/* ARGSUSED */
int
fab_prep_basic_erpt(fmd_hdl_t *hdl, nvlist_t *nvl, nvlist_t *erpt,
boolean_t isRC)
{
uint64_t *now;
uint64_t ena;
uint_t nelem;
nvlist_t *detector, *new_detector;
char rcpath[255];
int err = 0;
/* Grab the tod, ena and detector(FMRI) */
err |= nvlist_lookup_uint64_array(nvl, "__tod", &now, &nelem);
err |= nvlist_lookup_uint64(nvl, "ena", &ena);
err |= nvlist_lookup_nvlist(nvl, FM_EREPORT_DETECTOR, &detector);
if (err)
return (err);
/* Make a copy of the detector */
err = nvlist_dup(detector, &new_detector, NV_UNIQUE_NAME);
if (err)
return (err);
/* Copy the tod and ena to erpt */
(void) nvlist_add_uint64(erpt, FM_EREPORT_ENA, ena);
(void) nvlist_add_uint64_array(erpt, "__tod", now, nelem);
/*
* Create the correct ROOT FMRI from PCIe leaf fabric ereports. Used
* only by fab_prep_fake_rc_erpt. See the fab_pciex_fake_rc_erpt_tbl
* comments for more information.
*/
if (isRC && fab_get_rcpath(hdl, nvl, rcpath)) {
/* Create the correct PCIe RC new_detector aka FMRI */
(void) nvlist_remove(new_detector, FM_FMRI_DEV_PATH,
DATA_TYPE_STRING);
(void) nvlist_add_string(new_detector, FM_FMRI_DEV_PATH,
rcpath);
}
/* Copy the FMRI to erpt */
(void) nvlist_add_nvlist(erpt, FM_EREPORT_DETECTOR, new_detector);
nvlist_free(new_detector);
return (err);
}
/*
* Set the named uint64 array from the given nvlist_t.
*
* @param attrs
* the nvlist_t to search
*
* @param which
* the string key for this element in the list
*
* @param val
* the value of the requested uint64 array
*
* @param nelem
* the number of elements in the array
*
* @return 0
* if successful
*
* @return EINVAL
* if there is an invalid argument
*
* @return ENOMEM
* if there is insufficient memory
*/
int
set_uint64_array(
nvlist_t *attrs,
char *which,
uint64_t *val,
uint_t nelem)
{
int error = 0;
if ((error = nvlist_add_uint64_array(
attrs, which, val, nelem)) != 0) {
volume_set_error(
gettext("nvlist_add_uint64_array(%s) failed: %d.\n"),
which, error);
}
return (error);
}
static void
zfs_ioctl_compat_fix_stats_nvlist(nvlist_t *nvl)
{
nvlist_t **child;
nvlist_t *nvroot = NULL;
vdev_stat_t *vs;
uint_t c, children, nelem;
if (nvlist_lookup_nvlist_array(nvl, ZPOOL_CONFIG_CHILDREN,
&child, &children) == 0) {
for (c = 0; c < children; c++) {
zfs_ioctl_compat_fix_stats_nvlist(child[c]);
}
}
if (nvlist_lookup_nvlist(nvl, ZPOOL_CONFIG_VDEV_TREE,
&nvroot) == 0)
zfs_ioctl_compat_fix_stats_nvlist(nvroot);
#ifdef _KERNEL
if ((nvlist_lookup_uint64_array(nvl, ZPOOL_CONFIG_VDEV_STATS,
#else
if ((nvlist_lookup_uint64_array(nvl, "stats",
#endif
(uint64_t **)&vs, &nelem) == 0)) {
nvlist_add_uint64_array(nvl,
#ifdef _KERNEL
"stats",
#else
ZPOOL_CONFIG_VDEV_STATS,
#endif
(uint64_t *)vs, nelem);
#ifdef _KERNEL
nvlist_remove(nvl, ZPOOL_CONFIG_VDEV_STATS,
#else
nvlist_remove(nvl, "stats",
#endif
DATA_TYPE_UINT64_ARRAY);
}
/*
* Convert our list of pools into the definitive set of configurations. We
* start by picking the best config for each toplevel vdev. Once that's done,
* we assemble the toplevel vdevs into a full config for the pool. We make a
* pass to fix up any incorrect paths, and then add it to the main list to
* return to the user.
*/
static nvlist_t *
get_configs(libzfs_handle_t *hdl, pool_list_t *pl, boolean_t active_ok,
nvlist_t *policy)
{
pool_entry_t *pe;
vdev_entry_t *ve;
config_entry_t *ce;
nvlist_t *ret = NULL, *config = NULL, *tmp = NULL, *nvtop, *nvroot;
nvlist_t **spares, **l2cache;
uint_t i, nspares, nl2cache;
boolean_t config_seen;
uint64_t best_txg;
char *name, *hostname = NULL;
uint64_t guid;
uint_t children = 0;
nvlist_t **child = NULL;
uint_t holes;
uint64_t *hole_array, max_id;
uint_t c;
boolean_t isactive;
uint64_t hostid;
nvlist_t *nvl;
boolean_t valid_top_config = B_FALSE;
if (nvlist_alloc(&ret, 0, 0) != 0)
goto nomem;
for (pe = pl->pools; pe != NULL; pe = pe->pe_next) {
uint64_t id, max_txg = 0;
if (nvlist_alloc(&config, NV_UNIQUE_NAME, 0) != 0)
goto nomem;
config_seen = B_FALSE;
/*
* Iterate over all toplevel vdevs. Grab the pool configuration
* from the first one we find, and then go through the rest and
* add them as necessary to the 'vdevs' member of the config.
