fix up some format strings again

[thirdparty/xfsprogs-dev.git] / repair / incore_ino.c

/*
 * Copyright (c) 2000-2002,2005 Silicon Graphics, Inc.
 * All Rights Reserved.
 *
 * This program is free software; you can redistribute it and/or
 * modify it under the terms of the GNU General Public License as
 * published by the Free Software Foundation.
 *
 * This program is distributed in the hope that it would be useful,
 * but WITHOUT ANY WARRANTY; without even the implied warranty of
 * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
 * GNU General Public License for more details.
 *
 * You should have received a copy of the GNU General Public License
 * along with this program; if not, write the Free Software Foundation,
 * Inc.,  51 Franklin St, Fifth Floor, Boston, MA  02110-1301  USA
 */

#include <libxfs.h>
#include "avl.h"
#include "globals.h"
#include "incore.h"
#include "agheader.h"
#include "protos.h"
#include "threads.h"
#include "err_protos.h"

extern avlnode_t        *avl_firstino(avlnode_t *root);

/*
 * array of inode tree ptrs, one per ag
 */
avltree_desc_t  **inode_tree_ptrs;

/*
 * ditto for uncertain inodes
 */
static avltree_desc_t   **inode_uncertain_tree_ptrs;

/* memory optimised nlink counting for all inodes */

static void nlink_grow_8_to_16(ino_tree_node_t *irec);
static void nlink_grow_16_to_32(ino_tree_node_t *irec);

static void
disk_nlink_32_set(ino_tree_node_t *irec, int ino_offset, __uint32_t nlinks)
{
        ((__uint32_t*)irec->disk_nlinks)[ino_offset] = nlinks;
}

static __uint32_t
disk_nlink_32_get(ino_tree_node_t *irec, int ino_offset)
{
        return ((__uint32_t*)irec->disk_nlinks)[ino_offset];
}

static __uint32_t
counted_nlink_32_get(ino_tree_node_t *irec, int ino_offset)
{
        return ((__uint32_t*)irec->ino_un.ex_data->counted_nlinks)[ino_offset];
}

static __uint32_t
counted_nlink_32_inc(ino_tree_node_t *irec, int ino_offset)
{
        return ++(((__uint32_t*)irec->ino_un.ex_data->counted_nlinks)[ino_offset]);
}

static __uint32_t
counted_nlink_32_dec(ino_tree_node_t *irec, int ino_offset)
{
        __uint32_t *nlinks = (__uint32_t*)irec->ino_un.ex_data->counted_nlinks;

        ASSERT(nlinks[ino_offset] > 0);
        return --(nlinks[ino_offset]);
}


static void
disk_nlink_16_set(ino_tree_node_t *irec, int ino_offset, __uint32_t nlinks)
{
        if (nlinks >= 0x10000) {
                nlink_grow_16_to_32(irec);
                disk_nlink_32_set(irec, ino_offset, nlinks);
        } else
                ((__uint16_t*)irec->disk_nlinks)[ino_offset] = nlinks;
}

static __uint32_t
disk_nlink_16_get(ino_tree_node_t *irec, int ino_offset)
{
        return ((__uint16_t*)irec->disk_nlinks)[ino_offset];
}

static __uint32_t
counted_nlink_16_get(ino_tree_node_t *irec, int ino_offset)
{
        return ((__uint16_t*)irec->ino_un.ex_data->counted_nlinks)[ino_offset];
}

static __uint32_t
counted_nlink_16_inc(ino_tree_node_t *irec, int ino_offset)
{
        __uint16_t *nlinks = (__uint16_t*)irec->ino_un.ex_data->counted_nlinks;

        if (nlinks[ino_offset] == 0xffff) {
                nlink_grow_16_to_32(irec);
                return counted_nlink_32_inc(irec, ino_offset);
        }
        return ++(nlinks[ino_offset]);
}

static __uint32_t
counted_nlink_16_dec(ino_tree_node_t *irec, int ino_offset)
{
        __uint16_t *nlinks = (__uint16_t*)irec->ino_un.ex_data->counted_nlinks;

