#define NUM_BLOCKS_DIRTY_STRIPE_REGION 2056
#define SECT_PER_MB_SHIFT 11
#define MAX_SECTOR_SIZE 4096
+#define MULTIPLE_PPL_AREA_SIZE_IMSM (1024 * 1024) /* Size of the whole
+ * mutliple PPL area
+ */
/* Disk configuration info. */
#define IMSM_MAX_DEVICES 255
#define RWH_OFF 0
#define RWH_DISTRIBUTED 1
#define RWH_JOURNALING_DRIVE 2
+#define RWH_MULTIPLE_DISTRIBUTED 3
+#define RWH_MULTIPLE_PPLS_JOURNALING_DRIVE 4
+#define RWH_MULTIPLE_OFF 5
__u8 rwh_policy; /* Raid Write Hole Policy */
__u8 jd_serial[MAX_RAID_SERIAL_LEN]; /* Journal Drive serial number */
__u8 filler1;
__u32 orig_family_num; /* 0x40 - 0x43 original family num */
__u32 pwr_cycle_count; /* 0x44 - 0x47 simulated power cycle count for array */
__u32 bbm_log_size; /* 0x48 - 0x4B - size of bad Block Mgmt Log in bytes */
-#define IMSM_FILLERS 35
- __u32 filler[IMSM_FILLERS]; /* 0x4C - 0xD7 RAID_MPB_FILLERS */
+ __u16 num_raid_devs_created; /* 0x4C - 0x4D Used for generating unique
+ * volume IDs for raid_dev created in this array
+ * (starts at 1)
+ */
+ __u16 filler1; /* 0x4E - 0x4F */
+#define IMSM_FILLERS 34
+ __u32 filler[IMSM_FILLERS]; /* 0x50 - 0xD7 RAID_MPB_FILLERS */
struct imsm_disk disk[1]; /* 0xD8 diskTbl[numDisks] */
/* here comes imsm_dev[num_raid_devs] */
/* here comes BBM logs */
* already been migrated and must
* be recovered from checkpoint area */
-#define PPL_ENTRY_SPACE (128 * 1024) /* Size of the PPL, without the header */
+#define PPL_ENTRY_SPACE (128 * 1024) /* Size of single PPL, without the header */
struct migr_record {
__u32 rec_status; /* Status used to determine how to restart
return size;
}
+static int able_to_resync(int raid_level, int missing_disks)
+{
+ int max_missing_disks = 0;
+
+ switch (raid_level) {
+ case 10:
+ max_missing_disks = 1;
+ break;
+ default:
+ max_missing_disks = 0;
+ }
+ return missing_disks <= max_missing_disks;
+}
+
/* try to determine how much space is reserved for metadata from
* the last get_extents() entry on the smallest active disk,
* otherwise fallback to the default
return (remainder < rv) ? remainder : rv;
}
-/* Return minimum size of a spare that can be used in this array*/
-static unsigned long long min_acceptable_spare_size_imsm(struct supertype *st)
+/*
+ * Return minimum size of a spare and sector size
+ * that can be used in this array
+ */
+int get_spare_criteria_imsm(struct supertype *st, struct spare_criteria *c)
{
struct intel_super *super = st->sb;
struct dl *dl;
struct extent *e;
int i;
- unsigned long long rv = 0;
+ unsigned long long size = 0;
+
+ c->min_size = 0;
+ c->sector_size = 0;
if (!super)
- return rv;
+ return -EINVAL;
/* find first active disk in array */
dl = super->disks;
while (dl && (is_failed(&dl->disk) || dl->index == -1))
dl = dl->next;
if (!dl)
- return rv;
+ return -EINVAL;
/* find last lba used by subarrays */
e = get_extents(super, dl);
if (!e)
- return rv;
+ return -EINVAL;
for (i = 0; e[i].size; i++)
continue;
if (i > 0)
- rv = e[i-1].start + e[i-1].size;
+ size = e[i-1].start + e[i-1].size;
free(e);
/* add the amount of space needed for metadata */
- rv = rv + imsm_min_reserved_sectors(super);
+ size += imsm_min_reserved_sectors(super);
+
+ c->min_size = size * 512;
+ c->sector_size = super->sector_size;
- return rv * 512;
+ return 0;
}
static int is_gen_migration(struct imsm_dev *dev);
ord & IMSM_ORD_REBUILD ? " (out-of-sync)" : "");
} else
printf(" This Slot : ?\n");
+ printf(" Sector Size : %u\n", super->sector_size);
sz = __le32_to_cpu(dev->size_high);
sz <<= 32;
sz += __le32_to_cpu(dev->size_low);
- printf(" Array Size : %llu%s\n", (unsigned long long)sz,
+ printf(" Array Size : %llu%s\n",
+ (unsigned long long)sz * 512 / super->sector_size,
human_size(sz * 512));
sz = blocks_per_member(map);
- printf(" Per Dev Size : %llu%s\n", (unsigned long long)sz,
+ printf(" Per Dev Size : %llu%s\n",
+ (unsigned long long)sz * 512 / super->sector_size,
human_size(sz * 512));
printf(" Sector Offset : %llu\n",
pba_of_lba0(map));
printf(" Dirty State : %s\n", (dev->vol.dirty & RAIDVOL_DIRTY) ?
