__le32 csum_le;
if (dm_block_location(b) != le64_to_cpu(disk_super->blocknr)) {
- DMERR("sb_check failed: blocknr %llu: wanted %llu",
- le64_to_cpu(disk_super->blocknr),
+ DMERR("%s failed: blocknr %llu: wanted %llu",
+ __func__, le64_to_cpu(disk_super->blocknr),
(unsigned long long)dm_block_location(b));
return -ENOTBLK;
}
if (le64_to_cpu(disk_super->magic) != CACHE_SUPERBLOCK_MAGIC) {
- DMERR("sb_check failed: magic %llu: wanted %llu",
- le64_to_cpu(disk_super->magic),
+ DMERR("%s failed: magic %llu: wanted %llu",
+ __func__, le64_to_cpu(disk_super->magic),
(unsigned long long)CACHE_SUPERBLOCK_MAGIC);
return -EILSEQ;
}
sb_block_size - sizeof(__le32),
SUPERBLOCK_CSUM_XOR));
if (csum_le != disk_super->csum) {
- DMERR("sb_check failed: csum %u: wanted %u",
- le32_to_cpu(csum_le), le32_to_cpu(disk_super->csum));
+ DMERR("%s failed: csum %u: wanted %u",
+ __func__, le32_to_cpu(csum_le), le32_to_cpu(disk_super->csum));
return -EILSEQ;
}
__le32 csum_le;
if (dm_block_location(b) != le64_to_cpu(disk->blocknr)) {
- DMERR("sb_check failed: blocknr %llu: wanted %llu",
- le64_to_cpu(disk->blocknr),
+ DMERR("%s failed: blocknr %llu: wanted %llu",
+ __func__, le64_to_cpu(disk->blocknr),
(unsigned long long)dm_block_location(b));
return -ENOTBLK;
}
if (le64_to_cpu(disk->magic) != SUPERBLOCK_MAGIC) {
- DMERR("sb_check failed: magic %llu: wanted %llu",
- le64_to_cpu(disk->magic),
+ DMERR("%s failed: magic %llu: wanted %llu",
+ __func__, le64_to_cpu(disk->magic),
(unsigned long long) SUPERBLOCK_MAGIC);
return -EILSEQ;
}
sb_block_size - sizeof(__le32),
SUPERBLOCK_CSUM_XOR));
if (csum_le != disk->csum) {
- DMERR("sb_check failed: csum %u: wanted %u",
- le32_to_cpu(csum_le), le32_to_cpu(disk->csum));
+ DMERR("%s failed: csum %u: wanted %u",
+ __func__, le32_to_cpu(csum_le), le32_to_cpu(disk->csum));
return -EILSEQ;
}
static void dm_integrity_enter_synchronous_mode(struct dm_integrity_c *ic)
{
- DEBUG_print("dm_integrity_enter_synchronous_mode\n");
+ DEBUG_print("%s\n", __func__);
if (ic->mode == 'B') {
ic->bitmap_flush_interval = msecs_to_jiffies(10) + 1;
{
struct dm_integrity_c *ic = container_of(n, struct dm_integrity_c, reboot_notifier);
- DEBUG_print("dm_integrity_reboot\n");
+ DEBUG_print("%s\n", __func__);
dm_integrity_enter_synchronous_mode(ic);
char *target_params;
if (!param->target_count) {
- DMERR("populate_table: no targets specified");
+ DMERR("%s: no targets specified", __func__);
return -EINVAL;
}
/*
* If we run out of usable paths, should we queue I/O or error it?
*/
-static int queue_if_no_path(struct multipath *m, bool queue_if_no_path,
+static int queue_if_no_path(struct multipath *m, bool f_queue_if_no_path,
bool save_old_value, const char *caller)
{
unsigned long flags;
bool queue_if_no_path_bit, saved_queue_if_no_path_bit;
const char *dm_dev_name = dm_table_device_name(m->ti->table);
- DMDEBUG("%s: %s caller=%s queue_if_no_path=%d save_old_value=%d",
- dm_dev_name, __func__, caller, queue_if_no_path, save_old_value);
+ DMDEBUG("%s: %s caller=%s f_queue_if_no_path=%d save_old_value=%d",
+ dm_dev_name, __func__, caller, f_queue_if_no_path, save_old_value);
spin_lock_irqsave(&m->lock, flags);
dm_dev_name);
} else
assign_bit(MPATHF_SAVED_QUEUE_IF_NO_PATH, &m->flags, queue_if_no_path_bit);
- } else if (!queue_if_no_path && saved_queue_if_no_path_bit) {
+ } else if (!f_queue_if_no_path && saved_queue_if_no_path_bit) {
/* due to "fail_if_no_path" message, need to honor it. */
clear_bit(MPATHF_SAVED_QUEUE_IF_NO_PATH, &m->flags);
}
- assign_bit(MPATHF_QUEUE_IF_NO_PATH, &m->flags, queue_if_no_path);
+ assign_bit(MPATHF_QUEUE_IF_NO_PATH, &m->flags, f_queue_if_no_path);
DMDEBUG("%s: after %s changes; QIFNP = %d; SQIFNP = %d; DNFS = %d",
dm_dev_name, __func__,
spin_unlock_irqrestore(&m->lock, flags);
- if (!queue_if_no_path) {
+ if (!f_queue_if_no_path) {
dm_table_run_md_queue_async(m->ti->table);
process_queued_io_list(m);
}