*/
for (ve = pe->pe_vdevs; ve != NULL; ve = ve->ve_next) {
/*
* Determine the best configuration for this vdev by
* selecting the config with the latest transaction
* group.
*/
best_txg = 0;
for (ce = ve->ve_configs; ce != NULL;
ce = ce->ce_next) {
if (ce->ce_txg > best_txg) {
tmp = ce->ce_config;
best_txg = ce->ce_txg;
}
}
/*
* We rely on the fact that the max txg for the
* pool will contain the most up-to-date information
* about the valid top-levels in the vdev namespace.
*/
if (best_txg > max_txg) {
(void) nvlist_remove(config,
ZPOOL_CONFIG_VDEV_CHILDREN,
DATA_TYPE_UINT64);
(void) nvlist_remove(config,
ZPOOL_CONFIG_HOLE_ARRAY,
DATA_TYPE_UINT64_ARRAY);
max_txg = best_txg;
hole_array = NULL;
holes = 0;
max_id = 0;
valid_top_config = B_FALSE;
if (nvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_VDEV_CHILDREN, &max_id) == 0) {
verify(nvlist_add_uint64(config,
ZPOOL_CONFIG_VDEV_CHILDREN,
max_id) == 0);
valid_top_config = B_TRUE;
}
if (nvlist_lookup_uint64_array(tmp,
ZPOOL_CONFIG_HOLE_ARRAY, &hole_array,
&holes) == 0) {
verify(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_HOLE_ARRAY,
hole_array, holes) == 0);
}
}
if (!config_seen) {
/*
* Copy the relevant pieces of data to the pool
* configuration:
*
* version
* pool guid
* name
* pool txg (if available)
* comment (if available)
* pool state
* hostid (if available)
* hostname (if available)
*/
uint64_t state, version, pool_txg;
char *comment = NULL;
version = fnvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_VERSION);
fnvlist_add_uint64(config,
ZPOOL_CONFIG_VERSION, version);
guid = fnvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_POOL_GUID);
fnvlist_add_uint64(config,
ZPOOL_CONFIG_POOL_GUID, guid);
name = fnvlist_lookup_string(tmp,
ZPOOL_CONFIG_POOL_NAME);
fnvlist_add_string(config,
ZPOOL_CONFIG_POOL_NAME, name);
if (nvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_POOL_TXG, &pool_txg) == 0)
fnvlist_add_uint64(config,
ZPOOL_CONFIG_POOL_TXG, pool_txg);
if (nvlist_lookup_string(tmp,
ZPOOL_CONFIG_COMMENT, &comment) == 0)
fnvlist_add_string(config,
ZPOOL_CONFIG_COMMENT, comment);
state = fnvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_POOL_STATE);
fnvlist_add_uint64(config,
ZPOOL_CONFIG_POOL_STATE, state);
hostid = 0;
if (nvlist_lookup_uint64(tmp,
ZPOOL_CONFIG_HOSTID, &hostid) == 0) {
fnvlist_add_uint64(config,
ZPOOL_CONFIG_HOSTID, hostid);
hostname = fnvlist_lookup_string(tmp,
ZPOOL_CONFIG_HOSTNAME);
fnvlist_add_string(config,
ZPOOL_CONFIG_HOSTNAME, hostname);
}
config_seen = B_TRUE;
}
/*
* Add this top-level vdev to the child array.
*/
verify(nvlist_lookup_nvlist(tmp,
ZPOOL_CONFIG_VDEV_TREE, &nvtop) == 0);
verify(nvlist_lookup_uint64(nvtop, ZPOOL_CONFIG_ID,
&id) == 0);
if (id >= children) {
nvlist_t **newchild;
newchild = zfs_alloc(hdl, (id + 1) *
sizeof (nvlist_t *));
if (newchild == NULL)
goto nomem;
for (c = 0; c < children; c++)
newchild[c] = child[c];
free(child);
child = newchild;
children = id + 1;
}
if (nvlist_dup(nvtop, &child[id], 0) != 0)
goto nomem;
}
/*
* If we have information about all the top-levels then
* clean up the nvlist which we've constructed. This
* means removing any extraneous devices that are
* beyond the valid range or adding devices to the end
* of our array which appear to be missing.
*/
if (valid_top_config) {
if (max_id < children) {
for (c = max_id; c < children; c++)
nvlist_free(child[c]);
children = max_id;
} else if (max_id > children) {
nvlist_t **newchild;
newchild = zfs_alloc(hdl, (max_id) *
sizeof (nvlist_t *));
if (newchild == NULL)
goto nomem;
for (c = 0; c < children; c++)
newchild[c] = child[c];
free(child);
child = newchild;
children = max_id;
}
}
verify(nvlist_lookup_uint64(config, ZPOOL_CONFIG_POOL_GUID,
&guid) == 0);
/*
* The vdev namespace may contain holes as a result of
* device removal. We must add them back into the vdev
* tree before we process any missing devices.