"dirty" : "clean");
printf(" RWH Policy : ");
- if (dev->rwh_policy == RWH_OFF)
+ if (dev->rwh_policy == RWH_OFF || dev->rwh_policy == RWH_MULTIPLE_OFF)
printf("off\n");
else if (dev->rwh_policy == RWH_DISTRIBUTED)
printf("PPL distributed\n");
else if (dev->rwh_policy == RWH_JOURNALING_DRIVE)
printf("PPL journaling drive\n");
+ else if (dev->rwh_policy == RWH_MULTIPLE_DISTRIBUTED)
+ printf("Multiple distributed PPLs\n");
+ else if (dev->rwh_policy == RWH_MULTIPLE_PPLS_JOURNALING_DRIVE)
+ printf("Multiple PPLs on journaling drive\n");
else
printf("<unknown:%d>\n", dev->rwh_policy);
}
printf(" Platform : Intel(R) ");
if (orom->capabilities == 0 && orom->driver_features == 0)
printf("Matrix Storage Manager\n");
+ else if (imsm_orom_is_enterprise(orom) && orom->major_ver >= 6)
+ printf("Virtual RAID on CPU\n");
else
printf("Rapid Storage Technology%s\n",
imsm_orom_is_enterprise(orom) ? " enterprise" : "");
memset(info->uuid, 0, sizeof(info->uuid));
info->recovery_start = MaxSector;
- if (info->array.level == 5 && dev->rwh_policy == RWH_DISTRIBUTED) {
+ if (info->array.level == 5 &&
+ (dev->rwh_policy == RWH_DISTRIBUTED ||
+ dev->rwh_policy == RWH_MULTIPLE_DISTRIBUTED)) {
info->consistency_policy = CONSISTENCY_POLICY_PPL;
info->ppl_sector = get_ppl_sector(super, super->current_vol);
- info->ppl_size = (PPL_HEADER_SIZE + PPL_ENTRY_SPACE) >> 9;
+ if (dev->rwh_policy == RWH_MULTIPLE_DISTRIBUTED)
+ info->ppl_size = MULTIPLE_PPL_AREA_SIZE_IMSM >> 9;
+ else
+ info->ppl_size = (PPL_HEADER_SIZE + PPL_ENTRY_SPACE)
+ >> 9;
} else if (info->array.level <= 0) {
info->consistency_policy = CONSISTENCY_POLICY_NONE;
} else {
__u32 ord = get_imsm_ord_tbl_ent(dev, j, MAP_0);
__u32 idx = ord_to_idx(ord);
+ if (super->disks && super->disks->index == (int)idx)
+ info->disk.raid_disk = j;
+
if (!(ord & IMSM_ORD_REBUILD) &&
get_imsm_missing(super, idx)) {
missing = 1;
/* duplicate and then set the target end state in map[0] */
memcpy(dest, src, sizeof_imsm_map(src));
- if (migr_type == MIGR_REBUILD || migr_type == MIGR_GEN_MIGR) {
+ if (migr_type == MIGR_GEN_MIGR) {
__u32 ord;
int i;
if (pba_of_lba0(map0) != pba_of_lba0(map1))
/* migration optimization area was used */
return -1;
- if (migr_rec->ascending_migr == 0
- && migr_rec->dest_depth_per_unit > 0)
+ if (migr_rec->ascending_migr == 0 &&
+ migr_rec->dest_depth_per_unit > 0)
/* descending reshape not supported yet */
return -1;
}
sectors = mpb_sectors(anchor, sector_size) - 1;
free(anchor);
- if (posix_memalign(&super->migr_rec_buf, sector_size,
- MIGR_REC_BUF_SECTORS*sector_size) != 0) {
+ if (posix_memalign(&super->migr_rec_buf, MAX_SECTOR_SIZE,
+ MIGR_REC_BUF_SECTORS*MAX_SECTOR_SIZE) != 0) {
pr_err("could not allocate migr_rec buffer\n");
free(super->buf);
return 2;
hba = hba->next;
}
fprintf(stderr, ").\n"
- " Mixing devices attached to different %s is not allowed.\n",
- hba_name->type == SYS_DEV_VMD ? "VMD domains" : "controllers");
