STATIC int xfs_sync_inode_data( struct xfs_inode *ip, struct xfs_perag *pag, int flags) { struct inode *inode = VFS_I(ip); struct address_space *mapping = inode->i_mapping; int error = 0; if (!mapping_tagged(mapping, PAGECACHE_TAG_DIRTY)) goto out_wait; if (!xfs_ilock_nowait(ip, XFS_IOLOCK_SHARED)) { if (flags & SYNC_TRYLOCK) goto out_wait; xfs_ilock(ip, XFS_IOLOCK_SHARED); } error = xfs_flush_pages(ip, 0, -1, (flags & SYNC_WAIT) ? 0 : XBF_ASYNC, FI_NONE); xfs_iunlock(ip, XFS_IOLOCK_SHARED); out_wait: if (flags & SYNC_WAIT) xfs_ioend_wait(ip); return error; }
STATIC ssize_t xfs_file_buffered_aio_write( struct kiocb *iocb, const struct iovec *iovp, unsigned long nr_segs, loff_t pos, size_t ocount) { struct file *file = iocb->ki_filp; struct address_space *mapping = file->f_mapping; struct inode *inode = mapping->host; struct xfs_inode *ip = XFS_I(inode); ssize_t ret; int enospc = 0; int iolock = XFS_IOLOCK_EXCL; size_t count = ocount; xfs_rw_ilock(ip, iolock); ret = xfs_file_aio_write_checks(file, &pos, &count, &iolock); if (ret) goto out; /* We can write back this queue in page reclaim */ current->backing_dev_info = mapping->backing_dev_info; write_retry: trace_xfs_file_buffered_write(ip, count, iocb->ki_pos, 0); ret = generic_file_buffered_write(iocb, iovp, nr_segs, pos, &iocb->ki_pos, count, ret); /* * if we just got an ENOSPC, flush the inode now we aren't holding any * page locks and retry *once* */ if (ret == -ENOSPC && !enospc) { enospc = 1; ret = -xfs_flush_pages(ip, 0, -1, 0, FI_NONE); if (!ret) goto write_retry; } current->backing_dev_info = NULL; out: xfs_rw_iunlock(ip, iolock); return ret; }
STATIC ssize_t xfs_file_aio_write( struct kiocb *iocb, const struct iovec *iovp, unsigned long nr_segs, loff_t pos) { struct file *file = iocb->ki_filp; struct address_space *mapping = file->f_mapping; struct inode *inode = mapping->host; struct xfs_inode *ip = XFS_I(inode); struct xfs_mount *mp = ip->i_mount; ssize_t ret = 0, error = 0; int ioflags = 0; xfs_fsize_t isize, new_size; int iolock; int eventsent = 0; size_t ocount = 0, count; int need_i_mutex; XFS_STATS_INC(xs_write_calls); BUG_ON(iocb->ki_pos != pos); if (unlikely(file->f_flags & O_DIRECT)) ioflags |= IO_ISDIRECT; if (file->f_mode & FMODE_NOCMTIME) ioflags |= IO_INVIS; error = generic_segment_checks(iovp, &nr_segs, &ocount, VERIFY_READ); if (error) return error; count = ocount; if (count == 0) return 0; xfs_wait_for_freeze(mp, SB_FREEZE_WRITE); if (XFS_FORCED_SHUTDOWN(mp)) return -EIO; relock: if (ioflags & IO_ISDIRECT) { iolock = XFS_IOLOCK_SHARED; need_i_mutex = 0; } else { iolock = XFS_IOLOCK_EXCL; need_i_mutex = 1; mutex_lock(&inode->i_mutex); } xfs_ilock(ip, XFS_ILOCK_EXCL|iolock); start: error = -generic_write_checks(file, &pos, &count, S_ISBLK(inode->i_mode)); if (error) { xfs_iunlock(ip, XFS_ILOCK_EXCL|iolock); goto out_unlock_mutex; } if ((DM_EVENT_ENABLED(ip, DM_EVENT_WRITE) && !