*/
if (holes > 0) {
ASSERT(valid_top_config);
for (c = 0; c < children; c++) {
nvlist_t *holey;
if (child[c] != NULL ||
!vdev_is_hole(hole_array, holes, c))
continue;
if (nvlist_alloc(&holey, NV_UNIQUE_NAME,
0) != 0)
goto nomem;
/*
* Holes in the namespace are treated as
* "hole" top-level vdevs and have a
* special flag set on them.
*/
if (nvlist_add_string(holey,
ZPOOL_CONFIG_TYPE,
VDEV_TYPE_HOLE) != 0 ||
nvlist_add_uint64(holey,
ZPOOL_CONFIG_ID, c) != 0 ||
nvlist_add_uint64(holey,
ZPOOL_CONFIG_GUID, 0ULL) != 0) {
nvlist_free(holey);
goto nomem;
}
child[c] = holey;
}
}
/*
* Look for any missing top-level vdevs. If this is the case,
* create a faked up 'missing' vdev as a placeholder. We cannot
* simply compress the child array, because the kernel performs
* certain checks to make sure the vdev IDs match their location
* in the configuration.
*/
for (c = 0; c < children; c++) {
if (child[c] == NULL) {
nvlist_t *missing;
if (nvlist_alloc(&missing, NV_UNIQUE_NAME,
0) != 0)
goto nomem;
if (nvlist_add_string(missing,
ZPOOL_CONFIG_TYPE,
VDEV_TYPE_MISSING) != 0 ||
nvlist_add_uint64(missing,
ZPOOL_CONFIG_ID, c) != 0 ||
nvlist_add_uint64(missing,
ZPOOL_CONFIG_GUID, 0ULL) != 0) {
nvlist_free(missing);
goto nomem;
}
child[c] = missing;
}
}
/*
* Put all of this pool's top-level vdevs into a root vdev.
*/
if (nvlist_alloc(&nvroot, NV_UNIQUE_NAME, 0) != 0)
goto nomem;
if (nvlist_add_string(nvroot, ZPOOL_CONFIG_TYPE,
VDEV_TYPE_ROOT) != 0 ||
nvlist_add_uint64(nvroot, ZPOOL_CONFIG_ID, 0ULL) != 0 ||
nvlist_add_uint64(nvroot, ZPOOL_CONFIG_GUID, guid) != 0 ||
nvlist_add_nvlist_array(nvroot, ZPOOL_CONFIG_CHILDREN,
child, children) != 0) {
nvlist_free(nvroot);
goto nomem;
}
for (c = 0; c < children; c++)
nvlist_free(child[c]);
free(child);
children = 0;
child = NULL;
/*
* Go through and fix up any paths and/or devids based on our
* known list of vdev GUID -> path mappings.
*/
if (fix_paths(nvroot, pl->names) != 0) {
nvlist_free(nvroot);
goto nomem;
}
/*
* Add the root vdev to this pool's configuration.
*/
if (nvlist_add_nvlist(config, ZPOOL_CONFIG_VDEV_TREE,
nvroot) != 0) {
nvlist_free(nvroot);
goto nomem;
}
nvlist_free(nvroot);
/*
* zdb uses this path to report on active pools that were
* imported or created using -R.
*/
if (active_ok)
goto add_pool;
/*
* Determine if this pool is currently active, in which case we
* can't actually import it.
*/
verify(nvlist_lookup_string(config, ZPOOL_CONFIG_POOL_NAME,
&name) == 0);
verify(nvlist_lookup_uint64(config, ZPOOL_CONFIG_POOL_GUID,
&guid) == 0);
if (pool_active(hdl, name, guid, &isactive) != 0)
goto error;
if (isactive) {
nvlist_free(config);
config = NULL;
continue;
}
if (policy != NULL) {
if (nvlist_add_nvlist(config, ZPOOL_LOAD_POLICY,
policy) != 0)
goto nomem;
}
if ((nvl = refresh_config(hdl, config)) == NULL) {
nvlist_free(config);
config = NULL;
continue;
}
nvlist_free(config);
config = nvl;
/*
* Go through and update the paths for spares, now that we have
* them.
*/
verify(nvlist_lookup_nvlist(config, ZPOOL_CONFIG_VDEV_TREE,
&nvroot) == 0);
if (nvlist_lookup_nvlist_array(nvroot, ZPOOL_CONFIG_SPARES,
&spares, &nspares) == 0) {
for (i = 0; i < nspares; i++) {
if (fix_paths(spares[i], pl->names) != 0)
goto nomem;
}
}
/*
* Update the paths for l2cache devices.
*/
if (nvlist_lookup_nvlist_array(nvroot, ZPOOL_CONFIG_L2CACHE,
&l2cache, &nl2cache) == 0) {
for (i = 0; i < nl2cache; i++) {
if (fix_paths(l2cache[i], pl->names) != 0)
goto nomem;
}
}
/*
* Restore the original information read from the actual label.
*/
(void) nvlist_remove(config, ZPOOL_CONFIG_HOSTID,
DATA_TYPE_UINT64);
(void) nvlist_remove(config, ZPOOL_CONFIG_HOSTNAME,
DATA_TYPE_STRING);
if (hostid != 0) {
verify(nvlist_add_uint64(config, ZPOOL_CONFIG_HOSTID,
hostid) == 0);
verify(nvlist_add_string(config, ZPOOL_CONFIG_HOSTNAME,
hostname) == 0);
}
add_pool:
/*
* Add this pool to the list of configs.