+ " Mixing devices attached to different controllers is not allowed.\n");
}
return 2;
}
pr_err("could not allocate new mpb\n");
return 0;
}
- if (posix_memalign(&super->migr_rec_buf, sector_size,
- MIGR_REC_BUF_SECTORS*sector_size) != 0) {
+ if (posix_memalign(&super->migr_rec_buf, MAX_SECTOR_SIZE,
+ MIGR_REC_BUF_SECTORS*
+ MAX_SECTOR_SIZE) != 0) {
pr_err("could not allocate migr_rec buffer\n");
free(super->buf);
free(super);
set_imsm_ord_tbl_ent(map, i, IMSM_ORD_REBUILD);
}
mpb->num_raid_devs++;
+ mpb->num_raid_devs_created++;
+ dev->my_vol_raid_dev_num = mpb->num_raid_devs_created;
if (s->consistency_policy <= CONSISTENCY_POLICY_RESYNC) {
- dev->rwh_policy = RWH_OFF;
+ dev->rwh_policy = RWH_MULTIPLE_OFF;
} else if (s->consistency_policy == CONSISTENCY_POLICY_PPL) {
- dev->rwh_policy = RWH_DISTRIBUTED;
+ dev->rwh_policy = RWH_MULTIPLE_DISTRIBUTED;
} else {
free(dev);
free(dv);
return 1;
}
+static int drive_validate_sector_size(struct intel_super *super, struct dl *dl)
+{
+ unsigned int member_sector_size;
+
+ if (dl->fd < 0) {
+ pr_err("Invalid file descriptor for %s\n", dl->devname);
+ return 0;
+ }
+
+ if (!get_dev_sector_size(dl->fd, dl->devname, &member_sector_size))
+ return 0;
+ if (member_sector_size != super->sector_size)
+ return 0;
+ return 1;
+}
+
static int add_to_super_imsm_volume(struct supertype *st, mdu_disk_info_t *dk,
int fd, char *devname)
{
return 1;
}
+ if (!drive_validate_sector_size(super, dl)) {
+ pr_err("Combining drives of different sector size in one volume is not allowed\n");
+ return 1;
+ }
+
/* add a pristine spare to the metadata */
if (dl->index < 0) {
dl->index = super->anchor->num_disks;
} else if (super->hba->type == SYS_DEV_VMD && super->orom &&
!imsm_orom_has_tpv_support(super->orom)) {
pr_err("\tPlatform configuration does not support non-Intel NVMe drives.\n"
- "\tPlease refer to Intel(R) RSTe user guide.\n");
+ "\tPlease refer to Intel(R) RSTe/VROC user guide.\n");
free(dd->devname);
free(dd);
return 1;
if (super->sector_size == 0) {
/* this a first device, so sector_size is not set yet */
super->sector_size = member_sector_size;
- } else if (member_sector_size != super->sector_size) {
- pr_err("Mixing between different sector size is forbidden, aborting...\n");
- if (dd->devname)
- free(dd->devname);
- free(dd);
- return 1;
}
/* clear migr_rec when adding disk to container */
- memset(super->migr_rec_buf, 0, MIGR_REC_BUF_SECTORS*super->sector_size);
- if (lseek64(fd, size - MIGR_REC_SECTOR_POSITION*super->sector_size,
+ memset(super->migr_rec_buf, 0, MIGR_REC_BUF_SECTORS*MAX_SECTOR_SIZE);
+ if (lseek64(fd, size - MIGR_REC_SECTOR_POSITION*member_sector_size,
SEEK_SET) >= 0) {
if ((unsigned int)write(fd, super->migr_rec_buf,
- MIGR_REC_BUF_SECTORS*super->sector_size) !=
- MIGR_REC_BUF_SECTORS*super->sector_size)
+ MIGR_REC_BUF_SECTORS*member_sector_size) !=
+ MIGR_REC_BUF_SECTORS*member_sector_size)