        ASSERT(nlinks[ino_offset] > 0);
        return --(nlinks[ino_offset]);
}


static void
disk_nlink_8_set(ino_tree_node_t *irec, int ino_offset, __uint32_t nlinks)
{
        if (nlinks >= 0x100) {
                nlink_grow_8_to_16(irec);
                disk_nlink_16_set(irec, ino_offset, nlinks);
        } else
                irec->disk_nlinks[ino_offset] = nlinks;
}

static __uint32_t
disk_nlink_8_get(ino_tree_node_t *irec, int ino_offset)
{
        return irec->disk_nlinks[ino_offset];
}

static __uint32_t
counted_nlink_8_get(ino_tree_node_t *irec, int ino_offset)
{
        return irec->ino_un.ex_data->counted_nlinks[ino_offset];
}

static __uint32_t
counted_nlink_8_inc(ino_tree_node_t *irec, int ino_offset)
{
        if (irec->ino_un.ex_data->counted_nlinks[ino_offset] == 0xff) {
                nlink_grow_8_to_16(irec);
                return counted_nlink_16_inc(irec, ino_offset);
        }
        return ++(irec->ino_un.ex_data->counted_nlinks[ino_offset]);
}

static __uint32_t
counted_nlink_8_dec(ino_tree_node_t *irec, int ino_offset)
{
        ASSERT(irec->ino_un.ex_data->counted_nlinks[ino_offset] > 0);
        return --(irec->ino_un.ex_data->counted_nlinks[ino_offset]);
}


static nlink_ops_t nlinkops[] = {
        {sizeof(__uint8_t) * XFS_INODES_PER_CHUNK,
                disk_nlink_8_set, disk_nlink_8_get,
                counted_nlink_8_get, counted_nlink_8_inc, counted_nlink_8_dec},
        {sizeof(__uint16_t) * XFS_INODES_PER_CHUNK,
                disk_nlink_16_set, disk_nlink_16_get,
                counted_nlink_16_get, counted_nlink_16_inc, counted_nlink_16_dec},
        {sizeof(__uint32_t) * XFS_INODES_PER_CHUNK,
                disk_nlink_32_set, disk_nlink_32_get,
                counted_nlink_32_get, counted_nlink_32_inc, counted_nlink_32_dec},
};

static void
nlink_grow_8_to_16(ino_tree_node_t *irec)
{
        __uint16_t      *new_nlinks;
        int             i;

        new_nlinks = malloc(sizeof(__uint16_t) * XFS_INODES_PER_CHUNK);
        if (new_nlinks == NULL)
                do_error(_("could not allocate expanded nlink array\n"));
        for (i = 0; i < XFS_INODES_PER_CHUNK; i++)
                new_nlinks[i] = irec->disk_nlinks[i];
        free(irec->disk_nlinks);
        irec->disk_nlinks = (__uint8_t*)new_nlinks;

        if (full_ino_ex_data) {
                new_nlinks = malloc(sizeof(__uint16_t) * XFS_INODES_PER_CHUNK);
                if (new_nlinks == NULL)
                        do_error(_("could not allocate expanded nlink array\n"));
                for (i = 0; i < XFS_INODES_PER_CHUNK; i++)
                        new_nlinks[i] = irec->ino_un.ex_data->counted_nlinks[i];
                free(irec->ino_un.ex_data->counted_nlinks);
                irec->ino_un.ex_data->counted_nlinks = (__uint8_t*)new_nlinks;
        }
        irec->nlinkops = &nlinkops[1];
}

static void
nlink_grow_16_to_32(ino_tree_node_t *irec)
{
        __uint32_t      *new_nlinks;
        int             i;

