| /src/sys/dev/raidframe/ |
| rf_disks.c | 59 * rf_disks.c -- code to perform operations on the actual disks
97 * initialize the disks comprising the array
99 * We want the spare disks to have regular row,col numbers so that we can
101 * throughout that the array contains numRow by numCol _non-spare_ disks, so
113 RF_RaidDisk_t *disks; local in function:rf_ConfigureDisks
126 disks = raidPtr->Disks;
132 &disks[c], c);
137 if (disks[c].status == rf_ds_optimal) {
144 disks[c].status = rf_ds_failed
243 RF_RaidDisk_t *disks; local in function:rf_ConfigureSpareDisks
362 RF_RaidDisk_t *disks; local in function:rf_AutoConfigureDisks
990 RF_RaidDisk_t *disks; local in function:rf_add_hot_spare
[all...] |
| rf_reconstruct.c | 256 RF_ASSERT(raidPtr->Disks[col].status == rf_ds_failed);
268 if (raidPtr->Disks[scol].status == rf_ds_spare) {
269 spareDiskPtr = &raidPtr->Disks[scol];
309 raidPtr->Disks[col].partitionSize);
312 disks, so at this point the parity is known to be
334 raidPtr->Disks[col].status = rf_ds_failed;
386 if (raidPtr->Disks[col].status != rf_ds_failed) {
389 raidPtr->Disks[col].status = rf_ds_failed;
410 /* RF_ASSERT(raidPtr->Disks[col].status == rf_ds_failed); */
429 raidPtr->Disks[col].devname)
[all...] |
| rf_paritymap.c | 363 if (RF_DEAD_DISK(raidPtr->Disks[col].status))
380 if (raidPtr->Disks[raidPtr->numCol+col].status == rf_ds_used_spare) {
640 if (RF_DEAD_DISK(raidPtr->Disks[col].status))
709 if (RF_DEAD_DISK(raidPtr->Disks[col].status))
725 be any spare disks at this point. */
766 if (RF_DEAD_DISK(raidPtr->Disks[col].status))
773 if (raidPtr->Disks[raidPtr->numCol+col].status != rf_ds_used_spare)
791 if (RF_DEAD_DISK(raidPtr->Disks[col].status))
803 if (raidPtr->Disks[raidPtr->numCol+col].status != rf_ds_used_spare)
|
| rf_netbsdkintf.c | 269 * For example: with a stripe width of 64 blocks (32k) and 5 disks,
278 * disks to participate -- 4 * 32K/disk == 128K again.
460 const char *devname = r->Disks[col].devname;
464 dkwedge_get_parent_name(r->Disks[col].dev);
565 const char *devname = r->Disks[col].devname;
578 parent = dkwedge_get_parent_name(r->Disks[col].dev);
874 if (raidPtr->Disks[c].status == rf_ds_optimal) {
890 if (raidPtr->Disks[sparecol].status == rf_ds_used_spare) {
894 if (raidPtr->Disks[j].spareCol == sparecol) {
934 bdev = bdevsw_lookup(raidPtr->Disks[dumpto].dev)
[all...] |
| rf_driver.c | 444 printf(" %s", raidPtr->Disks[col].devname);
445 if (RF_DEAD_DISK(raidPtr->Disks[col].status)) {
729 raidPtr->Disks[col].status = rf_ds_dist_spared;
752 if (raidPtr->Disks[fcol].status != rf_ds_failed) {
757 raidPtr->Disks[fcol].status = rf_ds_failed;
768 raidPtr->Disks[fcol].auto_configured);
776 raidPtr->Disks[fcol].auto_configured = 0;
|
| rf_compat50.c | 202 rf_disk_to_disk50(&d_cfg->devs[j], &raidPtr->Disks[j]);
205 rf_disk_to_disk50(&d_cfg->spares[i], &raidPtr->Disks[j]);
|
| rf_parityscan.c | 343 if (raidPtr->Disks[pda->col].status == rf_ds_reconstructing) {
368 RF_RowCol_t spCol = raidPtr->Disks[pda->col].spareCol;
375 if (RF_DEAD_DISK(raidPtr->Disks[pda->col].status))
391 * disks.