*/
verify(nvlist_lookup_string(config, ZPOOL_CONFIG_POOL_NAME,
&name) == 0);
if (nvlist_add_nvlist(ret, name, config) != 0)
goto nomem;
nvlist_free(config);
config = NULL;
}
return (ret);
nomem:
(void) no_memory(hdl);
error:
nvlist_free(config);
nvlist_free(ret);
for (c = 0; c < children; c++)
nvlist_free(child[c]);
free(child);
return (NULL);
}
void
fnvlist_add_uint64_array(nvlist_t *nvl, const char *name,
uint64_t *val, uint_t n)
{
VERIFY0(nvlist_add_uint64_array(nvl, name, val, n));
}
/*
* Generate the pool's configuration based on the current in-core state.
*
* We infer whether to generate a complete config or just one top-level config
* based on whether vd is the root vdev.
*/
nvlist_t *
spa_config_generate(spa_t *spa, vdev_t *vd, uint64_t txg, int getstats)
{
nvlist_t *config, *nvroot;
vdev_t *rvd = spa->spa_root_vdev;
unsigned long hostid = 0;
boolean_t locked = B_FALSE;
uint64_t split_guid;
if (vd == NULL) {
vd = rvd;
locked = B_TRUE;
spa_config_enter(spa, SCL_CONFIG | SCL_STATE, FTAG, RW_READER);
}
ASSERT(spa_config_held(spa, SCL_CONFIG | SCL_STATE, RW_READER) ==
(SCL_CONFIG | SCL_STATE));
/*
* If txg is -1, report the current value of spa->spa_config_txg.
*/
if (txg == -1ULL)
txg = spa->spa_config_txg;
VERIFY(nvlist_alloc(&config, NV_UNIQUE_NAME, KM_SLEEP) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_VERSION,
spa_version(spa)) == 0);
VERIFY(nvlist_add_string(config, ZPOOL_CONFIG_POOL_NAME,
spa_name(spa)) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_STATE,
spa_state(spa)) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_TXG,
txg) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_GUID,
spa_guid(spa)) == 0);
VERIFY(spa->spa_comment == NULL || nvlist_add_string(config,
ZPOOL_CONFIG_COMMENT, spa->spa_comment) == 0);
#ifdef _KERNEL
hostid = zone_get_hostid(NULL);
#else /* _KERNEL */
/*
* We're emulating the system's hostid in userland, so we can't use
* zone_get_hostid().
*/
(void) ddi_strtoul(hw_serial, NULL, 10, &hostid);
#endif /* _KERNEL */
if (hostid != 0) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_HOSTID,
hostid) == 0);
}
VERIFY(nvlist_add_string(config, ZPOOL_CONFIG_HOSTNAME,
utsname.nodename) == 0);
if (vd != rvd) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_TOP_GUID,
vd->vdev_top->vdev_guid) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_GUID,
vd->vdev_guid) == 0);
if (vd->vdev_isspare)
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_IS_SPARE,
1ULL) == 0);
if (vd->vdev_islog)
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_IS_LOG,
1ULL) == 0);
vd = vd->vdev_top; /* label contains top config */
} else {
/*
* Only add the (potentially large) split information
* in the mos config, and not in the vdev labels
*/
if (spa->spa_config_splitting != NULL)
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_SPLIT,
spa->spa_config_splitting) == 0);
}
/*
* Add the top-level config. We even add this on pools which
* don't support holes in the namespace.
*/
vdev_top_config_generate(spa, config);
/*
* If we're splitting, record the original pool's guid.
*/
if (spa->spa_config_splitting != NULL &&
nvlist_lookup_uint64(spa->spa_config_splitting,
ZPOOL_CONFIG_SPLIT_GUID, &split_guid) == 0) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_SPLIT_GUID,
split_guid) == 0);
}
nvroot = vdev_config_generate(spa, vd, getstats, 0);
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_VDEV_TREE, nvroot) == 0);
nvlist_free(nvroot);
/*
* Store what's necessary for reading the MOS in the label.
*/
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_FEATURES_FOR_READ,
spa->spa_label_features) == 0);
if (getstats && spa_load_state(spa) == SPA_LOAD_NONE) {
ddt_histogram_t *ddh;
ddt_stat_t *dds;
ddt_object_t *ddo;
ddh = kmem_zalloc(sizeof (ddt_histogram_t), KM_SLEEP);
ddt_get_dedup_histogram(spa, ddh);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_HISTOGRAM,
(uint64_t *)ddh, sizeof (*ddh) / sizeof (uint64_t)) == 0);
kmem_free(ddh, sizeof (ddt_histogram_t));
ddo = kmem_zalloc(sizeof (ddt_object_t), KM_SLEEP);
ddt_get_dedup_object_stats(spa, ddo);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_OBJ_STATS,
(uint64_t *)ddo, sizeof (*ddo) / sizeof (uint64_t)) == 0);
kmem_free(ddo, sizeof (ddt_object_t));
dds = kmem_zalloc(sizeof (ddt_stat_t), KM_SLEEP);
ddt_get_dedup_stats(spa, dds);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_STATS,
(uint64_t *)dds, sizeof (*dds) / sizeof (uint64_t)) == 0);
kmem_free(dds, sizeof (ddt_stat_t));
}
if (locked)
spa_config_exit(spa, SCL_CONFIG | SCL_STATE, FTAG);
return (config);
}
/*
* Generate the pool's configuration based on the current in-core state.