(ioflags & IO_INVIS) && !eventsent)) { int dmflags = FILP_DELAY_FLAG(file); if (need_i_mutex) dmflags |= DM_FLAGS_IMUX; xfs_iunlock(ip, XFS_ILOCK_EXCL); error = XFS_SEND_DATA(ip->i_mount, DM_EVENT_WRITE, ip, pos, count, dmflags, &iolock); if (error) { goto out_unlock_internal; } xfs_ilock(ip, XFS_ILOCK_EXCL); eventsent = 1; /* * 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 * what allows the size to change in the first place. */ if ((file->f_flags & O_APPEND) && pos != ip->i_size) goto start; } if (ioflags & IO_ISDIRECT) { xfs_buftarg_t *target = XFS_IS_REALTIME_INODE(ip) ? mp->m_rtdev_targp : mp->m_ddev_targp; if ((pos & target->bt_smask) || (count & target->bt_smask)) { xfs_iunlock(ip, XFS_ILOCK_EXCL|iolock); return XFS_ERROR(-EINVAL); } if (!need_i_mutex && (mapping->nrpages || pos > ip->i_size)) { xfs_iunlock(ip, XFS_ILOCK_EXCL|iolock); iolock = XFS_IOLOCK_EXCL; need_i_mutex = 1; mutex_lock(&inode->i_mutex); xfs_ilock(ip, XFS_ILOCK_EXCL|iolock); goto start; } } new_size = pos + count; if (new_size > ip->i_size) ip->i_new_size = new_size; if (likely(!(ioflags & IO_INVIS))) file_update_time(file); /* * If the offset is beyond the size of the file, we have a couple * of things to do. First, if there is already space allocated * we need to either create holes or zero the disk or ... * * If there is a page where the previous size lands, we need * to zero it out up to the new size. */ if (pos > ip->i_size) { error = xfs_zero_eof(ip, pos, ip->i_size); if (error) { xfs_iunlock(ip, XFS_ILOCK_EXCL); goto out_unlock_internal; } } xfs_iunlock(ip, XFS_ILOCK_EXCL); /* * If we're writing the file then make sure to clear the * setuid and setgid bits if the process is not being run * by root. This keeps people from modifying setuid and * setgid binaries. */ error = -file_remove_suid(file); if (unlikely(error)) goto out_unlock_internal; /* We can write back this queue in page reclaim */ current->backing_dev_info = mapping->backing_dev_info; if ((ioflags & IO_ISDIRECT)) { if (mapping->nrpages) { WARN_ON(need_i_mutex == 0); error = xfs_flushinval_pages(ip, (pos & PAGE_CACHE_MASK), -1, FI_REMAPF_LOCKED); if (error) goto out_unlock_internal; } if (need_i_mutex) { /* demote the lock now the cached pages are gone */ xfs_ilock_demote(ip, XFS_IOLOCK_EXCL); mutex_unlock(&inode->i_mutex); iolock = XFS_IOLOCK_SHARED; need_i_mutex = 0; } trace_xfs_file_direct_write(ip, count, iocb->ki_pos, ioflags); ret = generic_file_direct_write(iocb, iovp, &nr_segs, pos, &iocb->ki_pos, count, ocount); /* * direct-io write to a hole: fall through to buffered I/O * for completing the rest of the request. */ if (ret >= 0 && ret != count) { XFS_STATS_ADD(xs_write_bytes, ret); pos += ret; count -= ret; ioflags &= ~IO_ISDIRECT; xfs_iunlock(ip, iolock); goto relock; } } else { int enospc = 0; ssize_t ret2 = 0; write_retry: trace_xfs_file_buffered_write(ip, count, iocb->ki_pos, ioflags); ret2 = generic_file_buffered_write(iocb, iovp, nr_segs, pos, &iocb->ki_pos, count, ret); /* * if we just got an ENOSPC, flush the inode now we * aren't holding any page locks and retry *once* */ if (ret2 == -ENOSPC && !enospc) { error = xfs_flush_pages(ip, 0, -1, 0, FI_NONE); if (error) goto out_unlock_internal; enospc = 1; goto write_retry; } ret = ret2; } current->backing_dev_info = NULL; isize = i_size_read(inode); if (unlikely(ret < 0 && ret != -EFAULT && iocb->ki_pos > isize)) iocb->ki_pos = isize; if (iocb->ki_pos > ip->i_size) { xfs_ilock(ip, XFS_ILOCK_EXCL); if (iocb->ki_pos > ip->i_size) ip->i_size = iocb->ki_pos; xfs_iunlock(ip, XFS_ILOCK_EXCL); } if (ret == -ENOSPC && DM_EVENT_ENABLED(ip, DM_EVENT_NOSPACE) && !