395 * all disks. This is because the new data intended for the failed
|
| rf_decluster.c | 352 RF_ASSERT(raidPtr->Disks[*col].status == rf_ds_reconstructing || raidPtr->Disks[*col].status == rf_ds_dist_spared);
412 RF_ASSERT(raidPtr->Disks[*col].status == rf_ds_reconstructing || raidPtr->Disks[*col].status == rf_ds_dist_spared);
430 /* returns an array of ints identifying the disks that comprise the stripe containing the indicated address.
|
| rf_raid.h | 100 /* an exception is Disks[][].status, which requires locking when it is
104 u_int numCol; /* number of columns of disks, typically == #
105 * of disks/rank */
106 u_int numSpare; /* number of spare disks */
118 RF_RaidDisk_t *Disks; /* all information related to physical disks */
|
| rf_diskqueue.c | 257 raidPtr->Disks[c].dev,
269 raidPtr->Disks[raidPtr->numCol + r].dev,
280 * I/Os outstanding on the physical disks when possible.
|
| rf_pqdegdags.c | 250 /* skip over dead disks */
251 if (RF_DEAD_DISK(raidPtr->Disks[npda.col].status))
331 /* skip over dead disks */
332 if (RF_DEAD_DISK(raidPtr->Disks[npda.col].status))
|
| rf_map.c | 89 RF_RaidDisk_t *disks = raidPtr->Disks; local in function:rf_MapAccess
184 rf_ASMCheckStatus(raidPtr, pda_p, asm_p, disks, 0);
211 rf_ASMCheckStatus(raidPtr, pda_p, asm_p, disks, 1);
237 rf_ASMCheckStatus(raidPtr, pda_p, asm_p, disks, 1);
238 rf_ASMCheckStatus(raidPtr, pda_q, asm_p, disks, 1);
272 RF_RaidDisk_t *disks = raidPtr->Disks; local in function:rf_MarkFailuresInASMList
284 if (RF_DEAD_DISK(disks[pda->col].status)) {
291 if (pda && RF_DEAD_DISK(disks[pda->col].status))
[all...] |
| rf_raid5.c | 71 /* the stripe identifier must identify the disks in each stripe, IN
179 RF_ERRORMSG("Multiple disks failed in a single group! Aborting I/O operation.\n");
238 failedPDA->col = raidPtr->Disks[fcol].spareCol;
|
| rf_dagutils.c | 1235 * n = number of disks in array
1249 for (f = 0; ((!RF_DEAD_DISK(raidPtr->Disks[f].status)) && (f < n)); f++)
1322 RF_RaidDisk_t *disks = raidPtr->Disks; local in function:rf_SelectMirrorDiskIdle
1345 if (RF_DEAD_DISK(disks[colMirror].status)) {
1348 if (RF_DEAD_DISK(disks[colData].status)) {
1385 * the data and parity disks are laid out identically.
1395 RF_RaidDisk_t *disks = raidPtr->Disks; local in function:rf_SelectMirrorDiskPartition
1403 if (RF_DEAD_DISK(disks[colMirror].status))
[all...] |
| rf_evenodd_dagfuncs.c | 272 * This function is used in case where one data disk failed and both redundant disks
284 * This function is to encode one sector in one of the data disks to the E disk.
688 2. determine the column numbers of the two failed disks.
710 /* skip over dead disks */
711 if (RF_DEAD_DISK(raidPtr->Disks[npda.col].status))
724 * disks. */
883 /* skip over dead disks */
884 if (RF_DEAD_DISK(raidPtr->Disks[npda.col].status))
|
| rf_raid1.c | 88 /* this implementation of RAID level 1 uses one row of numCol disks
136 * returns a list of disks for a given redundancy group
191 RF_ERRORMSG("Multiple disks failed in a single group! Aborting I/O operation.\n");
219 failedPDA->col = raidPtr->Disks[fcol].spareCol;
|
| rf_dagdegrd.c | 840 /* skip over dead disks */
841 if (RF_DEAD_DISK(raidPtr->Disks[pda_p->col].status))
986 /* skip over dead disks */
987 if (RF_DEAD_DISK(raidPtr->Disks[pda_p->col].status))
|
| rf_paritylogging.c | 105 /* the stripe identifier must identify the disks in each stripe, IN
777 /* given a logical RAID address, determine the participating disks in
825 RF_ERRORMSG("Multiple disks failed in a single group! Aborting I/O operation.\n");
879 failedPDA->col = raidPtr->Disks[fcol].spareCol;
|
| rf_dagdegwr.c | 665 /* skip over dead disks */
666 if (RF_DEAD_DISK(raidPtr->Disks[pda_p->col].status))
740 * (not incl. failed disks) Wp = Write P (could be two) Wq = Write Q
|
| /src/usr.sbin/sysinst/ |
| msg.pm.en | 65 message avdisks {Available disks:}
68 {This is the extended partition manager. All disks, partitions, etc. are
81 message raid_disks_fmt {Disks}
97 message raid_disks {Disks in RAID:}
122 message lvm_disks {Disks in VG}
|
| /src/usr.sbin/sysinst/arch/i386/ |
| msg.md.de | 100 {Diese Festplatte entspricht den folgenden BIOS Disks:
|
