/* * CDDL HEADER START * * The contents of this file are subject to the terms of the * Common Development and Distribution License (the "License"). * You may not use this file except in compliance with the License. * * You can obtain a copy of the license at usr/src/OPENSOLARIS.LICENSE * or http://www.opensolaris.org/os/licensing. * See the License for the specific language governing permissions * and limitations under the License. * * When distributing Covered Code, include this CDDL HEADER in each * file and include the License file at usr/src/OPENSOLARIS.LICENSE. * If applicable, add the following below this CDDL HEADER, with the * fields enclosed by brackets "[]" replaced with your own identifying * information: Portions Copyright [yyyy] [name of copyright owner] * * CDDL HEADER END */ /* * Copyright 2010 Sun Microsystems, Inc. All rights reserved. * Use is subject to license terms. */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include static rdc_status_t *rdc_status; static rdc_u_info_t *rdc_info; static int rdc_maxsets; static int rdc_enabled_sets; static unsigned prev_time, delta_time; #ifdef m88k extern unsigned *usec_ptr; #endif static int bright = 0; extern int sdbc_max_devices; extern _sd_stats_t *cs_cur; extern _sd_stats_t *cs_prev; extern _sd_stats_t *cs_persec; extern int *on_off; extern int *dual_on_off; extern int *updates_prev; extern double *rate_prev; extern int *samples; int range_num = 0; int screen = 0; int dual_screen = 0; static int rnum = 0; typedef struct { int lb, ub; } range_t; range_t ranges[100]; extern int range_first(); extern int range_next(int); extern int range_last(); static int dual_initted = 0; static char status[11][30]; unsigned dc_delta_time, dc_prev_time; #ifdef m88k #define USEC_INIT() usec_ptr = (unsigned int *)timer_init() #define USEC_READ() (*usec_ptr) #else /* !m88k */ #define USEC_INIT() USEC_START() #include static struct timeval Usec_time; static int Usec_started = 0; void total_display(void); void disp_stats(void); void do_calc(void); void init_dual(void); void calc_time(void); void calc_completion(int, int, int); void disp_total_stats(void); void display_cache(void); #define DISPLEN 16 static void USEC_START(void) { if (!Usec_started) { (void) gettimeofday(&Usec_time, NULL); Usec_started = 1; } } static unsigned int USEC_READ() { struct timeval tv; if (!Usec_started) USEC_START(); (void) gettimeofday(&tv, NULL); return (unsigned)((tv.tv_sec - Usec_time.tv_sec) * 1000000 + (tv.tv_usec - Usec_time.tv_usec)); } #endif /* m88k */ #define SAMPLE_RATE 5 /* * refresh curses window to file */ void wrefresh_file(WINDOW *win, int fd) { char buf[8192], c, *cp = buf, *line, *blank, *empty; int x, y; empty = NULL; /* cull trailing empty lines */ for (y = 0; y < win->_maxy; y++) { line = cp; blank = NULL; /* cull trailing blanks */ for (x = 0; x < win->_maxx; x++) { c = (win->_y[y][x]) & A_CHARTEXT; if (c != ' ') blank = NULL; else if (blank == NULL) blank = cp; *cp++ = c; } if (blank) cp = blank; if (line != cp) empty = NULL; else if (empty == NULL) empty = cp + 1; *cp++ = '\n'; } if (empty) cp = empty; *cp++ = '\f'; *cp++ = '\n'; *cp = '\0'; /* cp is eliminated by short _maxy and _maxx, it won't overflow */ /* LINTED, cp - buf won't be > INT32_MAX */ (void) write(fd, buf, cp - buf); } int higher(int high) { int i; for (i = high + 1; i <= sdbc_max_devices; i++) { if (cs_cur->st_shared[i].sh_alloc) return (i); } return (0); } int is_dirty() { int i, dirty = 0; spcs_s_info_t ustats; if (SDBC_IOCTL(SDBC_STATS, cs_cur, 0, 0, 0, 0, &ustats) == SPCS_S_ERROR) { perror("Could not get stats from kernel"); if (ustats) { spcs_s_report(ustats, stderr); spcs_s_ufree(&ustats); } return (-errno); } if (cs_cur->st_cachesize == 0) return (0); for (i = 0; i < cs_cur->st_count; i++) { if (cs_cur->st_shared[i].sh_alloc) dirty += cs_cur->st_shared[i].sh_numdirty; } return (dirty != 0); } void display_cache(void) { static int first = 1; spcs_s_info_t ustats; if (SDBC_IOCTL(SDBC_STATS, cs_cur, 0, 0, 0, 0, &ustats) == SPCS_S_ERROR) { perror("sd_stats"); if (ustats) { spcs_s_report(ustats, stderr); spcs_s_ufree(&ustats); } } do_calc(); if (first) { prev_time = USEC_READ(); first = 0; } else disp_stats(); } void total_display(void) { spcs_s_info_t ustats; if (SDBC_IOCTL(SDBC_STATS, cs_cur, 0, 0, 0, 0, &ustats) == SPCS_S_ERROR) { if (ustats) { spcs_s_report(ustats, stderr); spcs_s_ufree(&ustats); } perror("sd_stats"); } disp_total_stats(); } int range_first() { rnum = 0; return (ranges[rnum].lb); } int range_next(int cd) { if (ranges[rnum].ub > cd) return (cd + 1); if (range_num > rnum) rnum++; else return (cd + 1); return (ranges[rnum].lb); } int range_last() { return (ranges[range_num].ub); } void set_dual_on_off() { int i, j, ct = 0, newct = 0; for (i = range_first(); i < rdc_enabled_sets && i <= range_last(); i = range_next(i)) { if (rdc_info[i].flags & RDC_ENABLED) { ct++; if (ct > dual_screen * ((LINES - 9) / 2)) break; } } if (((i >= rdc_enabled_sets) || (i > range_last())) && (dual_screen > 0)) { dual_screen--; set_dual_on_off(); } else { bzero(dual_on_off, sdbc_max_devices * sizeof (int)); for (j = i; j < rdc_enabled_sets && j <= range_last(); j = range_next(j)) { if (rdc_info[j].flags & RDC_ENABLED) { newct++; if (newct <= (LINES - 9) / 2) { dual_on_off[j] = 1; } else break; } } } } void set_on_off() { int i, j, ct = 0, newct = 0; for (i = range_first(); i <= range_last(); i = range_next(i)) { if (cs_cur->st_shared[i].sh_alloc) { ct++; if (ct > screen*((LINES - 9) / 2)) break; } } if ((i > range_last()) && (screen > 0)) { screen--; set_on_off(); } else { bzero(on_off, sdbc_max_devices * sizeof (int)); for (j = i; j <= range_last(); j = range_next(j)) { if (cs_cur->st_shared[j].sh_alloc) { newct++; if (newct <= (LINES - 9) / 2) on_off[j] = 1; else break; } } } } void disp_stats(void) { double read_s, write_s, access_s, readp, writep; double rmiss_s, wmiss_s; double elapsed = delta_time / 1000000.0; double kbps = elapsed * 1024.0; /* for Kbytes per second */ int rtotal, wtotal, i, j; double throughput = 0.0, rthroughput = 0.0; double creads = 0.0, cwrites = 0.0; char status_bit, down = 0; int len; char fn[19]; if (delta_time != 0) { read_s = cs_persec->st_rdhits / elapsed; write_s = cs_persec->st_wrhits / elapsed; rmiss_s = cs_persec->st_rdmiss / elapsed; wmiss_s = cs_persec->st_wrmiss / elapsed; access_s = (cs_persec->st_wrhits + cs_persec->st_rdhits + cs_persec->st_rdmiss + cs_persec->st_wrmiss) / elapsed; } else read_s = write_s = access_s = 0.0; rtotal = cs_persec->st_rdhits + cs_persec->st_rdmiss; wtotal = cs_persec->st_wrhits + cs_persec->st_wrmiss; if (rtotal != 0) readp = cs_persec->st_rdhits / (double)rtotal; else readp = 0.0; if (wtotal != 0) { writep = cs_persec->st_wrhits / (double)wtotal; } else writep = 0.0; set_on_off(); if (cs_cur->st_cachesize == 0) (void) mvprintw(0, 20, "****** Storage Cache Disabled ******"); else (void) mvprintw(0, 20, "****** Storage Cache ******"); (void) mvprintw(2, 26, "disk_io cache write_blocks"); (void) attron(A_UNDERLINE); (void) mvprintw(3, 1, " cd cached_partition reads writes reads writes" " dirty todisk failed"); (void) attroff(A_UNDERLINE); for (i = 0, j = 0; j < cs_cur->st_count; i++) { if (i >= sdbc_max_devices) break; if (cs_cur->st_shared[i].sh_alloc) { cs_persec->st_shared[i].sh_disk_write /= kbps; cs_persec->st_shared[i].sh_disk_read /= kbps; cs_persec->st_shared[i].sh_cache_write /= kbps; cs_persec->st_shared[i].sh_cache_read /= kbps; rthroughput += cs_persec->st_shared[i].sh_disk_read; throughput += cs_persec->st_shared[i].sh_disk_write; creads += cs_persec->st_shared[i].sh_cache_read; cwrites += cs_persec->st_shared[i].sh_cache_write; if (!down) down = cs_cur->st_shared[i].sh_failed; if (cs_cur->st_shared[i].sh_failed && bright) { status_bit = '*'; } else status_bit = ' '; if ((len = strlen(cs_cur->st_shared[i].sh_filename)) > 15) { (void) strcpy(fn, "..."); (void) strcat(fn, cs_cur->st_shared[i].sh_filename + len - 12); } else (void) strcpy(fn, cs_cur->st_shared[i].sh_filename); if (on_off[i]) { (void) mvprintw(4 + j, 1, "%3d %-15s%c %6d %6d %6d %6d %6d %6d %6d", cs_cur->st_shared[i].sh_cd, fn, status_bit, cs_persec->st_shared[i].sh_disk_read, cs_persec->st_shared[i].sh_disk_write, cs_persec->st_shared[i].sh_cache_read, cs_persec->st_shared[i].sh_cache_write, cs_cur->st_shared[i].sh_numdirty, cs_cur->st_shared[i].sh_numio, cs_cur->st_shared[i].sh_numfail); j++; } } } bright = !bright; (void) mvprintw(4 + j, 22, "------ ------ ------ ------"); (void) mvprintw(5 + j, 6, " Kbytes/s total:%6d %6d %6d %6d", (int)rthroughput, (int)throughput, (int)creads, (int)cwrites); (void) mvprintw(7 + j, 1, "accesses/s"); (void) mvprintw(7 + j, 15, "read/s write/s %%readh %%writeh"); (void) attron(A_UNDERLINE); (void) mvprintw(8 + j, 1, " "); (void) mvprintw(8 + j, 13, " "); (void) mvprintw(8 + j, 13, "(misses/s) (misses/s)"); (void) attroff(A_UNDERLINE); (void) mvprintw(9 + j, 0, "%10.2lf %7.2f %7.2f %6.1f %6.1f", access_s, read_s, write_s, readp * 100.0, writep * 100.0); (void) mvprintw(10 + j, 0, " (%7.2f ) (%7.2f )\n\n", rmiss_s, wmiss_s); if (down) (void) mvprintw(20 + j, 1, "* -- disk off-line"); } void do_calc(void) { int i, j; delta_time = USEC_READ() - prev_time; cs_persec->st_rdhits = cs_cur->st_rdhits - cs_prev->st_rdhits; cs_persec->st_rdmiss = cs_cur->st_rdmiss - cs_prev->st_rdmiss; cs_persec->st_wrhits = cs_cur->st_wrhits - cs_prev->st_wrhits; cs_persec->st_wrmiss = cs_cur->st_wrmiss - cs_prev->st_wrmiss; for (i = 0, j = 0; j < cs_cur->st_count; i++) { if (i >= sdbc_max_devices) break; if (cs_cur->st_shared[i].sh_alloc) { cs_persec->st_shared[i].sh_disk_write = FBA_SIZE(cs_cur->st_shared[i].sh_disk_write - cs_prev->st_shared[i].sh_disk_write); cs_persec->st_shared[i].sh_disk_read = FBA_SIZE(cs_cur->st_shared[i].sh_disk_read - cs_prev->st_shared[i].sh_disk_read); cs_persec->st_shared[i].sh_cache_read = FBA_SIZE(cs_cur->st_shared[i].sh_cache_read - cs_prev->st_shared[i].sh_cache_read); cs_persec->st_shared[i].sh_cache_write = FBA_SIZE(cs_cur->st_shared[i].sh_cache_write - cs_prev->st_shared[i].sh_cache_write); j++; } } (void) memcpy((char *) cs_prev, (char *) cs_cur, sizeof (_sd_stats_t) + (sdbc_max_devices - 1) * sizeof (_sd_shared_t)); prev_time = USEC_READ(); } void init_dual(void) { #define IND_ENABLED 0 #define IND_RESYNC 1 #define IND_RESYNC_REVERSE 2 #define IND_VOLUME_DOWN 3 #define IND_MIRROR_DOWN 4 #define IND_LOGGING 5 #define IND_RESYNC_NEEDED 6 #define IND_REV_RESYNC_NEEDED 7 #define IND_BITMAP_FAILED 8 #define IND_FULL_SYNC_NEEDED 9 #define IND_FCAL_FAILED 10 (void) strcpy(status[IND_ENABLED], "replicating"); (void) strcpy(status[IND_RESYNC], "sync"); (void) strcpy(status[IND_RESYNC_REVERSE], "rev sync"); (void) strcpy(status[IND_VOLUME_DOWN], "volume down"); (void) strcpy(status[IND_MIRROR_DOWN], "mirror down"); (void) strcpy(status[IND_LOGGING], "logging"); (void) strcpy(status[IND_RESYNC_NEEDED], "need sync"); (void) strcpy(status[IND_REV_RESYNC_NEEDED], "need rev sync"); (void) strcpy(status[IND_BITMAP_FAILED], "bitmap failed"); (void) strcpy(status[IND_FULL_SYNC_NEEDED], "full sync needed"); (void) strcpy(status[IND_FCAL_FAILED], "fcal failed"); dual_initted = 1; } int rdc_get_maxsets(void) { rdc_status_t rdc_status; spcs_s_info_t ustatus; int rc; rdc_status.nset = 0; ustatus = spcs_s_ucreate(); rc = RDC_IOCTL(RDC_STATUS, &rdc_status, 0, 0, 0, 0, ustatus); spcs_s_ufree(&ustatus); if (rc == SPCS_S_ERROR) return (-1); return (rdc_status.maxsets); } int dual_stats() { int ind, i, k, len; int stars, size, segs; int rdcindex; float pct; char fn[19]; char *phost; char *shost; char *pfile; char *sfile; char lhost[16]; spcs_s_info_t ustats = NULL; (void) gethostname(lhost, 16); if (rdc_maxsets <= 0) rdc_maxsets = rdc_get_maxsets(); if (rdc_maxsets < 0) goto no_stats; if (!rdc_status) { rdc_status = malloc(sizeof (rdc_status_t) + (sizeof (rdc_set_t) * (rdc_maxsets - 1))); if (!rdc_status) { no_stats: (void) mvprintw(0, 20, "****** Dual Copy Not Available ******"); return (-1); } rdc_info = rdc_status->rdc_set; } rdc_status->nset = rdc_maxsets; ustats = spcs_s_ucreate(); size = RDC_IOCTL(RDC_STATUS, rdc_status, 0, 0, 0, 0, ustats); if (size == SPCS_S_ERROR) { if (ustats) { spcs_s_report(ustats, stderr); spcs_s_ufree(&ustats); } (void) mvprintw(0, 20, "****** Dual Copy Not Available ******"); return (-1); } spcs_s_ufree(&ustats); rdc_enabled_sets = rdc_status->nset; if (!dual_initted) init_dual(); set_dual_on_off(); calc_time(); (void) mvprintw(0, 20, "****** Dual Copy Statistics ******"); (void) attron(A_UNDERLINE); (void) mvprintw(2, 0, "primary"); (void) mvprintw(2, 22, "link status"); (void) mvprintw(2, 36, "secondary"); (void) mvprintw(2, 54, "dual copy status"); (void) attroff(A_UNDERLINE); for (rdcindex = 0, k = 0; rdcindex < rdc_enabled_sets; rdcindex++) { if (!