*
* We infer whether to generate a complete config or just one top-level config
* based on whether vd is the root vdev.
*/
nvlist_t *
spa_config_generate(spa_t *spa, vdev_t *vd, uint64_t txg, int getstats)
{
nvlist_t *config, *nvroot;
vdev_t *rvd = spa->spa_root_vdev;
unsigned long hostid = 0;
boolean_t locked = B_FALSE;
uint64_t split_guid;
char *pool_name;
if (vd == NULL) {
vd = rvd;
locked = B_TRUE;
spa_config_enter(spa, SCL_CONFIG | SCL_STATE, FTAG, RW_READER);
}
ASSERT(spa_config_held(spa, SCL_CONFIG | SCL_STATE, RW_READER) ==
(SCL_CONFIG | SCL_STATE));
/*
* If txg is -1, report the current value of spa->spa_config_txg.
*/
if (txg == -1ULL)
txg = spa->spa_config_txg;
/*
* Originally, users had to handle spa namespace collisions by either
* exporting the already imported pool or by specifying a new name for
* the pool with a conflicting name. In the case of root pools from
* virtual guests, neither approach to collision resolution is
* reasonable. This is addressed by extending the new name syntax with
* an option to specify that the new name is temporary. When specified,
* ZFS_IMPORT_TEMP_NAME will be set in spa->spa_import_flags to tell us
* to use the previous name, which we do below.
*/
if (spa->spa_import_flags & ZFS_IMPORT_TEMP_NAME) {
VERIFY0(nvlist_lookup_string(spa->spa_config,
ZPOOL_CONFIG_POOL_NAME, &pool_name));
} else
pool_name = spa_name(spa);
VERIFY(nvlist_alloc(&config, NV_UNIQUE_NAME, KM_SLEEP) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_VERSION,
spa_version(spa)) == 0);
VERIFY(nvlist_add_string(config, ZPOOL_CONFIG_POOL_NAME,
pool_name) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_STATE,
spa_state(spa)) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_TXG,
txg) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_POOL_GUID,
spa_guid(spa)) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_ERRATA,
spa->spa_errata) == 0);
VERIFY(spa->spa_comment == NULL || nvlist_add_string(config,
ZPOOL_CONFIG_COMMENT, spa->spa_comment) == 0);
#ifdef _KERNEL
hostid = zone_get_hostid(NULL);
#else /* _KERNEL */
/*
* We're emulating the system's hostid in userland, so we can't use
* zone_get_hostid().
*/
(void) ddi_strtoul(hw_serial, NULL, 10, &hostid);
#endif /* _KERNEL */
if (hostid != 0) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_HOSTID,
hostid) == 0);
}
VERIFY0(nvlist_add_string(config, ZPOOL_CONFIG_HOSTNAME,
utsname()->nodename));
if (vd != rvd) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_TOP_GUID,
vd->vdev_top->vdev_guid) == 0);
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_GUID,
vd->vdev_guid) == 0);
if (vd->vdev_isspare)
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_IS_SPARE,
1ULL) == 0);
if (vd->vdev_islog)
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_IS_LOG,
1ULL) == 0);
vd = vd->vdev_top; /* label contains top config */
} else {
/*
* Only add the (potentially large) split information
* in the mos config, and not in the vdev labels
*/
if (spa->spa_config_splitting != NULL)
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_SPLIT,
spa->spa_config_splitting) == 0);
}
/*
* Add the top-level config. We even add this on pools which
* don't support holes in the namespace.
*/
vdev_top_config_generate(spa, config);
/*
* If we're splitting, record the original pool's guid.
*/
if (spa->spa_config_splitting != NULL &&
nvlist_lookup_uint64(spa->spa_config_splitting,
ZPOOL_CONFIG_SPLIT_GUID, &split_guid) == 0) {
VERIFY(nvlist_add_uint64(config, ZPOOL_CONFIG_SPLIT_GUID,
split_guid) == 0);
}
nvroot = vdev_config_generate(spa, vd, getstats, 0);
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_VDEV_TREE, nvroot) == 0);
nvlist_free(nvroot);
/*
* Store what's necessary for reading the MOS in the label.
