/* $OpenBSD: raidctl.c,v 1.26 2006/11/02 18:07:03 ray Exp $ */ /* $NetBSD: raidctl.c,v 1.27 2001/07/10 01:30:52 lukem Exp $ */ /*- * Copyright (c) 1996, 1997, 1998 The NetBSD Foundation, Inc. * All rights reserved. * * This code is derived from software contributed to The NetBSD Foundation * by Greg Oster * * Redistribution and use in source and binary forms, with or without * modification, are permitted provided that the following conditions * are met: * 1. Redistributions of source code must retain the above copyright * notice, this list of conditions and the following disclaimer. * 2. Redistributions in binary form must reproduce the above copyright * notice, this list of conditions and the following disclaimer in the * documentation and/or other materials provided with the distribution. * 3. All advertising materials mentioning features or use of this software * must display the following acknowledgement: * This product includes software developed by the NetBSD * Foundation, Inc. and its contributors. * 4. Neither the name of The NetBSD Foundation nor the names of its * contributors may be used to endorse or promote products derived * from this software without specific prior written permission. * * THIS SOFTWARE IS PROVIDED BY THE NETBSD FOUNDATION, INC. AND CONTRIBUTORS * ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED * TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR * PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE FOUNDATION OR CONTRIBUTORS * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE * POSSIBILITY OF SUCH DAMAGE. */ /* * This program is a re-write of the original rf_ctrl program * distributed by CMU with RAIDframe 1.1. * * This program is the userland interface to the RAIDframe kernel * driver in Net/OpenBSD. */ #include #include #include #include #ifdef NETBSD #include #endif #include #include #include #include #include #include #include #include #include #include #include "rf_raidframe.h" extern char *__progname; typedef struct { int fd; int id; } fdidpair; int main(int, char *[]); void do_ioctl(int, u_long, void *, const char *); static void rf_configure(fdidpair *, char*, int); static const char *device_status(RF_DiskStatus_t); static void rf_get_device_status(fdidpair *, int); static void rf_output_configuration(fdidpair *, int); static void get_component_number(fdidpair *, char *, int *, int *); static void rf_fail_disk(fdidpair *, char *, int); static void usage(void); static void get_component_label(fdidpair *, char *); static void set_component_label(fdidpair *, char *); static void init_component_labels(fdidpair *, int); static void set_autoconfig(fdidpair *, char *); static void add_hot_spare(fdidpair *, char *); static void remove_hot_spare(fdidpair *, char *); static void rebuild_in_place(fdidpair *, char *); static void check_status(fdidpair *,int,int); static void check_parity(fdidpair *,int,int); static void do_meter(fdidpair *, int, u_long); static void get_bar(char *, double, int); static void get_time_string(char *, int); static int open_device(fdidpair **, char *); static int get_all_devices(char ***, const char *); int verbose; int do_all; int main(int argc, char *argv[]) { int ch; int num_options; unsigned int action; char config_filename[PATH_MAX]; char name[PATH_MAX]; char component[PATH_MAX]; char autoconf[10]; int do_output; int do_recon; int do_rewrite; int serial_number; int i, nfd; fdidpair *fds; int force; u_long meter; const char *actionstr; num_options = 0; action = 0; meter = 0; do_output = 0; do_recon = 0; do_rewrite = 0; do_all = 0; serial_number = 0; force = 0; actionstr = NULL; while ((ch = getopt(argc, argv, "a:A:Bc:C:f:F:g:GiI:l:r:R:sSpPuv")) != -1) switch(ch) { case 'a': action = RAIDFRAME_ADD_HOT_SPARE; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-a arg too long"); num_options++; break; case 'A': action = RAIDFRAME_SET_AUTOCONFIG; if (strlcpy(autoconf, optarg, sizeof(autoconf)) >= sizeof(autoconf)) errx(1, "-A arg too long"); num_options++; break; case 'B': action = RAIDFRAME_COPYBACK; num_options++; break; case 'c': action = RAIDFRAME_CONFIGURE; if (strlcpy(config_filename, optarg, sizeof config_filename) >= sizeof(config_filename)) errx(1, "-c arg too long"); force = 0; num_options++; break; case 'C': if (strlcpy(config_filename, optarg, sizeof config_filename) >= sizeof(config_filename)) errx(1, "-C arg too long"); action = RAIDFRAME_CONFIGURE; force = 1; num_options++; break; case 'f': action = RAIDFRAME_FAIL_DISK; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-f arg too long"); do_recon = 0; num_options++; break; case 'F': action = RAIDFRAME_FAIL_DISK; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-F arg too long"); do_recon = 1; num_options++; break; case 'g': action = RAIDFRAME_GET_COMPONENT_LABEL; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-g arg too long"); num_options++; break; case 'G': action = RAIDFRAME_GET_INFO; do_output = 1; num_options++; break; case 'i': action = RAIDFRAME_REWRITEPARITY; num_options++; break; case 'I': action = RAIDFRAME_INIT_LABELS; serial_number = atoi(optarg); num_options++; break; case 'l': action = RAIDFRAME_SET_COMPONENT_LABEL; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-l arg too long"); num_options++; break; case 'r': action = RAIDFRAME_REMOVE_HOT_SPARE; if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-r arg too long"); num_options++; break; case 'R': if (strlcpy(component, optarg, sizeof component) >= sizeof(component)) errx(1, "-R arg too long"); action = RAIDFRAME_REBUILD_IN_PLACE; num_options++; break; case 's': action = RAIDFRAME_GET_INFO; num_options++; break; case 'S': action = RAIDFRAME_CHECK_RECON_STATUS_EXT; num_options++; break; case 'p': action = RAIDFRAME_CHECK_PARITY; num_options++; break; case 'P': action = RAIDFRAME_CHECK_PARITY; do_rewrite = 1; num_options++; break; case 'u': action = RAIDFRAME_SHUTDOWN; num_options++; break; case 'v': verbose = 1; break; default: usage(); } argc -= optind; argv += optind; if ((num_options > 1) || (argc == 0)) usage(); if (strlcpy(name, argv[0], sizeof name) >= sizeof(name)) errx(1, "device name too long"); if ((nfd = open_device(&fds, name)) < 1) { /* No configured raid device */ free(fds); return (0); } if (do_all) { switch(action) { case RAIDFRAME_ADD_HOT_SPARE: case RAIDFRAME_REMOVE_HOT_SPARE: case RAIDFRAME_CONFIGURE: case RAIDFRAME_SET_AUTOCONFIG: case RAIDFRAME_FAIL_DISK: case RAIDFRAME_SET_COMPONENT_LABEL: case RAIDFRAME_GET_COMPONENT_LABEL: case RAIDFRAME_INIT_LABELS: case RAIDFRAME_REBUILD_IN_PLACE: errx(1, "This action doesn't work with the 'all' device"); break; default: break; } } switch(action) { case RAIDFRAME_ADD_HOT_SPARE: add_hot_spare(fds, component); break; case RAIDFRAME_REMOVE_HOT_SPARE: remove_hot_spare(fds, component); break; case RAIDFRAME_CONFIGURE: rf_configure(fds, config_filename, force); break; case RAIDFRAME_SET_AUTOCONFIG: set_autoconfig(fds, autoconf); break; case RAIDFRAME_COPYBACK: i = nfd; while (i--) { do_ioctl(fds[i].fd, RAIDFRAME_COPYBACK, NULL, "RAIDFRAME_COPYBACK"); } actionstr = "Copyback"; meter = RAIDFRAME_CHECK_COPYBACK_STATUS_EXT; break; case RAIDFRAME_FAIL_DISK: rf_fail_disk(fds, component, do_recon); break; case RAIDFRAME_SET_COMPONENT_LABEL: set_component_label(fds, component); break; case RAIDFRAME_GET_COMPONENT_LABEL: get_component_label(fds, component); break; case RAIDFRAME_INIT_LABELS: init_component_labels(fds, serial_number); break; case RAIDFRAME_REWRITEPARITY: i = nfd; while (i--) { do_ioctl(fds[i].fd, RAIDFRAME_REWRITEPARITY, NULL, "RAIDFRAME_REWRITEPARITY"); } actionstr = "Parity Re-Write"; meter = RAIDFRAME_CHECK_PARITYREWRITE_STATUS_EXT; break; case RAIDFRAME_CHECK_RECON_STATUS_EXT: check_status(fds, nfd, 1); break; case RAIDFRAME_GET_INFO: if (do_output) rf_output_configuration(fds, nfd); else rf_get_device_status(fds, nfd); break; case RAIDFRAME_REBUILD_IN_PLACE: rebuild_in_place(fds, component); break; case RAIDFRAME_CHECK_PARITY: check_parity(fds, nfd, do_rewrite); break; case RAIDFRAME_SHUTDOWN: i = nfd; while (i--) { do_ioctl(fds[i].fd, RAIDFRAME_SHUTDOWN, NULL, "RAIDFRAME_SHUTDOWN"); } break; default: break; } if (verbose && meter) { sleep(3); /* XXX give the action a chance to start */ printf("%s status:\n", actionstr); do_meter(fds, nfd, meter); } i = nfd; while (i--) close(fds[i].fd); free(fds); return (0); } void do_ioctl(int fd, unsigned long command, void *arg, const char *ioctl_name) { if (ioctl(fd, command, arg) < 0) errx(1, "ioctl (%s) failed", ioctl_name); } static void rf_configure(fdidpair *fds, char *config_file, int force) { void *generic; RF_Config_t cfg; if (rf_MakeConfig(config_file, &cfg) != 0) errx(1, "unable to create RAIDframe configuration structure"); cfg.force = force; /* * Note the extra level of redirection needed here, since * what we really want to pass in is a pointer to the pointer to * the configuration structure. */ generic = (void *) &cfg; do_ioctl(fds->fd, RAIDFRAME_CONFIGURE, &generic, "RAIDFRAME_CONFIGURE"); } static const char * device_status(RF_DiskStatus_t status) { switch (status) { case rf_ds_optimal: return ("optimal"); case rf_ds_failed: return ("failed"); case rf_ds_reconstructing: return ("reconstructing"); case rf_ds_dist_spared: return ("dist_spared"); case rf_ds_spared: return ("spared"); case rf_ds_spare: return ("spare"); case rf_ds_used_spare: return ("used_spare"); default: return ("UNKNOWN"); } /* NOTREACHED */ } static void rf_get_device_status(fdidpair *fds, int nfd) { RF_DeviceConfig_t device_config; void *cfg_ptr; int is_clean; int i,j; cfg_ptr = &device_config; i = nfd; while (i--) { do_ioctl(fds[i].fd, RAIDFRAME_GET_INFO, &cfg_ptr, "RAIDFRAME_GET_INFO"); printf("raid%d Components:\n", fds[i].id); for (j = 0; j < device_config.ndevs; j++) { printf("%20s: %s\n", device_config.devs[j].devname, device_status(device_config.devs[j].status)); } if (device_config.nspares > 0) { printf("Spares:\n"); for (j = 0; j < device_config.nspares; j++) { printf("%20s: %s\n", device_config.spares[j].devname, device_status(device_config.spares[j].status)); } } else { printf("No spares.\n"); } if (verbose) { for(j=0; j < device_config.ndevs; j++) { if (device_config.devs[j].status == rf_ds_optimal) { get_component_label(&fds[i], device_config.devs[j].devname); } else { printf("%s status is: %s. " "Skipping label.