perror("Write migr_rec failed");
}
}
if (clear_migration_record)
memset(super->migr_rec_buf, 0,
- MIGR_REC_BUF_SECTORS*sector_size);
+ MIGR_REC_BUF_SECTORS*MAX_SECTOR_SIZE);
if (sector_size == 4096)
convert_to_4k(super);
struct ppl_header *ppl_hdr;
int ret;
- ret = posix_memalign(&buf, 4096, PPL_HEADER_SIZE);
+ /* first clear entire ppl space */
+ ret = zero_disk_range(fd, info->ppl_sector, info->ppl_size);
+ if (ret)
+ return ret;
+
+ ret = posix_memalign(&buf, MAX_SECTOR_SIZE, PPL_HEADER_SIZE);
if (ret) {
pr_err("Failed to allocate PPL header buffer\n");
return ret;
ppl_hdr = buf;
memset(ppl_hdr->reserved, 0xff, PPL_HDR_RESERVED);
ppl_hdr->signature = __cpu_to_le32(super->anchor->orig_family_num);
+
+ if (info->mismatch_cnt) {
+ /*
+ * We are overwriting an invalid ppl. Make one entry with wrong
+ * checksum to prevent the kernel from skipping resync.
+ */
+ ppl_hdr->entries_count = __cpu_to_le32(1);
+ ppl_hdr->entries[0].checksum = ~0;
+ }
+
ppl_hdr->checksum = __cpu_to_le32(~crc32c_le(~0, buf, PPL_HEADER_SIZE));
if (lseek64(fd, info->ppl_sector * 512, SEEK_SET) < 0) {
struct ppl_header *ppl_hdr;
__u32 crc;
struct imsm_dev *dev;
- struct imsm_map *map;
__u32 idx;
+ unsigned int i;
+ unsigned long long ppl_offset = 0;
+ unsigned long long prev_gen_num = 0;
if (disk->disk.raid_disk < 0)
return 0;
- if (posix_memalign(&buf, 4096, PPL_HEADER_SIZE)) {
+ if (posix_memalign(&buf, MAX_SECTOR_SIZE, PPL_HEADER_SIZE)) {
pr_err("Failed to allocate PPL header buffer\n");
return -1;
}
dev = get_imsm_dev(super, info->container_member);
- map = get_imsm_map(dev, MAP_X);
- idx = get_imsm_disk_idx(dev, disk->disk.raid_disk, MAP_X);
+ idx = get_imsm_disk_idx(dev, disk->disk.raid_disk, MAP_0);
d = get_imsm_dl_disk(super, idx);
if (!d || d->index < 0 || is_failed(&d->disk))
goto out;
- if (lseek64(d->fd, info->ppl_sector * 512, SEEK_SET) < 0) {
- perror("Failed to seek to PPL header location");
- ret = -1;
- goto out;
- }
+ ret = 1;
+ while (ppl_offset < MULTIPLE_PPL_AREA_SIZE_IMSM) {
+ dprintf("Checking potential PPL at offset: %llu\n", ppl_offset);
- if (read(d->fd, buf, PPL_HEADER_SIZE) != PPL_HEADER_SIZE) {
- perror("Read PPL header failed");
- ret = -1;
- goto out;
- }
+ if (lseek64(d->fd, info->ppl_sector * 512 + ppl_offset,
+ SEEK_SET) < 0) {
+ perror("Failed to seek to PPL header location");
+ ret = -1;
+ goto out;
+ }
- ppl_hdr = buf;
+ if (read(d->fd, buf, PPL_HEADER_SIZE) != PPL_HEADER_SIZE) {
+ perror("Read PPL header failed");
+ ret = -1;
+ goto out;
+ }
- crc = __le32_to_cpu(ppl_hdr->checksum);
- ppl_hdr->checksum = 0;
+ ppl_hdr = buf;
- if (crc != ~crc32c_le(~0, buf, PPL_HEADER_SIZE)) {
- dprintf("Wrong PPL header checksum on %s\n",
- d->devname);
- ret = 1;
- }
+ crc = __le32_to_cpu(ppl_hdr->checksum);
+ ppl_hdr->checksum = 0;
+
+ if (crc != ~crc32c_le(~0, buf, PPL_HEADER_SIZE)) {
+ dprintf("Wrong PPL header checksum on %s\n",
+ d->devname);
+ goto out;
+ }