        new_nlinks = malloc(sizeof(__uint32_t) * XFS_INODES_PER_CHUNK);
        if (new_nlinks == NULL)
                do_error(_("could not allocate expanded nlink array\n"));
        for (i = 0; i < XFS_INODES_PER_CHUNK; i++)
                new_nlinks[i] = ((__int16_t*)&irec->disk_nlinks)[i];
        free(irec->disk_nlinks);
        irec->disk_nlinks = (__uint8_t*)new_nlinks;

        if (full_ino_ex_data) {
                new_nlinks = malloc(sizeof(__uint32_t) * XFS_INODES_PER_CHUNK);
                if (new_nlinks == NULL)
                        do_error(_("could not allocate expanded nlink array\n"));
                for (i = 0; i < XFS_INODES_PER_CHUNK; i++)
                        new_nlinks[i] = ((__int16_t*)&irec->ino_un.ex_data->counted_nlinks)[i];
                free(irec->ino_un.ex_data->counted_nlinks);
                irec->ino_un.ex_data->counted_nlinks = (__uint8_t*)new_nlinks;
        }
        irec->nlinkops = &nlinkops[2];
}

/*
 * Next is the uncertain inode list -- a sorted (in ascending order)
 * list of inode records sorted on the starting inode number.  There
 * is one list per ag.
 */

/*
 * Common code for creating inode records for use by trees and lists.
 * called only from add_inodes and add_inodes_uncertain
 *
 * IMPORTANT:  all inodes (inode records) start off as free and
 *              unconfirmed.
 */
static struct ino_tree_node *
alloc_ino_node(
        xfs_agino_t             starting_ino)
{
        struct ino_tree_node    *irec;

        irec = malloc(sizeof(*irec));
        if (!irec)
                do_error(_("inode map malloc failed\n"));

        irec->avl_node.avl_nextino = NULL;
        irec->avl_node.avl_forw = NULL;
        irec->avl_node.avl_back = NULL;

        irec->ino_startnum = starting_ino;
        irec->ino_confirmed = 0;
        irec->ino_isa_dir = 0;
        irec->ir_free = (xfs_inofree_t) - 1;
        irec->ino_un.ex_data = NULL;
        irec->nlinkops = &nlinkops[0];
        irec->disk_nlinks = calloc(1, nlinkops[0].nlink_size);
        if (!irec->disk_nlinks)
                do_error(_("could not allocate nlink array\n"));
        return irec;
}

static void
free_ino_tree_node(
        struct ino_tree_node    *irec)
{
        irec->avl_node.avl_nextino = NULL;
        irec->avl_node.avl_forw = NULL;
        irec->avl_node.avl_back = NULL;

        free(irec->disk_nlinks);
        if (irec->ino_un.ex_data != NULL)  {
                if (full_ino_ex_data) {
                        free(irec->ino_un.ex_data->parents);
                        free(irec->ino_un.ex_data->counted_nlinks);
                }
                free(irec->ino_un.ex_data);

        }

        free(irec);
}

/*
 * last referenced cache for uncertain inodes
 */
static ino_tree_node_t **last_rec;

/*
 * ok, the uncertain inodes are a set of trees just like the
 * good inodes but all starting inode records are (arbitrarily)
 * aligned on XFS_CHUNK_PER_INODE boundaries to prevent overlaps.
 * this means we may have partials records in the tree (e.g. records
 * without 64 confirmed uncertain inodes).  Tough.
 *
 * free is set to 1 if the inode is thought to be free, 0 if used
 */
void
add_aginode_uncertain(xfs_agnumber_t agno, xfs_agino_t ino, int free)
{
        ino_tree_node_t         *ino_rec;
        xfs_agino_t             s_ino;
        int                     offset;

        ASSERT(agno < glob_agcount);
        ASSERT(last_rec != NULL);

        s_ino = rounddown(ino, XFS_INODES_PER_CHUNK);

