIN)
- mlog_errno(status);
- return status;
-}
-
/* Query the cluster to determine whether we should wipe an inode from
* disk or not.
*
goto bail;
}
- status = ocfs2_request_delete(inode);
- /* -EAGAIN means that other nodes are still using the
- * inode. We're done here though, so avoid doing anything on
- * disk and let them worry about deleting it. */
+ /*
+ * This is how ocfs2 determines whether an inode is still live
+ * within the cluster. Every node takes a shared read lock on
+ * the inode open lock in ocfs2_read_locked_inode(). When we
+ * get to ->delete_inode(), each node tries to convert it's
+ * lock to an exclusive. Trylocks are serialized by the inode
+ * meta data lock. If the upconvert suceeds, we know the inode
+ * is no longer live and can be deleted.
+ *
+ * Though we call this with the meta data lock held, the
+ * trylock keeps us from ABBA deadlock.
+ */
+ status = ocfs2_try_open_lock(inode, 1);
if (status == -EAGAIN) {
status = 0;
mlog(0, "Skipping delete of %llu because it is in use on"