\n", device_config.devs[j].devname, device_status(device_config.devs[j].status)); } } if (device_config.nspares > 0) { for(j=0; j < device_config.nspares; j++) { if ((device_config.spares[j].status == rf_ds_optimal) || (device_config.spares[j].status == rf_ds_used_spare)) { get_component_label(&fds[i], device_config.spares[j].devname); } else { printf("%s status is: %s. " "Skipping label.\n", device_config.spares[j].devname, device_status(device_config.spares[j].status)); } } } } do_ioctl(fds[i].fd, RAIDFRAME_CHECK_PARITY, &is_clean, "RAIDFRAME_CHECK_PARITY"); if (is_clean) { printf("Parity status: clean\n"); } else { printf("Parity status: DIRTY\n"); } check_status(&fds[i], 1, 0); } } static void rf_output_configuration(fdidpair *fds, int nfd) { RF_DeviceConfig_t device_config; void *cfg_ptr; int i,j; RF_ComponentLabel_t component_label; void *label_ptr; int component_num; int num_cols; char name[PATH_MAX]; cfg_ptr = &device_config; i = nfd; while (i--) { snprintf(name, PATH_MAX, "/dev/raid%dc", fds[i].id); printf("# raidctl config file for %s\n", name); printf("\n"); do_ioctl(fds[i].fd, RAIDFRAME_GET_INFO, &cfg_ptr, "RAIDFRAME_GET_INFO"); printf("START array\n"); printf("# numRow numCol numSpare\n"); printf("%d %d %d\n", device_config.rows, device_config.cols, device_config.nspares); printf("\n"); printf("START disks\n"); for(j = 0; j < device_config.ndevs; j++) printf("%s\n", device_config.devs[j].devname); printf("\n"); if (device_config.nspares > 0) { printf("START spare\n"); for(j = 0; j < device_config.nspares; j++) printf("%s\n", device_config.spares[j].devname); printf("\n"); } for(j = 0; j < device_config.ndevs; j++) { if (device_config.devs[j].status == rf_ds_optimal) break; } if (j == device_config.ndevs) { printf("# WARNING: no optimal components; using %s\n", device_config.devs[0].devname); j = 0; } get_component_number(&fds[i], device_config.devs[j].devname, &component_num, &num_cols); memset(&component_label, 0, sizeof(RF_ComponentLabel_t)); component_label.row = component_num / num_cols; component_label.column = component_num % num_cols; label_ptr = &component_label; do_ioctl(fds[i].fd, RAIDFRAME_GET_COMPONENT_LABEL, &label_ptr, "RAIDFRAME_GET_COMPONENT_LABEL"); printf("START layout\n"); printf( "# sectPerSU SUsPerParityUnit SUsPerReconUnit " "RAID_level_%c\n", (char) component_label.parityConfig); printf("%d %d %d %c\n", component_label.sectPerSU, component_label.SUsPerPU, component_label.SUsPerRU, (char) component_label.parityConfig); printf("\n"); printf("START queue\n"); printf("fifo %d\n", device_config.maxqdepth); } } static void get_component_number(fdidpair *fds, char *component_name, int *component_number, int *num_columns) { RF_DeviceConfig_t device_config; void *cfg_ptr; int i; int found; *component_number = -1; /* Assuming a full path spec... */ cfg_ptr = &device_config; do_ioctl(fds->fd, RAIDFRAME_GET_INFO, &cfg_ptr, "RAIDFRAME_GET_INFO"); *num_columns = device_config.cols; found = 0; for (i = 0; i < device_config.ndevs; i++) { if (strncmp(component_name, device_config.devs[i].devname, PATH_MAX) == 0) { found = 1; *component_number = i; } } if (!found) { /* maybe it's a spare? */ for (i = 0; i < device_config.nspares; i++) { if (strncmp(component_name, device_config.spares[i].devname, PATH_MAX) == 0) { found = 1; *component_number = i + device_config.ndevs; /* the way spares are done should really change... */ *num_columns = device_config.cols + device_config.nspares; } } } if (!found) errx(1, "%s is not a component of this device", component_name); } static void rf_fail_disk(fdidpair *fds, char *component_to_fail, int do_recon) { struct rf_recon_req recon_request; int component_num; int num_cols; get_component_number(fds, component_to_fail, &component_num, &num_cols); recon_request.row = component_num / num_cols; recon_request.col = component_num % num_cols; if (do_recon) { recon_request.flags = RF_FDFLAGS_RECON; } else { recon_request.flags = RF_FDFLAGS_NONE; } do_ioctl(fds->fd, RAIDFRAME_FAIL_DISK, &recon_request, "RAIDFRAME_FAIL_DISK"); if (do_recon && verbose) { printf("Reconstruction status:\n"); sleep(3); /* XXX give reconstruction a chance to start */ do_meter(fds, 1, RAIDFRAME_CHECK_RECON_STATUS_EXT); } } static void get_component_label(fdidpair *fds, char *component) { RF_ComponentLabel_t component_label; void *label_ptr; int component_num; int num_cols; get_component_number(fds, component, &component_num, &num_cols); memset(&component_label, 0, sizeof(RF_ComponentLabel_t)); component_label.row = component_num / num_cols; component_label.column = component_num % num_cols; label_ptr = &component_label; do_ioctl(fds->fd, RAIDFRAME_GET_COMPONENT_LABEL, &label_ptr, "RAIDFRAME_GET_COMPONENT_LABEL"); printf("Component label for %s:\n", component); printf(" Row: %d, Column: %d, Num Rows: %d, Num Columns: %d\n", component_label.row, component_label.column, component_label.num_rows, component_label.num_columns); printf(" Version: %d, Serial Number: %d, Mod Counter: %d\n", component_label.version, component_label.serial_number, component_label.mod_counter); printf(" Clean: %s, Status: %d\n", component_label.clean ? "Yes" : "No", component_label.status); printf(" sectPerSU: %d, SUsPerPU: %d, SUsPerRU: %d\n", component_label.sectPerSU, component_label.SUsPerPU, component_label.SUsPerRU); printf(" Queue size: %d, blocksize: %d, numBlocks: %d\n", component_label.maxOutstanding, component_label.blockSize, component_label.numBlocks); printf(" RAID Level: %c\n", (char) component_label.parityConfig); printf(" Autoconfig: %s\n", component_label.autoconfigure ? "Yes" : "No"); printf(" Root partition: %s\n", component_label.root_partition ? "Yes" : "No"); printf(" Last configured as: raid%d\n", component_label.last_unit); } static void set_component_label(fdidpair *fds, char *component) { RF_ComponentLabel_t component_label; int component_num; int num_cols; get_component_number(fds, component, &component_num, &num_cols); /* XXX This is currently here for testing, and future expandability */ component_label.version = 1; component_label.serial_number = 123456; component_label.mod_counter = 0; component_label.row = component_num / num_cols; component_label.column = component_num % num_cols; component_label.num_rows = 0; component_label.num_columns = 5; component_label.clean = 0; component_label.status = 1; do_ioctl(fds->fd, RAIDFRAME_SET_COMPONENT_LABEL, &component_label, "RAIDFRAME_SET_COMPONENT_LABEL"); } static void init_component_labels(fdidpair *fds, int serial_number) { RF_ComponentLabel_t component_label; component_label.version = 0; component_label.serial_number = serial_number; component_label.mod_counter = 0; component_label.row = 0; component_label.column = 0; component_label.num_rows = 0; component_label.num_columns = 0; component_label.clean = 0; component_label.status = 0; do_ioctl(fds->fd, RAIDFRAME_INIT_LABELS, &component_label, "RAIDFRAME_SET_COMPONENT_LABEL"); } static void set_autoconfig(fdidpair *fds, char *autoconf) { int auto_config; int root_config; auto_config = 0; root_config = 0; if (strncasecmp(autoconf, "root", 