        /*
         * check for a cache hit
         */
        if (last_rec[agno] != NULL && last_rec[agno]->ino_startnum == s_ino)  {
                offset = ino - s_ino;
                if (free)
                        set_inode_free(last_rec[agno], offset);
                else
                        set_inode_used(last_rec[agno], offset);

                return;
        }

        /*
         * check to see if record containing inode is already in the tree.
         * if not, add it
         */
        ino_rec = (ino_tree_node_t *)
                avl_findrange(inode_uncertain_tree_ptrs[agno], s_ino);
        if (!ino_rec) {
                ino_rec = alloc_ino_node(s_ino);

                if (!avl_insert(inode_uncertain_tree_ptrs[agno],
                                &ino_rec->avl_node))
                        do_error(
        _("add_aginode_uncertain - duplicate inode range\n"));
        }

        if (free)
                set_inode_free(ino_rec, ino - s_ino);
        else
                set_inode_used(ino_rec, ino - s_ino);

        /*
         * set cache entry
         */
        last_rec[agno] = ino_rec;
}

/*
 * like add_aginode_uncertain() only it needs an xfs_mount_t *
 * to perform the inode number conversion.
 */
void
add_inode_uncertain(xfs_mount_t *mp, xfs_ino_t ino, int free)
{
        add_aginode_uncertain(XFS_INO_TO_AGNO(mp, ino),
                                XFS_INO_TO_AGINO(mp, ino), free);
}

/*
 * pull the indicated inode record out of the uncertain inode tree
 */
void
get_uncertain_inode_rec(struct xfs_mount *mp, xfs_agnumber_t agno,
                        ino_tree_node_t *ino_rec)
{
        ASSERT(inode_tree_ptrs != NULL);
        ASSERT(agno < mp->m_sb.sb_agcount);
        ASSERT(inode_tree_ptrs[agno] != NULL);

        avl_delete(inode_uncertain_tree_ptrs[agno], &ino_rec->avl_node);

        ino_rec->avl_node.avl_nextino = NULL;
        ino_rec->avl_node.avl_forw = NULL;
        ino_rec->avl_node.avl_back = NULL;
}

ino_tree_node_t *
findfirst_uncertain_inode_rec(xfs_agnumber_t agno)
{
        return((ino_tree_node_t *)
                inode_uncertain_tree_ptrs[agno]->avl_firstino);
}

ino_tree_node_t *
find_uncertain_inode_rec(xfs_agnumber_t agno, xfs_agino_t ino)
{
        return((ino_tree_node_t *)
                avl_findrange(inode_uncertain_tree_ptrs[agno], ino));
}

void
clear_uncertain_ino_cache(xfs_agnumber_t agno)
{
        last_rec[agno] = NULL;
}


/*
 * Next comes the inode trees.  One per AG,  AVL trees of inode records, each
 * inode record tracking 64 inodes
 */

/*
 * Set up an inode tree record for a group of inodes that will include the
 * requested inode.
 *
 * This does NOT do error-check for duplicate records.  The caller is
 * responsible for checking that. Ino must be the start of an
 * XFS_INODES_PER_CHUNK (64) inode chunk
 *
 * Each inode resides in a 64-inode chunk which can be part one or more chunks
 * (MAX(64, inodes-per-block).  The fs allocates in chunks (as opposed to 1
 * chunk) when a block can hold more than one chunk (inodes per block > 64).
 * Allocating in one chunk pieces causes us problems when it takes more than
 * one fs block to contain an inode chunk because the chunks can start on
 * *any* block boundary. So we assume that the caller has a clue because at
 * this level, we don't.
 */
static struct ino_tree_node *
add_inode(
        struct xfs_mount        *mp,
        xfs_agnumber_t          agno,
        xfs_agino_t             agino)
{
        struct ino_tree_node    *irec;

        irec = alloc_ino_node(agino);
        if (!avl_insert(inode_tree_ptrs[agno],  &irec->avl_node))
                do_warn(_("add_inode - duplicate inode range\n"));
        return irec;
}