(ioflags & IO_INVIS)) { xfs_iunlock(ip, iolock); if (need_i_mutex) mutex_unlock(&inode->i_mutex); error = XFS_SEND_NAMESP(ip->i_mount, DM_EVENT_NOSPACE, ip, DM_RIGHT_NULL, ip, DM_RIGHT_NULL, NULL, NULL, 0, 0, 0); /* Delay flag intentionally unused */ if (need_i_mutex) mutex_lock(&inode->i_mutex); xfs_ilock(ip, iolock); if (error) goto out_unlock_internal; goto start; } error = -ret; if (ret <= 0) goto out_unlock_internal; XFS_STATS_ADD(xs_write_bytes, ret); /* Handle various SYNC-type writes */ if ((file->f_flags & O_DSYNC) || IS_SYNC(inode)) { loff_t end = pos + ret - 1; int error2; xfs_iunlock(ip, iolock); if (need_i_mutex) mutex_unlock(&inode->i_mutex); error2 = filemap_write_and_wait_range(mapping, pos, end); if (!error) error = error2; if (need_i_mutex) mutex_lock(&inode->i_mutex); xfs_ilock(ip, iolock); error2 = -xfs_file_fsync(file, file->f_path.dentry, (file->f_flags & __O_SYNC) ? 0 : 1); if (!error) error = error2; } out_unlock_internal: if (ip->i_new_size) { xfs_ilock(ip, XFS_ILOCK_EXCL); ip->i_new_size = 0; /* * If this was a direct or synchronous I/O that failed (such * as ENOSPC) then part of the I/O may have been written to * disk before the error occured. In this case the on-disk * file size may have been adjusted beyond the in-memory file * size and now needs to be truncated back. */ if (ip->i_d.di_size > ip->i_size) ip->i_d.di_size = ip->i_size; xfs_iunlock(ip, XFS_ILOCK_EXCL); } xfs_iunlock(ip, iolock); out_unlock_mutex: if (need_i_mutex) mutex_unlock(&inode->i_mutex); return -error; }
/* * Truncate file. Must have write permission and not be a directory. */ int xfs_setattr_size( struct xfs_inode *ip, struct iattr *iattr, int flags) { struct xfs_mount *mp = ip->i_mount; struct inode *inode = VFS_I(ip); int mask = iattr->ia_valid; struct xfs_trans *tp; int error; uint lock_flags; uint commit_flags = 0; trace_xfs_setattr(ip); if (mp->m_flags & XFS_MOUNT_RDONLY) return XFS_ERROR(EROFS); if (XFS_FORCED_SHUTDOWN(mp)) return XFS_ERROR(EIO); error = -inode_change_ok(inode, iattr); if (error) return XFS_ERROR(error); ASSERT(S_ISREG(ip->i_d.di_mode)); ASSERT((mask & (ATTR_MODE|ATTR_UID|ATTR_GID|ATTR_ATIME|ATTR_ATIME_SET| ATTR_MTIME_SET|ATTR_KILL_SUID|ATTR_KILL_SGID| ATTR_KILL_PRIV|ATTR_TIMES_SET)) == 0); lock_flags = XFS_ILOCK_EXCL; if (!(flags & XFS_ATTR_NOLOCK)) lock_flags |= XFS_IOLOCK_EXCL; xfs_ilock(ip, lock_flags); /* * Short circuit the truncate case for zero length files. */ if (iattr->ia_size == 0 && ip->i_size == 0 && ip->i_d.di_nextents == 0) { if (!(mask & (ATTR_CTIME|ATTR_MTIME))) goto out_unlock; /* * Use the regular setattr path to update the timestamps. */ xfs_iunlock(ip, lock_flags); iattr->ia_valid &= ~ATTR_SIZE; return xfs_setattr_nonsize(ip, iattr, 0); } /* * Make sure that the dquots are attached to the inode. */ error = xfs_qm_dqattach_locked(ip, 0); if (error) goto out_unlock; /* * Now we can make the changes. Before we join the inode to the * transaction, take care of the part of the truncation that must be * done without the inode lock. This needs to be done before joining * the inode to the transaction, because the inode cannot be unlocked * once it is a part of the transaction. */ if (iattr->ia_size > ip->i_size) { /* * Do the first part of growing a file: zero any data in the * last block that is beyond the old EOF. We need to do this * before the inode is joined to the transaction to modify * i_size. */ error = xfs_zero_eof(ip, iattr->ia_size, ip->i_size); if (error) goto out_unlock; } xfs_iunlock(ip, XFS_ILOCK_EXCL); lock_flags &= ~XFS_ILOCK_EXCL; /* * We are going to log the inode size change in this transaction so * any previous writes that are beyond the on disk EOF and the new * EOF that have not been written out need to be written here. If we * do not write the data out, we expose ourselves to the null files * problem. * * Only flush from the on disk size to the smaller of the in memory * file size or the new size as that's the range we really care about * here and prevents waiting for other data not within the range we * care about here. */ if (ip->i_size != ip->i_d.di_size && iattr->ia_size > ip->i_d.di_size) { error = xfs_flush_pages(ip, ip->i_d.di_size, iattr->ia_size, XBF_ASYNC, FI_NONE); if (error) goto out_unlock; } /* * Wait for all I/O to complete. */ xfs_ioend_wait(ip); error = -block_truncate_page(inode->i_mapping, iattr->ia_size, xfs_get_blocks); if (error) goto out_unlock; tp = xfs_trans_alloc(mp, XFS_TRANS_SETATTR_SIZE); error = xfs_trans_reserve(tp, 0, XFS_ITRUNCATE_LOG_RES(mp), 0, XFS_TRANS_PERM_LOG_RES, XFS_ITRUNCATE_LOG_COUNT); if (error) goto out_trans_cancel; truncate_setsize(inode, iattr->ia_size); commit_flags = XFS_TRANS_RELEASE_LOG_RES; lock_flags |= XFS_ILOCK_EXCL; xfs_ilock(ip, XFS_ILOCK_EXCL); xfs_trans_ijoin(tp, ip); /* * Only change the c/mtime if we are changing the size or we are * explicitly asked to change it. This handles the semantic difference * between truncate() and ftruncate() as implemented in the VFS. * * The regular truncate() case without ATTR_CTIME and ATTR_MTIME is a * special case where we need to update the times despite not having * these flags set. For all other operations the VFS set these flags * explicitly if it wants a timestamp update. */ if (iattr->ia_size != ip->i_size && (!(mask & (ATTR_CTIME | ATTR_MTIME)))) { iattr->ia_ctime = iattr->ia_mtime = current_fs_time(inode->i_sb); mask |= ATTR_CTIME | ATTR_MTIME; } if (iattr->ia_size > ip->i_size) { ip->i_d.di_size = iattr->ia_size; ip->i_size = iattr->ia_size; } else if (iattr->ia_size <= ip->i_size || (iattr->ia_size == 0 && ip->i_d.di_nextents)) { error = xfs_itruncate_data(&tp, ip, iattr->ia_size); if (error) goto out_trans_abort; /* * Truncated "down", so we're removing references to old data * here - if we delay flushing for a long time, we expose * ourselves unduly to the notorious NULL files problem. So, * we mark this inode and flush it when the file is closed, * and do not wait the usual (long) time for writeout. */ xfs_iflags_set(ip, XFS_ITRUNCATED); } if (mask & ATTR_CTIME) { inode->i_ctime = iattr->ia_ctime; ip->i_d.di_ctime.t_sec = iattr->ia_ctime.tv_sec; ip->i_d.di_ctime.t_nsec = iattr->ia_ctime.tv_nsec; ip->i_update_core = 1; } if (mask & ATTR_MTIME) { inode->i_mtime = iattr->ia_mtime; ip->i_d.di_mtime.t_sec = iattr->ia_mtime.tv_sec; ip->i_d.di_mtime.t_nsec = iattr->ia_mtime.tv_nsec; ip->i_update_core = 1; } xfs_trans_log_inode(tp, ip, XFS_ILOG_CORE); XFS_STATS_INC(xs_ig_attrchg); if (mp->m_flags & XFS_MOUNT_WSYNC) xfs_trans_set_sync(tp); error = xfs_trans_commit(tp, XFS_TRANS_RELEASE_LOG_RES); out_unlock: if (lock_flags) xfs_iunlock(ip, lock_flags); return error; out_trans_abort: commit_flags |= XFS_TRANS_ABORT; out_trans_cancel: xfs_trans_cancel(tp, commit_flags); goto out_unlock; }