*/
VERIFY(nvlist_add_nvlist(config, ZPOOL_CONFIG_FEATURES_FOR_READ,
spa->spa_label_features) == 0);
if (getstats && spa_load_state(spa) == SPA_LOAD_NONE) {
ddt_histogram_t *ddh;
ddt_stat_t *dds;
ddt_object_t *ddo;
ddh = kmem_zalloc(sizeof (ddt_histogram_t), KM_SLEEP);
ddt_get_dedup_histogram(spa, ddh);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_HISTOGRAM,
(uint64_t *)ddh, sizeof (*ddh) / sizeof (uint64_t)) == 0);
kmem_free(ddh, sizeof (ddt_histogram_t));
ddo = kmem_zalloc(sizeof (ddt_object_t), KM_SLEEP);
ddt_get_dedup_object_stats(spa, ddo);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_OBJ_STATS,
(uint64_t *)ddo, sizeof (*ddo) / sizeof (uint64_t)) == 0);
kmem_free(ddo, sizeof (ddt_object_t));
dds = kmem_zalloc(sizeof (ddt_stat_t), KM_SLEEP);
ddt_get_dedup_stats(spa, dds);
VERIFY(nvlist_add_uint64_array(config,
ZPOOL_CONFIG_DDT_STATS,
(uint64_t *)dds, sizeof (*dds) / sizeof (uint64_t)) == 0);
kmem_free(dds, sizeof (ddt_stat_t));
}
if (locked)
spa_config_exit(spa, SCL_CONFIG | SCL_STATE, FTAG);
return (config);
}
/* ARGSUSED */
static int
xattr_fill_nvlist(vnode_t *vp, xattr_view_t xattr_view, nvlist_t *nvlp,
cred_t *cr, caller_context_t *ct)
{
int error;
f_attr_t attr;
uint64_t fsid;
xvattr_t xvattr;
xoptattr_t *xoap; /* Pointer to optional attributes */
vnode_t *ppvp;
const char *domain;
uint32_t rid;
xva_init(&xvattr);
if ((xoap = xva_getxoptattr(&xvattr)) == NULL)
return (EINVAL);
/*
* For detecting ephemeral uid/gid
*/
xvattr.xva_vattr.va_mask |= (AT_UID|AT_GID);
/*
* We need to access the real fs object.
* vp points to a GFS file; ppvp points to the real object.
*/
ppvp = gfs_file_parent(gfs_file_parent(vp));
/*
* Iterate through the attrs associated with this view
*/
for (attr = 0; attr < F_ATTR_ALL; attr++) {
if (xattr_view != attr_to_xattr_view(attr)) {
continue;
}
switch (attr) {
case F_SYSTEM:
XVA_SET_REQ(&xvattr, XAT_SYSTEM);
break;
case F_READONLY:
XVA_SET_REQ(&xvattr, XAT_READONLY);
break;
case F_HIDDEN:
XVA_SET_REQ(&xvattr, XAT_HIDDEN);
break;
case F_ARCHIVE:
XVA_SET_REQ(&xvattr, XAT_ARCHIVE);
break;
case F_IMMUTABLE:
XVA_SET_REQ(&xvattr, XAT_IMMUTABLE);
break;
case F_APPENDONLY:
XVA_SET_REQ(&xvattr, XAT_APPENDONLY);
break;
case F_NOUNLINK:
XVA_SET_REQ(&xvattr, XAT_NOUNLINK);
break;
case F_OPAQUE:
XVA_SET_REQ(&xvattr, XAT_OPAQUE);
break;
case F_NODUMP:
XVA_SET_REQ(&xvattr, XAT_NODUMP);
break;
case F_AV_QUARANTINED:
XVA_SET_REQ(&xvattr, XAT_AV_QUARANTINED);
break;
case F_AV_MODIFIED:
XVA_SET_REQ(&xvattr, XAT_AV_MODIFIED);
break;
case F_AV_SCANSTAMP:
if (ppvp->v_type == VREG)
XVA_SET_REQ(&xvattr, XAT_AV_SCANSTAMP);
break;
case F_CRTIME:
XVA_SET_REQ(&xvattr, XAT_CREATETIME);
break;
case F_FSID:
fsid = (((uint64_t)vp->v_vfsp->vfs_fsid.val[0] << 32) |
(uint64_t)(vp->v_vfsp->vfs_fsid.val[1] &
0xffffffff));
VERIFY(nvlist_add_uint64(nvlp, attr_to_name(attr),
fsid) == 0);
break;
case F_REPARSE:
XVA_SET_REQ(&xvattr, XAT_REPARSE);
break;
case F_GEN:
XVA_SET_REQ(&xvattr, XAT_GEN);
break;
case F_OFFLINE:
XVA_SET_REQ(&xvattr, XAT_OFFLINE);
break;
case F_SPARSE:
XVA_SET_REQ(&xvattr, XAT_SPARSE);
break;
default:
break;
}
}
error = VOP_GETATTR(ppvp, &xvattr.xva_vattr, 0, cr, ct);
if (error)
return (error);
/*
* Process all the optional attributes together here. Notice that
* xoap was set when the optional attribute bits were set above.