(rdc_info[rdcindex].flags & RDC_ENABLED) || !dual_on_off[rdcindex]) continue; if (rdc_info[rdcindex].sync_flags & RDC_VOL_FAILED) ind = IND_VOLUME_DOWN; else if (rdc_info[rdcindex].flags & RDC_FCAL_FAILED) ind = IND_FCAL_FAILED; else if (rdc_info[rdcindex].bmap_flags & RDC_BMP_FAILED) ind = IND_BITMAP_FAILED; else if (rdc_info[rdcindex].flags & RDC_LOGGING) { if (rdc_info[rdcindex].sync_flags & RDC_SYNC_NEEDED) ind = IND_RESYNC_NEEDED; else if (rdc_info[rdcindex].sync_flags & RDC_RSYNC_NEEDED) ind = IND_REV_RESYNC_NEEDED; else ind = IND_LOGGING; } else if ((rdc_info[rdcindex].flags & RDC_SLAVE) && (rdc_info[rdcindex].flags & RDC_SYNCING)) { if (rdc_info[rdcindex].flags & RDC_PRIMARY) ind = IND_RESYNC_REVERSE; else ind = IND_RESYNC; } else if (rdc_info[rdcindex].flags & RDC_SYNCING) { if (rdc_info[rdcindex].flags & RDC_PRIMARY) ind = IND_RESYNC; else ind = IND_RESYNC_REVERSE; } else ind = IND_ENABLED; phost = rdc_info[rdcindex].primary.intf; pfile = rdc_info[rdcindex].primary.file; shost = rdc_info[rdcindex].secondary.intf; sfile = rdc_info[rdcindex].secondary.file; if ((len = strlen(phost)) > 8) { (void) mvprintw(4 + k, 0, ".%+7s:", phost + len - 7); } else (void) mvprintw(4 + k, 0, "%+8s:", phost); if ((len = strlen(pfile)) > DISPLEN) { (void) mvprintw(4 + k, 9, "...%-13s", pfile + len - DISPLEN + 3); } else (void) mvprintw(4 + k, 9, "%-16s", pfile); (void) attron(A_BOLD); (void) mvprintw(4 + k, 26, "*"); (void) mvprintw(4 + k, 28, "*"); (void) mvprintw(4 + k, 56, "%-8s", status[ind]); (void) attroff(A_BOLD); if (ind == IND_RESYNC_REVERSE) { if (bright && !(rdc_info[rdcindex].flags & RDC_LOGGING)) (void) mvprintw(4 + k, 27, "<"); if (rdc_info[rdcindex].flags & RDC_PRIMARY && !(rdc_info[rdcindex].flags & RDC_LOGGING)) calc_completion(rdcindex, rdc_info[rdcindex].bits_set, 4 + k); } else if (ind == IND_RESYNC) { if (bright && !(rdc_info[rdcindex].flags & RDC_LOGGING)) (void) mvprintw(4 + k, 27, ">"); if (rdc_info[rdcindex].flags & RDC_PRIMARY && !(rdc_info[rdcindex].flags & RDC_LOGGING)) calc_completion(rdcindex, rdc_info[rdcindex].bits_set, 4 + k); } else if (ind == IND_LOGGING) (void) mvprintw(4 + k, 27, "."); else if (ind == IND_ENABLED) (void) mvprintw(4 + k, 27, "="); if ((len = strlen(shost)) > 8) { (void) mvprintw(4 + k, 30, ".%+7s:", shost + len - 7); } else (void) mvprintw(4 + k, 30, "%+8s:", shost); if ((len = strlen(sfile)) > DISPLEN) { (void) mvprintw(4 + k, 39, "...%-13s", sfile + len - DISPLEN + 3); } else (void) mvprintw(4 + k, 39, "%-16s", sfile); k++; } k += 5; (void) attron(A_UNDERLINE); for (i = 0; i < 80; i++) (void) mvprintw(k, i, " "); k += 2; (void) mvprintw(k, 0, "partition"); (void) mvprintw(k, 16, "recovery needed"); (void) mvprintw(k, 48, "recovery completed"); (void) attroff(A_UNDERLINE); k += 2; for (rdcindex = 0; rdcindex < rdc_enabled_sets; rdcindex++) { if (!