+
+ if (prev_gen_num > __le64_to_cpu(ppl_hdr->generation)) {
+ /* previous was newest, it was already checked */
+ goto out;
+ }
+
+ if ((__le32_to_cpu(ppl_hdr->signature) !=
+ super->anchor->orig_family_num)) {
+ dprintf("Wrong PPL header signature on %s\n",
+ d->devname);
+ ret = 1;
+ goto out;
+ }
+
+ ret = 0;
+ prev_gen_num = __le64_to_cpu(ppl_hdr->generation);
- if (!ret && (__le32_to_cpu(ppl_hdr->signature) !=
- super->anchor->orig_family_num)) {
- dprintf("Wrong PPL header signature on %s\n",
- d->devname);
- ret = 1;
+ ppl_offset += PPL_HEADER_SIZE;
+ for (i = 0; i < __le32_to_cpu(ppl_hdr->entries_count); i++)
+ ppl_offset +=
+ __le32_to_cpu(ppl_hdr->entries[i].pp_size);
}
out:
free(buf);
- if (ret == 1 && map->map_state == IMSM_T_STATE_UNINITIALIZED)
- return st->ss->write_init_ppl(st, info, d->fd);
+ /*
+ * Update metadata to use mutliple PPLs area (1MB).
+ * This is done once for all RAID members
+ */
+ if (info->consistency_policy == CONSISTENCY_POLICY_PPL &&
+ info->ppl_size != (MULTIPLE_PPL_AREA_SIZE_IMSM >> 9)) {
+ char subarray[20];
+ struct mdinfo *member_dev;
+
+ sprintf(subarray, "%d", info->container_member);
+
+ if (mdmon_running(st->container_devnm))
+ st->update_tail = &st->updates;
+
+ if (st->ss->update_subarray(st, subarray, "ppl", NULL)) {
+ pr_err("Failed to update subarray %s\n",
+ subarray);
+ } else {
+ if (st->update_tail)
+ flush_metadata_updates(st);
+ else
+ st->ss->sync_metadata(st);
+ info->ppl_size = (MULTIPLE_PPL_AREA_SIZE_IMSM >> 9);
+ for (member_dev = info->devs; member_dev;
+ member_dev = member_dev->next)
+ member_dev->ppl_size =
+ (MULTIPLE_PPL_AREA_SIZE_IMSM >> 9);
+ }
+ }
+
+ if (ret == 1) {
+ struct imsm_map *map = get_imsm_map(dev, MAP_X);
+
+ if (map->map_state == IMSM_T_STATE_UNINITIALIZED ||
+ (map->map_state == IMSM_T_STATE_NORMAL &&
+ !(dev->vol.dirty & RAIDVOL_DIRTY)) ||
+ (dev->vol.migr_state == MIGR_REBUILD &&
+ dev->vol.curr_migr_unit == 0 &&
+ get_imsm_disk_idx(dev, disk->disk.raid_disk, MAP_1) != idx))
+ ret = st->ss->write_init_ppl(st, info, d->fd);
+ else
+ info->mismatch_cnt++;
+ }
return ret;
}
for (memb = mdstat ; memb ; memb = memb->next) {
if (memb->metadata_version &&
- (strncmp(memb->metadata_version, "external:", 9) == 0) &&
+ (strncmp(memb->metadata_version, "external:", 9) == 0) &&
(strcmp(&memb->metadata_version[9], name) == 0) &&
!is_subarray(memb->metadata_version+9) &&
memb->members) {
for (tmpdev = devlist; tmpdev; tmpdev = tmpdev->next) {
char *devname = tmpdev->devname;
- struct stat stb;
+ dev_t rdev;
struct supertype *tst;
int dfd;
if (tmpdev->used > 1)
dprintf("cannot open device %s: %s\n",
devname, strerror(errno));
tmpdev->used = 2;
- } else if (fstat(dfd, &stb)< 0) {
- /* Impossible! */
- dprintf("fstat failed for %s: %s\n",
- devname, strerror(errno));
- tmpdev->used = 2;
- } else if ((stb.st_mode & S_IFMT) != S_IFBLK) {
- dprintf("%s is not a block device.\n",
- devname);