if (!pgstr || (sscanf(pgstr, "%u%c", &pgnum, &dummy) != 1) || !pgnum ||
!m->nr_priority_groups || (pgnum > m->nr_priority_groups)) {
- DMWARN("invalid PG number supplied to switch_pg_num");
+ DMWARN("invalid PG number supplied to %s", __func__);
return -EINVAL;
}
__le32 csum_le;
if (dm_block_location(b) != le64_to_cpu(disk_super->blocknr)) {
- DMERR("sb_check failed: blocknr %llu: wanted %llu",
- le64_to_cpu(disk_super->blocknr),
+ DMERR("%s failed: blocknr %llu: wanted %llu",
+ __func__, le64_to_cpu(disk_super->blocknr),
(unsigned long long)dm_block_location(b));
return -ENOTBLK;
}
if (le64_to_cpu(disk_super->magic) != THIN_SUPERBLOCK_MAGIC) {
- DMERR("sb_check failed: magic %llu: wanted %llu",
- le64_to_cpu(disk_super->magic),
+ DMERR("%s failed: magic %llu: wanted %llu",
+ __func__, le64_to_cpu(disk_super->magic),
(unsigned long long)THIN_SUPERBLOCK_MAGIC);
return -EILSEQ;
}
block_size - sizeof(__le32),
SUPERBLOCK_CSUM_XOR));
if (csum_le != disk_super->csum) {
- DMERR("sb_check failed: csum %u: wanted %u",
- le32_to_cpu(csum_le), le32_to_cpu(disk_super->csum));
+ DMERR("%s failed: csum %u: wanted %u",
+ __func__, le32_to_cpu(csum_le), le32_to_cpu(disk_super->csum));
return -EILSEQ;
}
r = verity_hash_update(v, req, v->salt, v->salt_size, wait);
if (r < 0) {
- DMERR("verity_hash_final failed updating salt: %d", r);
+ DMERR("%s failed updating salt: %d", __func__, r);
goto out;
}
}
r = crypto_wait_req(crypto_ahash_update(req), wait);
if (unlikely(r < 0)) {
- DMERR("verity_for_io_block crypto op failed: %d", r);
+ DMERR("%s crypto op failed: %d", __func__, r);
return r;
}
__le32 csum_disk;
if (dm_block_location(b) != le64_to_cpu(bh_le->blocknr)) {
- DMERR_LIMIT("array_block_check failed: blocknr %llu != wanted %llu",
+ DMERR_LIMIT("%s failed: blocknr %llu != wanted %llu", __func__,
(unsigned long long) le64_to_cpu(bh_le->blocknr),
(unsigned long long) dm_block_location(b));
return -ENOTBLK;
size_of_block - sizeof(__le32),
CSUM_XOR));
if (csum_disk != bh_le->csum) {
- DMERR_LIMIT("array_block_check failed: csum %u != wanted %u",
+ DMERR_LIMIT("%s failed: csum %u != wanted %u", __func__,
(unsigned int) le32_to_cpu(csum_disk),
(unsigned int) le32_to_cpu(bh_le->csum));
return -EILSEQ;
uint32_t flags, nr_entries, max_entries;
if (dm_block_location(b) != le64_to_cpu(h->blocknr)) {
- DMERR_LIMIT("node_check failed: blocknr %llu != wanted %llu",
+ DMERR_LIMIT("%s failed: blocknr %llu != wanted %llu", __func__,
le64_to_cpu(h->blocknr), dm_block_location(b));
return -ENOTBLK;
}
block_size - sizeof(__le32),
BTREE_CSUM_XOR));
if (csum_disk != h->csum) {
- DMERR_LIMIT("node_check failed: csum %u != wanted %u",
+ DMERR_LIMIT("%s failed: csum %u != wanted %u", __func__,
le32_to_cpu(csum_disk), le32_to_cpu(h->csum));
return -EILSEQ;
}
if (sizeof(struct node_header) +
(sizeof(__le64) + value_size) * max_entries > block_size) {
- DMERR_LIMIT("node_check failed: max_entries too large");
+ DMERR_LIMIT("%s failed: max_entries too large", __func__);
return -EILSEQ;
}
if (nr_entries > max_entries) {
- DMERR_LIMIT("node_check failed: too many entries");
+ DMERR_LIMIT("%s failed: too many entries", __func__);
return -EILSEQ;
}
*/
flags = le32_to_cpu(h->flags);
if (!(flags & INTERNAL_NODE) && !(flags & LEAF_NODE)) {
- DMERR_LIMIT("node_check failed: node is neither INTERNAL or LEAF");
+ DMERR_LIMIT("%s failed: node is neither INTERNAL or LEAF", __func__);
return -EILSEQ;
}
__le32 csum_disk;
if (dm_block_location(b) != le64_to_cpu(mi_le->blocknr)) {
- DMERR_LIMIT("index_check failed: blocknr %llu != wanted %llu",
+ DMERR_LIMIT("%s failed: blocknr %llu != wanted %llu", __func__,
le64_to_cpu(mi_le->blocknr), dm_block_location(b));
return -ENOTBLK;
}
block_size - sizeof(__le32),
INDEX_CSUM_XOR));
if (csum_disk != mi_le->csum) {
- DMERR_LIMIT("index_check failed: csum %u != wanted %u",
+ DMERR_LIMIT("i%s failed: csum %u != wanted %u", __func__,
le32_to_cpu(csum_disk), le32_to_cpu(mi_le->csum));
return -EILSEQ;
}