4) == 0) { root_config = 1; } if ((strncasecmp(autoconf, "yes", 3) == 0) || root_config == 1) { auto_config = 1; } do_ioctl(fds->fd, RAIDFRAME_SET_AUTOCONFIG, &auto_config, "RAIDFRAME_SET_AUTOCONFIG"); do_ioctl(fds->fd, RAIDFRAME_SET_ROOT, &root_config, "RAIDFRAME_SET_ROOT"); printf("raid%d: Autoconfigure: %s\n", fds->id, auto_config ? "Yes" : "No"); if (root_config == 1) { printf("raid%d: Root: %s\n", fds->id, auto_config ? "Yes" : "No"); } } static void add_hot_spare(fdidpair *fds, char *component) { RF_SingleComponent_t hot_spare; hot_spare.row = 0; hot_spare.column = 0; strlcpy(hot_spare.component_name, component, sizeof(hot_spare.component_name)); do_ioctl(fds->fd, RAIDFRAME_ADD_HOT_SPARE, &hot_spare, "RAIDFRAME_ADD_HOT_SPARE"); } static void remove_hot_spare(fdidpair *fds, char *component) { RF_SingleComponent_t hot_spare; int component_num; int num_cols; get_component_number(fds, component, &component_num, &num_cols); hot_spare.row = component_num / num_cols; hot_spare.column = component_num % num_cols; strlcpy(hot_spare.component_name, component, sizeof(hot_spare.component_name)); do_ioctl(fds->fd, RAIDFRAME_REMOVE_HOT_SPARE, &hot_spare, "RAIDFRAME_REMOVE_HOT_SPARE"); } static void rebuild_in_place(fdidpair *fds, char *component) { RF_SingleComponent_t comp; int component_num; int num_cols; get_component_number(fds, component, &component_num, &num_cols); comp.row = 0; comp.column = component_num; strlcpy(comp.component_name, component, sizeof(comp.component_name)); do_ioctl(fds->fd, RAIDFRAME_REBUILD_IN_PLACE, &comp, "RAIDFRAME_REBUILD_IN_PLACE"); if (verbose) { printf("Reconstruction status:\n"); sleep(3); /* XXX give reconstruction a chance to start */ do_meter(fds, 1, RAIDFRAME_CHECK_RECON_STATUS_EXT); } } static void check_parity(fdidpair *fds, int nfd, int do_rewrite) { int i, is_clean, all_dirty, was_dirty; int percent_done; char dev_name[PATH_MAX]; all_dirty = 0; i = nfd; while (i--) { is_clean = 0; percent_done = 0; snprintf(dev_name, PATH_MAX, "raid%d", fds[i].id); do_ioctl(fds[i].fd, RAIDFRAME_CHECK_PARITY, &is_clean, "RAIDFRAME_CHECK_PARITY"); if (is_clean) { printf("%s: Parity status: clean\n", dev_name); } else { all_dirty |= 1 << fds[i].id; printf("%s: Parity status: DIRTY\n", dev_name); if (do_rewrite) { printf("%s: Initiating re-write of parity\n", dev_name); do_ioctl(fds[i].fd, RAIDFRAME_REWRITEPARITY, NULL, "RAIDFRAME_REWRITEPARITY"); } else { /* parity is wrong, and is not being fixed. */ exit(1); } } } if (do_all) strncpy(dev_name, "all raid", PATH_MAX); was_dirty = all_dirty; while (all_dirty) { sleep(3); /* wait a bit... */ if (verbose) { printf("Parity Re-write status:\n"); do_meter(fds, nfd, RAIDFRAME_CHECK_PARITYREWRITE_STATUS_EXT); all_dirty = 0; } else { i = nfd; while (i--) { do_ioctl(fds[i].fd, RAIDFRAME_CHECK_PARITYREWRITE_STATUS, &percent_done, "RAIDFRAME_CHECK_PARITYREWRITE_STATUS" ); if (percent_done == 100) { all_dirty &= ~(1 << fds[i].id); } } } } if (verbose && was_dirty) printf("%s: Parity Re-write complete\n", dev_name); } static void check_status(fdidpair *fds, int nfd, int meter) { int i; int recon_percent_done = 0; int parity_percent_done = 0; int copyback_percent_done = 0; int do_recon = 0; int do_parity = 0; int do_copyback = 0; u_long check = 0; i = nfd; while (i--) { if (meter) { printf("raid%d Status:\n", fds[i].id); } do_ioctl(fds[i].fd, RAIDFRAME_CHECK_RECON_STATUS, &recon_percent_done, "RAIDFRAME_CHECK_RECON_STATUS"); printf("Reconstruction is %d%% complete.