+ } else if (!fstat_is_blkdev(dfd, devname, &rdev)) {
tmpdev->used = 2;
} else if (must_be_container(dfd)) {
struct supertype *cst;
if (cst)
cst->ss->free_super(cst);
} else {
- tmpdev->st_rdev = stb.st_rdev;
+ tmpdev->st_rdev = rdev;
if (tst->ss->load_super(tst,dfd, NULL)) {
dprintf("no RAID superblock on %s\n",
devname);
unsigned long long *freesize,
int verbose)
{
- struct stat stb;
+ dev_t rdev;
struct intel_super *super = st->sb;
struct imsm_super *mpb;
struct dl *dl;
}
/* This device must be a member of the set */
- if (stat(dev, &stb) < 0)
- return 0;
- if ((S_IFMT & stb.st_mode) != S_IFBLK)
+ if (!stat_is_blkdev(dev, &rdev))
return 0;
for (dl = super->disks ; dl ; dl = dl->next) {
- if (dl->major == (int)major(stb.st_rdev) &&
- dl->minor == (int)minor(stb.st_rdev))
+ if (dl->major == (int)major(rdev) &&
+ dl->minor == (int)minor(rdev))
break;
}
if (!dl) {
return 2;
if (strcmp(update, "ppl") == 0)
- new_policy = RWH_DISTRIBUTED;
+ new_policy = RWH_MULTIPLE_DISTRIBUTED;
else
- new_policy = RWH_OFF;
+ new_policy = RWH_MULTIPLE_OFF;
if (st->update_tail) {
struct imsm_update_rwh_policy *u = xmalloc(sizeof(*u));
int slot;
int chunk;
char *ep;
+ int level;
if (subarray &&
(i != strtoul(subarray, &ep, 10) || *ep != '\0'))
dev = get_imsm_dev(super, i);
map = get_imsm_map(dev, MAP_0);
map2 = get_imsm_map(dev, MAP_1);
+ level = get_imsm_raid_level(map);
/* do not publish arrays that are in the middle of an
* unsupported migration
chunk = __le16_to_cpu(map->blocks_per_strip) >> 1;
/* mdadm does not support all metadata features- set the bit in all arrays state */
if (!validate_geometry_imsm_orom(super,
- get_imsm_raid_level(map), /* RAID level */
- imsm_level_to_layout(get_imsm_raid_level(map)),
+ level, /* RAID level */
+ imsm_level_to_layout(level),
map->num_members, /* raid disks */
&chunk, join_u32(dev->size_low, dev->size_high),
1 /* verbose */)) {
int idx;
int skip;
__u32 ord;
+ int missing = 0;
skip = 0;
idx = get_imsm_disk_idx(dev, slot, MAP_0);
skip = 1;
if (d && is_failed(&d->disk))
skip = 1;
- if (ord & IMSM_ORD_REBUILD)
+ if (!skip && (ord & IMSM_ORD_REBUILD))
recovery_start = 0;
/*
* if we skip some disks the array will be assmebled degraded;
* reset resync start to avoid a dirty-degraded
* situation when performing the intial sync
- *
- * FIXME handle dirty degraded
*/
- if ((skip || recovery_start == 0) &&
- !(dev->vol.dirty & RAIDVOL_DIRTY))
- this->resync_start = MaxSector;
+ if (skip)
+ missing++;
+
+ if (!(dev->vol.dirty & RAIDVOL_DIRTY)) {
+ if ((!able_to_resync(level, missing) ||
+ recovery_start == 0))
+ this->resync_start = MaxSector;
+ } else {
+ /*
+ * FIXME handle dirty degraded
+ */
+ }
+
if (skip)
continue;
map->blocks_per_strip;
info_d->ppl_sector = this->ppl_sector;
info_d->ppl_size = this->ppl_size;
+ if (this->consistency_policy == CONSISTENCY_POLICY_PPL &&
+ recovery_start == 0)
+ this->resync_start = 0;
} else {