*/
if ((xvattr.xva_vattr.va_mask & AT_XVATTR) && xoap) {
if (XVA_ISSET_RTN(&xvattr, XAT_READONLY)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_READONLY),
xoap->xoa_readonly) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_HIDDEN)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_HIDDEN),
xoap->xoa_hidden) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_SYSTEM)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_SYSTEM),
xoap->xoa_system) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_ARCHIVE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_ARCHIVE),
xoap->xoa_archive) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_IMMUTABLE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_IMMUTABLE),
xoap->xoa_immutable) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_NOUNLINK)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_NOUNLINK),
xoap->xoa_nounlink) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_APPENDONLY)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_APPENDONLY),
xoap->xoa_appendonly) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_NODUMP)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_NODUMP),
xoap->xoa_nodump) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_OPAQUE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_OPAQUE),
xoap->xoa_opaque) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_AV_QUARANTINED)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_AV_QUARANTINED),
xoap->xoa_av_quarantined) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_AV_MODIFIED)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_AV_MODIFIED),
xoap->xoa_av_modified) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_AV_SCANSTAMP)) {
VERIFY(nvlist_add_uint8_array(nvlp,
attr_to_name(F_AV_SCANSTAMP),
xoap->xoa_av_scanstamp,
sizeof (xoap->xoa_av_scanstamp)) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_CREATETIME)) {
VERIFY(nvlist_add_uint64_array(nvlp,
attr_to_name(F_CRTIME),
(uint64_t *)&(xoap->xoa_createtime),
sizeof (xoap->xoa_createtime) /
sizeof (uint64_t)) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_REPARSE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_REPARSE),
xoap->xoa_reparse) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_GEN)) {
VERIFY(nvlist_add_uint64(nvlp,
attr_to_name(F_GEN),
xoap->xoa_generation) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_OFFLINE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_OFFLINE),
xoap->xoa_offline) == 0);
}
if (XVA_ISSET_RTN(&xvattr, XAT_SPARSE)) {
VERIFY(nvlist_add_boolean_value(nvlp,
attr_to_name(F_SPARSE),
xoap->xoa_sparse) == 0);
}
}
/*
* Check for optional ownersid/groupsid
*/
if (xvattr.xva_vattr.va_uid > MAXUID) {
nvlist_t *nvl_sid;
if (nvlist_alloc(&nvl_sid, NV_UNIQUE_NAME, KM_SLEEP))
return (ENOMEM);
if (kidmap_getsidbyuid(crgetzone(cr), xvattr.xva_vattr.va_uid,
&domain, &rid) == 0) {
VERIFY(nvlist_add_string(nvl_sid,
SID_DOMAIN, domain) == 0);
VERIFY(nvlist_add_uint32(nvl_sid, SID_RID, rid) == 0);
VERIFY(nvlist_add_nvlist(nvlp, attr_to_name(F_OWNERSID),
nvl_sid) == 0);
}
nvlist_free(nvl_sid);
}
if (xvattr.xva_vattr.va_gid > MAXUID) {
nvlist_t *nvl_sid;
if (nvlist_alloc(&nvl_sid, NV_UNIQUE_NAME, KM_SLEEP))
return (ENOMEM);
if (kidmap_getsidbygid(crgetzone(cr), xvattr.xva_vattr.va_gid,
&domain, &rid) == 0) {
VERIFY(nvlist_add_string(nvl_sid,
SID_DOMAIN, domain) == 0);
VERIFY(nvlist_add_uint32(nvl_sid, SID_RID, rid) == 0);
VERIFY(nvlist_add_nvlist(nvlp, attr_to_name(F_GROUPSID),
nvl_sid) == 0);
}
nvlist_free(nvl_sid);
}
return (0);
}
static int
topo_prop_set(tnode_t *node, const char *pgname, const char *pname,
topo_type_t type, int flag, void *val, int nelems, int *err)
{
int ret;
topo_hdl_t *thp = node->tn_hdl;
nvlist_t *nvl;
if (topo_hdl_nvalloc(thp, &nvl, NV_UNIQUE_NAME) < 0) {
*err = ETOPO_PROP_NVL;
return (-1);
}
ret = nvlist_add_string(nvl, TOPO_PROP_VAL_NAME, pname);
ret |= nvlist_add_uint32(nvl, TOPO_PROP_VAL_TYPE, type);
switch (type) {
case TOPO_TYPE_INT32:
ret |= nvlist_add_int32(nvl, TOPO_PROP_VAL_VAL,
*(int32_t *)val);
break;
case TOPO_TYPE_UINT32:
ret |= nvlist_add_uint32(nvl, TOPO_PROP_VAL_VAL,
*(uint32_t *)val);
break;
case TOPO_TYPE_INT64:
ret |= nvlist_add_int64(nvl, TOPO_PROP_VAL_VAL,
*(int64_t *)val);
break;
case TOPO_TYPE_UINT64:
ret |= nvlist_add_uint64(nvl, TOPO_PROP_VAL_VAL,
*(uint64_t *)val);
break;
case TOPO_TYPE_DOUBLE:
ret |= nvlist_add_double(nvl, TOPO_PROP_VAL_VAL,
*(double *)val);
break;
case TOPO_TYPE_STRING:
ret |= nvlist_add_string(nvl, TOPO_PROP_VAL_VAL,
(char *)val);
break;
case TOPO_TYPE_FMRI:
ret |= nvlist_add_nvlist(nvl, TOPO_PROP_VAL_VAL,
(nvlist_t *)val);
break;
case TOPO_TYPE_INT32_ARRAY:
ret |= nvlist_add_int32_array(nvl,
TOPO_PROP_VAL_VAL, (int32_t *)val, nelems);
break;
case TOPO_TYPE_UINT32_ARRAY:
ret |= nvlist_add_uint32_array(nvl,
TOPO_PROP_VAL_VAL, (uint32_t *)val, nelems);
break;
case TOPO_TYPE_INT64_ARRAY:
ret |= nvlist_add_int64_array(nvl,
TOPO_PROP_VAL_VAL, (int64_t *)val, nelems);
break;
case TOPO_TYPE_UINT64_ARRAY:
ret |= nvlist_add_uint64_array(nvl,
TOPO_PROP_VAL_VAL, (uint64_t *)val, nelems);
break;
case TOPO_TYPE_STRING_ARRAY:
ret |= nvlist_add_string_array(nvl,
TOPO_PROP_VAL_VAL, (char **)val, nelems);
break;
case TOPO_TYPE_FMRI_ARRAY:
ret |= nvlist_add_nvlist_array(nvl,
TOPO_PROP_VAL_VAL, (nvlist_t **)val, nelems);
break;
default:
*err = ETOPO_PROP_TYPE;
return (-1);
}
if (ret != 0) {
nvlist_free(nvl);
if (ret == ENOMEM) {
*err = ETOPO_PROP_NOMEM;
return (-1);
} else {
*err = ETOPO_PROP_NVL;
return (-1);
}
}
if (topo_prop_setprop(node, pgname, nvl, flag, nvl, err) != 0) {
nvlist_free(nvl);
return (-1); /* err set */
}
nvlist_free(nvl);
return (ret);
}
/*
* fps_generate_ereport_struct(struct fps_test_ereport *report)
* takes report and constructs an nvlist that will be used
* for the ereport.