\n", recon_percent_done); if (recon_percent_done < 100) { do_recon |= 1 << fds[i].id; } do_ioctl(fds[i].fd, RAIDFRAME_CHECK_PARITYREWRITE_STATUS, &parity_percent_done, "RAIDFRAME_CHECK_PARITYREWRITE_STATUS"); printf("Parity Re-write is %d%% complete.\n", parity_percent_done); if (parity_percent_done < 100) { do_parity |= 1 << fds[i].id; } do_ioctl(fds[i].fd, RAIDFRAME_CHECK_COPYBACK_STATUS, ©back_percent_done, "RAIDFRAME_CHECK_COPYBACK_STATUS"); printf("Copyback is %d%% complete.\n", copyback_percent_done); if (copyback_percent_done < 100) { do_copyback |= 1 << fds[i].id; } } if (meter && verbose) { /* These 3 should be mutually exclusive at this point */ if (do_recon) { printf("Reconstruction status:\n"); check = RAIDFRAME_CHECK_RECON_STATUS_EXT; } else if (do_parity) { printf("Parity Re-write status:\n"); check = RAIDFRAME_CHECK_PARITYREWRITE_STATUS_EXT; } else if (do_copyback) { printf("Copyback status:\n"); check = RAIDFRAME_CHECK_COPYBACK_STATUS_EXT; } do_meter(fds, nfd, check); } } const char *tbits = "|/-\\"; static void do_meter(fdidpair *fds, int nfd, u_long option) { int percent_done; int start_value; RF_ProgressInfo_t *progressInfo; void *pInfoPtr; struct timeval start_time; struct timeval current_time; double elapsed; int elapsed_sec; int elapsed_usec; int progress_total, progress_completed; int simple_eta, last_eta; double rate; int amount; int tbit_value; char buffer[1024]; char bar_buffer[1024]; char eta_buffer[1024]; int not_done; int i; not_done = 0; percent_done = 0; tbit_value = 0; start_value = 0; last_eta = 0; progress_total = progress_completed = 0; progressInfo = calloc(nfd, sizeof(RF_ProgressInfo_t)); if (!progressInfo) err(1, "calloc"); if (gettimeofday(&start_time, NULL)) err(1, "gettimeofday"); current_time = start_time; i = nfd; while (i--) { pInfoPtr = &progressInfo[i]; do_ioctl(fds[i].fd, option, &pInfoPtr, ""); start_value += progressInfo[i].completed; progress_total += progressInfo[i].total; if (progressInfo[i].completed < progressInfo[i].total) { not_done |= 1 << i; } } while (not_done) { progress_completed = 0; percent_done = 0; amount = 0; i = nfd; while (i--) { pInfoPtr = &progressInfo[i]; do_ioctl(fds[i].fd, option, &pInfoPtr, ""); progress_completed += progressInfo[i].completed; if (progressInfo[i].completed >= progressInfo[i].total) { not_done &= ~(1 << i); } } percent_done = (progress_completed * 100) / progress_total; amount = progress_completed - start_value; get_bar(bar_buffer, percent_done, 40); elapsed_sec = current_time.tv_sec - start_time.tv_sec; elapsed_usec = current_time.tv_usec - start_time.tv_usec; if (elapsed_usec < 0) { elapsed_usec += 1000000; elapsed_sec--; } elapsed = (double) elapsed_sec + (double) elapsed_usec / 1000000.0; if (amount <= 0) { /* we don't do negatives (yet?) */ amount = 0; } if (elapsed == 0) rate = 0.0; else rate = amount / elapsed; if (rate > 0.0) { simple_eta = (int) (((double)progress_total - (double) progress_completed) / rate); } else { simple_eta = -1; } if (simple_eta <= 0) { simple_eta = last_eta; } else { last_eta = simple_eta; } get_time_string(eta_buffer, simple_eta); snprintf(buffer, 1024, "\r\t%3d%% |%s| ETA: %s %c", percent_done, bar_buffer, eta_buffer, tbits[tbit_value]); write(fileno(stdout), buffer, strlen(buffer)); fflush(stdout); if (++tbit_value > 3) tbit_value = 0; if (not_done) sleep(2); if (gettimeofday(¤t_time, NULL)) err(1, "gettimeofday"); } printf("\n"); } /* 40 '*''s per line, then 40 ' ''s line. */ /* If you've