info_d->component_size = blocks_per_member(map);
}
- info_d->consistency_policy = this->consistency_policy;
info_d->bb.supported = 1;
get_volume_badblocks(super->bbm_log, ord_to_idx(ord),
/* end process for initialization and rebuild only
*/
if (is_gen_migration(dev) == 0) {
- __u8 map_state;
- int failed;
+ int failed = imsm_count_failed(super, dev, MAP_0);
- failed = imsm_count_failed(super, dev, MAP_0);
- map_state = imsm_check_degraded(super, dev, failed, MAP_0);
+ if (failed) {
+ __u8 map_state;
+ struct imsm_map *map = get_imsm_map(dev, MAP_0);
+ struct imsm_map *map1;
+ int i, ord, ord_map1;
+ int rebuilt = 1;
- if (failed)
- end_migration(dev, super, map_state);
+ for (i = 0; i < map->num_members; i++) {
+ ord = get_imsm_ord_tbl_ent(dev, i, MAP_0);
+ if (!(ord & IMSM_ORD_REBUILD))
+ continue;
+
+ map1 = get_imsm_map(dev, MAP_1);
+ if (!map1)
+ continue;
+
+ ord_map1 = __le32_to_cpu(map1->disk_ord_tbl[i]);
+ if (ord_map1 & IMSM_ORD_REBUILD)
+ rebuilt = 0;
+ }
+
+ if (rebuilt) {
+ map_state = imsm_check_degraded(super, dev,
+ failed, MAP_0);
+ end_migration(dev, super, map_state);
+ }
+ }
}
for (dl = super->missing; dl; dl = dl->next)
mark_missing(super, dev, &dl->disk, dl->index);
dev->vol.dirty = RAIDVOL_CLEAN;
} else {
dev->vol.dirty = RAIDVOL_DIRTY;
- if (dev->rwh_policy == RWH_DISTRIBUTED)
+ if (dev->rwh_policy == RWH_DISTRIBUTED ||
+ dev->rwh_policy == RWH_MULTIPLE_DISTRIBUTED)
dev->vol.dirty |= RAIDVOL_DSRECORD_VALID;
}
super->updates_pending++;
int failed;
int ord;
__u8 map_state;
+ int rebuild_done = 0;
+ int i;
- ord = imsm_disk_slot_to_ord(a, n);
+ ord = get_imsm_ord_tbl_ent(dev, n, MAP_X);
if (ord < 0)
return;
struct imsm_map *migr_map = get_imsm_map(dev, MAP_1);
set_imsm_ord_tbl_ent(migr_map, n, ord_to_idx(ord));
+ rebuild_done = 1;
super->updates_pending++;
}
dprintf_cont(" Map state change");
end_migration(dev, super, map_state);
super->updates_pending++;
+ } else if (!rebuild_done) {
+ break;
+ }
+
+ /* check if recovery is really finished */
+ for (mdi = a->info.devs; mdi ; mdi = mdi->next)
+ if (mdi->recovery_start != MaxSector) {
+ recovery_not_finished = 1;
+ break;
+ }
+ if (recovery_not_finished) {
+ dprintf_cont("\n");
+ dprintf("Rebuild has not finished yet, state not changed");
+ if (a->last_checkpoint < mdi->recovery_start) {
+ a->last_checkpoint =
+ mdi->recovery_start;
+ super->updates_pending++;
+ }
+ break;
}
+
+ dprintf_cont(" Rebuild done, still degraded");
+ dev->vol.migr_state = 0;
+ set_migr_type(dev, 0);
+ dev->vol.curr_migr_unit = 0;
+
+ for (i = 0; i < map->num_members; i++) {
+ int idx = get_imsm_ord_tbl_ent(dev, i, MAP_0);
+
+ if (idx & IMSM_ORD_REBUILD)
+ map->failed_disk_num = i;
+ }
+ super->updates_pending++;
break;
}
if (is_gen_migration(dev)) {
if (dl->index == -1 && !activate_new)
continue;
+ if (!drive_validate_sector_size(super, dl))
+ continue;
+
/* Does this unused device have the requisite free space?