*/
int
fps_generate_ereport_struct(struct fps_test_ereport *report)
{
char class_name[FM_MAX_CLASS];
char *cpu_brand;
char *string_data;
int expect_size;
int is_valid_cpu;
int mask;
int observe_size;
int ret;
nvlist_t *detector;
nvlist_t *ereport;
nvlist_t *resource;
uint32_t cpu_id;
uint32_t test;
uint8_t fps_ver;
uint64_t ena;
uint64_t ereport_time;
uint64_t *expect;
uint64_t *observe;
if (report == NULL)
return (FPU_EREPORT_FAIL);
ret = FPU_FOROFFLINE;
cpu_id = report->cpu_id;
test = report->test_id;
mask = report->mask;
is_valid_cpu = report->is_valid_cpu;
expect_size = report->expected_size;
expect = report->expected;
observe_size = report->observed_size;
observe = report->observed;
string_data = report->info;
/* allocate nvlists */
if ((ereport = fps_nvlist_create()) == NULL)
_exit(FPU_EREPORT_FAIL);
if ((detector = fps_nvlist_create()) == NULL) {
_exit(FPU_EREPORT_FAIL);
}
/* setup class */
if ((cpu_brand = fps_get_cpu_brand(cpu_id)) == NULL)
_exit(FPU_EREPORT_FAIL);
if ((snprintf(class_name, FM_MAX_CLASS, "%s.%s.%s",
CLASS_HEAD, cpu_brand, CLASS_TAIL)) < 0)
_exit(FPU_EREPORT_FAIL);
/* setup ena */
ereport_time = gethrtime();
ena = fps_ena_generate(ereport_time, cpu_id, FM_ENA_FMT1);
/* setup detector */
if (fps_fmri_svc_set(detector, getenv("SMF_FMRI")) != 0) {
_exit(FPU_EREPORT_FAIL);
}
/* setup fps-version */
fps_ver = FPS_VERSION;
/* setup resource */
if (is_valid_cpu) {
resource = fps_nvlist_create();
if (fps_fmri_cpu_set(resource, cpu_id)) {
_exit(FPU_EREPORT_FAIL);
}
} else {
resource = NULL;
}
/* put it together */
if (nvlist_add_string(ereport, NAME_FPS_CLASS, class_name) != 0)
_exit(FPU_EREPORT_FAIL);
if (ena != 0) {
if (nvlist_add_uint64(ereport, NAME_FPS_ENA, ena) != 0)
_exit(FPU_EREPORT_FAIL);
} else
_exit(FPU_EREPORT_FAIL);
if (nvlist_add_nvlist(ereport, NAME_FPS_DETECTOR,
(nvlist_t *)detector) != 0)
_exit(FPU_EREPORT_FAIL);
if (nvlist_add_uint8(ereport, NAME_FPS_VERSION, fps_ver) != 0)
_exit(FPU_EREPORT_FAIL);
if (nvlist_add_uint32(ereport, NAME_FPS_TEST_ID, test) != 0)
ret = FPU_EREPORT_INCOM;
if (nvlist_add_uint64_array(ereport, NAME_FPS_EXPECTED_VALUE,
expect, expect_size) != 0)
ret = FPU_EREPORT_INCOM;
if (nvlist_add_uint64_array(ereport, NAME_FPS_OBSERVED_VALUE,
observe, observe_size) != 0)
ret = FPU_EREPORT_INCOM;
if (mask & IS_EREPORT_INFO) {
if (nvlist_add_string(ereport, NAME_FPS_STRING_DATA,
string_data) != 0)
ret = FPU_EREPORT_INCOM;
}
if (is_valid_cpu) {
if (nvlist_add_nvlist(ereport, NAME_FPS_RESOURCE,
(nvlist_t *)resource) != 0)
_exit(FPU_EREPORT_FAIL);
}
/* publish */
if (fps_post_ereport(ereport)) {
ret = FPU_EREPORT_FAIL;
}
/* free nvlists */
nvlist_free(ereport);
if (resource != NULL)
nvlist_free(resource);
if (detector != NULL)
nvlist_free(detector);
return (ret);
}