/* * Sync all the inodes in the given AG according to the * direction given by the flags. */ STATIC int xfs_sync_inodes_ag( xfs_mount_t *mp, int ag, int flags) { xfs_perag_t *pag = &mp->m_perag[ag]; int nr_found; uint32_t first_index = 0; int error = 0; int last_error = 0; int fflag = XFS_B_ASYNC; if (flags & SYNC_DELWRI) fflag = XFS_B_DELWRI; if (flags & SYNC_WAIT) fflag = 0; /* synchronous overrides all */ do { struct inode *inode; xfs_inode_t *ip = NULL; int lock_flags = XFS_ILOCK_SHARED; /* * use a gang lookup to find the next inode in the tree * as the tree is sparse and a gang lookup walks to find * the number of objects requested. */ read_lock(&pag->pag_ici_lock); nr_found = radix_tree_gang_lookup(&pag->pag_ici_root, (void**)&ip, first_index, 1); if (!nr_found) { read_unlock(&pag->pag_ici_lock); break; } /* * Update the index for the next lookup. Catch overflows * into the next AG range which can occur if we have inodes * in the last block of the AG and we are currently * pointing to the last inode. */ first_index = XFS_INO_TO_AGINO(mp, ip->i_ino + 1); if (first_index < XFS_INO_TO_AGINO(mp, ip->i_ino)) { read_unlock(&pag->pag_ici_lock); break; } /* nothing to sync during shutdown */ if (XFS_FORCED_SHUTDOWN(mp)) { read_unlock(&pag->pag_ici_lock); return 0; } /* * If we can't get a reference on the inode, it must be * in reclaim. Leave it for the reclaim code to flush. */ inode = VFS_I(ip); if (!igrab(inode)) { read_unlock(&pag->pag_ici_lock); continue; } read_unlock(&pag->pag_ici_lock); /* avoid new or bad inodes */ if (is_bad_inode(inode) || xfs_iflags_test(ip, XFS_INEW)) { IRELE(ip); continue; } /* * If we have to flush data or wait for I/O completion * we need to hold the iolock. */ if ((flags & SYNC_DELWRI) && VN_DIRTY(inode)) { xfs_ilock(ip, XFS_IOLOCK_SHARED); lock_flags |= XFS_IOLOCK_SHARED; error = xfs_flush_pages(ip, 0, -1, fflag, FI_NONE); if (flags & SYNC_IOWAIT) xfs_ioend_wait(ip); } xfs_ilock(ip, XFS_ILOCK_SHARED); if ((flags & SYNC_ATTR) && !xfs_inode_clean(ip)) { if (flags & SYNC_WAIT) { xfs_iflock(ip); if (!xfs_inode_clean(ip)) error = xfs_iflush(ip, XFS_IFLUSH_SYNC); else xfs_ifunlock(ip); } else if (xfs_iflock_nowait(ip)) { if (!xfs_inode_clean(ip)) error = xfs_iflush(ip, XFS_IFLUSH_DELWRI); else xfs_ifunlock(ip); } } xfs_iput(ip, lock_flags); if (error) last_error = error; /* * bail out if the filesystem is corrupted. */ if (error == EFSCORRUPTED) return XFS_ERROR(error); } while (nr_found); return last_error; }
int xfs_setattr_size( struct xfs_inode *ip, struct iattr *iattr, int flags) { struct xfs_mount *mp = ip->i_mount; struct inode *inode = VFS_I(ip); int mask = iattr->ia_valid; xfs_off_t oldsize, newsize; struct xfs_trans *tp; int error; uint lock_flags; uint commit_flags = 0; trace_xfs_setattr(ip); if (mp->m_flags & XFS_MOUNT_RDONLY) return XFS_ERROR(EROFS); if (XFS_FORCED_SHUTDOWN(mp)) return XFS_ERROR(EIO); error = -inode_change_ok(inode, iattr); if (error) return XFS_ERROR(error); ASSERT(S_ISREG(ip->i_d.di_mode)); ASSERT((mask & (ATTR_MODE|ATTR_UID|ATTR_GID|ATTR_ATIME|ATTR_ATIME_SET| ATTR_MTIME_SET|ATTR_KILL_SUID|ATTR_KILL_SGID| ATTR_KILL_PRIV|ATTR_TIMES_SET)) == 0); lock_flags = XFS_ILOCK_EXCL; if (!(flags & XFS_ATTR_NOLOCK)) lock_flags |= XFS_IOLOCK_EXCL; xfs_ilock(ip, lock_flags); oldsize = inode->i_size; newsize = iattr->ia_size; if (newsize == 0 && oldsize == 0 && ip->i_d.di_nextents == 0) { if (!