/*
 * pull the indicated inode record out of the inode tree
 */
void
get_inode_rec(struct xfs_mount *mp, xfs_agnumber_t agno, ino_tree_node_t *ino_rec)
{
        ASSERT(inode_tree_ptrs != NULL);
        ASSERT(agno < mp->m_sb.sb_agcount);
        ASSERT(inode_tree_ptrs[agno] != NULL);

        avl_delete(inode_tree_ptrs[agno], &ino_rec->avl_node);

        ino_rec->avl_node.avl_nextino = NULL;
        ino_rec->avl_node.avl_forw = NULL;
        ino_rec->avl_node.avl_back = NULL;
}

/*
 * free the designated inode record (return it to the free pool)
 */
/* ARGSUSED */
void
free_inode_rec(xfs_agnumber_t agno, ino_tree_node_t *ino_rec)
{
        free_ino_tree_node(ino_rec);
}

void
find_inode_rec_range(struct xfs_mount *mp, xfs_agnumber_t agno,
                        xfs_agino_t start_ino, xfs_agino_t end_ino,
                        ino_tree_node_t **first, ino_tree_node_t **last)
{
        *first = *last = NULL;

        /*
         * Is the AG inside the file system ?
         */
        if (agno < mp->m_sb.sb_agcount)
                avl_findranges(inode_tree_ptrs[agno], start_ino,
                        end_ino, (avlnode_t **) first, (avlnode_t **) last);
}

/*
 * if ino doesn't exist, it must be properly aligned -- on a
 * filesystem block boundary or XFS_INODES_PER_CHUNK boundary,
 * whichever alignment is larger.
 */
ino_tree_node_t *
set_inode_used_alloc(struct xfs_mount *mp, xfs_agnumber_t agno, xfs_agino_t ino)
{
        ino_tree_node_t *ino_rec;

        /*
         * check alignment -- the only way to detect this
         * is too see if the chunk overlaps another chunk
         * already in the tree
         */
        ino_rec = add_inode(mp, agno, ino);

        ASSERT(ino_rec != NULL);
        ASSERT(ino >= ino_rec->ino_startnum &&
                ino - ino_rec->ino_startnum < XFS_INODES_PER_CHUNK);

        set_inode_used(ino_rec, ino - ino_rec->ino_startnum);

        return(ino_rec);
}

ino_tree_node_t *
set_inode_free_alloc(struct xfs_mount *mp, xfs_agnumber_t agno, xfs_agino_t ino)
{
        ino_tree_node_t *ino_rec;

        ino_rec = add_inode(mp, agno, ino);

        ASSERT(ino_rec != NULL);
        ASSERT(ino >= ino_rec->ino_startnum &&
                ino - ino_rec->ino_startnum < XFS_INODES_PER_CHUNK);

        set_inode_free(ino_rec, ino - ino_rec->ino_startnum);

        return(ino_rec);
}

void
print_inode_list_int(xfs_agnumber_t agno, int uncertain)
{
        ino_tree_node_t *ino_rec;

        if (!uncertain)  {
                fprintf(stderr, _("good inode list is --\n"));
                ino_rec = findfirst_inode_rec(agno);
        } else  {
                fprintf(stderr, _("uncertain inode list is --\n"));
                ino_rec = findfirst_uncertain_inode_rec(agno);
        }

        if (ino_rec == NULL)  {
                fprintf(stderr, _("agno %d -- no inodes\n"), agno);
                return;
        }

        printf(_("agno %d\n"), agno);

        while(ino_rec != NULL)  {
                fprintf(stderr,
        _("\tptr = %lx, start = 0x%x, free = 0x%llx, confirmed = 0x%llx\n"),
                        (unsigned long)ino_rec,
                        ino_rec->ino_startnum,
                        (unsigned long long)ino_rec->ir_free,
                        (unsigned long long)ino_rec->ino_confirmed);
                if (ino_rec->ino_startnum == 0)
                        ino_rec = ino_rec;
                ino_rec = next_ino_rec(ino_rec);
        }
}

void
print_inode_list(xfs_agnumber_t agno)
{
        print_inode_list_int(agno, 0);
}

void
print_uncertain_inode_list(xfs_agnumber_t agno)
{
        print_inode_list_int(agno, 1);
}