(rdc_info[rdcindex].flags & RDC_ENABLED) || !dual_on_off[rdcindex]) continue; if (!(rdc_info[rdcindex].flags & RDC_PRIMARY)) { continue; } if (!(rdc_info[rdcindex].flags & RDC_SLAVE) && !(rdc_info[rdcindex].flags & RDC_SYNCING) && !(rdc_info[rdcindex].flags & RDC_LOGGING)) { continue; } len = strlen(rdc_info[rdcindex].secondary.file); if (len > 15) { (void) strcpy(fn, "..."); (void) strcat(fn, rdc_info[rdcindex].secondary.file + len - 12); } else (void) strcpy(fn, rdc_info[rdcindex].secondary.file); (void) mvprintw(k, 0, "%-15s", fn); segs = FBA_TO_LOG_LEN(rdc_info[rdcindex].volume_size); pct = segs ? ((float)rdc_info[rdcindex].bits_set / (float)segs) : 0.0; stars = (int)(pct * 20.0); while (stars > 0) { (void) mvprintw(k, 16 + stars, "*"); stars--; } (void) attron(A_BOLD); (void) mvprintw(k, 16, "["); (void) mvprintw(k, 37, "]"); (void) attroff(A_BOLD); (void) mvprintw(k, 39, "%6.2f%%", pct * 100.0); if (rdc_info[rdcindex].flags & RDC_SYNCING) pct = ((float)rdc_info[rdcindex].sync_pos / (float)rdc_info[rdcindex].volume_size); else pct = 0.0; stars = (int)(pct * 20.0); while (stars > 0) { (void) mvprintw(k, 48 + stars, "*"); stars--; } (void) attron(A_BOLD); (void) mvprintw(k, 48, "["); (void) mvprintw(k, 69, "]"); (void) attroff(A_BOLD); (void) mvprintw(k, 70, "%6.2f%%", pct * 100.0); k++; } bright = !bright; return (0); } /* * Calculate a time interval in milliseconds using the * micosecond counter */ void calc_time(void) { unsigned int cur; cur = USEC_READ(); dc_delta_time = cur > dc_prev_time ? cur - dc_prev_time : cur + 0xFFFFFFFF - dc_prev_time; dc_delta_time /= 1000; dc_prev_time = cur; } /* * Calculate estimated time of completion of resync */ void calc_completion(int cd, int updates_left, int l) { int delta_done; double rate; long time_left; long hours; long minutes; static int initted = 0; if (!initted) { updates_prev[cd] = updates_left; initted = 1; return; } /* * Caclulate updates since last check */ delta_done = updates_prev[cd] - updates_left; updates_prev[cd] = updates_left; /* * If no updates, don't bother estimating completion time */ if (delta_done <= 0) { samples[cd] = 0; return; } rate = delta_done * 1000.0 / dc_delta_time; /* * Calculate rate of updates as a weighted average * of previous and current rate */ if (rate_prev[cd] && samples[cd] > SAMPLE_RATE) rate = (rate_prev[cd] * 4.0 + rate) / 5.0; rate_prev[cd] = rate; samples[cd]++; /* * Get enough samples before making estimate */ if (samples[cd]++ < SAMPLE_RATE) return; time_left = (long)(updates_left/rate); /* time left in seconds */ if (time_left < 0) return; hours = time_left / (60 * 60); time_left -= hours * (60 * 60); minutes = time_left / 60; time_left -= minutes * 60; (void) mvprintw(l, 67, "time %02d:%02d:%02d \n", hours, minutes, time_left); } void disp_total_stats(void) { unsigned int read_s, write_s, access_s; double readp, writep; unsigned int rmiss_s, wmiss_s; double kbps = 2.0; int rtotal, wtotal, i, j; unsigned int throughput = 0, rthroughput = 0, creads = 0, cwrites = 0; char status_bit, down = 0; int len; char fn[19]; read_s = cs_cur->st_rdhits; write_s = cs_cur->st_wrhits; rmiss_s = cs_cur->st_rdmiss; wmiss_s = cs_cur->st_wrmiss; access_s = (read_s + write_s + rmiss_s + wmiss_s); rtotal = cs_cur->st_rdhits + cs_cur->st_rdmiss; wtotal = cs_cur->st_wrhits + cs_cur->st_wrmiss; if (rtotal != 0) readp = cs_cur->st_rdhits / (double)rtotal; else readp = 0.0; if (wtotal != 0) writep = cs_cur->st_wrhits / (double)wtotal; else writep = 0.0; set_on_off(); (void) mvprintw(0, 14, "****** Storage Cache (Cumulative) ******"); (void) mvprintw(2, 30, "disk_io cache"); (void) attron(A_UNDERLINE); (void) mvprintw(3, 1, " cd cached_partition reads writes reads writes"); (void) attroff(A_UNDERLINE); for (i = 0, j = 0; j < cs_cur->st_count; i++) { if (i >= sdbc_max_devices) break; if (cs_cur->st_shared[i].sh_alloc) { cs_cur->st_shared[i].sh_disk_write /= kbps; cs_cur->st_shared[i].sh_disk_read /= kbps; cs_cur->st_shared[i].sh_cache_write /= kbps; cs_cur->st_shared[i].sh_cache_read /= kbps; rthroughput += cs_cur->st_shared[i].sh_disk_read; throughput += cs_cur->st_shared[i].sh_disk_write; creads += cs_cur->st_shared[i].sh_cache_read; cwrites += cs_cur->st_shared[i].sh_cache_write; if (!down) down = cs_cur->st_shared[i].sh_failed; if (cs_cur->st_shared[i].sh_failed && bright) status_bit = '*'; else status_bit = ' '; if ((len = strlen(cs_cur->st_shared[i].sh_filename)) > 15) { (void) strcpy(fn, "..."); (void) strcat(fn, cs_cur->st_shared[i].sh_filename + len - 12); } else (void) strcpy(fn, cs_cur->st_shared[i].sh_filename); if (on_off[i]) { (void) mvprintw(4 + j, 1, "%3d %-15s%c %10u %10u %10u %10u", cs_cur->st_shared[i].sh_cd, fn, status_bit, cs_cur->st_shared[i].sh_disk_read, cs_cur->st_shared[i].sh_disk_write, cs_cur->st_shared[i].sh_cache_read, cs_cur->st_shared[i].sh_cache_write); j++; } } } bright = !bright; (void) mvprintw(4 + j, 22, "---------- ---------- ---------- ----------"); (void) mvprintw(5 + j, 8, " Kbytes total:%10u %10u %10u %10u", (int)rthroughput, (int)throughput, (int)creads, (int)cwrites); (void) mvprintw(7 + j, 1, " accesses"); (void) mvprintw(7 + j, 18, "read write %%readh %%writeh"); (void) attron(A_UNDERLINE); (void) mvprintw(8 + j, 1, " "); (void) mvprintw(8 + j, 13, " "); (void) mvprintw(8 + j, 11, "( misses) ( misses)"); (void) attroff(A_UNDERLINE); (void) mvprintw(9 + j, 0, "%10u %10u %10u %6.1f %6.1f", access_s, read_s, write_s, readp*100.0, writep*100.0); (void) mvprintw(10 + j, 0, " (%10u) (%10u)\n\n", rmiss_s, wmiss_s); (void) attron(A_UNDERLINE); (void) mvprintw(13 + j, 1, "cachesize blocksize"); (void) attroff(A_UNDERLINE); (void) mvprintw(14 + j, 1, "%8dK %10d", cs_cur->st_cachesize / 1024, cs_cur->st_blksize); (void) attron(A_UNDERLINE); (void) mvprintw(16 + j, 1, "Write blocks available:"); (void) attroff(A_UNDERLINE); (void) mvprintw(17 + j, 1, "Net 0: %6d", cs_cur->st_wlru_inq); (void) attron(A_UNDERLINE); (void) mvprintw(19 + j, 1, "LRU stats: Blocks Requeued Optimized"); (void) attroff(A_UNDERLINE); (void) mvprintw(20 + j, 7, "%12d %12u %12u", cs_cur->st_lru_blocks, cs_cur->st_lru_req, cs_cur->st_lru_noreq); if (down) (void) mvprintw(25 + j, 1, "* -- disk off-line"); }