(mask & (ATTR_CTIME|ATTR_MTIME))) goto out_unlock; xfs_iunlock(ip, lock_flags); iattr->ia_valid &= ~ATTR_SIZE; return xfs_setattr_nonsize(ip, iattr, 0); } error = xfs_qm_dqattach_locked(ip, 0); if (error) goto out_unlock; if (newsize > oldsize) { error = xfs_zero_eof(ip, newsize, oldsize); if (error) goto out_unlock; } xfs_iunlock(ip, XFS_ILOCK_EXCL); lock_flags &= ~XFS_ILOCK_EXCL; /* * We are going to log the inode size change in this transaction so * any previous writes that are beyond the on disk EOF and the new * EOF that have not been written out need to be written here. If we * do not write the data out, we expose ourselves to the null files * problem. * * Only flush from the on disk size to the smaller of the in memory * file size or the new size as that's the range we really care about * here and prevents waiting for other data not within the range we * care about here. */ if (oldsize != ip->i_d.di_size && newsize > ip->i_d.di_size) { error = xfs_flush_pages(ip, ip->i_d.di_size, newsize, 0, FI_NONE); if (error) goto out_unlock; } inode_dio_wait(inode); error = -block_truncate_page(inode->i_mapping, newsize, xfs_get_blocks); if (error) goto out_unlock; tp = xfs_trans_alloc(mp, XFS_TRANS_SETATTR_SIZE); error = xfs_trans_reserve(tp, 0, XFS_ITRUNCATE_LOG_RES(mp), 0, XFS_TRANS_PERM_LOG_RES, XFS_ITRUNCATE_LOG_COUNT); if (error) goto out_trans_cancel; truncate_setsize(inode, newsize); commit_flags = XFS_TRANS_RELEASE_LOG_RES; lock_flags |= XFS_ILOCK_EXCL; xfs_ilock(ip, XFS_ILOCK_EXCL); xfs_trans_ijoin(tp, ip, 0); if (newsize != oldsize && (!(mask & (ATTR_CTIME | ATTR_MTIME)))) { iattr->ia_ctime = iattr->ia_mtime = current_fs_time(inode->i_sb); mask |= ATTR_CTIME | ATTR_MTIME; } /* * The first thing we do is set the size to new_size permanently on * disk. This way we don't have to worry about anyone ever being able * to look at the data being freed even in the face of a crash. * What we're getting around here is the case where we free a block, it * is allocated to another file, it is written to, and then we crash. * If the new data gets written to the file but the log buffers * containing the free and reallocation don't, then we'd end up with * garbage in the blocks being freed. As long as we make the new size * permanent before actually freeing any blocks it doesn't matter if * they get written to. */ ip->i_d.di_size = newsize; xfs_trans_log_inode(tp, ip, XFS_ILOG_CORE); if (newsize <= oldsize) { error = xfs_itruncate_extents(&tp, ip, XFS_DATA_FORK, newsize); if (error) goto out_trans_abort; xfs_iflags_set(ip, XFS_ITRUNCATED); } if (mask & ATTR_CTIME) { inode->i_ctime = iattr->ia_ctime; ip->i_d.di_ctime.t_sec = iattr->ia_ctime.tv_sec; ip->i_d.di_ctime.t_nsec = iattr->ia_ctime.tv_nsec; } if (mask & ATTR_MTIME) { inode->i_mtime = iattr->ia_mtime; ip->i_d.di_mtime.t_sec = iattr->ia_mtime.tv_sec; ip->i_d.di_mtime.t_nsec = iattr->ia_mtime.tv_nsec; } xfs_trans_log_inode(tp, ip, XFS_ILOG_CORE); XFS_STATS_INC(xs_ig_attrchg); if (mp->m_flags & XFS_MOUNT_WSYNC) xfs_trans_set_sync(tp); error = xfs_trans_commit(tp, XFS_TRANS_RELEASE_LOG_RES); out_unlock: if (lock_flags) xfs_iunlock(ip, lock_flags); return error; out_trans_abort: commit_flags |= XFS_TRANS_ABORT; out_trans_cancel: xfs_trans_cancel(tp, commit_flags); goto out_unlock; }