/*
 * set parent -- use a bitmask and a packed array.  The bitmask
 * indicate which inodes have an entry in the array.  An inode that
 * is the Nth bit set in the mask is stored in the Nth location in
 * the array where N starts at 0.
 */

void
set_inode_parent(
        ino_tree_node_t         *irec,
        int                     offset,
        xfs_ino_t               parent)
{
        parent_list_t           *ptbl;
        int                     i;
        int                     cnt;
        int                     target;
        __uint64_t              bitmask;
        parent_entry_t          *tmp;

        if (full_ino_ex_data)
                ptbl = irec->ino_un.ex_data->parents;
        else
                ptbl = irec->ino_un.plist;

        if (ptbl == NULL)  {
                ptbl = (parent_list_t *)malloc(sizeof(parent_list_t));
                if (!ptbl)
                        do_error(_("couldn't malloc parent list table\n"));

                if (full_ino_ex_data)
                        irec->ino_un.ex_data->parents = ptbl;
                else
                        irec->ino_un.plist = ptbl;

                ptbl->pmask = 1LL << offset;
                ptbl->pentries = (xfs_ino_t*)memalign(sizeof(xfs_ino_t),
                                                        sizeof(xfs_ino_t));
                if (!ptbl->pentries)
                        do_error(_("couldn't memalign pentries table\n"));
#ifdef DEBUG
                ptbl->cnt = 1;
#endif
                ptbl->pentries[0] = parent;

                return;
        }

        if (ptbl->pmask & (1LL << offset))  {
                bitmask = 1LL;
                target = 0;

                for (i = 0; i < offset; i++)  {
                        if (ptbl->pmask & bitmask)
                                target++;
                        bitmask <<= 1;
                }
#ifdef DEBUG
                ASSERT(target < ptbl->cnt);
#endif
                ptbl->pentries[target] = parent;

                return;
        }

        bitmask = 1LL;
        cnt = target = 0;

        for (i = 0; i < XFS_INODES_PER_CHUNK; i++)  {
                if (ptbl->pmask & bitmask)  {
                        cnt++;
                        if (i < offset)
                                target++;
                }

                bitmask <<= 1;
        }

#ifdef DEBUG
        ASSERT(cnt == ptbl->cnt);
#endif
        ASSERT(cnt >= target);

        tmp = (xfs_ino_t*)memalign(sizeof(xfs_ino_t), (cnt + 1) * sizeof(xfs_ino_t));
        if (!tmp)
                do_error(_("couldn't memalign pentries table\n"));

        memmove(tmp, ptbl->pentries, target * sizeof(parent_entry_t));

        if (cnt > target)
                memmove(tmp + target + 1, ptbl->pentries + target,
                                (cnt - target) * sizeof(parent_entry_t));

        free(ptbl->pentries);

        ptbl->pentries = tmp;

#ifdef DEBUG
        ptbl->cnt++;
#endif
        ptbl->pentries[target] = parent;
        ptbl->pmask |= (1LL << offset);
}

xfs_ino_t
get_inode_parent(ino_tree_node_t *irec, int offset)
{
        __uint64_t      bitmask;
        parent_list_t   *ptbl;
        int             i;
        int             target;

        if (full_ino_ex_data)
                ptbl = irec->ino_un.ex_data->parents;
        else
                ptbl = irec->ino_un.plist;

        if (ptbl->pmask & (1LL << offset))  {
                bitmask = 1LL;
                target = 0;

                for (i = 0; i < offset; i++)  {
                        if (ptbl->pmask & bitmask)
                                target++;
                        bitmask <<= 1;
                }
#ifdef DEBUG
                ASSERT(target < ptbl->cnt);
#endif
                return(ptbl->pentries[target]);
        }