* It needs to be able to cover all member volumes
*/
di->component_size = a->info.component_size;
di->container_member = inst;
di->bb.supported = 1;
- if (dev->rwh_policy == RWH_DISTRIBUTED) {
- di->consistency_policy = CONSISTENCY_POLICY_PPL;
+ if (a->info.consistency_policy == CONSISTENCY_POLICY_PPL) {
di->ppl_sector = get_ppl_sector(super, inst);
- di->ppl_size = (PPL_HEADER_SIZE + PPL_ENTRY_SPACE) >> 9;
+ di->ppl_size = MULTIPLE_PPL_AREA_SIZE_IMSM >> 9;
}
super->random = random32();
di->next = rv;
struct imsm_dev *dev;
struct imsm_map *map;
unsigned int i, j, num_members;
- __u32 ord;
+ __u32 ord, ord_map0;
struct bbm_log *log = super->bbm_log;
dprintf("deleting device[%d] from imsm_super\n", index);
* ord-flags to the first map
*/
ord = get_imsm_ord_tbl_ent(dev, j, MAP_X);
+ ord_map0 = get_imsm_ord_tbl_ent(dev, j, MAP_0);
if (ord_to_idx(ord) <= index)
continue;
map = get_imsm_map(dev, MAP_0);
- set_imsm_ord_tbl_ent(map, j, ord_to_idx(ord - 1));
+ set_imsm_ord_tbl_ent(map, j, ord_map0 - 1);
map = get_imsm_map(dev, MAP_1);
if (map)
set_imsm_ord_tbl_ent(map, j, ord - 1);
drv = "isci";
else if (hba && hba->type == SYS_DEV_SATA)
drv = "ahci";
+ else if (hba && hba->type == SYS_DEV_VMD)
+ drv = "vmd";
+ else if (hba && hba->type == SYS_DEV_NVME)
+ drv = "nvme";
else
drv = "unknown";
dprintf("path: %s hba: %s attached: %s\n",
*/
static struct mdinfo *get_spares_for_grow(struct supertype *st)
{
- unsigned long long min_size = min_acceptable_spare_size_imsm(st);
- return container_choose_spares(st, min_size, NULL, NULL, NULL, 0);
+ struct spare_criteria sc;
+
+ get_spare_criteria_imsm(st, &sc);
+ return container_choose_spares(st, &sc, NULL, NULL, NULL, 0);
}
/******************************************************************************
*/
spares = get_spares_for_grow(st);
- if (spares == NULL
- || delta_disks > spares->array.spare_disks) {
+ if (spares == NULL || delta_disks > spares->array.spare_disks) {
pr_err("imsm: ERROR: Cannot get spare devices for %s.\n", geo->dev_name);
i = -1;
goto abort;
/* Find volume during the reshape */
for (dv = super->devlist; dv; dv = dv->next) {
- if (dv->dev->vol.migr_type == MIGR_GEN_MIGR
- && dv->dev->vol.migr_state == 1) {
+ if (dv->dev->vol.migr_type == MIGR_GEN_MIGR &&
+ dv->dev->vol.migr_state == 1) {
dev = dv->dev;
migr_vol_qan++;
}
/* clear migr_rec on disks after successful migration */
struct dl *d;
- memset(super->migr_rec_buf, 0, MIGR_REC_BUF_SECTORS*sector_size);
+ memset(super->migr_rec_buf, 0, MIGR_REC_BUF_SECTORS*MAX_SECTOR_SIZE);
for (d = super->disks; d; d = d->next) {
if (d->index < 0 || is_failed(&d->disk))
continue;
.update_super = update_super_imsm,
.avail_size = avail_size_imsm,
- .min_acceptable_spare_size = min_acceptable_spare_size_imsm,
+ .get_spare_criteria = get_spare_criteria_imsm,
.compare_super = compare_super_imsm,
projects / thirdparty / mdadm.git / blobdiff