got a screen wider than 160 characters, "tough" */ #define STAR_MIDPOINT 4*40 const char stars[] = "****************************************" "****************************************" "****************************************" "****************************************" " " " " " " " "; static void get_bar(char *string, double percent, int max_strlen) { int offset; if (max_strlen > STAR_MIDPOINT) { max_strlen = STAR_MIDPOINT; } offset = STAR_MIDPOINT - (int)((percent * max_strlen) / 100); if (offset < 0) offset = 0; snprintf(string, max_strlen, "%s", &stars[offset]); } static void get_time_string(char *string, int simple_time) { int minutes, seconds, hours; char hours_buffer[5]; char minutes_buffer[5]; char seconds_buffer[5]; if (simple_time >= 0) { minutes = (int) simple_time / 60; seconds = ((int)simple_time - 60 * minutes); hours = minutes / 60; minutes = minutes - 60 * hours; if (hours > 0) { snprintf(hours_buffer, sizeof(hours_buffer), "%02d:", hours); } else { snprintf(hours_buffer, sizeof(hours_buffer), " "); } snprintf(minutes_buffer, sizeof(minutes_buffer), "%02d:", minutes); snprintf(seconds_buffer, sizeof(seconds_buffer), "%02d", seconds); snprintf(string, 1024, "%s%s%s", hours_buffer, minutes_buffer, seconds_buffer); } else { snprintf(string, 1024, " --:--"); } } static int open_device(fdidpair **devfd, char *name) { int nfd, i; struct stat st; char **devname; if (strcmp(name, "all") == 0) { do_all = 1; nfd = get_all_devices(&devname, "raid"); } else { nfd = 1; if ((devname = malloc(sizeof(void*))) == NULL) err(1, "malloc"); if ((devname[0] = malloc(PATH_MAX)) == NULL) err(1, "malloc"); if ((name[0] == '/') || (name[0] == '.')) { /* they've (apparently) given a full path... */ strlcpy(devname[0], name, PATH_MAX); } else { if (name[0] == '\0') errx(1, "invalid device"); if (isdigit(name[strlen(name) - 1])) { snprintf(devname[0], PATH_MAX, "%s%s%c", _PATH_DEV, name, 'a' + getrawpartition()); } else { snprintf(devname[0], PATH_MAX, "%s%s", _PATH_DEV, name); } } } if ((*devfd = malloc(nfd * sizeof(fdidpair))) == NULL) errx(1, "malloc() error"); i = nfd; while (i--) { if (((*devfd)[i].fd = open(devname[i], O_RDWR, 0640)) < 0) errx(1, "unable to open device file: %s", devname[i]); if (fstat((*devfd)[i].fd, &st) != 0) errx(errno, "fstat failure on: %s", devname[i]); if (!S_ISBLK(st.st_mode) && !S_ISCHR(st.st_mode)) errx(EINVAL, "invalid device: %s", devname[i]); (*devfd)[i].id = RF_DEV2RAIDID(st.st_rdev); free(devname[i]); } if (devname != NULL) free(devname); return (nfd); } static int get_all_devices(char ***diskarray, const char *genericname) { int i, numdevs, mib[2]; size_t len; char *disks, *fp, *p; numdevs = 0; mib[0] = CTL_HW; mib[1] = HW_DISKNAMES; sysctl(mib, 2, NULL, &len, NULL, 0); if ((disks = malloc(len + 1)) == NULL) errx(1, "malloc() error"); sysctl(mib, 2, disks, &len, NULL, 0); disks[len] = '\0'; fp = disks; while ((fp = strstr((const char*)fp, genericname)) != NULL) { numdevs++; fp++; } *diskarray = (char**) malloc(numdevs * sizeof(void*)); i = 0; fp = disks; while ((p = strsep(&fp, ",")) != NULL) { if (strstr((const char*)p, genericname) != NULL) { if (asprintf(&(*diskarray)[i++], "/dev/%s%c", p, 'a' + getrawpartition()) == -1) err(1, "asprintf"); } } free(disks); return (numdevs); } static void usage(void) { fprintf(stderr, "usage: raidctl [-v] [-afFgrR component] [-BGipPsSu] [-cC config_file]\n"); fprintf(stderr, " [-A [yes | no | root]] [-I serial_number] dev\n"); exit(1); /* NOTREACHED */ }