        return(0LL);
}

static void
alloc_ex_data(ino_tree_node_t *irec)
{
        parent_list_t   *ptbl;

        ptbl = irec->ino_un.plist;
        irec->ino_un.ex_data  = (ino_ex_data_t *)calloc(1, sizeof(ino_ex_data_t));
        if (irec->ino_un.ex_data == NULL)
                do_error(_("could not malloc inode extra data\n"));

        irec->ino_un.ex_data->parents = ptbl;
        irec->ino_un.ex_data->counted_nlinks = calloc(1, irec->nlinkops->nlink_size);

        if (irec->ino_un.ex_data->counted_nlinks == NULL)
                do_error(_("could not malloc inode extra data\n"));
}

void
add_ino_ex_data(xfs_mount_t *mp)
{
        ino_tree_node_t *ino_rec;
        xfs_agnumber_t  i;

        for (i = 0; i < mp->m_sb.sb_agcount; i++)  {
                ino_rec = findfirst_inode_rec(i);

                while (ino_rec != NULL)  {
                        alloc_ex_data(ino_rec);
                        ino_rec = next_ino_rec(ino_rec);
                }
        }
        full_ino_ex_data = 1;
}

static __psunsigned_t
avl_ino_start(avlnode_t *node)
{
        return((__psunsigned_t) ((ino_tree_node_t *) node)->ino_startnum);
}

static __psunsigned_t
avl_ino_end(avlnode_t *node)
{
        return((__psunsigned_t) (
                ((ino_tree_node_t *) node)->ino_startnum +
                XFS_INODES_PER_CHUNK));
}

avlops_t avl_ino_tree_ops = {
        avl_ino_start,
        avl_ino_end
};

void
incore_ino_init(xfs_mount_t *mp)
{
        int i;
        int agcount = mp->m_sb.sb_agcount;

        if ((inode_tree_ptrs = malloc(agcount *
                                        sizeof(avltree_desc_t *))) == NULL)
                do_error(_("couldn't malloc inode tree descriptor table\n"));
        if ((inode_uncertain_tree_ptrs = malloc(agcount *
                                        sizeof(avltree_desc_t *))) == NULL)
                do_error(
                _("couldn't malloc uncertain ino tree descriptor table\n"));

        for (i = 0; i < agcount; i++)  {
                if ((inode_tree_ptrs[i] =
                                malloc(sizeof(avltree_desc_t))) == NULL)
                        do_error(_("couldn't malloc inode tree descriptor\n"));
                if ((inode_uncertain_tree_ptrs[i] =
                                malloc(sizeof(avltree_desc_t))) == NULL)
                        do_error(
                        _("couldn't malloc uncertain ino tree descriptor\n"));
        }
        for (i = 0; i < agcount; i++)  {
                avl_init_tree(inode_tree_ptrs[i], &avl_ino_tree_ops);
                avl_init_tree(inode_uncertain_tree_ptrs[i], &avl_ino_tree_ops);
        }

        if ((last_rec = malloc(sizeof(ino_tree_node_t *) * agcount)) == NULL)
                do_error(_("couldn't malloc uncertain inode cache area\n"));

        memset(last_rec, 0, sizeof(ino_tree_node_t *) * agcount);

        full_ino_ex_data = 0;
}

#ifdef XR_INO_REF_DEBUG
void
add_inode_refchecked(xfs_ino_t ino, ino_tree_node_t *ino_rec, int ino_offset)
{
        XFS_INOPROC_SET_PROC((ino_rec), (ino_offset));

        ASSERT(is_inode_refchecked(ino, ino_rec, ino_offset));
}

int
is_inode_refchecked(xfs_ino_t ino, ino_tree_node_t *ino_rec, int ino_offset)
{
        return(XFS_INOPROC_IS_PROC(ino_rec, ino_offset) == 0LL ? 0 : 1);
}
#endif /* XR_INO_REF_DEBUG */